WO2008100162A1

WO2008100162A1 - Compressed air dryer system

Info

Publication number: WO2008100162A1
Application number: PCT/PH2008/000001
Authority: WO
Inventors: Restituto A. Cayubit
Original assignee: Cayubit Restituto A
Priority date: 2007-02-14
Filing date: 2008-02-04
Publication date: 2008-08-21
Also published as: AP2009004972A0

Abstract

The invention is a system, with eleven embodiments, which utilizes the compressed cold, hot to very hot dry air, or environmental moist air, as the medium for drying. The system uses the condenser, air warmer, air compressor, series of air tanks, pressurized drying chamber, interconnected by pipes or tubes, with installed pressure and temperature gauges, control and checks valves/gadgets, and, uses all forms of fuel. The system has a flexible design and the capacity ranges from one kilogram to 20 tons or more with wide ranges of pressures and temperatures. It is an all purpose all season system which revolutionizes the processes, procedures and methods of drying; makes easier and shortens the period by 15% to 20% with no wastage and lower drying cost compared to existing commercial dryers in the market.

Description

Compressed Air Drver System

Description

The technical field to which the invention relates

The technical field in which this invention relates is drying, dehydration or the removing of the moisture or water content in the products subject for drying. And can also be classified technically in air conditioning wherein the air temperature is manipulated or controlled from the very low to very high temperatures.

Backsround for understanding the invention:

Drying products is one of the problems of human activity. Thousands of tons of agricultural products - like rice, corn, peanuts, etc. - are spoiled every year due to drying problems especially during the rainy season or where and when the solar energy is not available due to climatic or weather conditions that does not permit solar drying. Even in times where sun's heat is abundant, problems of wastage - especially rice - are common experience drying in the solar dryers due to the nature of the dryers.

In like manner, there is also a big problem during rainy days in drying of marine or aquatic products like fish, squids, oysters, etc., which is the livelihood of many fishermen along coastal areas and is very much affected.

The drying during rainy months is also another problem for forest products and some food items for preservation.

The prices of these commodities during rainy months become high due to the scarcity of these products mainly due to the problems of drying.

One of the common problems of drying experienced by each and every one of us is the clothes drying during rainy days when solar energy is not available.

At present, most of the dryers used, especially in villages, are the solar dyers or the concrete drying pavement where the products are dried with available solar energy. There are also mechanical dryers invented, made, in use and also sold in the market like the flatbed rice dryer, rotary dryer for fish drying, vertical kerosene rice dryer, etc.

The following are more or less the common features of the existing dryers:

More or less specific dryers - Some of the present drying equipments nowadays and sold in the market are more or less specific, i.e. rice dyer, kiln dryer, copra dryer, etc. The rice dryer cannot be used for drying of marine products like fish and the copra dryer cannot be used in rice and fish drying. The dryer cannot allow the multiple drying of products simultaneously.

Using moist environmental air - The dryers use the environmental moist air. The moist air or the air with high humidity has a low carrying capacity of the moisture from the product subject for drying considering that the environmental moist air is carrying already the moisture in it from the environment. As a result, the drying takes longer period because the air in drying has only so much moisture to take in from the product subject for drying and bring it to the atmosphere.

Natural air movement on the product - The dryers observe a natural air movement on the product subject for drying. The movement of air on the product depends only on the environmental and natural pressures and forces, however, there are dryers that the air movement that are augmented by blowers.

Source of heat or fuel more or less specific - The dryers use more or less specific source of heat or fuel. The solar dyers cannot other forms heat from other sources like gases, wood or electricity. In like manner there are mechanical dryers that use specific fuel: when using electricity it cannot use wood or gas as their fuel; or when using gas it cannot use electricity, etc.

Temperature more or less constant or cannot be adjusted to a wide range of degree temperatures - Most dryers in use cannot adjust their temperature for wide range of fluctuation. This is also one of the reasons why the dryer become specific when the temperature cannot be adjusted. For example, the rice dryer with temperature range covers only up to 41 degrees centigrade (41°C) cannot accommodate products that need higher temperature for drying.

Natural pressure - The pressure involved in the drying of products depends only on the atmospheric pressure. The air movement on the product subject for drying is slow; and as a result, the loss or release of the moisture by the product subject for drying is also slow, and correspondingly the drying process is slow.

Seasonal dryers - Solar dryers are by nature seasonal. They cannot be used during rainy days. There are also mechanical dryers that are seasonal especially those that depend on seasonal fuel like the availability of dried wood only during sunny days or the availability of the rice hull only during harvest time.

Design more or less fixed - Most dryers are with fixed designs like the solar dryers that are by nature can be constructed only at the outside to be expose to the heat of the sun. There are also mechanical dryers that are fixed in designs like flatbeds for rice and copra that their designs cannot be in other shape like rectangular, circle or oblong, on in another position, like standing or vertical and with this it cannot fit to the available area where the dryer is supposed to be constructed.

Heaters or furnace are within the dryers or inside the building, smoke cannot be avoided - The heaters of most of the mechanical dryers or flatbeds for rice and copra are directly below or alongside the dryer, or within the buildings where the dryers are, and the smoke cannot be avoided and also the black substances of carbon compounds that discolor the walling of the buildings.

Disclosure and advantageous effect of the invention:

The invention is adaptable to the conditions of the poor and poverty-stricken depressed areas in the rural setting of the countryside and to the excessively extravagant and highly urbanized cities with lavishly sophisticated and luxurious lifestyles.

The invention - Compressed Air Dyer System - revolutionizes the processes, procedures or methods of drying. It is a system for drying and a novel way using compressor to produce high to very high air pressure and fast air movement in the product subject for drying in the drying chamber (10). It also uses the condenser (1) to lessen if not remove all the moisture content present in the atmospheric or environmental air to have the full carrying capacity of moisture or vapor produced in the drying process. .

The design of the system is flexible and the capacity ranges from 1 kilogram to 20 tons or more. It has a wide range of temperature and pressure fluctuations during the drying operations depending upon the volume, the kind product and the moisture content of the product subject for drying or whether the drying process uses the condenser or not.

The drying process of this invention is easier and the drying time is lower by 15 to

20 percent or more with no wastage compared with some of the existing dryers.

Features of the invention

The invention is a system- The invention is a system itself which uses the condenser, warmer, air compressor, series of air tanks, burner/furnace/heater and drying chamber interconnected with each other by metal tubes or pipes, and pressure and temperature gauges, control and check valves, and other parts or components.

AU purpose all season dryer - The invention is all seasons and all purpose dryer. It can be used any day of the year and anytime of the day and will dry whatever product that needs drying using pressurized cold to warm to hot or very hot dry or moist compressed air.

Uses dry air or air with low moisture content for drying - The whole drying system of the invention uses dry air or air with low air moisture content, however, there are embodiments that uses the environmental moist air. The dry air or air with low moisture content has better carrying capacity if not with full carrying capacity of water vapor or moisture produced in the heating process. In other words, the dry air carries more moisture or water vapor than the moist atmospheric or environmental air, thereby helps in the reduction of the length of the drying period. In this invention the term dry air is the air with its low or negligible (or may be absence of the) air moisture after it passed through the condenser of the system. In other words, if the atmospheric or environmental air passed through the condenser, it is presumed to be dry air

Uses varied sources of heat energy - The invention uses all forms of fuel, as it may or can use electricity, petroleum products (liquefied petroleum gas or ordinary liquid petroleum gas or similar fossil fuels), alcohol, or any farm or waste product that may burn or produce fire like wood, charcoal, rice hull, as fuel.

Fast air movement - There is a fast to very fast air movement on the product subject for drying (inside the pressurized drying chamber) induced by the pressure from the compressed air generated by the air compressor and from the heat coming from the burner/furnace/heater (7). The gas expands and produce higher pressure when heated as revealed by the Gas Laws. The fast air movement helps a lot in the drying process because more volume of air is discharge at a given time and as a result it carries more moisture at a given period than the natural air movement, thereby also helping in the reduction of the drying period.

Temperature within the system fluctuates and adjustable - The temperature within the system fluctuates and adjustable to a wide range of degrees centigrade. The temperature inside the condenser is approximately from -2 degrees centigrade and may reach up to as high of 300 degrees centigrade (300⁰C) in the heater tank, heated by the burner/furnace or heater (7), or even higher temperatures.

The temperature is adjusted in the process according to the desired or needed temperature suited for the job or activity. For example, for the rice drying the needed maximum temperature should not go beyond 41 degrees centigrade (4O⁰C) to attain excellent milled rice, for air drying of products may not exceed 36 degrees centigrade

(36°C), for copra up 100 degrees centigrade (100⁰C) or more, as practiced by the farmers with their copra dying beds, for earth products (rocks, sand, clay, etc.) can accommodate higher temperatures, etc.

High pressure within the system - The system has a high pressure that may range from 50 psi to 100 psi, especially in storage tanks. This high pressure within the system produces fast air movement. It also helps distribute the heat inside the drying chamber evenly for uniform drying. Because of this high pressure, no need to turn upside down the product inside the drying chamber subject for drying, especially rice, corn and peanuts.

Flexible design - The system has a flexible design and can suit to the needs of the customer depending upon his location, size of the area, or budget. The shape of the drying chamber can be cubical, rectangle, circular, etc. And the position of the drying chamber can be horizontal, or directly on the ground or even vertical, standing or slanting.

The other components of the system can be placed in a line-up position, group them, circular or depending upon the wishes of the owner based on the location and area. With these features, the positioning of the condenser, air warmer, the electric motor (or machine), air compressor and the series of tanks and the drying chamber is flexible.

Heater can be outside the dryer system or the building at the decision of the owner - Because of its flexibility in design, the furnace or the burner together with the Heater Tank can be placed outside the building and construct a especial place for them like the furnace or the chimney. In this manner one can avoid the smoke inside the building and the dark coloration of the black or gray substances from the carbon compounds generated by the burning of the fuels.

Physical Appearance and Components of the Compressed Air Dryer System, Its Embodiments and their Processes

System

The Main System (Figure 1) and its Embodiments (Figures 2 - 12) - The main system has eleven embodiments, or sub-systems, or parts of the system, which can function separately and independently from the main system with their corresponding processes.

The main system and its embodiments are grouped into two: a.) with condenser and air warmer, which use dry air in the process - figures 1,3,5,7, 9 and 11; b.) no condenser and air warmer, which use moist environmental air in the process — figures 2, 4, 6, 8, 10 and 12. Expandable Systems - The whole or main system (figure 1) or its embodiments (figures 2 - 12) are expandable from their basic system components as reflected in the discussion of the description and in the drawings.

Adding any additional component or part to the basic components or parts of the main system (Figure 1) and any of its embodiments (Figures 2 to 12), in any manner, is expanding any of the systems (Figures 1 to 12). Expanding the system may or can be done when the capacity of any or all of the component/s or parts/s in the system are small - i.e. low capacity electric motor, compressor or the available tanks is/are small, etc. and an additional component/s or part/s is/are needed.

In expanding the system, the major and secondary components added to the system may or can be of the same or of different sizes, capacities, volumes, features, positions, shapes, forms, lengths, heights, widths, dimensions or measurements, depending upon the site, locality, location, area, setting, arrangement, size, capacity or volume of the dryer or the system itself.

System expansion may or can be done also for purpose of performing different functions at a time, or drying different kinds of products simultaneously in two or more different drying chambers connected in a series or individually to the metal tube or pipe connecting to the hot and cold air combination tank, or each directly connected to the hot and cold air combination tank, or to any tank directly connected to the drying chamber in any system embodiment with the corresponding drying process by the system.

The Basic Components or Parts of the Main System and Its Embodiments

The basic components of the main system (Figure 1)

The basic components or parts of the main system as reflected in Figure 1, and its embodiments as also reflected in Figures 2-12, are the: a.) major and the b.) secondary components or parts. The a.) major components or parts in which numbers are encircled in the drawings, comprise the: condenser (1), air warmer (2), electric motor (3), air compressor (4), cold air storage tank (5), heater tank (6), burner/furnace/heater (7), hot air storage tank (8), hot and cold air combination tank (9), and the drying chamber (10); and while the b.) secondary components or parts include the: air inlets (11), condenser water outlet (12), metal tubes or pipes (13, 14, 17, 22, 27, 32, 37, 40, 50), thermometers (15, 20, 25, 30, 35, 45), pump belt (16), check valves (18, 23, 28, 33, 38, 43), control valves (19, 24, 29, 34, 39, 42, 51), pressure gauges (21, 26, 31, 36, 46), air exhaust (41), drying chamber air outlet or exhaust (44), pressure controller (47), air flow controller (4_.8), final air exhaust (49), and the air warmer exhaust (52). (More discussion of these major and secondary parts in the succeeding pages)

The features, positions, shapes, forms, lengths, heights, widths, dimensions or measurements, of the major and secondary components or parts, as stated above, of the main system (figure 1) and its embodiments (figures 2 - 12) may or will vary, change, differ; or modified, adjusted altered or revised, depending upon the site, locality, location, area, setting, arrangement, size, capacity or volume of the dryer or the system itself.

And also, in the design of the main system (figure 1) and the embodiments (figures

2-12) the setting, arrangements, placements, assembly, grouping, positioning of the major and secondary components or parts, as stated above, as the case may be or whatever may apply, of the main system (figure 1) and its embodiments (figures 2 - 12) may or will vary, change, differ; or modified, adjusted altered or revised, depending upon the site, locality, location, area, layout, plan, design, outline, size, capacity or volume of the dryer or the system itself.

The major and secondary components or parts as stated above are presumed to be working, in good or running condition, operational, serviceable, operable and capable of performing tasks.

Basically, the materials for the major and secondary components or parts used in this invention are made of metals or metallic materials, except for other components or parts that by nature are made of non-metallic materials, like the pump belt, or other components or parts which by their make-up or nature made of non-metals. However, there are metallic components or parts in the system that can be substituted by non-metallic materials, provided they are heat resistant to a certain extent or where they are located there is no heat involved, like the metal tube or pipe (13, 14, 17, 22, 27, 32, 37, 40, 50), wherein the metal tube or pipe connecting the condenser (1) and the air warmer (2), connecting the compressor and the air warmer, etc., wherein no heat is involved in the process. Also the drying^" chamber (10) can use non-metallic materials.

The use of non-metallic components or parts to substitute the metallic components or parts can lower the cost for the assembly or construction of the system, like the drying chamber using concrete materials or wood, however, this is only feasible for systems that involved lower temperature, like the system assembled or constructed solely for drying grains - rice, corn, sorghum, etc. - wherein the temperature observed is 41 degrees centigrade (41⁰C), or even lower, especially when the drying is for seed purposes, but the system is not durable compared to when using the metallic component or parts.

However, in the discussion of the systems, below, the tube or pipe is always said "metal tube or pipe" to emphasize that metallic tube or pipe or the use of the metallic components or parts, when metallic components or parts should be used or if necessary, is highly recommended for a durable and lasting constructed or assembled dyer system.

In other words, the invention itself, although basically uses and highly recommends for the use of the metallic components or parts, where the usage of such metallic components or parts may or can apply, it can also use the non-metallic components or parts where the application is suitable or advantageous in some other ways, only that it may not that durable and long lasting compared with using the metallic components or parts where it is applicable.

Descriptions or discussions of the major and secondary components or parts

Major components or parts

Condenser (1) - The condenser (1) condenses the moisture of the atmospheric or environmental air that enters the condenser (1), due to the negative pressure, en route to the air compressor (4) through the air warmer (2) making the air dry or less in moisture content.

The condenser can be an electric condenser which uses electricity in the operation. The condenser (1) can also be a manual condenser wherein it uses the cracked ice in the cooling process for the condensing of the moisture in air that passes through the condenser (1). The manual condenser can be made up of sealed empty containers housed in a housing box or containers where the air can pass through and serve the purpose of moisture condensation, in the air drying or in the lowering of moisture content in air. And a water outlet is installed in the condenser (1) for the condensed moisture that turns into water to be able to exit from the condenser (1).

As the air travels through the sealed empty metal containers inside the condenser (1), the moisture in air are turned into water droplets, separate and left behind by the air inside the empty containers, as it flows towards the air warmer (2) making the air less in moisture if not totally dry.

The condenser (1) used in the presentation and also tested in the prototype of this invention is a manual condenser (1).

Air Warmer (2) - The air warmer (2) makes the air from the condenser warmer before it reaches the air compressor (4).

The air warmer (2) uses the warm to hot air from the drying chamber (10) to warm the air that passes through it.

The air warmer (2) used in the presentation, is more or less identical to the condenser (1) in its make up or design, however fewer sealed empty metal containers inside the housing box. The cold air from the condenser (1) passes through the sealed empty containers, wherein the empty sealed containers forbid the direct contact of the cold air from the condenser and the warm to hot air from the drying chamber (10).

The purpose of the air warmer (2) is to make the cold air from the condenser (1) warm up to approximately 25 to 32 degrees centigrade (25°C - 32°C) before the air enters into the air compressor (4). The cold air that may enter into the air compressor (4) from the condenser (1) if not warmed in the air warmer (2) may affect the function of the air compressor (4) if the design of the air compressor (4) cannot allow for long exposure to cold air.

The most important is the utilization of heat energy from the air that escapes from the drying chamber in the drying process. The heating of the dry cold air from the condenser (1) to be used for drying starts here. It will also lessen the need for the fuel because the air is already heated to a higher degree temperature from the cold condenser (1). In other words it is already utilizing the heat energy from the drying chamber (10) for the purpose of drying.

The use of the air warmer (2) can be optional. In case that the system opted not to use the air warmer (2), the condenser is directly connected to the air compressor (4) by the metal tube or pipe (14).

Electric Motor (3) - The electric motor (3) is the usual or typical electric motor sold in the market. The electric motor (3) (or its substitute) powers the air compressor (4).

In areas where there is no electricity, a machine from 3 -horse power or higher may be used depending upon the capacity or the horse power of the air compressor (4). In areas near the sea or where wind energy is available or abundant, the wind vane or any similar device that can be powered by the wind energy can also be used instead of the electric motor.

Air Compressor (4) - The air compressor (4) is the usual or typical air compressor sold in the market and there are several kinds of air compressor sold in the market nowadays that can be used in the dryer system.

Cold Air Storage Tank (5) — The cold air storage tank (5) is the first tank where the dry cold air is stored. The cold air may be stored or just pass the cold air storage tank (5) during operation. Durable air tank is more advantageous to be used for cold air storage tank (5) to resist high pressure of up to 100 psi or even more. The higher the pressure the greater is volume of air stored in the tank.

Heater Tank (6) - The heater tank (6) is where the cold air is heated from approximately 50 degrees centigrade (50°C)to as high as 300 degrees centigrade (300⁰C) or more. The heater tank (6) is more or less heavy duty or thick tank to resist the heat and the air pressure.

The heater tank (6) is heated directly by the burner/furnace/heater, or it can be indirectly heated. The heater tank (6) is directly heated when it directly receives the heat from the burner/furnace/heater (7) and it is indirectly heated when the heater tank is placed in a basin, kettle or pot with water and the heater tank (6) receives the heat from the boiling water in the basin, kettle or pot for purposes of controlling the heat delivered to the heater tank (6) in the heating procedures.

Burner/Furnace/Heater (7) - The burner/furnace/heater (7) is the hearth or the fireplace of the system and it is where the heater tank (6) is heated to produce the hot to very hot air needed in the process.

For this invention, there are different kinds of connection between the burner/furnace/heater (7) and the heater tank (6): direct, indirect and loose connection. And in the discussion in the system, process and claims, the term "connected" in the line that says: "The burner/furnace/heater (7) ... is connected to the heater tank (6)" encompasses for the system and the process. For the system, provided that there is a relation of connection between the burner/furnace/heater (7) and the heater tank (6) in whatever manner, whether it is directly, indirectly or loosely connected, in the delivery and reaching out of the heat energy from the burner/furnace/heater to the heater tank (6) during the operation; and conversely, the heater tank (6) receives the heat energy from the burner/furnace/heater (7) during the operation, the two are connected. For the process, provided that the burner/furnace/heater (7) heats the heater tank (6) in whatever manner, in the process, the two are connected.

In other words, the term "connected," therefore, refers to the heating or the delivery of the heat energy by the burner/furnace/heater (7) to the heater tank (6); or, the heater tank (5) to receive the heat energy from the burner/furnace/heater (7) in the heating procedures. Provided that the heater tank (6) is heated from or by the heat coming from the burner/furnace/heater (7) in whatever manner, the burner/furnace/heater (7) and the heater tank (6) are connected. The burner/furnace/heater (7) is directly connected to the heater tank (6) when it is directly fastened, bolted, belted or tied (by any heat resistant material in whatever manner of tying) to the heater tank (5); and in tying the burner/furnace/heater (7) to the heater tank (6) can be somehow hanging or detached or directly tied.

The burner/furnace heater is indirectly connected to the heater tank (6) when the heating process uses a basin, kettle or pot with water and the heater tank (6) receives heat from the hot or boiling water in which basin, kettle or pot with the hot or boiling water is heated from the heat coming from the burner/furnace/heater (7). Indirectly connected burner/furnace/heater (7) to the heater tank (6) may or can be done in the main system and all the embodiments, however optional for the main system (figure 1) and in embodiments 1-3 (figures 2-4) considering that they have the hot and cold air combination tank (9), but highly recommended in embodiments 4-11 (figures 5-12).

The burner/furnace heater (7) is loosely connected to the heater tank (6) when the burner/furnace/heater (7) is like a tripod and the heater tank (6) is placed above for heating just like when a kettle is placed in a tripod in a typical home cooking or in a cooking gas range with flame where the kettle is placed for cooking. The burner/furnace/heater is also loosely connected to the heater tank (6) when the heater tank (6) is somehow detached and with a certain distance hanging over the burner/furnace/heater but receiving the needed heat energy for the heating process from the burner/furnace/heater (7). Further, even if there is considerable physical distance between the burner/furnace/heater (7) and the heater tank, like hanging the heater tank (6) above the burner/furnace heater (7), provided the burner/furnace/heater (7) can still heat the heater tank (6) from its heat energy, or the heater tank (6) can still receive the heat energy from the burner/furnace/heater, the burner/furnace/heater (7) and the heater tank are connected.

The burner/furnace/heater (7), depending upon the design, may or can use any kind of fuel: electricity, petroleum products (liquefied petroleum gas, kerosene or diesel or similar fossil fuels), alcohol, and local fuel like wood, charcoal, rice hull, paper products or any similar materials provided it will burn and produce fire. This burner/furnace/heater (7) can be a gas range, or an ordinary gas burner using liquefied petroleum gas or an ordinary gas stove using the kerosene, or similar stove using diesel as the fuel.

It [burner/furnace/heater (7)] can also be a specially designed burner using alcohol as its fuel.

The burner/furnace/heater (7) can also be a hearth or fireplace as in ordinary dirty kitchen using fuel of wood, charcoal, rice hull or any dry farm product or waste that may burn and produce fire.

The burner/furnace/heater (7) can be electric stove with its flat design, or like a bowl that may fit to the shape of the tank to serve the purpose in heating, using electricity, or electrical power or energy as the fuel.

It can also be an especially designed burner/furnace/heater (7) in an expanded system, wherein it can use all forms of fuel. This multi-fuel or all-in-one fuel burner/furnace/heater (7) may or can be divided into sections or parts or compartments wherein each section, part or compartment may or can use petroleum products, alcohol, local materials or electricity. This kind of burner/furnace/heater (7) is designed to answer the seasonality or availability or when the supply of the fuels is erratic or not stable in a particular area.

The burner/furnace/heater (7) can also be outside of the building together with the heater tank (6) and design a place especially for them, like a hearth or a fireplace, to avoid the smoke and the black substances generated by the carbon compounds due to the burning of fuels, inside the drying area. The cold air for heating from the cold air storage tank (5) can be infused to the heater tank (6) through the installed metal tube or pipe connecting the cold air storage tank (6) and the heater tank (6) while hot air then from the heater tank (6) is piped-in and stored in the hot air storage tank (8) through the installed metal tube or pipe connecting the heater tank (6) and the hot air storage tank (8).

Hot Air Storage Tank (8) - The hot air storage tank (8) is where the warm to hot to very hot air from the heater tank (6) is stored. In the process, the warm to hot to very hot air from the heater tank (6) may be stored in the hot air storage tank (8) or just pass during operation.

A durable if not heavy duty air tank for the hot air storage tank (8) is advantageous as it will resist higher pressure and heat generated in the process.

Hot and Cold Air Combination Tank (9) - The hot and cold air combination tank (9) is where the cold and hot dry air converge and mixed together to attain the desired temperature for drying. This is also the tank that controls and regulates the air temperature that is infused or introduced to the drying chamber (10) for drying.

Drying Chamber (10) — The drying chamber (10) is the drying place or area of the system. The capacity of the drying chamber (10) can be one kilogram or up to 20 tons or more and the size can be like that of a box or the size of a building, and with flexible design.

Depending upon the design of the system, drying chamber (10) and other components or parts of the system, may be housed in one component area, and can be said as the drying chamber (10) housing the other component parts of the system, and an example of this is the employment or the use of the systems in figures 5-12 wherein the components or parts may, can be or are housed at the foot or at the bottom of the standing position, like a cabinet, where it can also be said as the drying chamber (10) only, for clothes drying.

The drying chamber (10) is pressurized and has its outlet where the pressure controller is installed. The "ball" in the pressure controller moves upward when the pressure inside the drying chamber (10) is capable of pushing it up and let the hot air inside the drying chamber (10) escape.

The pressure controller determines or controls the pressure inside the drying chamber (10). The heavier the "ball" placed at the pressure controller to cover the hole where the air passes or exits, the higher the pressure inside the drying chamber (10).

With the pressure exerted inside the drying chamber (10), pushes the warm to hot dry air to penetrate into the inner portions of the volume of the product subject for drying inside the drying chamber and distributes uniformly the warm to hot dry air that dries or removes the moisture in the product. As in the case of rice, corn and other grains being dried, no need to turn them upside down as in drying in the open with the solar or concrete pavement dryer to uniformly dry the whole volume of the grains.

The secondary components or parts

1.) Air Inlets (11) - are two small metal tubes or pipes installed at the air entrance of the condenser (1).

2.) Condenser water outlet (12) - a metal tube or pipe installed at the bottom of the condenser (1) for the water to be able to escape from the condenser (1).

3.) Metal tubes or pipes (13, 14, 17, 22, 27, 32, 37, 40, 50) - are the typical or the usual metal tubes or pipes sold in the market.

4.) Pump belt (16) - a typical or usual pump belt sold in the market.

5.) Thermometers (15, 20, 25, 30, 35, 45) - the thermometers used in the system are the usual or the typical thermometers and the heat resistant thermometers that can serve its purpose up to 300 degrees centigrade (300⁰C) or more. (The thermometer (45) installed at the drying chamber air outlet or exhaust (44) may or can be installed directly at the drying chamber (10).)

6.) Check valves (18, 23, 28, 33, 38, 43) - are one way check valves to prevent the backward movement of air.

7.) Control valves (19, 24, 29, 34, 39, 42, 51) - are gadgets that control and regulate the flow of the air in the system.

8.) Pressure gauges (21, 26, 31, 36, 46) - are the typical or usual automatic and heat resistant pressure gauges sold in the market. The pressure gauges monitor, control, and maintain the pressure inside the air tanks to a desired level and let the air escape when the air pressure goes beyond the set limit. (The pressure gauge (46) installed at the drying chamber air outlet or exhaust (44) may or can be installed directly at the drying chamber (10).)

9.) Air exhaust (41) — air flow controller and regulator and an air exit installed at the metal tube or pipe (40).

10.) Drying chamber air outlet or exhaust (44) - a metal tube or pipe installed at the drying chamber serving as the outlet of the pressurized air inside the drying chamber (10). There are also other secondary components or parts that are stalled on this drying chamber air outlet or exhaust (44).

11.) Pressure controller (47) - installed at the drying chamber air outlet or exhaust (44) is the gadget that controls and regulates the pressure inside the drying chamber to a certain desired level.

12.) Air flow controller (48) - controls the final flow of the air to the environment or to the air warmer and eventually to the environment.

13.) Final air exhaust (49) - the final flow of air to the constant environment that does not passes through the air warmer (2).

14.) Air warmer exhaust (52) - the final flow of air to the constant environment that passes through the air warmer (2).

The installation of the secondary components or parts in the system may be positioned or placed in varying areas in the system where they are supposed to be installed, or attached in any part of the major component, where they are supposed to be installed, convenient and provided it will serve the purpose. For example, the attachment of the metal tube or pipe to the air tank/s may be at the bottom, the center or at the top, the control valve may be at the center, near center or far center of the metal tube or pipe, the installation of the pressure gauge/s may be at the top center, at the side of the top circle, etc. Drawings of the Main System and its embodiments

Brief description of the drawings

Figure 1. The whole system with its main and basic components

Figure 2. The embodiment 1 (or part 1) of the whole system and its component without the condenser (1) and the air warmer (2) and the system uses environmental moist air with the environmental air temperature for its process

Figure 3. The embodiment 2 (or part 2). The embodiment of the whole system and its component without the hot air storage tank (8) and this embodiment is using the dry air in the process.

Figure 4. The embodiment 3 (or part 3). The embodiment of the whole system and its component without the condenser (1), air warmer (2) and the hot air storage tank (8) and system uses environmental moist air with the environmental air temperature for its process

Figure 5. The embodiment 4 (or part 4) of the whole system with only the condenser (1), air warmer (2), electric motor (3), air compressor (4), cold air storage tank (5), heater tank (6), burner/furnace/heater (7), the hot air storage tank (8) and the drying chamber (10) as main component or parts and uses the dry air in the process.

Figure 6. The embodiment 5 (or part 5) of the whole system with only electric motor (3), air compressor (4), cold air storage tank (5), heater tank (6), burner/furnace/heater (7), the hot air storage tank (8) and the drying chamber (10) as main component or parts and system uses environmental moist air with the environmental air temperature for its process.

Figure 7. The embodiment 6 (or part 6) of the whole system with only the condenser (1), air warmer (2), electric motor (3), air compressor (4), cold air storage tank (5), heater tank (6), burner/furnace/heater (7) and the drying chamber (10) as main component or parts and uses the dry air in the process. Figure 8. The embodiment 7 (or part 7) of the whole system with only the air compressor (4), electric motor (3), cold air storage tank (5), the heater tank (6), bumer/furnace/heater (7) and the drying chamber (10) as the main parts and the system uses environmental moist air with the environmental air temperature in the process.

Figure 9. The embodiment 8 (or part 8) of the whole system with only the condenser (1), air warmer (2), electric motor (3), air compressor (4), heater tank (6), burner/furnace/heater (7), the hot air storage tank (8) and the drying chamber (10) as main parts and uses the dry air in the process.

Figure 10. The embodiment 9 (or part 9) of the whole system with only the electric motor (3), air compressor (4), the heater tank (6) burner/furnace/heater (T), hot air storage tank (8) and the drying chamber (10) as the main parts and the system uses environmental moist air with the environmental air temperature in the process.

Figure 11. The embodiment 10 (or part 10) of the whole system with only the condenser (1), air warmer (2), electric motor (3), air compressor (4), the heater tank (6), the burner/furnace/heater (7) and the drying chamber (10) as main component or parts and uses the dry air in the process.

Figure 12. The embodiment 11 (or part 11) of the whole system with only the electric motor (3), air compressor (4), heater tank (6), burner/furnace/heater (7) and the drying chamber (10) as the main component or parts and the system uses environmental moist air with the environmental air temperature in the process.

The drawings are the basic representations of the components or parts of the main system (Figure 1) and its embodiments (Figures 2-12) and they do not reflect or represent the components or parts included or made integral of the expanded systems. Any component or part added to any of the figures or systems, as reflected in the drawings, is expanding the system. a.) The main system and its embodiments with condenser and air warmer (figures 1, 3, 5, 7, 9 and 11)

Main System (Figure 1) - The main system (Figure 1) is an interconnection of the (major components or parts): a condenser (1), an air warmer (2) which is connected to the condenser (1) by the metal tube or pipe (13), an air compressor (4) which is connected to the air warmer (2) by the metal tube or pipe (14). The electric motor (3), which provides the power in its operation, is connected to the air compressor (4) by the pump belt (16). The cold air storage tank (5) is connected to the air compressor (4) by the metal tube or pipe (17). The heater tank (6) is connected to the cold air storage tank (5) by the metal tube or pipe (22). The buraer/furnace/heater (7) which provides the heat to the system is connected to the heater tank (6). The hot air storage tank (8) is connected to the heater tank (6) by the metal tube or pipe (27). The hot and cold air combination tank (9) is connected to the hot air storage tank (8) by the metal tube or pipe (32). The drying chamber (10) is connected to the hot and cold air combination tank (9) by the metal tube or pipe (40). The drying chamber (10) is also connected to the air warmer (2) by the drying chamber air outlet or exhaust (44) and the metal tube or pipe (50). The cold air storage tank (5) is also connected to the hot and cold air combination tank (9) by the metal tube or pipe (37).

In the system are installed the other secondary parts. Two short metal tubes or pipes are installed at the front of the condenser which serve as the air inlets (11) and a condenser water outlet (12) is installed at the bottom of the condenser. A thermometer (15) is installed on the metal tube or pipe (14) that connects the air warmer (2) and the air compressor (4). Also another thermometers (20, 25, 30, 35, 45), are installed on the cold air storage tank (5), the heater tank (6), the hot air storage tank (8), the hot and cold air combination tank (9), and on the drying chamber air outlet or exhaust (44).

Pressure gauges (21, 26, 31, 36, 46) are installed in the cold air storage tank (5), the heater tank (6), the hot air storage tank (8), the hot and cold air combination tank (9), and on the drying chamber air outlet or exhaust (44).

Check valves (18, 23, 28, 33, 38, 43) are installed on the metal tubes or pipes (17, 22, 27, 32, 37, 40,) that interconnect the cold air storage tank (5) to the air compressor (4); the heater tank (6) to cold air storage tank (5); the hot air storage tank (8) to the heater tank (6); the hot and cold air combination tank (9) to the hot air storage tank (8); the drying chamber (10) to the hot and cold air combination tank (9); and the hot and cold air combination tank (9) to the cold air storage tank (5).

Control valves (19, 24, 29, 34, 39, 42, 51) are installed on the metal tubes or pipes

(17, 22, 27, 32, 37, 40) that interconnect the cold air storage tank (5) to the air compressor (4); the heater tank (6) to the cold air storage tank (5); the hot air storage tank (8) to the heater tank (6); the hot and cold air combination tank (9) to the hot air storage (8); the drying chamber (10) to the hot and cold air combination tank (9); the hot and cold air combination tank (9) to the cold air storage tank (5); and on the metal tube or pipe (50) that connects the drying chamber air outlet or exhaust (44) to the air warmer (2).

Air exhaust (41) is installed in the metal tube or pipe (40) that connects the hot and cold air combination tank (9) and the drying chamber (10).

Pressure controller (47) is installed on the drying chamber air outlet or exhaust (44) which controls the pressure inside the drying chamber (10).

Air flow controller (48) is installed on the drying chamber air outlet or exhaust (44) that controls the flow of the air going out from the drying chamber (10) through the drying chamber air outlet or exhaust (44).

Final air exhaust (49) is at the tip of the drying chamber air outlet or exhaust (44) which serves as the final exit of the air from the drying chamber (10) through the drying chamber air outlet or exhaust (44).

Air warmer exhaust (52) is installed at the air warmer (2) which serves as the final air exit of the air that passes through the air warmer (2).

Expanded — This main system (Figure 1) may or can be expanded with the additional of one or more condensers (1) (making it IA, IB, 1C, etc.), or air warmers (2) (making it 2A₅ 2B, 2C, etc.) to increase the volume of environmental air intake to the system. Another or an additional of one or more air compressors (4) (making it 4A, 4B, 4C, etc.) with the corresponding electric motor (3) (or its substitute, making it 3A, 3B, 3C, etc.) may be added to the system to upgrade the volume and pressure of the air injected to the system.

The system may or can also be expanded with an additional of one or more cold air storage tanks (5) interconnected to each other in a series to have more air tanks for bigger volume dry air storage, making it tank 5 A, 5B 5C, etc.

One or more heater tanks (6) (making it 6A, 6B, 6C, etc.) may or can be added and expand the system in one burner/furnace/heater (7) or corresponding burner/furnace/heater (7) (making it 7A, 7B, 7C, etc.) to each heater tank (6) to have bigger volume of hot air.

One or more hot air storage tanks (8) may or can be added and expand the system, interconnected to each other in a series (making it 8A, 8B, 8C, etc.) to have bigger space for bigger volume of hot air storage.

One or more hot and cold air combination tanks (9) connected to each (making it 9A, 9B, 9C) may or can be added and expand the system for a higher system capacity or when the product subject for drying cannot afford the sudden fluctuation of a wide range of temperature.

One or more drying chambers (10) (making it 10A₅ 1OB, 1OC, etc.) may or can be added and expand the system and used simultaneously drying different kinds products and/or performing different functions.

With the additional of any or all of the above major components or parts to the system expansion of Figure 1, correspondingly needed secondary components or parts may, can or will be added to the system.

Embodiments

Embodiment 2 (Figure 3) - This system embodiment (Figure 3) is an interconnection of the (major components or parts): condenser (1), an air warmer (2) which is connected to the condenser (1) by the metal tube or pipe (13), an air compressor (4) which is connected to the air warmer (2) by the metal tube or pipe (14). The electric motor (3), which provides the power in its operation, is connected to the air compressor (4) by the pump belt (16). The cold air storage tank (5) is connected to the air compressor (4) by the metal tube or pipe (17). The heater tank (6) is connected to the cold air storage tank (5) by the metal tube or pipe (22). The burner/furnace/heater (7) which provides the heat to the system is connected to the heater tank (6). The hot and cold air combination tank (9) is connected to the heater tank (6) by the metal tube or pipe (27). The drying chamber (10) is connected to the hot and cold air combination tank (9) by the metal tube or pipe (40). The drying chamber (10) is also connected to the air warmer (2) by the drying chamber air outlet or exhaust (44) and the metal tube or pipe (50). The cold air storage tank (5) is also connected to the hot and cold air combination tank (9) by the metal tube or pipe (37).

In the system are installed the other secondary parts. Two short metal tubes or pipes are installed at the front of the condenser which serve as the air inlets (11) and a condenser water outlet (12) is installed at the bottom of the condenser. A thermometer (15) is installed on the metal tube or pipe (14) that connects the air warmer (2) and the air compressor (4). Also another thermometers (20, 25, 35, 45), are installed on the cold air storage tank (5), the heater tank (6), cold air combination tank (9), and on the drying chamber air outlet or exhaust (44).

Pressure gauges (21, 26, 36, 46) are installed in the cold air storage tank (5), the heater tank (6), the hot and cold air combination tank (9), and on the drying chamber air outlet or exhaust (44).

Check valves (18, 23, 28, 38, 43) are installed on the metal tubes or pipes (17, 22, 27, 37, 40,) that interconnect the cold air storage tank (5) to the air compressor (4); the heater tank (6) to the cold air storage tank (5); the hot and cold air combination tank (9) to the heater tank (6); the drying chamber (10) to the hot and cold air combination tank (9) and the hot and cold air combination tank (9) to the cold air storage tank (5).

Control valves (19, 24, 29, 39, 42, 51) are installed on the metal tubes or pipes (17,

22, 27, 37, 40) that interconnect the cold air storage tank (5) to the air compressor (4); the heater tank (6) to the cold air storage tank (5); the hot and cold air combination tank (9) to the heater tank (6); the drying chamber (10) to the hot and cold air combination tank (9); the hot and cold air combination tank (9) to the cold air storage tank (5); and on the metal tube or pipe (50) that connects the drying chamber air outlet or exhaust (44) to the air warmer (2).

Air warmer exhaust (52) is installed at the air warmer (2) which serves as the final air exit of the air that passes through the air warmer {2).

Expanded — Embodiment 2 (Figure 3) is expanded with an additional of one or more condensers (1) to the system (making it IA, IB, 1C, etc.), or an additional of one or more air warmers (2) (making it 2A, 2B, 2C, etc.). Another or an additional of one or more air compressors (4) (making it 4A, 4B, 4C₅) with the corresponding electric motors (3) (or its substitute, making it 3A, 3B, 3C, etc.) may be added to the system to upgrade the volume and pressure of the air injected to the system.

One or more cold air storage tanks (5) may or can be added to the system interconnected to each other in a series to have more air tanks for bigger volume dry air storage (making it tank 5A, 5B 5C, etc.).

One or more heater tanks (6) (making it 6A, 6B, 6C, etc.) may or can be added to the system in one burner/furnace/heater (7) or corresponding bumer/furnace/heater (7) (making it 7A, 7B, 7C, etc.) to each heater tank (6) to have bigger volume of hot air. One or more hot and cold air combination tanks (9) connected to each other in a series (making it 9A, 9B, 9C) for a higher system capacity or when the product subject for drying cannot afford the sudden fluctuation of a wide range of temperature

One or more drying chambers (10) (making it 1OA, 1OB, 1OC, etc.) may or can be added and expand the system and used simultaneously drying different kinds products and/or performing different functions.

With the additional of any or all of the above major components or parts to the system expansion of embodiment 2 (figure 3), correspondingly needed secondary components or parts may, can or will be added to the system.

Embodiment 4 (Figure 5) - The system embodiment (Figure 5) ) is an interconnection of the (major components or parts): condenser (1), an air warmer (2) which is connected to the condenser (1) by the metal tube or pipe (13), an air compressor

(4) which is connected to the air warmer (2) by the metal tube or pipe (14). The electric motor (3), which provides the power in its operation, is connected to the air compressor (4) by the pump belt (16). The cold air storage tank (5) is connected to the air compressor (4) by the metal tube or pipe (17). The heater tank (6) is connected to the cold air storage tank

(5) by the metal tube or pipe (22). The burner/furnace/heater (7) which provides the heat to the system is connected to the heater tank (6). The hot air storage tank (8) is connected to the heater tank (6) by the metal tube or pipe (27). The drying chamber (10) is connected to the hot air storage tank (8) by the metal tube or pipe (40). The drying chamber (10) is also connected to the air warmer (2) by the drying chamber air outlet or exhaust (44) and the metal tube or pipe (50).

In the system are installed the other secondary parts. Two short metal tubes or pipes are installed at the front of the condenser which serve as the air inlets (11) and a condenser water outlet (12) is installed at the bottom of the condenser. A thermometer (15) is installed on the metal tube or pipe (14) that connects the air warmer (2) and the air compressor (4). Also another thermometers (20, 25, 30, 45), are installed on the cold air storage tank (5), the heater tank (6), hot air storage tank (8), and on the drying chamber air outlet or exhaust (44). Pressure gauges (21, 26, 31, 46) are installed in the cold air storage tank (5), the heater tank (6), the hot air storage tank (8), and on the drying chamber air outlet or exhaust (44).

Check valves (18, 23, 28, 43) are installed on the metal tubes or pipes (17, 22, 27,

40,) that interconnect the cold dry air storage tank (5) to the air compressor (4); the heater tank (6) to the cold air storage tank (5); the hot air storage tank (8) to the heater tank (6); the drying chamber (10) to the hot air storage tank (8 ).

Control valves (19, 24, 29, 42, 51) are installed on the metal tubes or pipes (17, 22,

27, 40) that interconnect the cold air storage tank (5) to the air compressor (4); the heater tank (6) to the cold air storage tank (5); the hot air storage tank (8) to the heater tank (6); the drying chamber (10) to the hot air storage tank (8); and on the metal tube or pipe (50) that connects the drying chamber air outlet or exhaust (44) to the air warmer (2).

Air exhaust (41) is installed in the metal tube or pipe (40) that connects the hot air storage (8) and the drying chamber (10).

Air warmer exhaust (52) is installed at the air warmer (2) which serves as the final air exit of the air that passes through the air warmer (2). Expanded - This system Embodiment 4 (Figure 5) may or can be expanded with the additional of one or more condensers (1) to the system (making it IA, IB₃ 1C, etc.), or an additional of one or more air warmers (2) (making it 2A, 2B, 2C, etc.). One or more air compressors (4) (making it 4A, 4B, 4C, etc.) with the corresponding electric motors (3) (or its substitute, making it 3A, 3B, 3C, etc.) may or can be added to the system to upgrade the volume and pressure of the air injected to the system.

One or more heater tanks (6) (making it 6A, 6B, 6C, etc.) may or can be added to the system in one burner/fumace/heater (7) or corresponding burner/furnace/heater (7) (making it 7 A, 7B, 7C, etc.) to each heater tank (6) to have bigger volume of hot air.

One or more hot air storage tanks (8) may or can be added to the system interconnected to each other in a series to have more air tanks for bigger volume for hot dry air storage (making it tank 8A, SB 8C, etc.).

One or more drying chambers (10) (making it 1OA, 1OB, 1OC, etc.) may or can be added to the system and used simultaneously drying different kinds products and/or performing different functions.

With the additional of any or all of the above major components or parts to the system expansion of embodiment 4 (figure 5), correspondingly needed secondary components or parts may, can or will be added to the system.

Embodiment 6 (Figure 7) - The system embodiment (Figure 7) is an interconnection of the (major components or parts): condenser (1), an air warmer (2) which is connected to the condenser (1) by the metal tube or pipe (13), an air compressor (4) which is connected to the air warmer (2) by the metal tube or pipe (14). The electric motor (3), which provides the power in its operation, is connected to the air compressor (4) by the pump belt (16). The cold air storage tank (5) is connected to the air compressor (4) by the metal tube or pipe (17). The heater tank (6) is connected to the cold air storage tank (5) by the metal tube or pipe (22). The burner/furnace/heater (7) which provides the heat to the system is connected to the heater tank (6). The drying chamber (10) is connected to the heater tank (6) by the metal tube or pipe (40). The drying chamber (10) is also connected to the air warmer (2) by the drying chamber air outlet or exhaust (44) and the metal tube or pipe (50).

In the system are installed the other secondary parts. Two short metal tubes or pipes are installed at the front of the condenser which serve as the air inlets (11) and a condenser water outlet (12) is installed at the bottom of the condenser. A thermometer (15) is installed on the metal tube or pipe (14) that connects the air warmer (2) and the air compressor (4). Also another thermometers (20, 25, 45), are installed on the cold air storage tank (5), the heater tank (6), and on the drying chamber air outlet or exhaust (44).

Pressure gauges (21, 26, 46) are installed in the cold air storage tank (5), the heater tank (6), and on the drying chamber air outlet or exhaust (44).

Check valves (18, 23, 43) are installed on the metal tubes or pipes (17, 22, 40,) that interconnect the cold air storage tank (5) to the air compressor (4); the heater tank (6) to the cold air storage tank (5); the drying chamber (10) to the heater tank (8 ).

Control valves (19, 24, 42, 51) are installed on the metal tubes or pipes (17, 22, 40) that interconnect the cold air storage tank (5) to the air compressor (4); the heater tank (6) to the cold air storage tank (5); the drying chamber (10) to the heater tank (6); and on the metal tube or pipe (50) that connects the drying chamber air outlet or exhaust (44) to the air warmer (2).

Air exhaust (41) is installed in the metal tube or pipe (40) that connects the heater tank (6) and the drying chamber (10).

Pressure controller (47) is installed on the drying chamber air outlet or exhaust (44) which controls the pressure inside the drying chamber (10). Air flow controller (48) is installed on the drying chamber air outlet or exhaust (44) that controls the flow of the air going out from the drying chamber (10) through the drying chamber air outlet or exhaust (44).

Expanded- This system embodiment 6 (Figure 7) may or can be expanded with the additional of one or more condensers (1) to the system (making it IA, IB, 1C, etc.), or an additional of one or more air warmers (2) (making it 2A, 2B, 2C, etc.). One or more air compressors (4) (making it 4A, 4B, 4C, etc.) with the corresponding electric motors (3) (or its substitute, making it 3A, 3B, 3C, etc.) may or can be added to the system to upgrade the volume and pressure of the air injected to the system.

One or more heater tanks (6) (making it 6A, 6B, 6C, etc.) may or can be added to the system in one burner/furnace/heater (7) or corresponding burner/furnace/heater (7) (making it 7A, 7B, 7C, etc.) to each heater tank (6) to have bigger volume of hot air.

With the additional of any or all of the above major components or parts to the system expansion of embodiment 6 (figure 7), correspondingly needed secondary components or parts may, can or will be added to the system. Embodiment 8 (Figure 9) - The system embodiment (Figure 9) is an interconnection of the (major components or parts): condenser (1), an air warmer (2) which is connected to the condenser (1) by the metal tube or pipe (13), an air compressor (4) which is connected to the air warmer (2) by the metal tube or pipe (14). The electric motor (3), which provides the power in its operation, is connected to the air compressor (4) by the pump belt (16). The heater tank (6) is connected to the air compressor (4) by the metal tube or pipe (22). The burner/furnace/heater (7) which provides the heat to the system is connected to the heater tank (6). The hot air storage tank (8) is connected to the heater tank (6); the drying chamber (10) is connected to the hot air storage tank (8) by the metal tube or pipe (40). The drying chamber (10) is also connected to the air warmer (2) by the drying chamber air outlet or exhaust (44) and the metal tube or pipe (50).

In the system are installed the other secondary parts. Two short metal tubes or pipes are installed at the front of the condenser which serve as the air inlets (11) and a condenser water outlet (12) is installed at the bottom of the condenser. A thermometer (15) is installed on the metal tube or pipe (14) that connects the air warmer (2) and the air compressor (4). Also another thermometers (25, 30, 45), are installed on the heater tank (6), on the hot air storage tank (8) and on the drying chamber air outlet or exhaust (44).

Pressure gauges (26, 31, 46) are installed on the heater (6), the hot air storage tank

(8), and on the drying chamber air outlet or exhaust (44).

Check valves (23, 28, 43) are installed on the metal tubes or pipes (22, 25, 40,) that interconnect the heater tank (6) to the air compressor (4); the hot air storage tank (8) to the heater tank (6); the drying chamber (10) to the hot air storage tank (8).

Control valves (24, 29, 42, 51) are installed on the metal tubes or pipes (22, 27, 40) that interconnect the heater tank (6) to the air compressor (4); the hot air storage tank (8) to the heater tank (6); the drying chamber (10) to the hot air storage tank (8); and on the metal tube or pipe (50) that connects the drying chamber air outlet or exhaust (44) to the air warmer (2).

Air exhaust (41) is installed in the metal tube or pipe (40) that connects the hot air storage (8) and the drying chamber (10). Pressure controller (47) is installed on the drying chamber air outlet or exhaust (44) which controls the pressure inside the drying chamber (10).

Expanded - This system embodiment 8 (Figure 9) can or may be expanded with the additional of one or more condensers (1) (making it IA, IB, 1C, etc.) or an additional of one or more air warmers (2) (making it 2A, 2B, 2C, etc.) Another or additional air compressors (4) (making it 4A, 4B, 4C, etc.) with the corresponding electric motors (3) (or its substitute, making it 3A, 3B, 3C, etc.) may or can be added to the system to upgrade the volume and pressure of the air injected to the system.

One or more hot air storage tanks (8) may or can be added to the system interconnected to each other in a series (making it 8A, 8B, 8C, etc.) to have bigger space for bigger volume of hot air storage.

One or more drying chambers (10) (making it 1OA, 1OB, 1OC, etc.) may be added to the system and used simultaneously drying different kinds products and/or performing different functions. With the additional of any or all of the above major components or parts to the system expansion of embodiment 8 (figure 9), correspondingly needed secondary components or parts may, can or will be added to the system.

Embodiment 10 (Figure 11) - This system embodiment (Figure 11) ) is an interconnection of the (major components or parts): condenser (1), an air warmer (2) which is connected to the condenser (1) by the metal tube or pipe (13), an air compressor (4) which is connected to the air warmer (2) by the metal tube or pipe (14). The electric motor (3), which provides the power in its operation, is connected to the air compressor (4) by the pump belt (16). The heater tank (6) is connected to the air compressor (4) by the metal tube or pipe (22). The burner/furnace/heater (7) which provides the heat to the system is connected to the heater tank (6). The drying chamber (10) is connected to the heater tank (6) by the metal tube or pipe (40). The drying chamber (10) is also connected to the air warmer (2) by the drying chamber air outlet or exhaust (44) and the metal tube or pipe (50).

In the system are installed the other secondary parts. Two short metal tubes or pipes are installed at the front of the condenser which serve as the air inlets (11) and a condenser water outlet (12) is installed at the bottom of the condenser. A thermometer (15) is installed on the metal tube or pipe (14) that connects the air warmer (2) and the air compressor (4). Also another thermometers (25, 45), are installed on the heater tank (6) and on the drying chamber air outlet or exhaust (44).

Pressure gauges (26, 46) are installed on the heater (6) and on the drying chamber air outlet or exhaust (44).

Check valves (23, 43) are installed on the metal tubes or pipes (22, 40,) that interconnect the heater tank (6) to the air compressor (4) and drying chamber (10) to the heater tank (6).

Control valves (24, 42, 51) are installed on the metal tubes or pipes (22, 40) that interconnect the heater tank (6) to the air compressor (4); the drying chamber (10) to the heater tank (6) and on the metal tube or pipe (50) that connects the drying chamber air outlet or exhaust (44) to the air warmer (2).

Ah- exhaust (41) is installed in the metal tube or pipe (40) that connects the heater tank (6) and the drying chamber (10).

Air flow controller (48) is installed on the drying chamber air outlet or exhaust (44) that controls the flow of the air going out from the drying chamber (10) through the drying chamber ah^* outlet or exhaust (44).

Final air exhaust (49) is at the tip of the drying chamber air outlet or exhaust (44) which serves as the final exit of the ah- from the drying chamber (10) through the drying chamber air outlet or exhaust (44).

Ak warmer exhaust (52) is installed at the ah* warmer (2) which serves as the final ak exit of the air that passes through the ah- warmer (2).

Expanded - This embodiment 10 (Figure 11) can or may be expanded with and additional of one or more condensers (1) to the system (making it IA, IB, 1C, etc.) or an additional of one or more air warmers (2) (making it 2A, 2B, 2C, etc.) Another or additional ak compressor (4) (making it 4A, 4B, 4C, etc.) with a corresponding electric motor (3) (or its substitute, making it 3A, 3B₅ 3C, etc.) may be added to the system to upgrade the volume and pressure of the air injected to the system.

One or more heater tanks (6) (making it 6A, 6B, 6C, etc.) may or can be added to the system in one burner/furnace/heater (7) or corresponding burner/furnace/heater (7) (making it 7A, 7B, 7C, etc.) to each heater tank (6) to have bigger volume of hot air. One or more drying chambers (10) (making it 1OA, 1OB, 1OC, etc.) may be added to the system and used simultaneously drying different kinds products and/or performing different functions.

With the additional of any or all of the above major components or parts to the system expansion of embodiment 10 (figure 11), correspondingly needed secondary components or parts may, can or will be added to the system.

h.) Embodiments without condenser and air warmer (figures 2, 4, 6, 8, 10 and 12)

Embodiment 1 (Figure 2) - The system embodiment 1 (Figure 2) is an interconnection of the (major parts): the air compressor (4), the electric motor (3), which provides the power in its operation, is connected to the air compressor (4) by the pump belt (16). The cold air storage tank (5) is connected to the air compressor (4) by the metal tube or pipe (17). The heater tank (6) is connected to the cold air storage tank (5) by the metal tube or pipe (22). The burner/furnace/heater (7) which provides the heat to the system is connected to the heater tank (6). The hot air storage tank (8) is connected to the heater tank (6) the by the metal tube or pipe (27). The hot and cold air combination tank (9) is connected to the hot air storage tank (8) by the metal tube or pipe (32). The drying chamber (10) is connected to the hot and cold air combination tank (9) by the metal tube or pipe (40). The cold air storage tank (5) is also connected to the hot and cold air combination tank (9) by the metal tube or pipe (37).

In the system are installed the secondary parts, thermometers (20, 25, 30, 35, 45), are installed on the cold air storage tank (5), the heater tank (6), the hot air storage tank (8), the hot and cold air combination tank (9), and on the drying chamber air outlet or exhaust (44).

Pressure gauges (21, 26, 31, 36, 46) are installed in the cold air storage tank (5), the heater tank (6), the hot air storage tank (8), the hot and cold air combination tank (9), and on the drying chamber air outlet or exhaust (44). Check valves (18, 23, 28, 33, 38, 43) are installed on the metal tubes or pipes (17, 22, 27, 32, 37, 40) that interconnect the cold dry air storage tank (5) to the air compressor (4); the heater tank (6) to the cold air storage tank (5) the hot air storage tank (8) to the heater tank (6); the hot and cold air combination tank (9) the hot air storage tank (8); the drying chamber (10) to the hot and cold air combination tank (9) and the cold air storage tank (5) to the hot and cold air combination tank (9).

Control valves (19, 24, 29, 34, 39, 42) are installed on the metal tubes or pipes (17, 22, 27, 32, 37, 40) that interconnect the cold air storage tank (5) to the air compressor (4); the heater tank (6) to the cold air storage tank (5); the hot air storage tank (8) to the heater tank (6); the hot and cold air combination tank (9) to the hot air storage (8); the drying chamber (10) to the hot and cold air combination tank (9) and the cold air storage tank (5) to the hot and cold air combination tank (9).

Drying chamber air outlet or exhaust (44) is installed in the drying chamber (10) which serves as the outlet of the air inside the drying chamber (10) on its way out from the drying chamber (10).

Final air exhaust (49) is at the tip of the drying chamber air outlet or exhaust (44) which serves as the final exit of the air from the drying chamber (10) through the drying chamber air outlet or exhaust (44). Expanded - Embodiment 1 (Figure 2) is expanded with the additional of one or more air compressors (4) (making it 4A, 4B, 4C, etc.) with the corresponding electric motors (3) (or its substitute, making it 3A, 3B, 3C, etc.) added to the system to upgrade the volume and pressure of the air injected to the system.

One or more cold air storage tanks (5) may or can be added to the system interconnected to each other in a series to have more air tanks for bigger volume moist air storage (making it tank 5A, 5B 5C, etc.).

One or more heater tanks (6) (making it 6A, 6B, 6C, etc.) may or can be added to the system in one burner/furnace/heater (7) or corresponding burner/furnace/heater (7) (making it 7A, 7B, 1C, etc.) to each heater tank (6) to have bigger volume of hot air.

One or more hot air storage tanks (8) may or can be added to the system interconnected to each other in a series (making it 8A, 8B, 8C₅ etc.) to have bigger space for bigger volume of hot air storage.

One or more hot and cold air combination tanks (9) connected to each other (making it 9A, 9B, 9C) for a higher system capacity or when the product subject for drying cannot afford the sudden fluctuation of a wide range of temperature

With the additional of any or all of the above major components or parts to the system expansion of embodiment 1 (figure 2), correspondingly needed secondary components or parts may, can or will be added to the system.

Embodiment 3 (Figure 4) - The system embodiment (Figure 4) is an interconnection of the (major parts): the air compressor (4); the electric motor (3), which provides the power in its operation, is connected to the air compressor (4) by the pump belt (16). The cold air storage tank (5) is connected to the air compressor (4) by the metal tube or pipe (17). The heater tank (6) is connected to the cold air storage tank (5) by the metal tube or pipe (22). The burner/furnace/heater (7) which provides the heat to the system is connected to the heater tank (6). The hot and cold air combination tank (9) is connected to the heater tank (6) the by the metal tube or pipe (27). The drying chamber (10) is connected to the hot and cold air combination tank (9) by the metal tube or pipe (40). The cold air storage tank (5) is also connected to the hot and cold air combination tank (9) by the metal tube or pipe (37).

In the system are installed the secondary parts, thermometers (20, 25, 35, 45), are installed on the cold air storage tank (5), the heater tank (6), the hot and cold air combination tank (9), and on the drying chamber air outlet or exhaust (44).

Pressure gauges (21, 26, 36, 46) are installed on the cold air storage tank (5), the heater tank (6), the hot and cold air combination tank (9), and on the drying chamber air outlet or exhaust (44).

Check valves (18, 23, 28, 38, 43) are installed on the metal tubes or pipes (17, 22,

27, 37, 40) that interconnect the cold dry air storage tank (5) to the air compressor (4); the heater tank (6) to the cold air storage tank (5); the hot and cold air combination tank (9) to the heater tank (6); the drying chamber (10) to the hot and cold air combination tank (9); and the cold air storage tank (5) to the hot and cold air combination tank (9).

Control valves (19, 24, 29, 39, 42) are installed on the metal tubes or pipes (17, 22,

27, 37, 40) that interconnect the cold air storage tank (5) to the air compressor (4); the heater tank (6) to the cold air storage tank (5); the hot and cold air combination tank (9) to the heater tank (6); the drying chamber (10) to the hot and cold air combination tank (9) and the cold air storage tank (5) to the hot and cold air combination tank (9).

Air exhaust (41) is installed on the metal tube or pipe (40) that connects the hot and cold air combination tank (9) and the drying chamber (10).

Drying chamber air outlet or exhaust (44) is installed on the drying chamber (10) which serves as the outlet of the air inside the drying chamber (10) on its way out from the drying chamber (10). Pressure controller (47) is installed on the drying chamber air outlet or exhaust (44) which controls the pressure inside the drying chamber (10).

Expanded - Embodiment 3 (Figure 4) may or can be expanded with the additional of one or more air compressors (4) (making it 4A₅ 4B, 4C, etc.) with a corresponding electric motors (3) (or its substitute, making it 3A, 3B, 3C, etc.) to the system to upgrade the volume and pressure of the air injected to the system.

One or more cold air storage tanks (5) may or can be added to the system interconnected to each other in a series to have more air tanks for bigger volume dry air storage (making it tank 5A, 5B 5C₅ etc.).

One or more heater tanks (6) (making it 6A₅ 6B, 6C₅ etc.) may or can be added to the system in one burner/furnace/heater (7) or corresponding burner/furaace/heater (7) (making it 7A₅ 7B₅ 7C₅ etc.) to each heater tank (6) to have bigger volume of hot air.

One or more hot and cold air combination tanks (9) connected to each other (making it 9A, 9B, 9C) may or can be added for a higher system capacity or when the product subject for drying cannot afford the sudden fluctuation of a wide range of temperature

One or more drying chambers (10) (making it 1OA, 1OB, 10C₅ etc.) may be added to the system and used simultaneously drying different kinds products and/or performing different functions. With the additional of any or all of the above major components or parts to the system expansion of embodiment 3 (figure 4), correspondingly needed secondary components or parts may, can or will be added to the system.

Embodiment 5 (Figure 6) - The system embodiment (Figure 6) is an interconnection of the (major parts): the air compressor (4); the electric motor (3), which provides the power in its operation, is connected to the air compressor (4) by the pump belt (16). The cold air storage tank (5) is connected to the air compressor (4) by the metal tube or pipe (17). The heater tank (6) is connected to the cold air storage tank (5) by the metal tube or pipe (22). The burner/furnace/heater (7) which provides the heat to the system is connected to the heater tank (6). The hot air storage tank (8) is connected to the heater tank (6) the by the metal tube or pipe (27). The drying chamber (10) is connected to the hot air storage tank (8) by the metal tube or pipe (40).

In the system are installed the secondary parts: thermometers (20, 25, 30, 45), are installed on the cold air storage tank (5), the heater tank (6), the hot air storage tank (8), and on the drying chamber air outlet or exhaust (44).

Pressure gauges (21, 26, 31, 46) are installed in the cold air storage tank (5), the heater tank (6), the hot air storage tank (8), and on the drying chamber air outlet or exhaust (44).

Check valves (18, 23, 28, 43) are installed on the metal tubes or pipes (17, 22, 27, 40) that interconnect the cold air storage tank (5) to the air compressor (4); the heater tank (6) to the cold air storage tank (5); the hot air storage tank (8) to the heater tank (6); the drying chamber (10) to the hot air storage tank (8).

Control valves (19, 24, 29, 42) are installed on the metal tubes or pipes (17, 22, 27, 40) that interconnect the cold air storage tank (5) to the air compressor (4); the heater tank (6) to the cold air storage tank (5); the hot air storage tank (8) to the heater tank (6); the drying chamber (10) to the hot air storage tank (8). Air exhaust (41) is installed on the metal tube or pipe (40) that connects the hot air storage tank (8) and the drying chamber (10).

Drying chamber air outlet or exhaust (44) is installed on the drying chamber (10) which serves as the outlet of the air inside the drying chamber (10) on its way out from the drying chamber (10).

Expanded - Embodiment 5 (Figure 6) can or may be expanded with the additional of one or more air compressors (4) (making it 4A, 4B₃ 4C, etc.) with the corresponding electric motors (3) (or its substitute, making it 3A, 3B, 3C, etc.) to the system to upgrade the volume and pressure of the air injected to the system.

One or more cold air storage tanks (5) may or can be added to the system interconnected to each other in a series to have more air tanks for bigger volume cold air storage (making it tank 5A, 5B 5C, etc.).

One or more heater tanks (6) (making it 6A, 6B, 6C, etc.) may or can be added to the system in one burner/furnace/heater (7) or corresponding burner/furnace/heater (7) (making it 7A, 7B, 7C, etc.) to each heater tank (6) to have bigger volume of hot air. One or more hot air storage tanks (8) may or can be added to the system interconnected to each other in a series to have more air tanks for bigger volume for hot dry air storage (making it tank 8A, 8B 8C, etc.).

One or more drying chambers (10) (making it 1OA, 1OB, 1OC, etc.) may be added to the system and used simultaneously drying different kinds products and/or performing different functions.

With the additional of any or all of the above major components or parts to the system expansion of embodiment 5 (figure 6), correspondingly needed secondary components or parts may, can or will be added to the system.

Embodiment 7 (Figure S) - The system embodiment (Figure 8) is an interconnection of the (major parts): the air compressor (4); the electric motor (3), which provides the power in its operation, is connected to the air compressor (4) by the pump belt

(16). The cold air storage tank (5) is connected to the air compressor (4) by the metal tube or pipe (17). The heater tank (6) is connected to the cold air storage tank (5) by the metal tube or pipe (22). The burner/furnace/heater (7) which provides the heat to the system is connected to the heater tank (6). The drying chamber (10) is connected to the heater tank (6) by the metal tube or pipe (40).

In the system are installed the secondary parts: thermometers (20, 25, 45), are installed on the cold air storage tank (5), the heater tank (6), and on the drying chamber air outlet or exhaust (44).

Pressure gauges (21, 26, 46) are installed on the cold air storage tank (5), the heater tank (6) and on the drying chamber air outlet or exhaust (44).

Check valves (18, 23, 43) are installed on the metal tubes or pipes (17, 22, 40) that interconnect the cold air storage tank (5) to the air compressor (4); the heater tank (6) to the cold air storage tank (5); the drying chamber (10) to the heater tank (6). Control valves (19, 24, 42) are installed on the metal tubes or pipes (17, 22, 40) that interconnect the cold air storage tank (5) to the air compressor (4); the heater tank (6) to the cold air storage tank (5); the drying chamber (10) to the heater tank (6).

Air exhaust (41) is installed on the metal tube or pipe (40) that connects the heater tank (6) and the drying chamber (10).

Expanded- Embodiment 7 (Figure 8) can or may be expanded with the additional of one or more air compressors (4) (making it 4A, 4B, 4C, etc.) with the corresponding electric motors (3) (or its substitute, making it 3A, 3B, 3C, etc.) to the system to upgrade the volume and pressure of the air injected to the system.

One or more cold air storage tanks (5) may or can be added to the system interconnected to each other in a series to have more air tanks for bigger volume of cold air storage (making it tank 5A, 5B 5C₅ etc.). One or more heater tanks (6) (making it 6A, 6B, 6C, etc.) may or can be added to the system in one burner/furnace/heater (7) or corresponding burner/furnace/heater (7) (making it 7A, 7B, 7C₅ etc.) to each heater tank (6) to have bigger volume of hot air.

One or more drying chambers (10) (making it 10A, 1OB, 1OC, etc.) may be added to the system and used simultaneously drying different kinds products and/or performing different functions.

With the additional of any or all of the above major components or parts to the system expansion of embodiment 7 (figure 8), correspondingly needed secondary components or parts may, can or will be added to the system.

Embodiment 9 (Figure 10) - This system embodiment (Figure 10) is an interconnection of the (major parts): the air compressor (4), the electric motor (3), which provides the power in its operation, is connected to the air compressor (4) by the pump belt

(16). The heater tank (6) is connected to the air compressor (4) by the metal tube or pipe

(22). The burner/furnace/heater (7) which provides the heat to the system is connected to the heater tank (6). The hot air storage tank (8) is connected to the heater tank (6) by the metal tube 27. The drying chamber (10) is connected to the hot air storage tank (8) by the metal tube or pipe (40).

In the system are installed the secondary parts: thermometers (25, 30, 45), are installed on the heater tank (6), the hot air storage tank (8) and on the drying chamber air outlet or exhaust (44).

Pressure gauges (26, 31, 46) are installed on the heater tank (6), the hot air storage tank (8), and on the drying chamber air outlet or exhaust (44).

Check valves (23, 28, 43) are installed on the metal tubes or pipes (22, 27, 40) that interconnect the heater tank (6) to the air compressor (4); the hot air storage tank (8) to the heater tank (6) and the drying chamber (10) to the hot air storage tank (8). Control valves (24, 29, 42) are installed on the metal tubes or pipes (22, 27, 40) that interconnect the heater tank (6) the air compressor (4); the hot air storage tank (8) to the heater tank (6) and the drying chamber (10) to the hot air storage tank (8).

Air exhaust (41) is installed in the metal tube or pipe (40) that connects the hot air storage tank (8) and the drying chamber (10).

Expanded • Embodiment 9 (Figure 10) may or can be expanded with the additional of one or more air compressors (4) (making it 4A, 4B, 4C, etc.) with the corresponding electric motors (3) (or its substitute, making it 3A, 3B, 3C, etc.) to the system to upgrade the volume and pressure of the air injected to the system.

One or more heater tanks (6) (making it 6A, 6B, 6C, etc.) may or can be added to the system in one burner/furnace/heater (7) or corresponding buraer/furnace/heater (7) (making it 7A, 7B₃ 7C, etc.) to each heater tank (6) to have bigger volume of hot air. One or more hot air storage tanks (8) may or can be added to the system interconnected to each other in a series (making it 8A, 8B, 8C, etc.) to have bigger space for bigger volume of hot air storage.

With the additional of any or all of the above major components or parts to the system expansion of embodiment 9 (figure 10), correspondingly needed secondary components or parts may, can or will be added to the system.

Embodiment 11 (Figure 12) - This system embodiment (Figure 12) is an interconnection of the (major parts): the air compressor (4), the electric motor (3), which provides the power in its operation, is connected to the air compressor (4) by the pump belt

(22). The burner/furnace/heater (7) which provides the heat to the system is connected to the heater tank (6). The drying chamber (10) is connected to the heater tank (6) by the metal tube or pipe (40).

In the system are installed the secondary parts: thermometers (25, 45), are installed on the heater tank (6), and on the drying chamber air outlet or exhaust (44).

Pressure gauges (26, 46) are installed on the heater tank (6) and on the drying chamber air outlet or exhaust (44).

Check valves (23, 43) are installed on the metal tubes or pipes (22, 40) that interconnect the heater tank (6) to the air compressor (4); the drying chamber (10) to the heater tank (6).

Control valves (24, 42) are installed on the metal tubes or pipes (22, 40) that interconnect the heater tank (6) the air compressor (4); the drying chamber (10) to the heater tank (6). Air exhaust (41) is installed in the metal tube or pipe (40) that connects the heater tank (6) and the drying chamber (10).

Expanded - Embodiment 11 (Figure 12) may or can be expanded with the additional of another or additional air compressor (4) (making it 4A, 4B, 4C, etc.) with a corresponding electric motor (3) (or its substitute, making it 3A, 3B, 3C,) may be added to the system to upgrade the volume and pressure of the air injected to the system.

One or more heater tanks (6) (making it 6A, 6B, 6C₅ etc.) may or can be added to the system in one burner/furnace/heater (7) or corresponding burner/furnace/heater (7) (making it 7A, 7B, 7C, etc.) to each heater tank (6) to have bigger volume of hot air.

One or more drying chambers (10) (making it 1OA, 1OB, 1OC, etc.) may be added to the system and used simultaneously drying different kinds products and/or performing different functions. With the additional of any or all of the above major components or parts to the system expansion of embodiment 11 (figure 12), correspondingly needed secondary components or parts may, can or will be added to the system.

Process

Primarily, the use of the whole or main system and its embodiments or subsystems (Figure 1-12) is for drying but it can also be used for heating or warming and other similar uses.

With the other uses of the system and its embodiments or sub-systems, correspondingly the processes and methods vary, fluctuate or change, and match or fit related to the operations, utilizations, applications and functions.

While in use the system is pressurized to highly pressurized depending upon the capacity of the system with pressure ranges from merely 3 psi in a one-kilogram capacity drying chamber to 100 psi or more in storage tanks, depending upon the capacity of the system.

Generally, there are two processes involved in the systems: (a) the use of the dry air and (b) the use of the moist environmental air. Figures 1, 3, 5, 7, 9 and 11 are using the dry air because these figures have their condensers, while figures 2, 4, 6, 8, 10 and 12 are using the moist environmental air considering that these figures do not have their condensers.

In the heating procedure, for the main system and the embodiments (figures 1-12), and in the discussions for the processes below, it is indicated that the dry or moist cold air "is heated with the temperature ranging from more or less 50 degrees centigrade (50⁰C) which may reach up to 300 degrees centigrade (300°C) or more, by the heat coming from the burner/furnace/heater (7)." What is emphasized here is the range of the air temperature during the continuing operation in the process, one may or can adopt: it is not mandatory; one has to decide accordingly. There is a wide range of choice one has to take: that is why it is also indicated, "the desired or needed degree temperature," of the air that may or can apply and which will be infused to the drying chamber for drying. The treatment here is general and encompasses considering the design of the system that it can use metallic and non-metallic components or parts and the system and the process may or can dry various kinds of products, including earth products (rocks, sand, clay, etc.).

In the discussions of the processes, the atmospheric or environmental moist air is considered "dry air" when it passed through the condenser (1) which is regarded and presumed to be functional and operating. As stated earlier, in this invention the term dry air is the air with its low or negligible (or may be the absence of the) air moisture after it passed through the condenser of the system. In other words, if the atmospheric or environmental air passed through the condenser (1), it is presumed to be dry air. It has been estimated that the moisture content of the environmental or atmospheric air has gone down to 20% when it passed through the prototype manual condenser (1) and can still down depending upon the size of the condenser and the speed of the air in the condenser. For the purpose of this invention, the air that passed through the condenser, with this 20% moisture content, which is already low moisture content, is already considered a dry air.

In the Philippines, particularly in Eastern Visayas, the Philippine weather station, PAGASA, the air moisture meter has recorded a 98% to 100% relative humidity in air, which is very saturated, during the very wet or rainy months from November to January, mostly early in the morning of the months, especially when it is during downpour or in early cold morning. However, a relative humidity, or air moisture content, has registered in the air moisture meter (psychrometer) a 70% to 80% relative humidity, during dry months from April to August, and seldom go down to 60% relative humidity and occurs only during hot and windy noon time of the dry months.

In the succeeding discussions of the processes in each and every embodiment without the condenser (1) and using the environmental or atmospheric moist air (figures 2,

4, 6, 8, 10, and 12) the environmental or atmospheric moist air is treated as "cold air" considering of its fluctuating air temperature from cold to warm air depending upon the time of the day and the location. The Philippine weather station, PAGASA, has recorded an atmospheric temperature of the free moving air of 36.5 degrees centigrade (36.5°C) last June 3, 1987 at 12:59 in the afternoon, in Tacloban City.

As stated in the discussion of the air warmer, earlier (under the descriptions or discussions of the major and secondary components or parts: Major components or parts), "The use of the air warmer (2) can be optional. In case that the system opted not to use the air warmer (2), the condenser is directly connected to the air compressor (4) by the metal tube or pipe (14)."

In the case the system opted not to use the air warmer (2) the process would be that the air from the condenser (1) will directly enter or flows to the air compressor (4) through the metal tube or pipe (14) connecting the condenser and the air compressor (4) and the dry air from the condenser (1) rushing in is sucked in by the air compressor (4), and is compressed, builds up pressure, and injected or infused to the cold air storage tank (5) through the metal tube or pipe (17) connecting the air compressor (4) and the cold dry air storage tank (5) and the air temperature is monitored by the thermometer (15).

This assertion or declaration, above, is stated herein considering that in the succeeding discussions for the processes based on the main system (figure 1) and the embodiments using the dry air in the process (figures 3, 5, 7, 9 and 11) is with the use of the air warmer (2).

a.) Drying process with the use of the dry air (figures 1, 3, 5, 7, 9, and 11)

The whole system (Figure 1) - In the process, the electric motor (3) drives the air compressor (4) and the negative pressure builds up in the condenser (1) and air warmer (2) due to the air suction by the air compressor (4). With the negative pressure, the environmental moist air rushes in and enters into the condenser (1) passing through the inlets (11). The very low temperature inside the condenser condenses the air moisture and separates from the air making the moist environmental air dry. The condensed water vapor eventually turns into water and exits from the condenser (1) through the condenser water outlet (12). The dry cold air exits from the condenser and passes through the metal tube or pipe (13) connecting the condenser (1) and the air warmer (2). The dry air enters into the air warmer (2) then to the metal tube or pipe (14) connecting the air warmer (2) and the air compressor (4), passing through the thermometer (15) that monitors the temperature.

The dry air rushing in is sucked in by the air compressor (4), and is compressed, builds up pressure, squirts out and rushes to the cold air storage tank (5) through the metal tube or pipe (17) connecting the air compressor (4) and the cold dry air storage tank (5) passing through the check valve (18) and the opened control valve (19), [in which control valve (19) when closed also controls the backward air outflow from the cold air storage tank (5) when the compressor is not running]; and the cold dry air may just pass through or stored in the cold air storage tank (5). The temperature of the pressurized cold dry air in the cold storage tank is monitored by the thermometer (20) and the air pressure is monitored, controlled and maintained to a desired level by the pressure gauge (21).

From the cold air storage tank (5), and upon the opening of the control valve (24), the pressurized cold dry air for heating rushes out to the heater tank (6) through the metal tube or pipe (22) that connects the cold air storage tank (5) and the heater tank (6) passing through the check valve (23) and control valve (24) that control and regulate the air flow. In the heater tank (6) the pressurized cold dry air is heated with the temperature ranging from more or less 50 degrees centigrade (50°C) which may reach up to 300 degrees centigrade (300°C) or more, by the heat coming from the burner/furnace/heater (7). The air temperature is monitored by the thermometer (25) and the pressure is monitored, controlled and maintained to a desired level by the pressure gauge (26).

The pressurized hot to very hot dry air in the heater tank (6), upon the opening of the control valve (29), sprints its way out to the hot air storage tank (8), where it may just pass through or is stored, through the metal tube or pipe (27) that connects the heater tank (6) and the hot air storage tank (8) passing through the check valve (28) and the control valve (29) that control and regulate the air flow. The air temperature in the hot air storage tank (8) is monitored by the thermometer (30) and the pressure is monitored, controlled and maintained to a desired level by the pressure gauge (31). The pressurized hot or very hot dry air in the hot air storage tank (8), upon the opening of the control valve (34), rushes out and swiftly travels to the hot and cold air combination tank (9) through the metal tube or pipe (32) passing through the check valve (33) and the control valve (34) that control and regulate the air flow.

The pressurized hot or very hot dry air present or existing in or flowing to the hot and old air combination tank (9) from the hot air storage tank (8) combines with the pressurized cold dry air from the cold air storage tank (5) in the combination and mixing procedure of the pressurized hot and cold dry air.

The pressurized cold dry air in the cold air storage tank (5), upon opening of the control valve (39), sprints out and combines with the pressurized hot or very hot dry air in the hot and cold air combination tank (9), in the combination and mixing procedure of the pressurized hot and cold dry air, by way of rushing in through the metal tube or pipe (37) that connects the cold air storage tank (5) and the hot and cold air combination tank (9) passing through the check valve (38) and the control valve (39) that control and regulate the air flow. The air temperature in the hot and cold air combination tank (9) is monitored by the thermometer (35) and the pressure is monitored, controlled and maintained to a desired level by the pressure gauge (36).

The needed or desired air temperature in the process is attained through the combination and mixing or blending of the pressurized hot or very hot dry air from the hot air storage tank (8) and the pressurized cold dry air from the cold air storage tank (5) in the hot and cold air combination tank (9). The introduction or infusion and the flow of both the pressurized hot or very hot dry air from the hot air storage tank (8), and the pressurized cold dry air from the cold air storage tank (5) to the hot and cold air combination tank (9), is controlled, regulated and monitored during the combination and mixing procedure of the pressurized hot and cold dry air to attain the needed or desired air temperature in the process.

However, when the temperature of the pressurized hot dry air present or existing in or flowing to the hot and cold air combination tank (9) from the hot air storage tank (8) is the needed or desired air temperature in the drying process, no combination and mixing procedure will be done anymore in the hot and cold air combination tank (9), and thereby no introduction or infusion of cold dry air from the cold air storage tank (5) to the hot and cold air combination tank (9); and so or therefore, the pressurized hot dry air present or existing in or flowing to the hot and cold air combination tank (9) infused or introduced from the hot air storage tank (8), with the needed or desired air temperature, is introduced or infused to the drying chamber (10) by opening the control valve (42) and let the pressurized hot dry air pass through the metal tube or pipe (40) that connects the hot and cold air combination tank (9) and the drying chamber (10) passing through where the air exhaust (41) is, the control valve (42) and check valve (43) that control and regulate the air flow. More heating is done in the heater tank (6) when the temperature is not yet enough to meet the needed or desired high temperature.

The infusion or introduction of the pressurized hot dry air with the needed or desired temperature from the hot air storage tank (8) to the hot and cold air combination tank (9) and then to the drying chamber (10) is almost continuous during the entire operation or up to the point when it is still needed for the operation. Towards the end of the operation, at the time of the cooling procedure, the infusion or introduction of the pressurized hot dry air from the hot air storage tank (8) to the hot and cold air combination tank (9) and then to the drying chamber (10) is gradually minimized or decreased and eventually stopped, cut off or closed; and at the same time gradually introducing or infusing the pressurized cold dry air from the cold air storage tank (5) to the hot and cold air combination tank (9) then to the drying chamber (10). The pressurized hot and cold dry air blend in the hot and cold air combination tank (9) while the infusion or introduction of the pressurized hot dry air from the hot air storage tank (8) to the hot and cold air combination tank (9) decreases and the infusion or introduction of the pressurized cold air from the cold air storage tank (5) to the hot and cold air combination tank (9) increases, and the air temperature is decreasing during the cooling stage of the operation at the point in time when the operation is about to end.

When the air temperature in the hot and cold air combination tank (9) is higher than the needed or desired one, while the combination and mixing procedure of the pressurized hot and cold air in the hot and cold air combination tank (9) is in progress, more pressurized cold dry air is introduced or infused into the hot and cold air combination tank (9) from the cold air storage tank (5), while maintaining the flow of the pressurized hot dry air from the hot air storage tank (8) to the hot and cold air combination tank (9); and when the temperature is below the needed or desired one, more pressurized hot dry air is introduced or infused into the hot and cold air combination tank (9) from the hot air storage tank (8), while also maintaining the flow of the pressurized cold dry air from the cold air storage tank (5) to the hot and cold air combination tank (9).

The procedure of the mixing or blending may be in another way wherein, when the air temperature in the hot and cold air combination tank (9) is higher than the needed or desired one, while the combination and mixing procedure of the pressurized hot and cold air in the hot and cold air combination tank (9) is in progress, less pressurized hot dry air is introduced or infused into the hot and cold air combination tank (9) from the hot air storage tank (8), while maintaining the flow of the pressurized cold dry air from the cold air storage tank (5) to the hot and cold air combination tank (9); and when the air temperature is below the needed or desired one, less pressurized cold dry air is introduced or infused into the hot and cold air combination tank (9) from the cold air storage tank (5), while also maintaining the flow of the pressurized hot dry air from the hot air storage tank (8) to the hot and cold air combination tank (9).

When an introduction or infusion of additional volume of pressurized air (whether hot or cold dry air) to the hot and cold air combination tank (9) is not feasible anymore due to pressure, and the needed or desired temperature from the air mixture is not yet attained or reached in the combination and mixing procedures, (whether above or below the degree temperature desired), the air pressure in the hot and cold air combination tank (9) is lowered by allowing a certain volume of pressurized hot dry air to escape through the air exhaust (41), and then an additional volume of whether hot or cold dry pressurized air, as desired, is introduced or infused to the hot and cold air combination tank (9) to attain the right, needed or desired temperature.

When the right, needed or desired air temperature is attained in the hot and cold air combination tank (9) in the mixing or blending procedures, the flow of both the pressurized hot to very hot dry air from the hot air storage tank (8), and the pressurized cold dry air from the cold air storage tank (5) to the hot and cold air combination tank (9) is maintained to maintain the needed or desired air temperature of the combined, mixed or blended pressurized hot and cold dry air in the hot and cold air combination tank (9). The air mixture with the needed or desired air temperature in the hot and cold air combination tank (9) is then introduced or infused to the drying chamber (10) almost continuously during the entire operation by opening the control valve (42), and let the air mixture pass through the metal tube or pipe (40) that connects the hot and cold air combination tank (9) and the drying chamber (10) passing through where the air exhaust (41) is, the control valve (42) and check valve (43) that control and regulate the air flow. The air pressure inside the drying chamber is controlled and/or maintained by the pressure controller (47) at a desired level and monitored by the pressure gauge (46), while the temperature is monitored by the thermometer (45) during the entire operation period.

When the operation, activity, job or task is about to end and the needed or desired air temperature is lower than the present one, or cooler air, or in the cooling stage, the infusion or introduction of the pressurized hot dry air from the hot air storage tank (8) to the hot and cold air combination tank (9) is gradually decreased or minimized and to the point in time when the infusion or introduction of the pressurized hot dry air from the hot air storage tank (8) to the hot and cold air combination tank (9) is stopped, closed or cut off and it is only the pressurized cold dry air from the cold air storage tank (5) is introduced or infused into the hot and cold air combination tank (9) in the cooling procedure; and, in this point in time there is no mixing or blending anymore of the pressurized hot and cold dry air in the hot and cold air combination tank (9), and so or therefore, the pressurized cold dry air in or flowing to the hot and cold combination tank (9) infused or introduced to it from the cold air storage tank (5) is infused or introduced to the drying chamber (10) continuously up to point when the operation is done.

The pressurized cold to warm or hot air which dried the products inside the drying chamber (10) and laden with moisture, escapes from the drying chamber (10) through the drying chamber air outlet or exhaust (44) to the final air exhaust (49) then to the environment, controlled by the air controller (48); or to the air warmer (2) and eventually to the air warmer exhaust (52) through the metal tube or pipe (50) passing through the control valve (51) that controls the flow of air to the air warmer (2).

Embodiment 2 (Figure 3) - In the process, of this embodiment, the electric motor (3) drives the air compressor (4) and the negative pressure builds up in the condenser (1) and air warmer (2) due to the air suction by the air compressor (4). With the negative pressure, the environmental moist air rushes in and enters into the condenser (1) passing through the inlets (11). The very low temperature inside the condenser condenses the air moisture and separates from the air making the moist environmental air dry. The condensed water vapor eventually turns into water and exits from the condenser (1) through the condenser water outlet (12).

The dry cold air exits from the condenser and passes through the metal tube or pipe (13) connecting the condenser (1) and the air warmer (2). The dry air enters into the air warmer (2) then to the metal tube or pipe (14) connecting the air warmer (2) and the air compressor (4), passing through the thermometer (15) that monitors the temperature.

The dry air rushing in is sucked in by the air compressor (4), and is compressed, builds up pressure, squirts out and rushes to the cold air storage tank (5) through the metal tube or pipe (17) connecting the air compressor (4) and the cold air storage tank (5) passing through the check valve (18) and the opened control valve (19), [in which control valve (19) when closed also controls the backward air outflow from the cold air storage tank (5) when the compressor is not running]; and the cold dry air may just pass through or stored in the cold air storage tank (5). The temperature of the pressurized cold dry air in the cold storage tank is monitored by the thermometer (20) and the air pressure is monitored, controlled and maintained to a desired level by the pressure gauge (21).

From the cold air storage tank (5), and upon the opening of the control valve (24), the pressurized cold dry air for heating rushes out to the heater tank (6) through the metal tube or pipe (22) that connects the cold air storage tank (5) and the heater tank (6) passing through the check valve (23) and control valve (24) that control and regulate the air flow. In the heater tank (6) the pressurized cold dry air is heated with the temperature ranging from more or less 50 degrees centigrade (5O⁰C) which may reach up to 300 degrees centigrade (300⁰C) or more, by the heat coming from the burner/furnace/heater (7). The air temperature is monitored by the thermometer (25) and the pressure is monitored, controlled and maintained to a desired level by the pressure gauge (26).

The pressurized hot to very hot dry air in the heater tank (6), upon the opening of the control valve (29), sprints its way out to the hot and cold air storage tank (9) through the metal tube or pipe (27) that connects the heater tank (6) and the hot and cold air combination tank (9) passing through the check valve (28) and the control valve (29) that control and regulate the air flow.

The pressurized hot or very hot dry air present or existing in or flowing to the hot and old air combination tank (9) from the heater tank (6) combines with the pressurized cold dry air from the cold air storage tank (5) in the combination and mixing procedure of the pressurized hot and cold dry air.

The needed or desired air temperature in the process is attained through the combination and mixing or blending of the pressurized hot or very hot dry air from the heater tank (6) and the pressurized cold dry air from the cold air storage tank (5) in the hot and cold air combination tank (9). The introduction or infusion and the flow of both the pressurized hot or very hot dry air from the heater tank (6), and the pressurized cold dry air from the cold air storage tank (5) to the hot and cold air combination tank (9), is controlled, regulated and monitored during the combination and mixing procedure of the pressurized hot and cold dry air to attain the needed or desired air temperature in the process.

However, when the temperature of the pressurized hot dry air present or existing in or flowing to the hot and cold air combination tank (9) from the heater tank (6) is the needed or desired air temperature in the drying process, no combination and mixing procedure will be done anymore in the hot and cold air combination tank (9), and thereby no introduction or infusion of cold dry air from the cold air storage tank (5) to the hot and cold air combination tank (9); and so or therefore, the pressurized hot dry air present or existing in or flowing to the hot and cold air combination tank (9) infused or introduced from the heater tank (6), with the needed or desired air temperature, is introduced or infused to the drying chamber (10) by opening the control valve (42) and let the pressurized hot dry air pass through the metal tube or pipe (40) that connects the hot and cold air combination tank (9) and the drying chamber (10) passing through where the air exhaust (41) is, the control valve (42) and check valve (43) that control and regulate the air flow. More heating is done in the heater tank (6) when the temperature is not yet enough to meet the needed or desired high temperature.

The infusion or introduction of the pressurized hot dry air with the needed or desired temperature from the heater tank (6) to the hot and cold air combination tank (9) and then to the drying chamber (10) is almost continuous during the entire operation or up to the point when it is still needed for the operation. Towards the end of the operation, at the time of the cooling procedure, the infusion or introduction of the pressurized hot dry air from the heater tank (6) to the hot and cold air combination tank (9) and then to the drying chamber (10) is gradually minimized or decreased and eventually stopped, cut off or closed; and at the same time gradually introducing or infusing the pressurized cold dry air from the cold air storage tank (5) to the hot and cold air combination tank (9) then to the drying chamber (10). The pressurized hot and cold dry air blend in the hot and cold air combination tank (9) while the infusion or introduction of the pressurized hot dry air from the heater tank (6) to the hot and cold air combination tank (9) decreases and the infusion or introduction of the pressurized cold air from the cold air storage tank (5) to the hot and cold air combination tank (9) increases, and the air temperature is decreasing during the cooling stage of the operation at the point in time when the operation is about to end.

When the air temperature in the hot and cold air combination tank (9) is higher than the needed or desired one, while the combination and mixing procedure of the pressurized hot and cold air in the hot and cold air combination tank (9) is in progress, more pressurized cold dry air is introduced or infused into the hot and cold air combination tank (9) from the cold air storage tank (5), while maintaining the flow of the pressurized hot dry air from the heater tank (6) to the hot and cold air combination tank (9); and when the temperature is below the needed or desired one, more pressurized hot dry air is introduced or infused into the hot and cold air combination tank (9) from the heater tank (6), while also maintaining the flow of the pressurized cold dry air from the cold air storage tank (5) to the hot and cold air combination tank (9).

The procedure of the mixing or blending may be in another way wherein, when the air temperature in the hot and cold air combination tank (9) is higher than the needed or desired one, while the combination and mixing procedure of the pressurized hot and cold air in the hot and cold air combination tank (9) is in progress, less pressurized hot dry air is introduced or infused into the hot and cold air combination tank (9) from the heater tank (6), while maintaining the flow of the pressurized cold dry air from the cold air storage tank (5) to the hot and cold air combination tank (9); and when the air temperature is below the needed or desired one, less pressurized cold dry air is introduced or infused into the hot and cold air combination tank (9) from the cold air storage tank (5), while also maintaining the flow of the pressurized hot dry air from the heater tank (6) to the hot and cold air combination tank (9).

When the right, needed or desired air temperature is attained in the hot and cold air combination tank (9) in the mixing or blending procedures, the flow of both the pressurized hot to very hot dry air from the heater tank (6), and the pressurized cold dry air from the cold air storage tank (5) to the hot and cold air combination tank (9) is maintained to maintain the needed or desired air temperature of the combined, mixed or blended pressurized hot and cold dry air in the hot and cold air combination tank (9).

The air mixture with the needed or desired air temperature in the hot and cold air combination tank (9) is then introduced or infused to the drying chamber (10) almost continuously during the entire operation by opening the control valve (42), and let the air mixture pass through the metal tube or pipe (40) that connects the hot and cold air combination tank (9) and the drying chamber (10) passing through where the air exhaust (41) is, the control valve (42) and check valve (43) that control and regulate the air flow. The air pressure inside the drying chamber is controlled and/or maintained by the pressure controller (47) at a desired level and monitored by the pressure gauge (46), while the temperature is monitored by the thermometer (45) during the entire operation period.

When the operation, activity, job or task is about to end and the needed or desired air temperature is lower than the present one, or cooler air, or in the cooling stage, the infusion or introduction of the pressurized hot dry air from the heater tank (6) to the hot and cold air combination tank (9) is gradually decreased or minimized and to the point in time when the infusion or introduction of the pressurized hot dry air from the heater tank (6) to the hot and cold air combination tank (9) is stopped, closed or cut off and it is only the pressurized cold dry air from the cold air storage tank (5) is introduced or infused into the hot and cold air combination tank (9) in the cooling procedure; and, in this point in time there is no mixing or blending anymore of the pressurized hot and cold dry air in the hot and cold air combination tank (9), and so or therefore, the pressurized cold dry air in or flowing to the hot and cold combination tank (9) infused or introduced to it from the cold air storage tank (5) is infused or introduced to the drying chamber (10) continuously up to point when the operation is done.

Embodiment 4 (Figure 5) -In the process, of this embodiment, the electric motor (3) drives the air compressor (4) and the negative pressure builds up in the condenser (1) and air warmer (2) due to the air suction by the air compressor (4). With the negative pressure, the environmental moist air rushes in and enters into the condenser (1) passing through the inlets (11). The very low temperature inside the condenser condenses the air moisture and separates from the air making the moist environmental air dry. The condensed water vapor eventually turns into water and exits from the condenser (1) through the condenser water outlet (12).

The dry cold air exits from the condenser and passes through the metal tube or pipe

(13) connecting the condenser (1) and the air warmer (2). The dry air enters into the air warmer (2) then to the metal tube or pipe (14) connecting the air warmer (2) and the air compressor (4), passing through the thermometer (15) that monitors the temperature.

From the cold air storage tank (5), and upon the opening of the control valve (24), the pressurized cold dry air for heating rushes out to the heater tank (6) through the metal tube or pipe (22) that connects the cold air storage tank (5) and the heater tank (6) passing through the check valve (23) and control valve (24) that control and regulate the air flow. In the heater tank (6) the pressurized cold dry air is heated with the temperature ranging from more or less 50 degrees centigrade (50⁰C) which may reach up to 300 degrees centigrade (300⁰C) or more, by the heat coming from the burner/furaace/heater (7). The air temperature is monitored by the thermometer (25) and the pressure is monitored, controlled and maintained to a desired level by the pressure gauge (26).

The pressurized hot to very hot dry air in the heater tank (6), upon the opening of the control valve (29), sprints its way out to the hot air storage tank (8), which may pass through or stored in the hot air storage tank (8), through the metal tube or pipe (27) that connects the heater tank (6) and the hot air storage tank (8) passing through the check valve (28) and the control valve (29) that control and regulate the air flow. The air temperature in the hot air storage tank (8) is monitored by the thermometer (30) and the pressure is monitored, controlled and maintained to a desired level by the pressure gauge (31).

The pressurized hot to very hot air in the hot air storage tank (8), upon opening of the control valve (42) sprints its way out and go directly to the drying chamber (10) through the metal tube or pipe (40) that connects the hot air storage tank (8) and the drying chamber

(10) passing through where the air exhaust (40) is, the control valve (42) and check valve

(43) that control and regulate the air flow. The air pressure inside the drying chamber is controlled and/or maintained by the pressure controller (47) at a desired level and monitored by the pressure gauge (46), while the temperature is monitored by the thermometer (45) during the entire operation period.

Considering that there is no hot and cold air combination tank (9) of this system embodiment, the control and regulation of the air temperature, to attain the needed or desired air temperature in the process, and eventually introduced or infused to the drying chamber (10) from the hot air storage tank (8), is in the heating procedure or technique wherein the introduction of heat to the heater tank (6) from the burner/furnace/heater (7) is regulated to a certain level of desired degree centigrade (e.g. 70 - 80 degrees centigrade [70⁰C - 80⁰C]) to maintain the desired air temperature at a certain level degree centigrade during the entire operation. The technique is in the control and regulation of the burning of fuel in the burner/furnace/heater (7) that gives the heat in the burner/furnace/heater (7) and heats up the heater tank (6) in the heating process: less fuel is burned when minimized heating with a lower temperature is needed, and more fuel is burned when more heating and higher temperature is desired. When the burner/furnace/heater (7) uses electricity for heating, the temperature level desired is set at a certain level and when goes beyond or surpass, the electric current to the burner/furnace/heater is automatically cut off, and when goes below the desired temperature, the electricity is automatically switch on.

Another manual technique in the control and regulation of the temperature in the heater tank (6) during the heating process is the use of water wherein the heater tank (6) is placed in a basin, kettle or pot with water and then the basin, kettle or pot with water is heated with the heater tank (6) at he burner/furnace/heater (7). The boiling point of water is 100 degrees centigrade (100⁰C) and the temperature in the heater tank (6) during the heating process will not exceed the boiling point of water which is 100 degrees centigrade (100⁰C). When the operation, activity, job or task is about to end in this process, there are two procedures to be done in which one or the other is to be observed as desired: (a) one is the infusion or introduction of the hot pressurized dry air to the drying chamber (10) from the heater tank (6) is minimized to the point in time when it is stopped or cut off and let the cooling go in its natural course under the environmental conditions with the environmental temperature, (b) and the other is, the heating is stopped and the let the infusion or the introduction of the cold dry air from the cold air storage tank (5) to the heater tank (6) then to the hot air storage tank (8) continue and eventually to the drying chamber (10) for cooling, if the stored hot air in the hot air storage tank is not needed for the succeeding operation.

The pressurized warm to hot air which dried the products inside the drying chamber (10) and laden with moisture, escapes from the drying chamber (10) through the drying chamber air outlet or exhaust (44) to the final air exhaust (49) then to the environment, controlled by the air controller (48); or to the air warmer (2) and eventually to the air warmer exhaust (52) through the metal tube or pipe (50) passing through the control valve (51) that controls the flow of air to the air warmer (2).

Embodiment 6 (Figure 7) - In the process, of this embodiment, the electric motor

(3) drives the air compressor (4) and the negative pressure builds up in the condenser (1) and air warmer (2) due to the air suction by the air compressor (4). With the negative pressure, the environmental moist air rushes in and enters into the condenser (1) passing through the inlets (11). The very low temperature inside the condenser condenses the air moisture and separates from the air making the moist environmental air dry. The condensed water vapor eventually turns into water and exits from the condenser (1) through the condenser water outlet (12).

The dry cold air exits from the condenser and passes through the metal tube or pipe (13) connecting the condenser (1) and the air warmer (2). The dry air enters into the air warmer (2) then to the metal tube or pipe (14) connecting the air warmer (2) and the air compressor (4), passing through the thermometer (15) that monitors the temperature. The dry air rushing in is sucked in by the air compressor (4), and is compressed, builds up pressure, squirts out and rushes to the cold air storage tank (5) through the metal tube or pipe (17) connecting the air compressor (4) and the cold dry air storage tank (5) passing through the check valve (18) and the opened control valve (19), [in which control valve (19) when closed also controls the backward air outflow from the cold air storage tank (5) when the compressor is not running]; and the cold dry air may just pass through or stored in the cold air storage tank (5). The temperature of the pressurized cold dry air in the cold storage tank is monitored by the thermometer (20) and the air pressure is monitored, controlled and maintained to a desired level by the pressure gauge (21).

From the cold air storage tank (5), and upon the opening of the control valve (24), the pressurized cold dry air for heating rushes out to the heater tank (6) through the metal tube or pipe (22) that connects the cold air storage tank (5) and the heater tank (6) passing through the check valve (23) and control valve (24) that control and regulate the air flow. In the heater tank (6) the pressurized cold dry air is heated with the temperature ranging from more or less 50 degrees centigrade (50⁰C) which may reach up to 300 degrees centigrade (300⁰C) or more, by the heat coming from the burner/furnace/heater (7). The air temperature is monitored by the thermometer (25) and the pressure is monitored, controlled and maintained to a desired level by the pressure gauge (26).

The pressurized hot to very hot air in the heater tank (6), upon opening of the control valve (42) sprints its way out and go directly to the drying chamber (10) through the metal tube or pipe (40) that connects the heater tank (6) and the drying chamber (10) passing through where the air exhaust (40) is, the control valve (42) and check valve (43) that control and regulate the air flow. The air pressure inside the drying chamber is controlled and/or maintained by the pressure controller (47) at a desired level and monitored by the pressure gauge (46), while the temperature is monitored by the thermometer (45) during the entire operation period.

Considering that there is no hot and cold air combination tank (9) of this system embodiment, the control and regulation of the air temperature, to attain the needed or desired air temperature in the process, and eventually introduced or infused to the drying chamber (10) from the heater tank (6) is in the heating procedure or technique wherein the introduction of heat to the heater tank (6) from the burner/furnace/heater (7) is regulated to a certain level of desired degree centigrade (e.g. 70 - 80 degrees centigrade [70⁰C - 80⁰C]) to maintain the desired air temperature at a certain level degree centigrade during the entire operation. The technique is in the control and regulation of the burning of fuel in the burner/furnace/heater (7) that gives the heat in the burner/furnace/heater (7) and heats up the heater tank (6) in the heating process: less fuel is burned when minimized heating with a lower temperature is needed, and more fuel is burned when more heating and higher temperature is desired. When the burner/furnace/heater (7) uses electricity for heating, the temperature level desired is set at a certain level and when goes beyond or surpass, the electric current to the burner/furnace/heater is automatically cut off, and when goes below the desired temperature, the electricity is automatically switch on.

Another manual technique in the control and regulation of the temperature in the heater tank (6) during the heating process is the use of water wherein the heater tank (6) is placed in a basin, kettle or pot with water and then the basin, kettle or pot with water is heated with the heater tank (6) at he burner/furnace/heater (7). The boiling point of water is 100 degrees centigrade (100⁰C) and the temperature in the heater tank (6) during the heating process will not exceed the boiling point of water which is 100 degrees centigrade (100⁰C).

When the operation, activity, job or task is about to end in this process, there are two procedures to be done in which one or the other is to be observed as desired: (a) one is the infusion or introduction of the hot pressurized dry air to the drying chamber (10) from the heater tank (6) is minimized to the point in time when it is stopped or cut off and let the cooling go in its natural course under the environmental conditions with the environmental temperature, (b) and the other is, the heating is stopped and the let the infusion or the introduction of the cold dry air from the cold air storage tank (5) to the heater tank (6) continue and eventually to the drying chamber (10) for cooling.

The pressurized warm to hot air which dried the products inside the drying chamber (10) and laden with moisture, escapes from the drying chamber (10) through the drying chamber air outlet or exhaust (44) to the final air exhaust (49) then to the environment, controlled by the air controller (48); or to the air warmer (2) and eventually to the air warmer exhaust (52) through the metal tube or pipe (50) passing through the control valve (51) that controls the flow of air to the air warmer (2). Embodiment 8 (Figure 9) - In the process, of this embodiment, the electric motor (3) drives the air compressor (4) and the negative pressure builds up in the condenser (1) and air warmer (2) due to the air suction by the air compressor (4). With the negative pressure, the environmental moist air rushes in and enters into the condenser (1) passing through the inlets (11). The very low temperature inside the condenser condenses the air moisture and separates from the air making the moist environmental air dry. The condensed water vapor eventually turns into water and exits from the condenser (1) through the condenser water outlet (12).

The dry air rushing in is sucked in by the air compressor (4), and is compressed, builds up pressure, squirts out and rushes to the heater tank (6) through the metal tube or pipe (22) connecting the air compressor (4) and the heater tank (6) passing through the check valve (23) and the opened control valve (24), [in which control valve (24) when closed also controls the backward air outflow from the heater tank (6) when the compressor is not running]. In the heater tank (6) the pressurized cold dry air is heated with the temperature ranging from more or less 50 degrees centigrade (5O⁰C) which may reach up to 300 degrees centigrade (300⁰C) or more, by the heat coming from the burner/furnace/heater (7). The air temperature is monitored by the thermometer (25) and the pressure is monitored, controlled and maintained to a desired level by the pressure gauge (26).

The pressurized hot to very hot dry air in the heater tank (6), upon the opening of the control valve (29), sprints its way out to the hot air storage tank (8), which may pass through or stored in the hot air storage tank (8), through the metal tube or pipe (27) that connects the heater tank (6) and the hot air storage tank (8) passing through the check valve (28) and the control valve (29) that control and regulate the air flow. The air temperature in the hot air storage tank (8) is monitored by the thermometer (30) and the pressure is monitored, controlled and maintained to a desired level by the pressure gauge (31). The pressurized hot to very hot air in the hot air storage tank (8), upon opening of the control valve (42) sprints its way out and go directly to the drying chamber (10) through the metal tube or pipe (40) that connects the hot air storage tank (8) and the drying chamber (10) passing through where the air exhaust (40) is, the control valve (42) and check valve (43) that control and regulate the air flow. The air pressure inside the drying chamber is controlled and/or maintained by the pressure controller (47) at a desired level and monitored by the pressure gauge (46), while the temperature is monitored by the thermometer (45) during the entire operation period.

Considering that there is no hot and cold air combination tank (9) of this system embodiment, the control and regulation of the air temperature to attain the needed or desired air temperature in the process, and eventually introduced or infused to the drying chamber (10) from the hot air storage tank (8), is in the heating procedure or technique wherein the introduction of heat to the heater tank (6) from the burner/furnace/heater (7) is regulated to a certain level of desired degree centigrade (e.g. 70 - 80 degrees centigrade [70⁰C - 8O⁰C]) to maintain the desired air temperature at a certain level degree centigrade during the entire operation. The technique is in the control and regulation of the burning of fuel in the burner/furnace/heater (7) that gives the heat in the burner/furnace/heater (7) and heats up the heater tank (6) in the heating process: less fuel is burned when minimized heating with a lower temperature is needed, and more fuel is burned when more heating and higher temperature is desired. When the burner/furnace/heater (7) uses electricity for heating, the temperature level desired is set at a certain level and when goes beyond or surpass, the electric current to the burner/furnace/heater is automatically cut off, and when goes below the desired temperature, the electricity is automatically switch on.

When the operation, activity, job or task is about to end, there are two procedures to be done in which one or the other is to be observed as desired: (a) one is the infusion or introduction of the hot pressurized dry air to the drying chamber (10) from the hot air storage tank (8) is minimized to the point in time when it is stopped or cut off and let the cooling go in its natural course under the environmental conditions with the environmental temperature, (b) and the other is, the heating is stopped and the let the introduction or infusion of the cold dry air from the air compressor (4) to the heater tank (6) and to the hot air storage tank (8) continue and eventually to the drying chamber (10) for cooling, if the stored hot air in the hot air storage tank is not needed for the succeeding operation.

Embodiment 10 (Figure 11) - In the process, of this embodiment, the electric motor (3) drives the air compressor (4) and the negative pressure builds up in the condenser (1) and air warmer (2) due to the air suction by the air compressor (4). With the negative pressure, the environmental moist air rushes in and enters into the condenser (1) passing through the inlets (11). The very low temperature inside the condenser condenses the air moisture and separates from the air making the moist environmental air dry. The condensed water vapor eventually turns into water and exits from the condenser (1) through the condenser water outlet (12).

The dry air rushing in is sucked in by the air compressor (4), and is compressed, builds up pressure, squirts out and rushes to the heater tank (6) through the metal tube or pipe (22) connecting the air compressor (4) and the heater tank (6) passing through the check valve (23) and the opened control valve (24), [in which control valve (24) when closed also controls the backward air outflow from the heater tank (6) when the compressor is not running]. In the heater tank (6) the pressurized cold dry air is heated with the temperature ranging from more or less 50 degrees centigrade (50⁰C) which may reach up to 300 degrees centigrade (300°C) or more, by the heat coming from the burner/furnace/heater (7). The air temperature is monitored by the thermometer (25) and the pressure is monitored, controlled and maintained to a desired level by the pressure gauge (26).

The pressurized hot to very hot dry air in the heater tank (6), upon opening of the control valve (42) sprints its way out and go directly to the drying chamber (10) through the metal tube or pipe (40) that connects the heater tank (6) and the drying chamber (10) passing through where the air exhaust (40) is, the control valve (42) and check valve (43) that control and regulate the air flow. The air pressure inside the drying chamber is controlled and/or maintained by the pressure controller (47) at a desired level and monitored by the pressure gauge (46), while the temperature is monitored by the thermometer (45) during the entire operation period.

Considering that there is no hot and cold air combination tank (9) of this system embodiment, the control and regulation of the air temperature to attain the needed or desired air temperature in the process, and eventually introduced or infused to the drying chamber (10) from the heater tank (6), is in the heating procedure or technique wherein the introduction of heat to the heater tank (6) from the burner/furnace/heater (7) is regulated to a certain level of desired degree centigrade (e.g. 70 - 80 degrees centigrade [70⁰C - 8O⁰C]) to maintain the desired air temperature at a certain level degree centigrade during the entire operation. The technique is in the control and regulation of the burning of fuel in the burner/furnace/heater (7) that gives the heat in the burner/furnace/heater (7) and heats up the heater tank (6) in the heating process: less fuel is burned when minimized heating with a lower temperature is needed, and more fuel is burned when more heating and higher temperature is desired. When the burner/furnace/heater (7) uses electricity for heating, the temperature level desired is set at a certain level and when goes beyond or surpass, the electric current to the burner/furnace/heater is automatically cut off, and when goes below the desired temperature, the electricity is automatically switch on.

Another manual technique in the control and regulation of the temperature in the heater tank (6) during the heating process is the use of water wherein the heater tank (6) is placed in a basin, kettle, or pot with water and then the basin, kettle or pot with water is heated with the heater tank (6) at he burøer/furnace/heater (7). The boiling point of water is 100 degrees centigrade (100⁰C) and the temperature in the heater tank (6) during the heating process will not exceed the boiling point of water which is 100 degrees centigrade (100⁰C).

When the operation, activity, job or task is about to end, there are two procedures to be done in which one or the other is to be observed as desired: (a) one is the infusion or introduction of the hot pressurized dry air to the drying chamber (10) from the hot air storage tank (8) is minimized to the point in time when it is stopped or cut off and let the cooling go in its natural course under the environmental conditions with the environmental temperature, (b) and the other is, the heating is stopped and the let the introduction or infusion of the cold dry air from the air compressor (4) to the heater tank (6) and to the hot air storage tank (8) continue and eventually to the drying chamber (10) for cooling.

The pressurized warm to hot air which dried the products inside the drying chamber

(10) and laden with moisture, escapes from the drying chamber (10) through the drying chamber air outlet or exhaust (44) to the final air exhaust (49) then to the environment, controlled by the air controller (48); or to the air warmer (2) and eventually to the air warmer exhaust (52) through the metal tube or pipe (50) passing through the control valve (51) that controls the flow of air to the air warmer (2).

a.l.) Drying process with the use of the moist atmospheric or environmental air (figures 2, 4, 6, 8, 10 and 12)

Embodiment 1 (Figure 2) — In the process, of this embodiment, the electric motor (3) drives the air compressor (4) and the environmental or atmospheric moist air, (with its fluctuating environmental temperature from cold to warm air, depending upon the location), is sucks in by the air compressor (4), and is compressed, builds up pressure, squirts out and rushes to the cold air storage tank (5) through the metal tube or pipe (17) connecting the air compressor (4) and the cold air storage tank (5) passing through the check valve (18) and the opened control valve (19), [in which control valve (19) when closed also controls the backward air outflow from the cold air storage tank (5) when the compressor is not running]; and the cold air may just pass through or stored in the cold air storage tank (5). The temperature of the pressurized cold air in the cold storage tank is monitored by the thermometer (20) and the air pressure is monitored, controlled and maintained to a desired level by the pressure gauge (21).

From the cold air storage tank (5), and upon the opening of the control valve (24), the pressurized cold moist air for heating rushes out to the heater tank (6) through the metal tube or pipe (22) that connects the cold air storage tank (5) and the heater tank (6) passing through the check valve (23) and control valve (24) that control and regulate the air flow. In the heater tank (6) the pressurized cold moist air is heated with the temperature ranging from more or less 50 degrees centigrade (50°C) which may reach up to 300 degrees centigrade (300⁰C) or more, by the heat coming from the burner/furnace/heater (7). The air temperature is monitored by the thermometer (25) and the pressure is monitored, controlled and maintained to a desired level by the pressure gauge (26).

The pressurized hot to very hot moist air in the heater tank (6), upon the opening of the control valve (29), sprints its way out to the hot air storage tank (8) where it may just pass through or is stored, through the metal tube or pipe (27) that connects the heater tank (6) and the hot air storage tank (8) passing through the check valve (28) and the control valve (29) that control and regulate the air flow. The air temperature in the hot air storage tank (8) is monitored by the thermometer (30) and the pressure is monitored, controlled and maintained to a desired level by the pressure gauge (31).

The pressurized hot or very hot moist air in the hot air storage tank (8), upon the opening of the control valve (34), rushes out and swiftly travels to the hot and cold air combination tank (9) through the metal tube or pipe (32) passing through the check valve (33) and the control valve (34) that control and regulate the air flow.

The pressurized hot or very hot moist air present or existing in or flowing to the hot and old air combination tank (9) from the hot air storage tank (8) combines with the pressurized cold moist air from the cold air storage tank (5) in the combination and mixing procedure of the pressurized hot and cold moist air.

The pressurized cold moist air in the cold air storage tank (5), upon opening of the control valve (39), sprints out and combines with the pressurized hot or very hot moist air in the hot and cold air combination tank (9), in the combination and mixing procedure of the pressurized hot and cold moist air, by way of rushing in through the metal tube or pipe (37) that connects the cold air storage tank (5) and the hot and cold air combination tank (9) passing through the check valve (38) and the control valve (39) that control and regulate the air flow. The air temperature in the hot and cold air combination tank (9) is monitored by the thermometer (35) and the pressure is monitored, controlled and maintained to a desired level by the pressure gauge (36).

The needed or desired air temperature in the process is attained through the combination and mixing or blending of the pressurized hot or very hot moist air from the hot air storage tank (8) and the pressurized cold moist air from the cold air storage tank (5) in the hot and cold air combination tank (9). The introduction or infusion and the flow of both the pressurized hot or very hot moist air from the hot air storage tank (8), and the pressurized cold moist air from the cold air storage tank (5) to the hot and cold air combination tank (9), is controlled, regulated and monitored during the combination and mixing procedure of the pressurized hot and cold moist air to attain the needed or desired air temperature in the process.

However, when the temperature of the pressurized hot moist air present or existing in or flowing to the hot and cold air combination tank (9) from the hot air storage tank (8) is the needed or desired air temperature in the drying process, no combination and mixing procedure will be done anymore in the hot and cold air combination tank (9), and thereby no introduction or infusion of cold moist air from the cold air storage tank (5) to the hot and cold air combination tank (9); and so or therefore, the pressurized hot moist air present or existing in or flowing to the hot and cold air combination tank (9) infused or introduced from the hot air storage tank (8), with the needed or desired air temperature, is introduced or infused to the drying chamber (10) by opening the control valve (42) and let the pressurized hot moist air pass through the metal tube or pipe (40) that connects the hot and cold air combination tank (9) and the drying chamber (10) passing through where the air exhaust (41) is, the control valve (42) and check valve (43) that control and regulate the air flow.

More heating is done in the heater tank (6) when the temperature is not yet enough to meet the needed or desired high temperature. The infusion or introduction of the pressurized hot moist air with the needed or desired temperature from the hot air storage tank (8) to the hot and cold air combination tank (9) and then to the drying chamber (10) is almost continuous during the entire operation or up to the point when it is still needed for the operation. Towards the end of the operation, at the time of the cooling procedure, the infusion or introduction of the pressurized hot moist air from the hot air storage tank (8) to the hot and cold air combination tank (9) and then to the drying chamber (10) is gradually minimized or decreased and eventually stopped, cut off or closed; and at the same time gradually introducing or infusing the pressurized cold moist air from the cold air storage tank (5) to the hot and cold air combination tank (9) then to the drying chamber (10). The pressurized hot and cold moist air blend in the hot and cold air combination tank (9) while the infusion or introduction of the pressurized hot moist air from the hot air storage tank (8) to the hot and cold air combination tank (9) decreases and the infusion or introduction of the pressurized cold air from the cold air storage tank (5) to the hot and cold air combination tank (9) increases, and the air temperature is decreasing during the cooling stage of the operation at the point in time when the operation is about to end.

When the air temperature in the hot and cold air combination tank (9) is higher than the needed or desired one, while the combination and mixing procedure of the pressurized hot and cold moist air in the hot and cold air combination tank (9) is in progress, more pressurized cold moist air is introduced or infused into the hot and cold air combination tank (9) from the cold air storage tank (5), while maintaining the flow of the pressurized hot moist air from the hot air storage tank (8) to the hot and cold air combination tank (9); and when the temperature is below the needed or desired one, more pressurized hot moist air is introduced or infused into the hot and cold air combination tank (9) from the hot air storage tank (8), while also maintaining the flow of the pressurized cold moist air from the cold air storage tank (5) to the hot and cold air combination tank (9).

The procedure of the mixing or blending may be in another way wherein, when the air temperature in the hot and cold air combination tank (9) is higher than the needed or desired one, while the combination and mixing procedure of the pressurized hot and cold air in the hot and cold air combination tank (9) is in progress, less pressurized hot moist air is introduced or infused into the hot and cold air combination tank (9) from the hot air storage tank (8), while maintaining the flow of the pressurized cold moist air from the cold air storage tank (5) to the hot and cold air combination tank (9); and when the air temperature is below the needed or desired one, less pressurized cold moist air is introduced or infused into the hot and cold air combination tank (9) from the cold air storage tank (5), while also maintaining the flow of the pressurized hot moist air from the hot air storage tank (8) to the hot and cold air combination tank (9).

When an introduction or infusion of additional volume of pressurized air (whether hot or cold moist air) to the hot and cold air combination tank (9) is not feasible anymore due to pressure, and the needed or desired temperature from the air mixture is not yet attained or reached in the combination and mixing procedures, (whether above or below the degree temperature desired), the air pressure in the hot and cold air combination tank (9) is lowered by allowing a certain volume of pressurized hot moist air to escape through the air exhaust (41), and then an additional volume of whether hot or cold moist pressurized air, as desired, is introduced or infused to the hot and cold air combination tank (9) to attain the right, needed or desired temperature.

When the right, needed or desired air temperature is attained in the hot and cold air combination tank (9) in the mixing or blending procedures, the flow of both the pressurized hot to very hot moist air from the hot air storage tank (8), and the pressurized cold moist air from the cold air storage tank (5) to the hot and cold air combination tank (9) is maintained to maintain the needed or desired air temperature of the combined, mixed or blended pressurized hot and cold moist air in the hot and cold air combination tank (9).

The air mixture with the needed or desired air temperature in the hot and cold air combination tank (9) is then introduced or infused to the drying chamber (10) almost continuously during the entire operation by opening the control valve (42), and let the air mixture pass through the metal tube or pipe (40) that connects the hot and cold air combination tank (9) and the drying chamber (10) passing through where the air exhaust

(41) is, the control valve (42) and check valve (43) that control and regulate the air flow. The air pressure inside the drying chamber is controlled and/or maintained by the pressure controller (47) at a desired level and monitored by the pressure gauge (46), while the temperature is monitored by the thermometer (45) during the entire operation period. When the operation, activity, job or task is about to end and the needed or desired air temperature is lower than the present one, or cooler air, or in the cooling stage, the infusion or introduction of the pressurized hot moist air from the hot air storage tank (8) to the hot and cold air combination tank (9) is gradually decreased or minimized and to the point in time when the infusion or introduction of the pressurized hot moist air from the hot air storage tank (8) to the hot and cold air combination tank (9) is stopped, closed or cut off and it is only the pressurized cold moist air from the cold air storage tank (5) is introduced or infused into the hot and cold air combination tank (9) in the cooling procedure; and, in this point in time there is no mixing or blending anymore of the pressurized hot and cold moist air in the hot and cold air combination tank (9), and so or therefore, the pressurized cold moist air in or flowing to the hot and cold combination tank (9) infused or introduced to it from the cold air storage tank (5) is infused or introduced to the drying chamber (10) continuously up to point when the operation is done.

The pressurized cold to warm or hot air which dried the products inside the drying chamber (10) and laden with moisture, escapes from the drying chamber (10) through the drying chamber air outlet or exhaust (44) to the final air exhaust (49) then to the environment, controlled by the air controller (48).

Embodiment 3 (Figure 4) - In the process, of this embodiment, the electric motor (3) drives the air compressor (4) and the environmental or atmospheric moist air, (with its fluctuating environmental temperature from cold to warm air, depending upon the location), is sucks in by the air compressor (4), and is compressed, builds up pressure, squirts out and rushes to the cold air storage tank (5) through the metal tube or pipe (17) connecting the air compressor (4) and the cold air storage tank (5) passing through the check valve (18) and the opened control valve (19), [in which control valve (19) when closed also controls the backward air outflow from the cold air storage tank (5) when the compressor is not running]; and the cold air may just pass through or stored in the cold air storage tank (5). The temperature of the pressurized cold air in the cold storage tank is monitored by the thermometer (20) and the air pressure is monitored, controlled and maintained to a desired level by the pressure gauge (21). From the cold air storage tank (5), and upon the opening of the control valve (24), the pressurized cold moist air for heating rushes out to the heater tank (6) through the metal tube or pipe (22) that connects the cold air storage tank (5) and the heater tank (6) passing through the check valve (23) and control valve (24) that control and regulate the air flow. In the heater tank (6) the pressurized cold moist air is heated with the temperature ranging from more or less 50 degrees centigrade (50⁰C) which may reach up to 300 degrees centigrade (300⁰C) or more, by the heat coming from the burner/furnace/heater (7). The air temperature is monitored by the thermometer (25) and the pressure is monitored, controlled and maintained to a desired level by the pressure gauge (26).

The pressurized hot to very hot moist air in the heater tank (6), upon the opening of the control valve (29), sprints its way out to the hot and cold air storage tank (9) where it combines with the pressurized cold moist air from the cold air storage tank (5 to attain the needed or desired air temperature, through the metal tube or pipe (27) that connects the heater tank (6) and the hot and cold air combination tank (9) passing through the check valve (28) and the control valve (29) that control and regulate the air flow.

The pressurized hot or very hot moist air present or existing in or flowing to the hot and old air combination tank (9) from the heater tank (6) combines with the pressurized cold dry air from the cold air storage tank (5) in the combination and mixing procedure of the pressurized hot and cold dry air.

The needed or desired air temperature in the process is attained through the combination and mixing or blending of the pressurized hot or very hot moist air from the heater tank (6) and the pressurized cold moist air from the cold air storage tank (5) in the hot and cold air combination tank (9). The introduction or infusion and the flow of both the pressurized hot or very hot moist air from the heater tank (6), and the pressurized cold moist air from the cold air storage tank (5) to the hot and cold air combination tank (9), is controlled, regulated and monitored during the combination and mixing procedure of the pressurized hot and cold moist air to attain the needed or desired air temperature in the process.

However, when the temperature of the pressurized hot moist air present or existing in or flowing to the hot and cold air combination tank (9) from the heater tank (6) is the needed or desired air temperature in the drying process, no combination and mixing procedure will be done anymore in the hot and cold air combination tank (9), and thereby no introduction or infusion of cold moist air from the cold air storage tank (5) to the hot and cold air combination tank (9); and so or therefore, the pressurized hot moist air present or existing in or flowing to the hot and cold air combination tank (9) infused or introduced from the heater tank (6), with the needed or desired air temperature, is introduced or infused to the drying chamber (10) by opening the control valve (42) and let the pressurized hot dry air pass through the metal tube or pipe (40) that connects the hot and cold air combination tank (9) and the drying chamber (10) passing through where the air exhaust (41) is, the control valve (42) and check valve (43) that control and regulate the air flow. More heating is done in the heater tank (6) when the temperature is not yet enough to meet the needed or desired high temperature.

The infusion or introduction of the pressurized hot moist air with the needed or desired temperature from the heater tank (6) to the hot and cold air combination tank (9) and then to the drying chamber (10) is almost continuous during the entire operation or up to the point when it is still needed for the operation. Towards the end of the operation, at the time of the cooling procedure, the infusion or introduction of the pressurized hot moist air from the heater tank (6) to the hot and cold air combination tank (9) and then to the drying chamber (10) is gradually minimized or decreased and eventually stopped, cut off or closed; and at the same time gradually introducing or infusing the pressurized cold moist air from the cold air storage tank (5) to the hot and cold air combination tank (9) then to the drying chamber (10). The pressurized hot and cold moist air blend in the hot and cold air combination tank (9) while the infusion or introduction of the pressurized hot moist air from the heater tank (6) to the hot and cold air combination tank (9) decreases and the infusion or introduction of the pressurized cold air from the cold air storage tank (5) to the hot and cold air combination tank (9) increases, and the air temperature is decreasing during the cooling stage of the operation at the point in time when the operation is about to end.

When the air temperature in the hot and cold air combination tank (9) is higher than the needed or desired one, while the combination and mixing procedure of the pressurized hot and cold air in the hot and cold air combination tank (9) is in progress, more pressurized cold dry air is introduced or infused into the hot and cold air combination tank (9) from the cold air storage tank (5), while maintaining the flow of the pressurized hot moist air from the heater tank (6) to the hot and cold air combination tank (9); and when the temperature is below the needed or desired one, more pressurized hot moist air is introduced or infused into the hot and cold air combination tank (9) from the heater tank (6), while also maintaining the flow of the pressurized cold moist air from the cold air storage tank (5) to the hot and cold air combination tank (9).

The procedure of the mixing or blending may be in another way wherein, when the air temperature in the hot and cold air combination tank (9) is higher than the needed or desired one, while the combination and mixing procedure of the pressurized hot and cold air in the hot and cold air combination tank (9) is in progress, less pressurized hot moist air is introduced or infused into the hot and cold air combination tank (9) from the heater tank (6), while maintaining the flow of the pressurized cold moist air from the cold air storage tank (5) to the hot and cold air combination tank (9); and when the air temperature is below the needed or desired one, less pressurized cold moist air is introduced or infused into the hot and cold air combination tank (9) from the cold air storage tank (5), while also maintaining the flow of the pressurized hot moist air from the heater tank (6) to the hot and cold air combination tank (9).

When the right, needed or desired air temperature is attained in the hot and cold air combination tank (9) in the mixing or blending procedures, the flow of both the pressurized hot to very hot moist air from the heater tank (6), and the pressurized cold moist air from the cold air storage tank (5) to the hot and cold air combination tank (9) is maintained to maintain the needed or desired air temperature of the combined, mixed or blended pressurized hot and cold moist air in the hot and cold air combination tank (9).

When the operation, activity, job or task is about to end and the needed or desired air temperature is lower than the present one, or cooler air, or in the cooling stage, the infusion or introduction of the pressurized hot moist air from the heater tank (6) to the hot and cold air combination tank (9) is gradually decreased or minimized and to the point in time when the infusion or introduction of the pressurized hot moist air from the heater tank (6) to the hot and cold air combination tank (9) is stopped, closed or cut off and it is only the pressurized cold moist air from the cold air storage tank (5) is introduced or infused into the hot and cold air combination tank (9) in the cooling procedure; and, in this point in time there is no mixing or blending anymore of the pressurized hot and cold moist air in the hot and cold air combination tank (9), and so or therefore, the pressurized cold moist air in or flowing to the hot and cold combination tank (9) infused or introduced to it from the cold air storage tank (5) is infused or introduced to the drying chamber (10) continuously up to point when the operation is done. The pressurized cold to warm or hot air which dried the products inside the drying chamber (10) and laden with moisture, escapes from the drying chamber (10) through the drying chamber air outlet or exhaust (44) to the final air exhaust (49) then to the environment, controlled by the air controller (48).

Embodiment 5 (Figure 6) -Jn the process, of this embodiment, the electric motor (3) drives the air compressor (4) and the environmental or atmospheric moist air, (with its fluctuating environmental temperature from cold to warm air, depending upon the location), is sucks in by the air compressor (4), and is compressed, builds up pressure, squirts out and rushes to the cold air storage tank (5) through the metal tube or pipe (17) connecting the air compressor (4) and the cold air storage tank (5) passing through the check valve (18) and the opened control valve (19), [in which control valve (19) when closed also controls the backward air outflow from the cold air storage tank (5) when the compressor is not running]; and the cold air may just pass through or stored in the cold air storage tank (5). The temperature of the pressurized cold air in the cold storage tank is monitored by the thermometer (20) and the air pressure is monitored, controlled and maintained to a desired level by the pressure gauge (21).

The pressurized hot to very hot moist air in the heater tank (6), upon the opening of the control valve (29), sprints its way out to the hot air storage tank (8), which may pass through or stored in the hot air storage tank (8), through the metal tube or pipe (27) that connects the heater tank (6) and the hot air storage tank (8) passing through the check valve (28) and the control valve (29) that control and regulate the air flow. The air temperature in the hot air storage tank (8) is monitored by the thermometer (30) and the pressure is monitored, controlled and maintained to a desired level by the pressure gauge (31).

The pressurized hot to very hot moist in the hot air storage tank (8), upon opening of the control valve (42) sprints its way out and go directly to the drying chamber (10) through the metal tube or pipe (40) that connects the hot air storage tank (8) and the drying chamber

Considering that there is no hot and cold air combination tank (9) of this system embodiment, the control and regulation of the air temperature to attain the needed or desired air temperature in the process, and eventually introduced or infused to the drying chamber (10) from the hot air storage tank (8), is in the heating procedure or technique wherein the introduction of heat to the heater tank (6) from the burner/furnace/heater (7) is regulated to a certain level of desired degree centigrade (e.g. 70 - 80 degrees centigrade [70°C - 80⁰C]) to maintain the desired air temperature at a certain level degree centigrade during the entire operation. The technique is in the control and regulation of the burning of fuel in the burner/furnace/heater (7) that gives the heat in the burner/furnace/heater (7) and heats up the heater tank (6) in the heating process: less fuel is burned when minimized heating with a lower temperature is needed, and more fuel is burned when more heating and higher temperature is desired. When the burner/furnace/heater (7) uses electricity for heating, the temperature level desired is set at a certain level and when goes beyond or surpass, the electric current to the burner/furnace/heater is automatically cut off, and when goes below the desired temperature, the electricity is automatically switch on.

The pressurized warm to hot air which dried the products inside the drying chamber (10) and laden with moisture, escapes from the drying chamber (10) through the drying chamber air outlet or exhaust (44) to the final air exhaust (49) then to the environment, controlled by the air controller (48),

Embodiment 7 (Figure S^ - In the process, of this embodiment, the electric motor (3) drives the air compressor (4) and the environmental or atmospheric moist air, (with its fluctuating environmental temperature from cold to warm air, depending upon the location), is sucks in by the air compressor (4), and is compressed, builds up pressure, squirts out and rushes to the cold air storage tank (5) through the metal tube or pipe (17) connecting the air compressor (4) and the cold air storage tank (5) passing through the check valve (18) and the opened control valve (19), [in which control valve (19) when closed also controls the backward air outflow from the cold air storage tank (5) when the compressor is not running]; and the cold air may just pass through or stored in the cold air storage tank (5). The temperature of the pressurized cold air in the cold storage tank is monitored by the thermometer (20) and the air pressure is monitored, controlled and maintained to a desired level by the pressure gauge (21),

From the cold air storage tank (5), and upon the opening of the control valve (24), the pressurized cold moist air for heating rushes out to the heater tank (6) through the metal tube or pipe (22) that connects the cold air storage tank (5) and the heater tank (6) passing through the check valve (23) and control valve (24) that control and regulate the air flow. In the heater tank (6) the pressurized cold dry air is heated with the temperature ranging from more or less 50 degrees centigrade (50°C) which may reach up to 300 degrees centigrade (300°C) or more, by the heat coming from the burner/furnace/heater (7). The air temperature is monitored by the thermometer (25) and the pressure is monitored, controlled and maintained to a desired level by the pressure gauge (26).

The pressurized hot to very hot moist air in the heater tank (6), upon opening of the control valve (42) sprints its way out and go directly to the drying chamber (10) through the metal tube or pipe (40) that connects the heater tank (6) and the drying chamber (10) passing through where the air exhaust (40) is, the control valve (42) and check valve (43) that control and regulate the air flow. The air pressure inside the drying chamber is controlled and/or maintained by the pressure controller (47) at a desired level and monitored by the pressure gauge (46), while the temperature is monitored by the thermometer (45) during the entire operation period.

Considering that there is no hot and cold air combination tank (9) of this system embodiment, the control and regulation of the air temperature to attain the needed or desired air temperature in the process, and eventually introduced or infused to the drying chamber (10) from the heater tank (6), is in the heating procedure or technique wherein the introduction of heat to the heater tank (6) from the burner/furnace/heater (7) is regulated to a certain level of desired degree centigrade (e.g. 70 — 80 degrees centigrade [70°C - 80⁰C]) to maintain the desired air temperature at a certain level degree centigrade during the entire operation. The technique is in the control and regulation of the burning of fuel in the burner/furnace/heater (7) that gives the heat in the burner/furnace/heater (7) and heats up the heater tank (6) in the heating process: less fuel is burned when minimized heating with a lower temperature is needed, and more fuel is burned when more heating and higher temperature is desired. When the burner/furnace/heater (7) uses electricity for heating, the temperature level desired is set at a certain level and when goes beyond or surpass, the electric current to the burner/furnace/heater is automatically cut off, and when goes below the desired temperature, the electricity is automatically switch on.

When the operation, activity, job or task is about to end in this process, there are two procedures to be done in which one or the other is to be observed as desired: (a) one is the infusion or introduction of the hot pressurized moist air to the drying chamber (10) from the heater tank (6) is minimized to the point in time when it is stopped or cut off and let the cooling go in its natural course under the environmental conditions with the environmental temperature, (b) and the other is, the heating is stopped and the let the infusion or the introduction of the cold moist air from the cold air storage tank (5) to the heater tank (6) continue and eventually to the drying chamber (10) for cooling.

The pressurized warm to hot air which dried the products inside the drying chamber (10) and laden with moisture, escapes from the drying chamber (10) through the drying chamber air outlet or exhaust (44) to the final air exhaust (49) then to the environment, controlled by the air controller (48).

Embodiment 9 (Figure 10) — In the process, of this embodiment, the electric motor

(3) drives the air compressor (4) and the environmental or atmospheric moist air, (with its fluctuating environmental temperature from cold to warm air, depending upon the location), is sucks in by the air compressor (4), and is compressed, builds up pressure, squirts out and rushes to the heater tank (6) through the metal tube or pipe (22) connecting the air compressor (4) and the heater tank (6) passing through the check valve (23) and the opened control valve (24), [in which control valve (24) when closed also controls the backward air outflow from the heater tank (6) when the compressor is not running]. In the heater tank (6) the pressurized cold moist air is heated with the temperature ranging from more or less 50 degrees centigrade (50⁰C) which may reach up to 300 degrees centigrade (300⁰C) or more, by the heat coming from the burner/furnace/heater (7). The air temperature is monitored by the thermometer (25) and the pressure is monitored, controlled and maintained to a desired level by the pressure gauge (26). The pressurized hot to very hot moist air in the heater tank (6), upon the opening of the control valve (29), sprints its way out to the hot air storage tank (8), which may pass through or stored in the hot air storage tank (8), through the metal tube or pipe (27) that connects the heater tank (6) and the hot air storage tank (8) passing through the check valve (28) and the control valve (29) that control and regulate the air flow. The air temperature in the hot air storage tank (8) is monitored by the thermometer (30) and the pressure is monitored, controlled and maintained to a desired level by the pressure gauge (31).

The pressurized hot to very hot moist air in the hot air storage tank (8), upon opening of the control valve (42) sprints its way out and go directly to the drying chamber

(10) through the metal tube or pipe (40) that connects the hot air storage tank (8) and the drying chamber (10) passing through where the air exhaust (40) is, the control valve (42) and check valve (43) that control and regulate the air flow. The air pressure inside the drying chamber is controlled and/or maintained by the pressure controller (47) at a desired level and monitored by the pressure gauge (46), while the temperature is monitored by the thermometer (45) during the entire operation period.

Considering that there is no hot and cold air combination tank (9) of this system embodiment, the control and regulation of the air temperature to attain the needed or desired air temperature in the process, and eventually introduced or infused to the drying chamber (10) from the hot air storage tank (8), is in the heating procedure or technique wherein the introduction of heat to the heater tank (6) from the burner/furnace/heater (7) is regulated to a certain level of desired degree centigrade (e.g. 70 — 80 degrees centigrade [70⁰C - 80⁰C]) to maintain the desired air temperature at a certain level degree centigrade during the entire operation. The technique is in the control and regulation of the burning of fuel in the burner/furnace/heater (7) that gives the heat in the buraer/furnace/heater (7) and heats up the heater tank (6) in the heating process: less fuel is burned when minimized heating with a lower temperature is needed, and more fuel is burned when more heating and higher temperature is desired. When the burner/furnace/heater (7) uses electricity for heating, the temperature level desired is set at a certain level and when goes beyond or surpass, the electric current to the burner/furnace/heater is automatically cut off, and when goes below the desired temperature, the electricity is automatically switch on. Another manual technique in the control and regulation of the temperature in the heater tank (6) during the heating process is the use of water wherein the heater tank (6) is placed in a basin, kettle or pot with water and then the basin, kettle or pot with water is heated with the heater tank (6) at he burner/furnace/heater (T). The boiling point of water is 100 degrees centigrade (100⁰C) and the temperature in the heater tank (6) during the heating process will not exceed the boiling point of water which is 100 degrees centigrade (100⁰C).

Embodiment 11 (Figure 12) - In the process, of this embodiment, the electric motor (3) powers the air compressor (4) and the air compressor (4) sucks in environmental or atmospheric moist air (with its fluctuating environmental temperature from cold to warm air, depending upon the location), compressed, builds up pressure, squirts out and rushes to the heater tank (6) through the metal tube or pipe (22) connecting the air compressor (4) and the heater tank (6) passing through the check valve (23) and the opened control valve (24), [in which control valve (24) when closed also controls the backward air outflow from the heater tank (6) when the compressor is not running]. In the heater tank (6) the pressurized cold moist air is heated with the temperature ranging from more or less 50 degrees centigrade (5O⁰C) which may reach up to 300 degrees centigrade (300⁰C) or more, by the heat coming from the burner/furnace/heater (7). The air temperature is monitored by the thermometer (25) and the pressure is monitored, controlled and maintained to a desired level by the pressure gauge (26).

Considering that there is no hot and cold air combination tank (9) of this system embodiment, the control and regulation of the air temperature to attain the needed or desired air temperature in the process, and eventually introduced or infused to the drying chamber (10) from the heater tank (6), is in the heating procedure or technique wherein the introduction of heat to the heater tank (6) from the burner/furnace/heater (7) is regulated to a certain level of desired degree centigrade (e.g. 70 — 80 degrees centigrade [7O⁰C - 8O⁰C]) to maintain the desired air temperature at a certain level degree centigrade during the entire operation. The technique is in the control and regulation of the burning of fuel in the burner/furnace/heater (7) that gives the heat in the burner/furnace/heater (7) and heats up the heater tank (6) in the heating process: less fuel is burned when minimized heating with a lower temperature is needed, and more fuel is burned when more heating and higher temperature is desired. When the burner/furaace/heater (7) uses electricity for heating, the temperature level desired is set at a certain level and when goes beyond or surpass, the electric current to the burner/furnace/heater is automatically cut off, and when goes below the desired temperature, the electricity is automatically switch on.

Another manual technique in the control and regulation of the temperature in the heater tank (6) during the heating process is the use of water wherein the heater tank (6) is placed in a basin, kettle or pot with water and then the basin, kettle or pot with water is heated with the heater tank (6) at he burner/furnace/heater (7). The boiling point of water is 100 degrees centigrade (100⁰C) and the temperature in the heater tank (6) during the heating process will not exceed the boiling point of water which is 100 degrees centigrade (100⁰C). When the operation, activity, job or task is about to end, there are two procedures to be done in which one or the other is to be observed as desired: (a) one is the infusion or introduction of the hot pressurized dry air to the drying chamber (10) from the hot air storage tank (8) is minimized to the point in time when it is stopped or cut off and let the cooling go in its natural course under the environmental conditions with the environmental temperature, (b) and the other is, the heating is stopped and the let the introduction or infusion of the cold dry air from the air compressor (4) to the heater tank (6) and to the hot air storage tank (8) continue and eventually to the drying chamber (10) for cooling.

(10) and laden with moisture, escapes from the drying chamber (10) through the drying chamber air outlet or exhaust (44) to the final air exhaust (49) then to the environment, controlled by the air controller (48).

b) Warming/heating the room, house or building, food products in restaurants or food shops with the use of dry or moist air

Any of the systems (the whole system and its embodiments) and processes of the figures 1 to 12, as discussed above, may or can be used for warming/heating the room, house or building (in times of cold days especially in areas where cold periods are observed through the year), and food products in restaurants or food shops with the use of the dry or moist air piped-in to the room, house or building and/or to the food products for heating.

Following the steps or processes of the figures 1 to 12, as discussed above, all the systems may or can be used for warming/heating the room, house or building, food products in restaurants or food shops with the use of dry or moist air. A designed metal tube or pipe fitting is attached to the air exhaust (41) that will connect to the installed metal tubes or pipes along the room, house or building and will distribute the warm to hot air (as desired) evenly in the room, house or building, or to the areas of the room where the food products to be heated are placed.

As the fittings are in placed and the air exhaust (41) is open, the pressurized warm to hot dry or moist air rushes out and enters into the designed fittings and eventually to the installed tubes or pipes of the room, house or building for the distribution of the warm to hot air.

c.) Air drying with the use of dry air at environmental or room temperature

Air drying with the use of the environmental or atmospheric air is done in some cases in the localities, especially for seeds dry or any product that needs drying with low temperature requirement using blowers. Air drying temperature ranges from 30 degrees centigrade to 36 degrees centigrade (30⁰C - 36°C).

Figures 1 and 3 with their corresponding processes, as discussed above, may or can be used in air drying following or applying the air drying temperatures as indicated above. The heating process is very minimal considering that the temperature requirement is low.

Figures 5, 7, 9 and 11 with their corresponding processes, as discussed above, may or can also be used in the air drying process but with regulated heating as these systems and their corresponding processes may incur wide range of temperature fluctuations. Also minimal heating is used here as the temperature requirement is low in this process.

Capability of the invention for the exploitation in the industry:

The invention is adaptable to the rural areas and to the highly urbanized cities and highly needed at home and in industries.

This invention revolutionizes the processes, procedures and methods of drying.

This invention is commerciable and will help solve the problems of drying especially for agricultural products. This invention will eventually help solve the problems of afflatoxins in copra, corn and peanuts.

This will also help solve the perennial problems of rice and corn drying wherein the farmers use the highways or roads in drying of their agricultural products that become hazardous to motorists. Another problems that will be helped solve by this invention are the problems of drying mostly for longer period of preservation of marine or aquatic products like fish, squids, sea cucumbers, octopuses, seaweeds etc. which is the livelihood of many fishermen in the coastal areas of our country.

This invention will also help solve the problems of drying of lumber and other forest products thereby helping the industries of our country dealing on forest products.

This invention can have a design for a home drier for clothes with the shape like that of the refrigerator in a vertical position as a result providing a clothes dryer for almost every home thereby solving the problems of clothes drying at home.

Claims

ClaimsBased on the disclosure, abstract and drawings, the inventor claims:A.) SystemFigure 1

1. A compressed air dryer system, of the main system (figure 1), used in drying products, said system which is an interconnection of its major and secondary components or parts; working, in good or running condition, operational, serviceable, operable and capable of performing tasks; comprising: a.) a condenser - which condenses the moisture in air that enters the condenser during the operation; b.) an air warmer - which is connected to the said condenser by a metal tube or pipe, and said air warmer, warms the cold air that passes through it from the condenser; c.) an air compressor - which is connected to the said air warmer by the metal tube or pipe, and said compressor draws and compresses air passing through the condenser and air warmer and injects the compressed air to the cold storage tank; d.) an electric motor - which is connected the said air compressor by a pump belt and the said electric motor powers the air compressor during the operation; e.) a cold air storage tank - which is connected to the said air compressor by a metal tube or pipe and the said cold air storage tank is capable of receiving the compressed dry air from the compressor, let the cold dry air pass through to the heater tank or hot and cold air combination tank upon the opening of the control valve or store the cold dry air; f.) a heater tank - which is connected to the said cold air storage tank by the metal tube or pipe, and the said heater tank is capable of receiving the pressurized cold dry air from the heater tank, and also capable in receiving the heat from the burner/ furnace/heater and m heating the pressurized cold dry air infused to it from the cold air storage tank and let the pressurized hot dry air pass through to the hot air storage tank upon the opening of the control valve; g.) a burner/furnace/heater - which is connected to the said heater tank either directly, indirectly or loosely, and the said burner/furnace/heater is capable of the heating the heater tank and the air inside; h.) a hot air storage tank - which is connected to the said heater tank by the metal tube or pipe, and the said hot air storage tank is capable of receiving the pressurized hot dry air infused to it from the heater tank, let it pass through to the hot and cold air combination tank upon the opening of the control valve or store the hot air; i.) a hot and cold air combination tank - which is connected to the said hot air storage tank by a metal tube or pipe and the said hot and cold air combination tank is capable of receiving the pressurized hot dry air infused to it from the hot air storage tank; further, the said hot and cold air combination tank is connected to the said cold air storage tank and also the said hot and cold air combination tank is capable of receiving the pressurized cold dry air infused to it from the said cold air storage tank; moreover, the said hot and cold air combination tank is capable of containing the unmixed pressurized hot or cold dry air (or not blended) or the mixed (or blended) pressurized hot and cold dry air and, let the unmixed pressurized hot or cold dry air (or not blended) or the mixed (or blended) pressurized hot and cold dry air pass through to the drying chamber upon the opening of the control valve or store the unmixed or mixed air for a while; j.) a drying chamber - which is connected to the said hot and cold air combination tank by a metal tube or pipe, and the said drying chamber is capable of accommodating the products subject for drying and also capable of receiving the blended (or not blended air) pressurized warm to hot air from the hot and cold air combination tank; and, also the said drying chamber is connected to the air warmer by the drying chamber air outlet or exhaust and the metal tube or pipe.

2. The system according to claim 1 wherein the other secondary components or parts are installed, comprising: a.) air inlets - at the in front of the condenser; b.) a condenser water outlet - at the bottom of the condenser; c.) thermometers - on the metal tube or pipe connecting the air warmer and the air compressor; cold air storage tank, the heater tank, the hot air storage tank, the hot and cold air combination, and on the drying chamber air outlet or exhaust; or, the thermometer on this drying chamber air outlet or exhaust is directly installed on the drying chamber; d.) check valves - on the metal tubes or pipes that interconnect the cold air storage tank to the air compressor; the heater tank to cold air storage tank; the hot air storage tank to the heater tank; the hot and cold air combination tank to the hot air storage tank; the drying chamber to the hot and cold air combination tank; and the hot and cold air combination tank to the cold air storage tank; e.) control valves - on the metal tubes or pipes that interconnect the cold air storage tank to the air compressor ; the heater tank to the cold air storage tank; the hot air storage tank to the heater tank; the hot and cold air combination tank to the hot air storage; the drying chamber to the hot and cold air combination tank; the hot and cold air combination tank to the cold air storage tank; and on the metal tube or pipe that connects the drying chamber air outlet or exhaust to the air warmer; f.) pressure gauges - on the cold air storage tank, the heater tank, the hot air storage tank, the hot and cold air combination tank, and on the drying chamber air outlet or exhaust; or, the pressure gauge installed on this drying chamber air outlet or exhaust is directly installed on the drying chamber; f.) air exhaust - on the metal tube or pipe that connects the hot and cold air combination tank and the drying chamber; h.) pressure controller - on the drying chamber air outlet or exhaust; i.) air flow controller - on the drying chamber air outlet or exhaust; j.) final air exhaust - at the tip of the drying chamber air outlet or exhaust; and, k.) air warmer exhaust - at the top of the air warmer.

Further, the installation of the said secondary components or parts in the system may be positioned or placed in varying places or areas, where they are supposed to be installed, or attached in any part of the major component, convenient, proper and provided it will serve the purpose.

3. The system according to claim 2 wherein the features, shapes, forms, lengths, heights, widths, dimensions or measurements of the major and secondary components or parts may or will vary, change, differ; or modified, adjusted altered or revised, depending upon the site, locality, location, area, setting, position, size, capacity or volume of the dryer or the system itself. Further, in the design, creation, formation, making, production, manufacture, fabrication or construction of the said system, the setting, arrangements, placements, assembly, grouping, positioning of the major and secondary components or parts may or will vary, change, differ; or modified, adjusted altered or revised, depending upon the site, locality, location, area, layout, plan, design, outline, size, capacity or volume of the dryer or the system itself.

4. The system according to claim 3 wherein it uses metallic and non-metallic major or secondary components or parts, where and/or when such usage may or can apply.

5. The system according to claim 3 wherein it opted not to use the air warmer and the air warmer is eliminated in the interconnection series of the major components or parts.

6. The system according to claim 3 wherein, based on or depending upon the design of the buraer/furnace/heater, the burner/furnace/heater is connected to the heater tank in either way, or in any way or manner, or in any one, of the following: a.) the burner/furnace/heater is directly connected with the heater tank, directly fastened, bolted, belted or tied; b.) the burner/furnace/heater is indirectly connected with the heater tank using the basin, kettle or pot with water in the heating process to control or regulate the temperature; c.) the burner/furnace/heater is loosely connected with the heater tank, the heater tank just place on top of the burner/furnace/heater, or rather the burner/furnace/heater detached from the heater tank and with a distance, but still serving its function as a burner/furnace/heater and heating the heater tank during the operation or in the process.

7. The system according to claim 3 wherein, based on or depending upon the design of the burner/furnace/heater, the burner/furnace/heater uses either or any one of the following as its fuel: a.) petroleum products (liquefied petroleum gas, kerosene, diesel, etc.); b.) alcohol; c.) local fuel (wood, charcoal, rice hull, etc., or any similar materials provided it will burn and produce fire); d.) electricity (or electrical power or energy); or, e.) specially designed burner/furnace/heater in an expanded system, wherein it can use all forms of fuel.

8. The system according to claim 3 wherein the system uses the substitute of the electric motor to drive the compressor, and it is either or any of the following: a.) a machine; b.) a wind vane, or any similar device using wind energy.

9. The system according to claim 3 wherein the air compressor and the electric motor (or its substitute) is coupled, integrated or incorporated.

10. The system according to claim 3, expanded in any way or manner by increasing, attaching, supplementing, augmenting or adding all, some, a few, or in the combination of selected or chosen, whichever, whatever or any of the following major component/s or part/s, making the component/s or part/s, with or without the necessary secondary part/s installed, and become integral component/s or part/s of the system: a.) one or more condensers; b.) one or more air warmers; c.) one or more air compressors; d.) one or more electric motors (or its substitute); e.) one or more cold air storage tanks; f.) one or more heater tanks; g.) one or more burner/furnace/heaters; h.) one or more hot air storage tanks; i.) one or more hot and cold air combination tanks; and, j.) one or more drying chambers.

Figure 2

11. The embodiment 1 (figure 2) of the compressed air dryer system, used in drying products, said system which is an interconnection of its major and secondary components or parts; working, in good or running condition, operational, serviceable, operable and capable of performing tasks; comprising: a.) an air compressor - which draws and compresses air from the atmosphere or from the environment and injects the compressed air to the cold storage tank; b.) an electric motor - which is connected the said air compressor by a pump belt and the said electric motor powers the air compressor during the operation; c.) a cold air storage tank - which is connected to the said air compressor by a metal tube or pipe and the said cold air storage tank is capable of receiving the compressed air from the compressor, let the cold air pass through to the heater tank or hot and cold air combination tank upon the opening of the control valve, or store the cold air; d.) a heater tank - which is connected to the said cold air storage tank by the metal tube or pipe, and the said heater tank is capable of receiving the pressurized cold air from the heater tank, and also capable in receiving the heat from the burner/ furnace/heater and in heating the pressurized cold air infused or injected to it from the cold air storage tank and let the pressurized hot air pass through to the hot air storage tank upon the opening of the control valve; e.) a bumer/furnace/heater - which is connected to the said heater tank directly, indirectly or loosely, and the said burner/furnace/heater is capable of the heating the heater tank and the air inside; f.) a hot air storage tank - which is connected to the said heater tank by the metal tube or pipe, and the said hot air storage tank is capable of receiving the pressurized hot air infused or injected to it from the heater tank, let the pressurized hot ah^* pass through to the hot air combination tank upon the opening of the control valve or store the hot air; g.) a hot and cold air combination tank - which is connected to the said hot air storage tank by a metal tube or pipe and the said hot and cold air combination tank is capable of receiving the pressurized hot moist air infused to it from the hot air storage tank; further, the said hot and cold air combination tank is connected to the said cold air storage tank and also the said hot and cold air combination tank is capable of receiving the pressurized cold moist air infused to it from the said cold air storage tank; moreover, the said hot and cold air combination tank is capable of containing the unmixed pressurized hot or cold moist air (or not blended) or the mixed (or blended) pressurized hot and cold moist air and, let the unmixed pressurized hot or cold moist air (or not blended) or the mixed (or blended) pressurized hot and cold moist air pass through to the drying chamber upon the opening of the control valve or store the unmixed or mixed air for a while; h.) a drying chamber - which is connected to the said hot and cold air combination tank by a metal tube or pipe, and the said drying chamber is capable of accommodating the products subject for drying and also capable of receiving the blended (or not blended air) pressurized air from the hot and cold air combination tank.

12. The system according claim 11 with other secondary components or parts installed, comprising: a.) thermometers - on the cold air storage tank, the heater tank, the hot air storage tank, the hot and cold air combination tank, and on the drying chamber air outlet or exhaust; or, the thermometer on this drying chamber air outlet or exhaust is directly installed on the drying chamber; b.) check valves - on the metal tubes or pipes that interconnects the cold air storage tank to the air compressor, the heater tank to the cold air storage tank, the hot air storage tank to the heater tank, the hot and cold air combination tank the hot air storage tank, the drying chamber to the hot and cold air combination tank, and the cold air storage tank to the hot and cold air combination tank; c.) control valves - on the metal tubes or pipes that interconnect the cold air storage tank to the air compressor, the heater tank to the cold air storage tank, the hot air storage tank to the heater tank, the hot and cold air combination tank to the hot air storage, the drying chamber to the hot and cold air combination tank, and the cold air storage tank to the hot and cold air combination tank; d.) pressure gauges - on the cold air storage tank, the heater tank, the hot air storage tank, the hot and cold air combination tank, and on the drying chamber air outlet or exhaust; or, the pressure gauge installed on this drying chamber air outlet or exhaust is directly installed on the drying chamber; e.) air exhaust - on the metal tube or pipe that connects the hot and cold air combination tank (9) and the drying chamber; f.) drying chamber air outlet or exhaust - on the drying chamber; g.) pressure controller - on the drying chamber air outlet or exhaust h.) air flow controller - on the drying chamber air outlet or exhaust; and, i.) final air exhaust - at the tip of the drying chamber air outlet or exhaust

And the installation of the said secondary components or parts in the system, may be positioned or placed in varying areas in the system, or attached in any part of the major component, convenient and provided it will serve the purpose.

13. The system according to claim 12 wherein the features, shapes, forms, lengths, heights, widths, dimensions or measurements of the major and secondary components or parts may or will vary, change, differ; or modified, adjusted altered or revised, depending upon the site, locality, location, area, setting, position, size, capacity or volume of the dryer or the system itself. Further, in the design, creation, formation, making, production, manufacture, fabrication or construction of the said system, the setting, arrangements, placements, assembly, grouping, positioning of the major and secondary components or parts may or will vary, change, differ; or modified, adjusted altered or revised, depending upon the site, locality, location, area, layout, plan, design, outline, size, capacity or volume of the dryer or the system itself.

14. The system according to claim 13 wherein it uses metallic and non-metallic major or secondary components or parts, where and/or when such usage may or can apply.

15. The system according to claim 13 wherein, based on or depending upon the design of the burner/furnace/heater, the burner/furnace/heater is connected to the heater tank in either way, or in any way or manner, or in any one, of the following: a.) the burner/furnace/heater is directly connected with the heater tank, directly fastened, bolted, belted or tied; b.) the burner/furnace/heater is indirectly connected with the heater tank using the basin, kettle or pot with water in the heating process to control or regulate the temperature; c.) the burner/furnace/heater is loosely connected with the heater tank, the heater tank just place on top of the burner/furnace/heater, or rather the burner/furnace/heater detached from the heater tank and with a distance, but still serving its function as a burner/furnace/heater and heating the heater tank during the operation or in the process.

16. The system according to claim 13 wherein, based on or depending upon the design of the burner/furnace/heater, the burner/furnace/heater uses either or any one of the following as its fuel: a.) petroleum products (liquefied petroleum gas, kerosene, diesel, etc.); b.) alcohol; c.) local fuel (wood, charcoal, rice hull, etc., or any similar materials provided it will burn and produce fire); d.) electricity (or electrical power or energy); or, e.) specially designed burner/furnace/heater in an expanded system, wherein it can use all forms of fuel.

17. The system according to claim 13 wherein the system uses the substitute of the electric motor to drive the compressor, and it is either or any of the following: a.) a machine; b.) a wind vane, or any similar device using wind energy.

18. The system in claim 13 wherein the air compressor and the electric motor (or its substitute) is coupled, integrated or incorporated.

19. The system in claim 13, expanded in any manner by increasing, attaching, supplementing, augmenting or adding all, some, a few, or in the combination of selected or chosen, whichever, whatever or any of the following major component/s or part/s, making the component/s or part/s, with or without the necessary secondary partf s installed, and become integral component/s or part/s of the system: a.) one or more air compressors; b.) one or more electric motors (or its substitute); c.) one or more cold air storage tanks; d.) one or more heater tanks; e.) one or more burner/furnace/heaters; f.) one or more hot air storage tanks; g.) one or more hot and cold air combination tanks; and, h.) one or more drying chambers.

Figure 3

20. The embodiment 2 (figure 3) of the compressed air dryer system, used in drying products, said system which is an interconnection of its major and secondary components or parts; working, in good or running condition, operational, serviceable, operable and capable of performing tasks; comprising: a.) a condenser - which condenses the moisture in air that enters the condenser during the operation; b.) an air warmer - which is connected to the said condenser by a metal tube or pipe, and said air warmer, warms the cold air that passes through it from the condenser; c.) an air compressor - which is connected to the said air warmer by the metal tube or pipe, and said compressor draws and compresses air passing through the condenser and air warmer and injects the compressed air to the cold storage tank; d.) an electric motor - which is connected the said air compressor by a pump belt and the said electric motor powers the air compressor during the operation; e.) a cold air storage tank - which is connected to the said air compressor by a metal tube or pipe and the said cold air storage tank is capable of receiving the compressed air from the compressor, let the cold air pass through to the heater tank or to the hot and cold air combination tank or store the cold air; f.) a heater tank - which is connected to the said cold air storage tank by the metal tube or pipe, and the said heater tank is capable of receiving the pressurized cold air from the cold air storage tank, and also capable in receiving the heat from the burner/ furnace/heater and in heating the pressurized cold air infused or injected to it from the cold air storage tank and let the pressurized hot air pass through to the hot and cold air combination tank; g.) a burner/furnace/heater - which is connected to the said heater tank directly, indirectly or loosely, and the said burner/furnace/heater is capable of the heating the heater tank and the air inside; h.) a hot and cold air combination tank - which is connected to the said heater tank by a metal tube or pipe and the said hot and cold air combination tank is capable of receiving the pressurized hot dry air infused to it from the heater tank; further, the said hot and cold air combination tank is connected to the said cold air storage tank and also the said hot and cold air combination tank is capable of receiving the pressurized cold dry air infused to it from the said cold air storage tank; moreover, the said hot and cold air combination tank is capable of containing the unmixed pressurized hot or cold dry air (or not blended) or the mixed (or blended) pressurized hot and cold dry air and, let the unmixed pressurized hot or cold dry air (or not blended) or the mixed (or blended) pressurized hot and cold dry air pass through to the drying chamber upon the opening of the control valve or store the unmixed or mixed air for a while; i.) a drying chamber - which is connected to the said hot and cold air combination tank by a metal tube or pipe, and the said drying chamber is capable of accommodating the products subject for drying and also capable of receiving the blended (or not blended air) pressurized ah^* from the hot and cold air combination tank; and, also the said drying chamber is connected to the air warmer by the drying chamber air outlet or exhaust and the metal tube or pipe.

21. The system of claim 20 with other secondary components or parts installed, comprising: a.) air inlets - at the in front of the condenser; b.) a condenser water outlet - at the bottom of the condenser; c.) thermometers - on the metal tube or pipe that connects the air warmer and the air compressor, on the cold air storage tank, the heater tank, cold air combination tank, and on the drying chamber air outlet or exhaust; or, the thermometer on this drying chamber air outlet or exhaust is directly installed on the drying chamber; d.) check valves - on the metal tubes or pipes that interconnect the cold air storage tank to the air compressor, the heater tank to the cold air storage tank, the hot and cold air combination tank to the heater tank, the drying chamber to the hot and cold air combination tank, and the hot and cold air combination tank to the cold air storage tank; e.) control valves - on the metal tubes or pipes that interconnect the cold air storage tank to the air compressor, the heater tank to the cold air storage tank, the hot and cold air combination tank to the heater tank, the drying chamber to the hot and cold air combination tank, the hot and cold air combination tank to the cold air storage tank, and on the metal tube or pipe that connects the drying chamber air outlet or exhaust to the air warmer; f.) pressure gauges - on the cold air storage tank, the heater tank, the hot and cold air combination tank, and on the drying chamber air outlet or exhaust; or, the pressure gauge installed on this drying chamber air outlet or exhaust is directly installed on the drying chamber; g.) air exhaust - on the metal tube or pipe that connects the hot and cold air combination tank (9) and the drying chamber; h.) pressure controller - on the drying chamber air outlet or exhaust i.) air flow controller - on the drying chamber air outlet or exhaust j.) final air exhaust - at the tip of the drying chamber air outlet or exhaust; and, k.) air warmer exhaust - on the top of the air warmer

22. The system according to claim 21 wherein the features, shapes, forms, lengths, heights, widths, dimensions or measurements of the major and secondary components or parts may or will vary, change, differ; or modified, adjusted altered or revised, depending upon the site, locality, location, area, setting, position, size, capacity or volume of the dryer or the system itself. Further, in the design, creation, formation, making, production, manufacture, fabrication or construction of the said system, the setting, arrangements, placements, assembly, grouping, positioning of the major and secondary components or parts may or will vary, change, differ; or modified, adjusted altered or revised, depending upon the site, locality, location, area, layout, plan, design, outline, size, capacity or volume of the dryer or the system itself.

23. The system according to claim 22 wherein it uses metallic and non-metallic major or secondary components or parts, where and/or when such usage may or can apply.

24. The system according to claim 22 wherein it opted not to use the air warmer and the air warmer is eliminated in the interconnection series of the major components or parts.

25. The system according to claim 22 wherein, based on or depending upon the design of the bumer/furnace/heater, the burner/furnace/heater is connected to the heater tank in either way, or in any way or manner, or in any one, of the following: a.) the burner/furnace/heater is directly connected with the heater tank, directly fastened, bolted, belted or tied; b.) the burner/furnace/heater is indirectly connected with the heater tank using the basin, kettle or pot with water in the heating process to control or regulate the temperature; c.) the burner/furnace/heater is loosely connected with the heater tank, the heater tank just place on top of the burner/furnace/heater, or rather the bumer/furnace/heater detached from the heater tank and with a distance, but still serving its function as a burner/furnace/heater and heating the heater tank during the operation or in the process.

26. The system according to claim 22 wherein, based on or depending upon the design of the burner/furnace/heater, the burner/furnace/heater uses either or any one of the following as its fuel: a.) petroleum products (liquefied petroleum gas, kerosene, diesel, etc.); b.) alcohol; c.) local fuel (wood, charcoal, rice hull, etc., or any similar materials provided it will burn and produce fire); d.) electricity (or electrical power or energy); or, e.) specially designed burner/furnace/heater in an expanded system, wherein it can use all forms of fuel.

27. The system according to claim 22 wherein the system uses the substitute of the electric motor to drive the compressor, and it is either or any of the following: a.) a machine; b.) a wind vane, or any similar device using wind energy.

28. The system in claim 22 wherein the air compressor and the electric motor (or its substitute) is coupled, integrated or incorporated.

29. The system in claim 22, expanded in any manner by increasing, attaching, supplementing, augmenting or adding all, some, a few, or in the combination of selected or chosen, whichever, whatever or any of the following major component/s or part/s, making the component/s or part/s, with or without the necessary secondary part/s installed, and become integral component/s or part/s of the system: a.) one or more condensers; b.) one or more air warmers; c.) one or more air compressors; d.) one or more electric motors (or its substitute); e.) one or more cold air storage tanks; f.) one or more heater tanks; g.) one or more burner/furnace/heaters; h.) one or more hot and cold air combination tanks; and, i.) one or more drying chambers.

Figure 4

30. The embodiment 3 (figure 4) of the compressed air dryer system, used in drying products, said system which is an interconnection of its major and secondary components or parts; working, in good or running condition, operational, serviceable, operable and capable of performing tasks; comprising: a.) an air compressor - which draws and compresses air from the atmosphere or from the environment and infuses or injects the compressed air to the cold storage tank; b.) an electric motor - which is connected the said ah- compressor by a pump belt and the said electric motor powers the air compressor during the operation; c.) a cold air storage tank - which is connected to the said air compressor by a metal tube or pipe and the said cold air storage tank is capable of receiving the compressed air from the compressor, let the cold air pass through to. the heater tank or hot and cold air combination tank upon the opening of the control valve, or store the cold air; d.) a heater tank - which is connected to the said cold air storage tank by the metal tube or pipe, and the said heater tank is capable of receiving the pressurized cold air from the heater tank, and also capable in receiving the heat from the burner/ furnace/heater and in heating the pressurized cold air infused or injected to it from the cold air storage tank and let the pressurized hot ah* pass through to the hot air storage tank upon the opening of the control valve; e.) a burner/furnace/heater - which is connected to the said heater tank directly, indirectly or loosely, and the said burner/furnace/heater is capable of the heating the heater tank and the air inside; f.) a hot and cold air combination tank - which is connected to the said heater tank by a metal tube or pipe and the said hot and cold air combination tank is capable of receiving the pressurized hot moist air infused to it from the heater tank; further, the said hot and cold air combination tank is connected to the said cold air storage tank and also the said hot and cold air combination tank is capable of receiving the pressurized cold moist air infused to it from the said cold air storage tank; moreover, the said hot and cold air combination tank is capable of containing the unmixed pressurized hot or cold moist air (or not blended) or the mixed (or blended) pressurized hot and cold moist air and, let the unmixed pressurized hot or cold moist air (or not blended) or the mixed (or blended) pressurized hot and cold moist air pass through to the drying chamber upon the opening of the control valve or store the unmixed or mixed air for a while; g.) a drying chamber - which is connected to the said hot and cold air combination tank by a metal tube or pipe, and the said drying chamber is capable of accommodating the products subject for drying and also capable of receiving the blended (or not blended air) pressurized air from the hot and cold air combination tank.

31. The system of claim 30 with other secondary components or parts installed, comprising: a.) thermometers - on the cold air storage tank, the heater tank, the hot and cold air combination tank, and on the drying chamber air outlet or exhaust; or, the thermometer on this drying chamber air outlet or exhaust is directly installed on the drying chamber; b.) check valves - on the metal tubes or pipes that interconnect the cold air storage tank to the air compressor, the heater tank to the cold air storage tank, the hot and cold air combination tank to the heater tank, the drying chamber to the hot and cold air combination tank, and the cold air storage tank to the hot and cold air combination tank; c.) control valves - on the metal tubes or pipes that interconnect the cold air storage tank to the air compressor, the heater tank to the cold air storage tank, the hot and cold air combination tank to the heater tank, the drying chamber to the hot and cold air combination tank and the cold air storage tank to the hot and cold air combination tank; d.) pressure gauges - on the cold air storage tank, the heater tank, the hot and cold air combination tank, and on the drying chamber air outlet or exhaust; or, the pressure gauge installed on this drying chamber air outlet or exhaust is directly installed on the drying chamber; e.) air exhaust - on the metal tube or pipe that connects the hot and cold ^'air' combination tank and the drying chamber; f.) drying chamber air outlet or exhaust - on the drying chamber which serves as the outlet of the air inside the drying chamber on its way out from the drying chamber; g.) pressure controller - on the drying chamber air outlet or exhaust h.) air flow controller - on the drying chamber air outlet or exhaust; and, i.) final air exhaust - at the tip of the drying chamber air outlet or exhaust

32. The system according to claim 31 wherein the features, shapes, forms, lengths, heights, widths, dimensions or measurements of the major and secondary components or parts may or will vary, change, differ; or modified, adjusted altered or revised, depending upon the site, locality, location, area, setting, position, size, capacity or volume of the dryer or the system itself. Further, in the design, creation, formation, making, production, manufacture, fabrication or construction of the said system, the setting, arrangements, placements, assembly, grouping, positioning of the major and secondary components or parts may or will vary, change, differ; or modified, adjusted altered or revised, depending upon the site, locality, location, area, layout, plan, design, outline, size, capacity or volume of the dryer or the system itself.

33. The system according to claim 32 wherein it uses metallic and non-metallic major or secondary components or parts, where and/or when such usage may or can apply.

34. The system according to claim 32 wherein, based on or depending upon the design of the burner/furnace/heater, the burner/furnace/heater is connected to the heater tank in either way, or in any way or manner, or in any one, of the following: a.) the burner/furnace/heater is directly connected with the heater tank, directly fastened, bolted, belted or tied; b.) the burner/furnace/heater is indirectly connected with the heater tank using the basin, kettle or pot with water in the heating process to control or regulate the temperature; c.) the burner/furnace/heater is loosely connected with the heater tank, the heater tank just place on top of the burner/furnace/heater, or rather the burner/furnace/heater detached from the heater tank and with a distance, but still serving its function as a bumer/furnace/heater and heating the heater tank during the operation or in the process.

35. The system according to claim 32 wherein, based on or depending upon the design of the burner/furnace/heater, the burner/furnace/heater uses either or any one of the following as its fuel: a.) petroleum products (liquefied petroleum gas, kerosene, diesel, etc.); b.) alcohol; c.) local fuel (wood, charcoal, rice hull, etc., or any similar materials provided it will burn and produce fire); d.) electricity (or electrical power or energy); or, e.) specially designed burner/furnace/heater in an expanded system, wherein it can use all forms of fuel.

36. The system according to claim 32 wherein the system uses the substitute of the electric motor to drive the compressor, and it is either or any of the following: a.) a machine; b.) a wind vane, or any similar device using wind energy.

37. The system in claim 32 wherein the air compressor and the electric motor (or its substitute) is coupled, integrated or incorporated.

38. The system in claim 32, expanded in any manner by increasing, attaching, supplementing, augmenting or adding all, some, a few, or in the combination of selected or chosen, whichever, whatever or any of the following major component/s or part/s, making the component/s or part/s, with or without the necessary secondary part/s installed, and become integral component/s or part/s of the system: a.) one or more air compressors; b.) one or more electric motors (or its substitute); c.) one or more cold air storage tanks; d.) one or more heater tanks; e.) one or more burner/furnace/heaters; f.) one or more hot and cold air combination tanks; and, g.) one or more drying chambers.

Figure 5

39. The embodiment 4 (figure 5) of the compressed air dryer system, used in drying products, said system which is an interconnection of its major and secondary components or parts; working, in good or running condition, operational, serviceable, operable and capable of performing tasks; comprising: a.) a condenser - which condenses the in air that enters the condenser during the operation; b.) an air warmer - which is connected to the said condenser by a metal tube or pipe, and said air warmer, warms the cold air that passes through it from the condenser; c.) an air compressor - which is connected to the said air warmer by the metal tube or pipe, and said compressor draws and compresses air passing through the condenser and air warmer and injects the compressed air to the cold storage tank; d.) an electric motor - which is connected the said air compressor by a pump belt and the said electric motor powers the air compressor during the operation; e.) a cold air storage tank - which is connected to the said air compressor by a metal tube or pipe and the said cold air storage tank is capable of receiving the compressed air from the compressor, let the cold air pass through to the heater tank upon the opening of the control valve or store the cold air; f.) a heater tank - which is connected to the said cold air storage tank by the metal tube or pipe, and the said heater tank is capable of receiving the pressurized cold air from the cold air storage tank, and also capable in receiving the heat from the burner/ furnace/heater and in heating the pressurized cold air infused or injected to it from the cold air storage tank, and let the pressurized hot air pass through to the hot air storage tank upon the opening of the control valve; g.) a burner/furnace/heater - which is connected to the said heater tank directly, indirectly or loosely, and the said burner/furnace/heater is capable of heating the heater tank and the air inside; h.) a hot air storage tank - which is connected to the said heater tank by the metal tube or pipe, and the said hot air storage tank is capable of receiving the pressurized hot air infused or injected to it from the heater tank, let it pass through to the drying chamber upon the opening of the control valve or store the hot air; i.) a drying chamber — which is connected to the said hot air storage tank by a metal tube or pipe, and the said drying chamber is capable of accommodating the products subject for drying and also capable of receiving the pressurized hot air from the hot air storage tank; and, also the said drying chamber is connected to the air warmer by the drying chamber air outlet or exhaust and the metal tube or pipe.

40. The system of claim 39 with other secondary components or parts installed, comprising: a.) air inlets - at the in front of the condenser; b.) a condenser water outlet - at the bottom of the condenser; c.) thermometers - on the metal tube or pipe that connects the air warmer and the air compressor, the cold air storage tank, the heater tank, hot air storage tank, and on the drying chamber air outlet or exhaust; or, the thermometer on this drying chamber air outlet or exhaust is directly installed on the drying chamber; d.) check valves - on the metal tubes or pipes that interconnect the cold air storage tank to the air compressor, the heater tank to the cold air storage tank, the hot air storage tank to the heater tank, the drying chamber to the hot air storage tank; e.) control valves - on the metal tubes or pipes that interconnect the cold air storage tank to the air compressor, the heater tank to the cold air storage tank, the hot air storage tank to the heater tank, the drying chamber to the hot air storage tank, and on the metal tube or pipe that connects the drying chamber air outlet or exhaust to the air warmer; f.) pressure gauges - on the cold air storage tank, the heater tank, the hot air storage tank, and on the drying chamber air outlet or exhaust; or, the pressure gauge installed on this drying chamber air outlet or exhaust is directly installed on the drying chamber; g.) air exhaust - on the metal tube or pipe that connects the hot air storage and the drying chamber; h.) pressure controller - on the drying chamber air outlet or exhaust; i.) air flow controller - on the drying chamber air outlet or exhaust; j.) final air exhaust - at the tip of the drying chamber air outlet or exhaust; and, k.) air warmer exhaust - on the top air warmer. And the installation of the said secondary components or parts in the system, may be positioned or placed in varying areas in the system, or attached in any part of the major component, convenient and provided it will serve the purpose.

41. The system according to claim 40 wherein the features, shapes, forms, lengths, heights, widths, dimensions or measurements of the major and secondary components or parts may or will vary, change, differ; or modified, adjusted altered or revised, depending upon the site, locality, location, area, setting, position, size, capacity or volume of the dryer or the system itself. Further, in the design, creation, formation, making, production, manufacture, fabrication or construction of the said system, the setting, arrangements, placements, assembly, grouping, positioning of the major and secondary components or parts may or will vary, change, differ; or modified, adjusted altered or revised, depending upon the site, locality, location, area, layout, plan, design, outline, size, capacity or volume of the dryer or the system itself.

42. The system according to claim 41 wherein it uses metallic and non-metallic major or secondary components or parts, where and/or when such usage may or can apply.

43 The system according to claim 41 wherein it opted not to use the air warmer and the air warmer is eliminated in the interconnection series of the major components or parts.

44. The system according to claim 41 wherein, based on or depending upon the design of the burner/furnace/heater, the burner/furnace/heater is connected to the heater tank in either way, or in any way or manner, or in any one, of the following: a.) the burner/furnace/heater is directly connected with the heater tank, directly fastened, bolted, belted or tied; b.) the burner/furnace/heater is indirectly connected with the heater tank using the basin, kettle or pot with water in the heating process to control or regulate the temperature; c.) the burner/furnace/heater is loosely connected with the heater tank, the heater tank just place on top of the burner/furnace/heater, or rather the burner/furnace/heater detached from the heater tank and with a distance, but still serving its function as a burner/furnace/heater and heating the heater tank during the operation or in the process.

45. The system according to claim 41 wherein, based on or depending upon the design of the burner/furaace/heater, the burner/furnace/heater uses either or any one of the following as its fuel: a.) petroleum products (liquefied petroleum gas, kerosene, diesel, etc.); b.) alcohol; c.) local fuel (wood, charcoal, rice hull, etc., or any similar materials provided it will burn and produce fire); d.) electricity (or electrical power or energy); or, e.) specially designed burner/furnace/heater in an expanded system, wherein it can use all forms of fuel.

46. The system according to claim 41 wherein the system uses the substitute of the electric motor to drive the compressor, and it is either or any of the following: a.) a machine; b.) a wind vane, or any similar device using wind energy.

47. The system in claim 41 wherein the air compressor and the electric motor (or its substitute) is coupled, integrated or incorporated.

48. The system in claim 41, expanded in any manner by increasing, attaching, supplementing, augmenting or adding all, some, a few, or in the combination of selected or chosen, whichever, whatever or any of the following major component/s or part/s, making the component/s or part/s, with or without the necessary secondary part/s installed, and become integral component/s or part/s of the system: a.) one or more condensers; b.) one or more air warmers; c.) one or more air compressors; d.) one or more electric motors (or its substitute); e.) one or more cold air storage tanks; f.) one or more heater tanks; g.) one or more burner/furnace/heaters; one or more hot air storage tanks; and, i.) one or more drying chambers.

Figure 6

49. The embodiment 5 (figure 6) of the compressed air dryer system, used in drying products, said system which is an interconnection of its major and secondary components or parts; working, in good or running condition, operational, serviceable, operable and capable of performing tasks; comprising: a.) an air compressor - which draws and compresses air from the atmosphere or from the environment and infuses or injects the compressed air to the cold storage tank; b.) an electric motor - which is connected the said air compressor by a pump belt and the said electric motor powers the air compressor during the operation; c.) a cold air storage tank - which is connected to the said air compressor by a metal tube or pipe and the said cold air storage tank is capable of receiving the compressed air infused or injected to it from the compressor, let the cold air pass through to the heater tank upon the opening of the control valve, or store the cold air; d.) a heater tank - which is connected to the said cold air storage tank by the metal tube or pipe, and the said heater tank is capable of receiving the pressurized cold air infused or injected to it from the cold air storage tank, and also capable in receiving the heat from the burner/ furnace/heater and in heating the pressurized cold air infused or injected to it from the cold air storage tank and let the pressurized hot air pass through to the hot air storage tank upon the opening of the control valve; e.) a burner/furnace/heater - which is connected to the said heater tank directly, indirectly or loosely, and the said burner/furnace/heater is capable of the heating the heater tank and the air inside; f.) a hot air storage tank - which is connected to the said heater tank by the metal tube or pipe, and the said hot air storage tank is capable of receiving the pressurized hot air infused or injected to it from the heater tank, let the pressurized hot air pass through to the drying chamber upon the opening of the control valve or store the hot air; h.) a drying chamber - which is connected to the said hot air storage tank by a metal tube or pipe, and the said drying chamber is capable of accommodating the products subject for drying and also capable of receiving the pressurized hot air from the hot air storage tank.

50. The system of claim 49 with other secondary components or parts installed, comprising: a.) thermometers - on the cold air storage tank, the heater tank, the hot air storage tank, and on the drying chamber air outlet or exhaust; or, the thermometer on this drying chamber air outlet or exhaust is directly installed on the drying chamber; b.) check valves - on the metal tubes or pipes that interconnect the cold dry air storage tank to the air compressor, the heater tank to the cold air storage tank, the hot air storage tank to the heater tank, the drying chamber to the hot air storage tank; c.) control valves - on the metal tubes or pipes that interconnect the cold air storage tank to the air compressor, the heater tank to the cold air storage tank, the hot air storage tank to the heater tank, the drying chamber to the hot air storage tank; d.) pressure gauges - on the cold air storage tank, the heater tank, the hot air storage tank, and on the drying chamber air outlet or exhaust; or, the pressure gauge installed on this drying chamber air outlet or exhaust is directly installed on the drying chamber; e.) air exhaust - on the metal tube or pipe that connects the hot air storage tank and the drying chamber; f.) drying chamber air outlet or exhaust - on the drying chamber; g.) pressure controller - on the drying chamber air outlet or exhaust; h.) air flow controller - on the drying chamber air outlet or exhaust; and, i.) final air exhaust - at the tip of the drying chamber air outlet or exhaust. And the installation of the said secondary components or parts in the system, may be positioned or placed in varying areas in the system, or attached in any part of the major component, convenient and provided it "will serve the purpose.

51. The system according to claim 50 wherein the features, shapes, forms, lengths, heights, widths, dimensions or measurements of the major and secondary components or parts may or will vary, change, differ; or modified, adjusted altered or revised, depending upon the site, locality, location, area, setting, position, size, capacity or volume of the dryer or the system itself. Further, in the design, creation, formation, making, production, manufacture, fabrication or construction of the said system, the setting, arrangements, placements, assembly, grouping, positioning of the major and secondary components or parts may or will vary, change, differ; or modified, adjusted altered or revised, depending upon the site, locality, location, area, layout, plan, design, outline, size, capacity or volume of the dryer or the system itself.

52. The system according to claim 51 wherein it uses metallic and non-metallic major or secondary components or parts, where and/or when such usage may or can apply.

53. The system according to claim 51 wherein, based on or depending upon the design of the burner/furnace/heater, the burner/furnace/heater is connected to the heater tank in either way, or in any way or manner, or in any one, of the following: a.) the burner/furnace/heater is directly connected with the heater tank, directly fastened, bolted, belted or tied; b.) the burner/furnace/heater is indirectly connected with the heater tank using the basin, kettle or pot with water in the heating process to control or regulate the temperature; c.) the burner/furnace/heater is loosely connected with the heater tank, the heater tank just place on top of the burner/furnace/heater, or rather the burner/furnace/heater detached from the heater tank and with a distance, but still serving its function as a burner/furnace/heater and heating the heater tank during the operation or in the process.

Ill

54. The system according to claim 51 wherein, based on or depending upon the design of the burner/furnace/heater, the burner/furnace/heater uses either or any one of the following as its fuel: a.) petroleum products (liquefied petroleum gas, kerosene, diesel, etc.); b.) alcohol; c.) local fuel (wood, charcoal, rice hull, etc., or any similar materials provided it will burn and produce fire); d.) electricity (or electrical power or energy); or, e.) specially designed burner/furnace/heater in an expanded system, wherein it can use all forms of fuel.

55. The system according to claim 51 wherein the system uses the substitute of the electric motor to drive the compressor, and it is either or any of the following: a.) a machine; b.) a wind vane, or any similar device using wind energy.

56. The system in claim 51 wherein the air compressor and the electric motor (or its substitute) is coupled, integrated or incorporated.

57. The system in claim 51, expanded in any manner by increasing, attaching, supplementing, augmenting or adding all, some, a few, or in the combination of selected or chosen, whichever, whatever or any of the following major component/s or part/s, making the comρonent/s or part/s, with or without the necessary secondary part/s installed, and become integral component/s or part/s of the system: a.) one or more air compressors; b.) one or more electric motors (or its substitute); c.) one or more cold air storage tanks; d.) one or more heater tanks; e.) one or more burner/furnace/heaters; f.) one or more hot air storage tanks; and, g.) one or more drying chambers.

Figure 7

58. The embodiment 6 (figure 7) of the compressed air dryer system, used in drying products, said system which is an interconnection of its major and secondary components or parts; working, in good or running condition, operational, serviceable, operable and capable of performing tasks; comprising: a.) a condenser - which condensed the moisture in air that enters the condenser during the operation; b.) an air warmer - which is connected to the said condenser by a metal tube or pipe, and said air warmer, warms the cold air that passes through it from the condenser; c.) an air compressor - which is connected to the said air warmer by the metal tube or pipe, and said compressor draws and compresses air passing through the condenser and air warmer and infuses or injects the compressed air to the cold storage tank; d.) an electric motor - which is connected the said air compressor by a pump belt and the said electric motor powers the air compressor during the operation; e.) a cold air storage tank - which is connected to the said air compressor by a metal tube or pipe and the said cold air storage tank is capable of receiving the compressed air from the compressor, let the pressurized cold air pass through to the heater tank upon the opening of the control valve or store the cold air; f.) a heater tank - which is connected to the said cold air storage tank by the metal tube or pipe, and the said heater tank is capable of receiving the pressurized cold air injected or infused to it from the cold air storage tank, and also capable in receiving the heat from the burner/ furnace/heater and in heating the pressurized cold air infused or injected to it from the cold air storage tank, and let the pressurized hot air pass through to the drying chamber upon the opening of the control valve; g.) a burner/furnace/heater - which is connected to the said heater tank directly, indirectly or loosely, and the said burner/furnace/heater is capable of heating the heater tank and the air inside; h.) a drying chamber - which is connected to the said heater tank by a metal tube or pipe, and the said drying chamber is capable of accommodating the products subject for drying and also capable of receiving the pressurized hot air from the heater tank; and, also the said drying chamber is connected to the air warmer by the drying chamber air outlet or exhaust and the metal tube or pipe.

59. The system of claim 58 with other secondary components or parts installed, comprising: a.) air inlets - at the in front of the condenser; b.) a condenser water outlet - at the bottom of the condenser; c.) thermometers - on the metal tube or pipe (14) that connects the air warmer and the air compressor, the cold air storage tank, the heater tank, and on the drying chamber air outlet or exhaust; or, the thermometer on this drying chamber air outlet or exhaust is directly installed on the drying chamber; d.) check valves- on the metal tubes or pipes that interconnect the cold air storage tank to the air compressor, the heater tank to the cold air storage tank, the drying chamber to the heater tank; e.) control valves - on the metal tubes or pipes that interconnect the cold air storage tank to the air compressor, the heater tank to the cold air storage tank, the drying chamber to the heater tank, and on the metal tube or pipe that connects the drying chamber air outlet or exhaust to the air warmer; f.) pressure gauges - on the cold air storage tank, the heater tank, and on the drying chamber air outlet or exhaust; or, the pressure gauge installed on this drying chamber air outlet or exhaust is directly installed on the drying chamber; g.) air exhaust - on the metal tube or pipe that connects the heater tank and the drying chamber; h.) pressure controller - on the drying chamber air outlet or exhaust; i.) air flow controller - on the drying chamber air outlet or exhaust; j.) final air exhaust - at the tip of the drying chamber air outlet or exhaust; and, k.) air warmer exhaust - at the top of the air warmer.

60. The system according to claim 59 wherein the features, shapes, forms, lengths, heights, widths, dimensions or measurements of the major and secondary components or parts may or will vary, change, differ; or modified, adjusted altered or revised, depending upon the site, locality, location, area, setting, position, size, capacity or volume of the dryer or the system itself. Further, in the design, creation, formation, making, production, manufacture, fabrication or construction of the said system, the setting, arrangements, placements, assembly, grouping, positioning of the major and secondary components or parts may or will vary, change, differ; or modified, adjusted altered or revised, depending upon the site, locality, location, area, layout, plan, design, outline, size, capacity or volume of the dryer or the system itself.

61. The system according to claim 60 wherein it uses metallic and non-metallic major or secondary components or parts, where and/or when such usage may or can apply.

62. The system according to claim 60 wherein it opted not to use the air warmer and the air warmer is eliminated in the interconnection series of the major components or parts.

63. The system according to claim 60 wherein, based on or depending upon the design of the burner/furnace/heater, the burner/furnace/heater is connected to the heater tank in either way, or in any way or manner, or in any one, of the following: a.) the burner/furnace/heater is directly connected with the heater tank, directly fastened, bolted, belted or tied; b.) the burner/furnace/heater is indirectly connected with the heater tank using the basin, kettle or pot with water in the heating process to control or regulate the temperature; c.) the burner/furnace/heater is loosely connected with the heater tank, the heater tank just place on top of the burner/furnace/heater, or rather the burner/furnace/heater detached from the heater tank and with a distance, but still serving its function as a burner/furnace/heater and heating the heater tank during the operation or in the process.

64. The system according to claim 60 wherein, based on or depending upon the design of the burner/furnace/heater, the burner/furnace/heater uses either or any one of the following as its fuel: a.) petroleum products (liquefied petroleum gas, kerosene, diesel, etc.); b.) alcohol; c.) local fuel (wood, charcoal, rice hull, etc., or any similar materials provided it will burn and produce fire); d.) electricity (or electrical power or energy); or, e.) specially designed burner/furnace/heater in an expanded system, wherein it can use all forms of fuel.

65. The system according to claim 60 wherein the system uses the substitute of the electric motor to drive the compressor, and it is either or any of the following: a.) a machine; b.) a wind vane, or any similar device using wind energy.

66. The system in claim 60 wherein the air compressor and the electric motor (or its substitute) is coupled, integrated or incorporated.

67. The system in claim 60, expanded in any manner by increasing, attaching, supplementing, augmenting or adding all, some, a few, or in the combination of selected or chosen, whichever, whatever or any of the following major component/s or part/s, making the component/s or part/s, with or without the necessary secondary part/s installed, and become integral component/s or part/s of the system: a.) one or more condensers; b.) one or more air warmers; c.) one or more air compressors; d.) one or more electric motors (or its substitute); e.) one or more cold air storage tanks; f.) one or more heater tanks; g.) one or more burner/furnace/heaters; and, h.) one or more drying chambers.

Figure 8

68. The embodiment 7 (figure 8) of the compressed air dryer system, used in drying products, said system which is an interconnection of its major and secondary components or parts; working, in good or running condition, operational, serviceable, operable and capable of performing tasks; comprising: a.) an air compressor - which draws and compresses ah^* from the atmosphere or from the environment and infuses or injects the compressed air to the cold storage tank; b.) an electric motor - which is connected the said air compressor by a pump belt and the said electric motor powers the air compressor during the operation; c.) a cold air storage tank - which is connected to the said air compressor by a metal tube or pipe and the said cold air storage tank is capable of receiving the compressed air infused or injected to it from the compressor, let the cold air pass through to the heater tank upon the opening of the control valve, or store the cold air; d.) a heater tank - which is connected to the said cold air storage tank by the metal tube or pipe, and the said heater tank is capable of receiving the pressurized cold air infused or injected to it from the cold air storage tank, and also capable in receiving the heat from the burner/ furnace/heater and in heating the pressurized cold air infused or injected to it from the cold air storage tank and let the pressurized hot air pass through to the drying chamber upon the opening of the control valve; e.) a bumer/furnace/heater - which is connected to the said heater tank directly, indirectly or loosely, and the said burner/fiirnace/heater is capable of the heating the heater tank and the air inside; h.) a drying chamber — which is connected to the said heater tank by a metal tube or pipe, and the said drying chamber is capable of accommodating the products subject for drying and also capable of receiving the pressurized hot air from the heater tank.

69. The system of claim 68 with other secondary components or parts installed, comprising: a.) thermometers - on the cold air storage tank, the heater tank, and on the drying chamber air outlet or exhaust; or, the thermometer on this drying chamber air outlet or exhaust is directly installed on the drying chamber; b.) check valves - on the metal tubes or pipes that interconnect the cold dry air storage tank to the air compressor, the heater tank to the cold air storage tank, the drying chamber to the heater tank; c.) control valves - on the metal tubes or pipes that interconnect the cold air storage tank to the air compressor, the heater tank to the cold air storage tank, the drying chamber to the heater tank; d.) pressure gauges - on the cold air storage tank, the heater tank and on the drying chamber air outlet or exhaust; or, the pressure gauge installed on this drying chamber air outlet or exhaust is directly installed on the drying chamber; e.) air exhaust - on the metal tube or pipe that connects the heater tank and the drying chamber; f.) drying chamber air outlet or exhaust - on the drying chamber; g.) pressure controller - on the drying chamber air outlet or exhaust; h.) air flow controller - on the drying chamber air outlet or exhaust; and, i.) final air exhaust - at the tip of the drying chamber air outlet or exhaust. And the installation of the said secondary components or parts in the system, may be positioned or placed in varying areas in the system, or attached in any part of the major component, convenient and provided it will serve the purpose.

70. The system according to claim 69 wherein the features, shapes, forms, lengths, heights, widths, dimensions or measurements of the major and secondary components or parts may or will vary, change, differ; or modified, adjusted altered or revised, depending upon the site, locality, location, area, setting, position, size, capacity or volume of the dryer or the system itself. Further, in the design, creation, formation, making, production, manufacture, fabrication or construction of the said system, the setting, arrangements, placements, assembly, grouping, positioning of the major and secondary components or parts may or will vary, change, differ; or modified, adjusted altered or revised, depending upon the site, locality, location, area, layout, plan, design, outline, size, capacity or volume of the dryer or the system itself.

71. The system according to claim 70 wherein it uses metallic and non-metallic major or secondary components or parts, where and/or when such usage may or can apply.

72. The system according to claim 70 wherein, based on or depending upon the design of the burner/furnace/heater, the burner/furnace/heater is connected to the heater tank in either way, or in any way or manner, or in any one, of the following: a.) the burner/furnace/heater is directly connected with the heater tank, directly fastened, bolted, belted or tied; b.) the burner/furnace/heater is indirectly connected with the heater tank using the basin, kettle or pot with water in the heating process to control or regulate the temperature; c.) the burner/furnace/heater is loosely connected with the heater tank, the heater tank just place on top of the burner/furnace/heater, or rather the burner/furnace/heater detached from the heater tank and with a distance, but still serving its function as a burner/furnace/heater and heating the heater tank during the operation or in the process.

73. The system according to claim 70 wherein, based on or depending upon the design of the burner/furnace/heater, the burner/furnace/heater uses either or any one of the following as its fuel: a.) petroleum products (liquefied petroleum gas, kerosene, diesel, etc.); b.) alcohol; c.) local fuel (wood, charcoal, rice hull, etc., or any similar materials provided it will burn and produce fire); d.) electricity (or electrical power or energy); or, e.) specially designed burner/furnace/heater in an expanded system, wherein it can use all forms of fuel.

74. The system according to claim 70 wherein the system uses the substitute of the electric motor to drive the compressor, and it is either or any of the following: a.) a machine; b.) a wind vane, or any similar device using wind energy.

75. The system in claim 70 wherein the air compressor and the electric motor (or its substitute) is coupled, integrated or incorporated.

76. The system in claim 70, expanded in any manner by increasing, attaching, supplementing, augmenting or adding all, some, a few, or in the combination of selected or chosen, whichever, whatever or any of the following major component/s or part/s, making the component/s or part/s, with or without the necessary secondary part/s installed, and become integral component/s or part/s of the system: a.) one or more air compressors; b.) one or more electric motors (or its substitute); c.) one or more cold air storage tanks; d.) one or more heater tanks; e.) one or more burner/furnace/heaters; and, f.) one or more drying chambers.

Figure 9

77. The embodiments 8 (Figure 9) of the compressed air dryer system, used in drying products, said system which is an interconnection of its major and secondary components or parts; working, in good or running condition, operational, serviceable, operable and capable of performing tasks; comprising: a.) a condenser - which condenses the moisture in air that enters the condenser during the operation; b.) an air warmer - which is connected to the said condenser by a metal tube or pipe, and said air warmer, warms the cold air that passes through it from the condenser; c.) an air compressor - which is connected to the said air warmer by the metal tube or pipe, and said compressor draws and compresses air passing through the condenser and air warmer and infuses or injects the compressed air to the heater tank; d.) an electric motor - which is connected the said air compressor by a pump belt and the said electric motor powers the air compressor during the operation; f.) a heater tank - which is connected to the said air compressor by the metal tube or pipe, and the said heater tank is capable of receiving the compressed cold air from the said air compressor, and also capable in receiving the heat from the burner/ furnace/heater and in heating the pressurized cold air infused or injected to it from the air compressor, and let the pressurized hot air pass through to the hot air storage tank upon the opening of the control valve; g,) a burner/furnace/heater - which is connected to the said heater tank directly, indirectly or loosely, and the said burner/furnace/heater is capable of heating the heater tank and the air inside; h.) a hot air storage tank - which is connected to the said heater tank by the metal tube or pipe, and the said hot air storage tank is capable of receiving the pressurized hot air infused or injected to it from the said heater tank, let it pass through to the drying chamber upon the opening of the control valve or store the hot air; i.) a drying chamber — which is connected to the said hot air storage tank by a metal tube or pipe, and the said drying chamber is capable of accommodating the products subject for drying and also capable of receiving the pressurized hot air from the said hot air storage tank; and, also the said drying chamber is connected to the air warmer by the drying chamber air outlet or exhaust and the metal tube or pipe.

78. The system of claim 77 with other secondary components or parts installed, comprising: a.) air inlets - at the in front of the condenser; b.) a condenser water outlet - at the bottom of the condenser; c.) thermometers - on the metal tube or pipe that connects the air warmer and the air compressor, on the heater tank, on the hot air storage tank and on the drying chamber air outlet or exhaust; or, the thermometer on this drying chamber air outlet or exhaust is directly installed on the drying chamber; d.) check valves - on the metal tubes or pipes that interconnect the heater tank to the air compressor, the hot air storage tank to the heater tank, the drying chamber to the hot air storage tank; e.) control valves - on the metal tubes or pipes that interconnect the heater tank to the air compressor, the hot air storage tank to the heater tank, the drying chamber to the hot air storage tank, and on the metal tube or pipe that connects the drying chamber air outlet or exhaust to the air warmer; f.) pressure gauges - on the heater, the hot air storage tank, and on the drying chamber air outlet or exhaust; or, the pressure gauge installed on this drying chamber air outlet or exhaust is directly installed on the drying chamber; g.) air exhaust - on the metal tube or pipe that connects the hot air storage and the drying chamber; h.) pressure controller - on the drying chamber air outlet or exhaust; i.) air flow controller - on the drying chamber air outlet or exhaust; j.) final air exhaust - at the tip of the drying chamber ah^* outlet or exhaust; and, k.) air warmer exhaust - on the top of the air warmer. And the installation of the said secondary components or parts in the system, may be positioned or placed in varying areas in the system, or attached in any part of the major component, convenient and provided it will serve the purpose.

79. The system according to claim 78 wherein the features, shapes, forms, lengths, heights, widths, dimensions or measurements of the major and secondary components or parts may or will vary, change, differ; or modified, adjusted altered or revised, depending upon the site, locality, location, area, setting, position, size, capacity or volume of the dryer or the system itself. Further, in the design, creation, formation, making, production, manufacture, fabrication or construction of the said system, the setting, arrangements, placements, assembly, grouping, positioning of the major and secondary components or parts may or will vary, change, differ; or modified, adjusted altered or revised, depending upon the site, locality, location, area, layout, plan, design, outline, size, capacity or volume of the dryer or the system itself.

80. The system according to claim 79 wherein it uses metallic and non-metallic major or secondary components or parts, where and/or when such usage may or can apply.

81. The system according to claim 79 wherein it opted not to use the air warmer and the air warmer is eliminated in the interconnection series of the major components or parts.

82. The system according to claim 79 wherein, based on or depending upon the design of the burner/furnace/heater, the burner/furnace/heater is connected to the heater tank in either way, or in any way or manner, or in any one, of the following: a.) the buπier/furnace/heater is directly connected with the heater tank, directly fastened, bolted, belted or tied; b.) the burner/furnace/heater is indirectly connected with the heater tank using the basin, kettle or pot with water in the heating process to control or regulate the temperature; c.) the burner/furnace/heater is loosely connected with the heater tank, the heater tank just place on top of the burner/furnace/heater, or rather the burner/furnace/heater detached from the heater tank and with a distance, but still serving its function as a burner/furnace/heater and heating the heater tank during the operation or in the process.

83. The system according to claim 79 wherein, based on or depending upon the design of the burner/furnace/heater, the burner/furnace/heater uses either or any one of the following as its fuel: a.) petroleum products (liquefied petroleum gas, kerosene, diesel, etc.); b.) alcohol; c.) local fuel (wood, charcoal, rice hull, etc., or any similar materials provided it will burn and produce fire); d.) electricity (or electrical power or energy); or, e.) specially designed burner/furnace/heater in an expanded system, wherein it can use all forms of fuel.

84. The system according to claim 79 wherein the system uses the substitute of the electric motor to drive the compressor, and it is either or any of the following: a.) a machine; b.) a wind vane, or any similar device using wind energy.

85. The system in claim 79 wherein the air compressor and the electric motor (or its substitute) is coupled, integrated or incorporated.

86. The system in claim 79, expanded in any manner by increasing, attaching, supplementing, augmenting or adding all, some, a few, or in the combination of selected or chosen, whichever, whatever or any of the following major component/s or part/s, making the component/s or part/s, with or without the necessary secondary part/s installed, and become integral component/s or part/s of the system: a.) one or more condensers; b.) one or more air warmers; c.) one or more air compressors; d.) one or more electric motors (or its substitute); e.) one or more heater tanks; f.) one or more burner/furaace/heaters; g.) one or more hot air storage tanks; and, h.) one or more drying chambers.

Figure 10

87. The embodiment 9 (figure 10) of the compressed air dryer system, used in drying products, said system which is an interconnection of its major and secondary components or parts; working, in good or running condition, operational, serviceable, operable and capable of performing tasks; comprising: a.) an air compressor - which draws and compresses air from the atmosphere or from the environment and infuses or injects the compressed air to the heater tank; b.) an electric motor - which is connected the said air compressor by a pump belt and the said electric motor powers the air compressor during the operation; c.) a heater tank - which is connected to the said air compressor by the metal tube or pipe, and the said heater tank is capable of receiving the compressed cold air infused or injected to it from the air compressor, and also capable in receiving the heat from the burner/ furnace/heater and in heating the pressurized cold air infused or injected to it from the air compressor and let the pressurized hot air pass through to the hot air storage tank upon the opening of the control valve; d.) a burner/furnace/heater - which is connected to the said heater tank directly, indirectly or loosely, and the said burner/furnace/heater is capable of the heating the heater tank and the air inside; e.) a hot air storage tank - which is connected to the said heater tank by the metal tube or pipe, and the said hot air storage tank is capable of receiving the pressurized hot air infused or injected to it from the heater tank, let the pressurized hot air pass through to the drying chamber upon the opening of the control valve or store the hot air; f.) a drying chamber - which is connected to the said hot air storage tank by a metal tube or pipe, and the said drying chamber is capable of accommodating the products subject for drying and also capable of receiving the pressurized hot air from the hot air storage tank.

88. The system of claim 87 with other secondary components or parts installed, comprising: a.) thermometers - on the heater tank, the hot air storage tank and on the drying chamber air outlet or exhaust; or, the thermometer on this drying chamber air outlet or exhaust is directly installed on the drying chamber; b.) check valves - on the metal tubes or pipes that interconnect the heater tank to the air compressor, the hot air storage tank to the heater tank and the drying chamber to the hot air storage tank; c.) control valves - on the metal tubes or pipes that interconnect the heater tank the air compressor, the hot air storage tank to the heater tank and the drying chamber to the hot air storage tank; d.) pressure gauges - on the heater tank, the hot air storage tank, and on the drying chamber air outlet or exhaust; or, the pressure gauge installed on this drying chamber air outlet or exhaust is directly installed on the drying chamber; e.) air exhaust - on the metal tube or pipe that connects the hot air storage tank and the drying chamber; f.) drying chamber air outlet or exhaust - on the drying chamber; g.) pressure controller - on the drying chamber air outlet or exhaust; h.) air flow controller - on the drying chamber air outlet or exhaust; and, i.) final air exhaust - at the tip of the drying chamber air outlet or exhaust.

89. The system according to claim 88 wherein the features, shapes, forms, lengths, heights, widths, dimensions or measurements of the major and secondary components or parts may or will vary, change, differ; or modified, adjusted altered or revised, depending upon the site, locality, location, area, setting, position, size, capacity or volume of the dryer or the system itself. Further, in the design, creation, formation, making, production, manufacture, fabrication or construction of the said system, the setting, arrangements, placements, assembly, grouping, positioning of the major and secondary components or parts may or will vary, change, differ; or modified, adjusted altered or revised, depending upon the site, locality, location, area, layout, plan, design, outline, size, capacity or volume of the dryer or the system itself.

90. The system according to claim 89 wherein it uses metallic and non-metallic major or secondary components or parts, where and/or when such usage may or can apply.

91. The system according to claim 89 wherein, based on or depending upon the design of the burner/furnace/heater, the burner/furnace/heater is connected to the heater tank in either way, or in any way or manner, or in any one, of the following: a.) the burner/furnace/heater is directly connected with the heater tank, directly fastened, bolted, belted or tied; b.) the burner/furnace/heater is indirectly connected with the heater tank using the basin, kettle or pot with water in the heating process to control or regulate the temperature; c.) the burner/furnace/heater is loosely connected with the heater tank, the heater tank just place on top of the burner/furnace/heater, or rather the burner/furnace/heater detached from the heater tank and with a distance, but still serving its function as a burner/furnace/heater and heating the heater tank during the operation or in the process.

92. The system according to claim 89 wherein, based on or depending upon the design of the burner/furnace/heater, the burner/furnace/heater uses either or any one of the following as its fuel: a.) petroleum products (liquefied petroleum gas, kerosene, diesel, etc.); b.) alcohol; c.) local fuel (wood, charcoal, rice hull, etc., or any similar materials provided it will burn and produce fire); d.) electricity (or electrical power or energy); or, e.) specially designed burner/furnace/heater in an expanded system, wherein it can use all forms of fuel.

93. The system according to claim 89 wherein the system uses the substitute of the electric motor to drive the compressor, and it is either or any of the following: a.) a machine; b.) a wind vane, or any similar device using wind energy.

94. The system in claim 89 wherein the air compressor and the electric motor (or its substitute) is coupled, integrated or incorporated.

95. The system in claim 89, expanded in any manner by increasing, attaching, supplementing, augmenting or adding all, some, a few, or in the combination of selected or chosen, whichever, whatever or any of the following major component/s or part/s, making the component/s or part/s, with or without the necessary secondary part/s installed, and become integral component/s or part/s of the system: a.) one or more air compressors; b.) one or more electric motors (or its substitute); c.) one or more heater tanks; d.) one or more burner/furnace/heaters; e.) one or more hot air storage tanks; and, f.) one or more drying chambers.

Figure 11

96. The embodiment 10 (figure 11) of the compressed air dryer system, used in drying products, said system which is an interconnection of its major and secondary components or parts; working, in good or running condition, operational, serviceable, operable and capable of performing tasks; comprising: a.) a condenser - which condenses the moisture in air that enters the condenser during the operation; b.) an air warmer - which is connected to the said condenser by a metal tube or pipe, and said air warmer, warms the cold air that passes through it from the condenser; c.) an air compressor - which is connected to the said air warmer by the metal tube or pipe, and said compressor draws and compresses air passing through the condenser and air warmer and infuses or injects the compressed air to the heater tank; d.) an electric motor - which is connected the said air compressor by a pump belt and the said electric motor powers the air compressor during the operation; f.) a heater tank - which is connected to the said air compressor by the metal tube or pipe, and the said heater tank is capable of receiving the compressed cold air from the said air compressor, and also capable in receiving the heat from the burner/ furnace/heater and in heating the pressurized cold air infused or injected to it from the air compressor, and let the pressurized hot air pass through to the hot air storage tank upon the opening of the control valve; g.) a burner/furnace/heater - which is connected to the said heater tank directly, indirectly or loosely, and the said burner/furnace/heater is capable of heating the heater tank and the air inside; i.) a drying chamber — which is connected to the said heater tank by a metal tube or pipe, and the said drying chamber is capable of accommodating the products subject for drying and also capable of receiving the pressurized hot air from the said heater tank; and, also the said drying chamber is connected to the air warmer by the drying chamber air outlet or exhaust and the metal tube or pipe.

97. The system according to claim 96 with other secondary components or parts installed, comprising: a.) air inlets - at the in front of the condenser; b.) a condenser water outlet - at the bottom of the condenser; c.) thermometers - on the metal tube or pipe that connects the air warmer and the air compressor, on the heater tank and on the drying chamber air outlet or exhaust; or, the thermometer on this drying chamber air outlet or exhaust is directly installed on the drying chamber; d.) check valves - on the metal tubes or pipes that interconnect the heater tank to the air compressor and drying chamber to the heater tank; e.) control valves - on the metal tubes or pipes that interconnect the heater tank to the air compressor, the drying chamber to the heater tank and on the metal tube or pipe that connects the drying chamber air outlet or exhaust to the air warmer; f.) pressure gauges - on the heater tank and on the drying chamber air outlet or exhaust; or, the pressure gauge installed on this drying chamber air outlet or exhaust is directly installed on the drying chamber; g.) air exhaust - on the metal tube or pipe that connects the heater tank and the drying chamber; h.) pressure controller - on the drying chamber air outlet or exhaust; i.) air flow controller - on the drying chamber air outlet or exhaust; j.) final air exhaust - at the tip of the drying chamber air outlet or exhaust; and, k.) air warmer exhaust - at the top of the air warmer.

98, The system according to claim 97 wherein the features, shapes, forms, lengths, heights, widths, dimensions or measurements of the major and secondary components or parts may or will vary, change, differ; or modified, adjusted altered or revised, depending upon the site, locality, location, area, setting, position, size, capacity or volume of the dryer or the system itself. Further, in the design, creation, formation, making, production, manufacture, fabrication or construction of the said system, the setting, arrangements, placements, assembly, grouping, positioning of the major and secondary components or parts may or will vary, change, differ; or modified, adjusted altered or revised, depending upon the site, locality, location, area, layout, plan, design, outline, size, capacity or volume of the dryer or the system itself.

99. The system according to claim 98 wherein it uses metallic and non-metallic major or secondary components or parts, where and/or when such usage may or can apply.

100. The system according to claim 98 wherein it opted not to use the air warmer and the air warmer is eliminated in the interconnection series of the major components or parts.

101. The system according to claim 98 wherein, based on or depending upon the design of the burner/furnace/heater, the burner/furnace/heater is connected to the heater tank in either way, or in any way or manner, or in any one, of the following: a.) the burner/furnace/heater is directly connected with the heater tank, directly fastened, bolted, belted or tied; b.) the burner/furnace/heater is indirectly connected with the heater tank using the basin, kettle or pot with water in the heating process to control or regulate the temperature; c.) the burner/furnace/heater is loosely connected with the heater tank, the heater tank just place on top of the burner/furnace/heater, or rather the burner/furnace/heater detached from the heater tank and with a distance, but still serving its function as a burner/furnace/heater and heating the heater tank during the operation or in the process.

102. The system according to claim 98 wherein, based on or depending upon the design of the burner/furnace/heater, the burner/furnace/heater uses either or any one of the following as its fuel: a.) petroleum products (liquefied petroleum gas, kerosene, diesel, etc.); b.) alcohol; c.) local fuel (wood, charcoal, rice hull, etc., or any similar materials provided it will burn and produce fire); d.) electricity (or electrical power or energy); or, e.) specially designed burner/furnace/heater in an expanded system, wherein it can use all forms of fuel.

103. The system according to claim 98 wherein the system uses the substitute of the electric motor to drive the compressor, and it is either or any of the following: a.) a machine; b.) a wind vane, or any similar device using wind energy.

104. The system in claim 98 wherein the air compressor and the electric motor (or its substitute) is coupled, integrated or incorporated.

105. The system in claim 98, expanded in any manner by increasing, attaching, supplementing, augmenting or adding all, some, a few, or in the combination of selected or chosen, whichever, whatever or any of the following major component/s or part/s, making the component/s or part/s, with or without the necessary secondary part/s installed, and become integral component/s or part/s of the system: a.) one or more condensers; b.) one or more air warmers; c.) one or more air compressors; d.) one or more electric motors (or its substitute); e.) one or more heater tanks; f.) one or more buraer/furnace/heaters; and g.) one or more drying chambers.

Figure 12

106. The embodiment 11 (figure 12) of the compressed air dryer system, used in drying products, said system which is an interconnection of its major and secondary components or parts; working, in good or running condition, operational, serviceable, operable and capable of performing tasks; comprising: a.) an air compressor - which draws and compresses air from the atmosphere or from the environment and infuses or injects the compressed air to the heater tank; b.) an electric motor - which is connected the said air compressor by a pump belt and the said electric motor powers the air compressor during the operation; c.) a heater tank - which is connected to the said air compressor by the metal tube or pipe, and the said heater tank is capable of receiving the compressed cold air infused or injected to it from the said air compressor, and also capable in receiving the heat from the said burner/ furnace/heater and in heating the pressurized cold air infused or injected to it from the said air compressor and let the pressurized hot air pass through to the drying chamber upon the opening of the control valve; d.) a burner/furnace/heater - which is connected to the said heater tank directly, indirectly or loosely, and the said burner/furnace/heater is capable of the heating the heater tank and the air inside; e.) a drying chamber - which is connected to the said heater tank by a metal tube or pipe, and the said drying chamber is capable of accommodating the products subject for drying and also capable of receiving the pressurized hot air from the said heater tank.

107. The system according to claim 106 with other secondary components or parts installed, comprising: a.) thermometers - on the heater tank and on the drying chamber air outlet or exhaust; or, the thermometer on this drying chamber air outlet or exhaust is directly installed on the drying chamber; b.) check valves - on the metal tubes or pipes that interconnect the heater tank to the air compressor, the drying chamber to the heater tank; c.) control valves - on the metal tubes or pipes that interconnect the heater tank the air compressor, the drying chamber to the heater tank; d.) pressure gauges - on the heater tank and on the drying chamber air outlet or exhaust; or, the pressure gauge installed on this drying chamber air outlet or exhaust is directly installed on the drying chamber; e.) air exhaust - on the metal tube or pipe that connects the heater tank and the drying chamber; f.) drying chamber air outlet or exhaust - on the drying chamber; g.) pressure controller - on the drying chamber air outlet or exhaust; h.) air flow controller - on the drying chamber air outlet or exhaust; and, i.) final air exhaust - at the tip of the drying chamber air outlet or exhaust.

108. The system according to claim 107 wherein the features, shapes, forms, lengths, heights, widths, dimensions or measurements of the major and secondary components or parts may or will vary, change, differ; or modified, adjusted altered or revised, depending upon the site, locality, location, area, setting, position, size, capacity or volume of the dryer or the system itself. Further, in the design, creation, formation, making, production, manufacture, fabrication or construction of the said system, the setting, arrangements, placements, assembly, grouping, positioning of the major and secondary components or parts may or will vary, change, differ; or modified, adjusted altered or revised, depending upon the site, locality, location, area, layout, plan, design, outline, size, capacity or volume of the dryer or the system itself.

109. The system according to claim 108 wherein it uses metallic and non-metallic major or secondary components or parts, where and/or when such usage may or can apply.

110. The system according to claim 108 wherein, based on or depending upon the design of the burner/furnace/heater, the burner/furnace/heater is connected to the heater tank in either way, or in any way or manner, or in any one, of the following: a.) the burner/furnace/heater is directly connected with the heater tank, directly fastened, bolted, belted or tied; b.) the burner/furnace/heater is indirectly connected with the heater tank using the basin, kettle or pot with water in the heating process to control or regulate the temperature; c.) the burner/furnace/heater is loosely connected with the heater tank, the heater tank just place on top of the burner/furnace/heater, or rather the burner/furnace/heater detached from the heater tank and with a distance, but still serving its function as a burner/furnace/heater and heating the heater tank during the operation or in the process.

111. The system according to claim 108 wherein, based on or depending upon the design of the burner/furnace/heater, the burner/furnace/heater uses either or any one of the following as its fuel: a.) petroleum products (liquefied petroleum gas, kerosene, diesel, etc.); b.) alcohol; c.) local fuel (wood, charcoal, rice hull, etc., or any similar materials provided it will burn and produce fire); d.) electricity (or electrical power or energy); or, e.) specially designed burner/furnace/heater in an expanded system, wherein it can use all forms of fuel.

112. The system according to claim 108 wherein the system uses the substitute of the electric motor to drive the compressor, and it is either or any of the following: a.) a machine; b.) a wind vane, or any similar device using wind energy.

113. The system according to claim 108 wherein the air compressor and the electric motor (or its substitute) is coupled, integrated or incorporated.

114. The system according to claim 108, expanded in any manner by increasing, attaching, supplementing, augmenting or adding all, some, a few, or in the combination of selected or chosen, whichever, whatever or any of the following major component/s or part/s, making the component/s or part/s, with or without the necessary secondary part/s installed, and become integral component/s or part/s of the system: a.) one or more air compressors; b.) one or more electric motors (or its substitute); c.) one or more heater tanks; d.) one or more burner/furnace/heaters; e.) one or more drying chambers.

B.) Process

Figure 1

115. The process of drying products, based on the main system (figure 1), with the use of the cold to hot compressed or pressurized dry air passing through, along or within the condenser to the air warmer, air compressor, series of air tanks connected by metal tubes or pipes and to the pressurized drying chamber, the process comprising: a.) the air compressor sucks or draws moist air from the atmosphere or from the environment, through the condenser and the air warmer; b.) the moist air drawn from the atmosphere or environment passes through the condenser, the condenser condenses the moisture, and the moisture, in a form of water droplets, separates from the air making the air dry; c.) the cold dry air reaches the air warmer, and the air warmer warms the cold air from the condenser to a certain degree centigrade, flows to the air compressor; d.) the air compressor compresses or pressurizes the cold dry air, injects, infuses or introduces the pressurized cold dry air to the cold air storage tank; e.) the pressurized cold dry air is stored in the cold air storage tank, and/or flows or passes through to the heater tank or to the hot and cold air combination tank; f.) the pressurized cold dry air for heating is introduced or infused to the heater tank, and heated with the temperature ranging from more or less 50 degrees centigrade (5O⁰C) up to 300 degrees centigrade (300°C) or more, by the heat coming from the burner/furnace/heater; g.) the hot pressurized dry air from the heater tank is introduced or infused to the hot air storage tank and is stored and/or flows or passes through; h.) the hot pressurized dry air from the hot air storage tank is introduced or infused to the hot and cold air combination tank; i.) the cold pressurized dry air from the cold air storage tank is introduced or infused to the hot and cold air combination tank, where the pressurized hot and cold dry air are combined or mixed together to reach the desired temperature; however, there may or can be no mixing of the pressurized hot and cold dry air because the desired temperature is already attained in the pressurized hot dry air coming from the hot air storage tank, and only the one is introduced to the hot and cold air combination tank, or only the pressurized cold dry air is infused to the hot and cold air combination tank from the cold air storage tank, in the cooling process, and thereby no mixing of the pressurized cold and hot dry air; j.) the combined or blended or mixed pressurized hot and cold dry air, or not mixed or blended, in the hot and cold air combination tank, with the desired temperature, is infused or introduced to the drying chamber; k.) the pressurized warm to hot air that dried the products inside the drying chamber, and laden with moisture, escapes from the drying chamber through the drying chamber air outlet or exhaust and eventually to the environment.

116 The process according to claim 115 wherein the cold dry air from the condenser enters or flows directly to the air compressor when the system opted not to use the air warmer and the air warmer is eliminated in the interconnection series of the major components or parts.

117. The process according to claim 115 drying simultaneously two or more different kinds of products with two or more drying chambers, one drying chamber for each kind of product, or the same product in two or more drying chambers;

118. The process according to claim 115, expanded for drying several kinds of products simultaneously, or drying the same product in two or more drying chambers, the moist to dry, cold to hot pressurized air passes through two or more: a.) condensers; b.) air warmers; c.) compressors; d.) cold air storage tanks; e.) heater tanks; f.) hot air storage tanks; g.) hot and cold air combination tanks; and, h.) drying chambers.

119. The process according to claim 115, used in air drying with the temperature ranges from 25 degrees centigrade to 36 degrees centigrade (25°C - 36°C).

120. The process according to 115, wherein it is used in the process of heating or warming the room, house or building; the process cut short at the air exhaust, or at the portion of the metal tube or pipe connecting the drying chamber, then to the designed metal tube or pipe fitting, and eventually to room, house or building.

Figure 2

121. The process of drying products, based on embodiment 1 (figure 2), with the use of the cold to hot compressed or pressurized moist air passing through, along or within the air compressor, series of air tanks connected by metal tubes or pipes and to the pressurized drying chamber, the process comprising: a.) the air compressor sucks or draws moist air directly from the atmosphere or from the environment; b.) the air compressor compresses or pressurizes the cold moist air, injects, infuses or introduces the pressurized cold moist air to the cold air storage tank; c.) the pressurized cold moist air is stored in the cold air storage tank, and/or flows or passes through to the heater tank or to the hot and cold air combination tank; d.) the pressurized cold moist air for heating is introduced or infused to the heater tank, and heated with the temperature ranging from more or less 50 degrees centigrade (50°C) up to 300 degrees centigrade (300⁰C) or more, by the heat coming from the burner/furnace/heater; e.) the hot pressurized moist air from the heater tank is introduced or infused to the hot air storage tank and is stored and/or flows or passes through; f.) the hot pressurized moist air from the hot air storage tank is introduced or infused to the hot and cold air combination tank; g.) the cold pressurized moist air from the cold air storage tank is introduced or infused to the hot and cold air combination tank, where the pressurized moist hot and cold air are combined or mixed together to reach the desired temperature; however, there may or can be no mixing of the pressurized hot and cold moist air because the desired temperature is already attained in the pressurized moist hot air coming from the hot air storage tank, and only the one is introduced to the hot and cold air combination tank, or only the pressurized cold moist air is infused to the hot and cold air combination tank from the cold air storage tank, in the cooling process, and thereby no mixing of the pressurized cold and hot moist air; h.) the combined or blended or mixed pressurized hot and cold moist air, or not mixed or blended, in the hot and cold air combination tank, with the desired temperature, is infused or introduced to the drying chamber; i.) the pressurized warm to hot air that dried the products inside the drying chamber, and laden with moisture, escapes from the drying chamber through the drying chamber air outlet or exhaust and eventually to the environment.

122. The process according to claim 121 drying simultaneously two or more different kinds of products with two or more drying chambers, one drying chamber for each kind of product, or the same product in two or more drying chambers;

123. The process according to claim 121, expanded for drying several kinds of products simultaneously, or drying the same product in two or more drying chambers, the moist to dry, cold to hot pressurized air passes through two or more: a.) compressors; b.) cold air storage tanks; c.) heater tanks; d.) hot air storage tanks; e.) hot and cold air combination tanks; and, f.) drying chambers.

124. The process according to 121, wherein it is used in the process of heating or warming the room, house or building; the process cut short at the air exhaust, or at the portion of the metal tube or pipe connecting the drying chamber, then to the designed metal tube or pipe fitting, and eventually to room, house or building. Figure 3

125. The process of drying products, based on embodiment 2 (figure 3), with the use of the cold to hot compressed or pressurized dry air passing through, along or within the condenser to the air warmer, air compressor, series of air tanks connected by metal tubes or pipes and to the pressurized drying chamber, the process comprising: a.) the air compressor sucks or draws moist air from the atmosphere or from the environment through the condenser and the air warmer; b.) the moist air drawn from the atmosphere or environment passes through the condenser, the condenser condenses the moisture, and the moisture, in a form of water droplets, separates from the air making the air dry; c.) the cold dry air reaches the air warmer, and the air warmer warms the cold air from the condenser to a certain degree centigrade, flows to the air compressor; d.) the air compressor compresses or pressurizes the cold dry air, injects, infuses or introduces the pressurized cold dry air to the cold air storage tank; e.) the pressurized cold dry air is stored in the cold air storage tank, and/or flows or passes through to the heater tank or to the hot and cold air combination tank; f.) the pressurized cold dry air for heating is introduced or infused to the heater tank, and heated with the temperature ranging from more or less 50 degrees centigrade (50⁰C) up to 300 degrees centigrade (300⁰C) or more, by the heat coming from the burner/furnace/heater; g.) the hot pressurized dry air from the heater tank is introduced or infused directly to the hot and cold air combination tank; h.) the cold pressurized dry air from the cold air storage tank is introduced or infused to the hot and cold air combination tank, where the pressurized hot and cold dry air are combined or mixed together to reach the desired temperature; however, there may or can be no mixing of the pressurized hot and cold dry air because the desired temperature is already attained in the pressurized hot dry air coming from the heater tank, and only the one is introduced to the hot and cold air combination tank, or only the pressurized cold dry air is infused to the hot and cold air combination tank from the cold air storage tank, in the cooling process, and thereby no mixing of the pressurized cold and hot dry air; i.) the combined or blended or mixed pressurized hot and cold dry air, or not mixed or blended, in the hot and cold air combination tank, with the desired temperature, is infused or introduced to the drying chamber; j.) the pressurized warm to hot air that dried the products inside the drying chamber, and laden with moisture, escapes from the drying chamber through the drying chamber air outlet or exhaust and eventually to the environment

126. The process according to claim 125 wherein the cold dry air from the condenser enters or flows directly to the air compressor when the system opted not to use the air warmer and the air warmer is eliminated in the interconnection series of the major components or parts.

127. The process according to claim 125 drying simultaneously two or more different kinds of products with two or more drying chambers, one drying chamber for each kind of product, or the same product in two or more drying chambers;

128. The process according to claim 125, expanded for drying several kinds of products simultaneously, or drying the same product in two or more drying chambers, the moist to dry, cold to hot pressurized air passes through two or more: a.) condensers; b.) air warmers; c.) compressors; d.) cold air storage tanks; e.) heater tanks; f.) hot and cold air combination tanks; and, g.) drying chambers.

129. The process according to claim 125, used in air drying with the temperature ranges from 25 degrees centigrade to 36 degrees centigrade (25°C - 36°C).

130. The process according to 125, wherein it is used in the process of heating or warming the room, house or building; the process cut short at the air exhaust, or at the portion of the metal tube or pipe connecting the drying chamber, then to the designed metal tube or pipe fitting, and eventually to room, house or building.

Figure 4

131. The process of drying products, based on embodiment 3 (figure 4), with the use of the cold to hot compressed or pressurized moist air passing through, along or within the air compressor, series of air tanks connected by metal tubes or pipes and to the pressurized drying chamber, the process comprising: a.) the air compressor sucks or draws moist air directly from the atmosphere or from the environment; b.) the air compressor compresses or pressurizes the cold moist air, injects, infuses or introduces the pressurized cold moist air to the cold air storage tank; c.) the pressurized cold moist air is stored in the cold air storage tank and/or flows or passes through to the heater tank or to the hot and cold air combination tank; d.) the pressurized cold moist air for heating is introduced or infused to the heater tank, and heated with the temperature ranging from more or less 50 degrees centigrade (50⁰C) up to 300 degrees centigrade (300⁰C) or more, by the heat coming from the burner/furnace/heater; e.) the hot pressurized moist air from the heater tank is introduced or infused to the hot and cold air combination tank; f.) the cold pressurized moist air from the cold air storage tank is introduced or infused to the hot and cold air combination tank, where the pressurized hot and cold moist air are combined or mixed together to reach the desired temperature; however, there may or can be no mixing of the pressurized hot and cold moist air because the desired temperature is already attained in the pressurized hot dry air coming from the heater tank, and only the one is introduced to the hot and cold air combination tank, or only the pressurized cold dry air is infused to the hot and cold air combination tank from the cold air storage tank, in the cooling process, and thereby no mixing of the pressurized cold and hot moist air; g.) the combined or blended or mixed pressurized hot and cold moist air, or not mixed or blended, in the hot and cold air combination tank, with the desired temperature, is infused or introduced to the drying chamber; h.) the pressurized warm to hot air that dried the products inside the drying chamber, and laden with moisture, escapes from the drying chamber through the drying chamber air outlet or exhaust and eventually to the environment.

132. The process according to claim 131 drying simultaneously two or more different kinds of products with two or more drying chambers, one drying chamber for each kind of product, or the same product in two or more drying chambers;

133. The process according to claim 131, expanded for drying several kinds of products simultaneously, or drying the same product in two or more drying chambers, the moist to dry, cold to hot pressurized air passes through two or more: a.) compressors; b.) cold air storage tanks; c.) heater tanks; d.) hot and cold air combination tanks; and, e.) drying chambers.

134. The process according to 131, wherein it is used in the process of heating or warming the room, house or building; the process cut short at the air exhaust, or at the portion of the metal tube or pipe connecting the drying chamber, then to the designed metal tube or pipe fitting, and eventually to room, house or building.

Figure 5

135. The process of drying products, based on embodiment 4 (figure 5), with the use of the cold to hot compressed or pressurized dry air passing through, along or within the condenser to the air warmer, air compressor, series of air tanks connected by metal tubes or pipes and to the pressurized drying chamber, the process comprising: a.) the air compressor sucks or draws moist air from the atmosphere or from the environment, through the condenser and the air warmer; b.) the moist air drawn from the atmosphere or environment passes through the condenser, the condenser condenses the moisture, and the moisture, in a form of water droplets, separates from the air making the air dry; c.) the cold dry air reaches the air warmer, and the air warmer warms the cold air from the condenser to a certain degree centigrade, flows to the air compressor; d.) the air compressor compresses or pressurizes the cold dry air, injects, infuses or introduces the pressurized cold dry air to the cold air storage tank; e.) the pressurized cold dry air is stored in the cold air storage tank, and/or flows or passes through to the heater tank; f.) the pressurized cold dry air for heating is introduced or infused to the heater tank, and heated with the temperature ranging from more or less 50 degrees centigrade (50°C) up to 300 degrees centigrade (300⁰C) or more, by the heat coming from the burner/furnace/heater; g.) warm to hot pressurized dry air from the heater tank, is introduced or infused into the hot air storage tank is stored and/or flows or passes through and introduced or infused to the drying chamber with the desired or needed air temperature; h.) the pressurized warm to hot air that dried the products inside the drying chamber, and laden with moisture, escapes from the drying chamber through the drying chamber air outlet or exhaust and eventually to the environment.

136. The process according to claim 135 wherein the cold dry air from the condenser enters or flows directly to the air compressor when the system opted not to use the air warmer and the air warmer is eliminated in the interconnection series of the major components or parts.

137. The process according to claim 135 drying simultaneously two or more different kinds of products with two or more drying chambers, one drying chamber for each kind of product, or the same product in two or more drying chambers;

138. The process according to claim 135, expanded for drying several kinds of products simultaneously, or drying the same product in two or more drying chambers, the moist to dry, cold to hot pressurized air passes through two or more: a.) condensers; b.) air warmers; c.) compressors; d.) cold air storage tanks; e.) heater tanks; f.) hot and cold air combination tanks; and, g.) drying chambers.

139. The process according to claim 135, used in air drying with the temperature ranges from 25 degrees centigrade to 36 degrees centigrade (25°C - 36⁰C).

140. The process according to 135, wherein it is used in the process of heating or warming the room, house or building; the process cut short at the air exhaust, or at the portion of the metal tube or pipe connecting the drying chamber, then to the designed metal tube or pipe fitting, and eventually to room, house or building.

Figure 6

141. The process of drying products, based on embodiment 5 (figure 6), with the use of the cold to hot compressed or pressurized moist air passing through, along or within the air compressor, series of air tanks connected by metal tubes or pipes and to the pressurized drying chamber, the process comprising: a.) the air compressor sucks or draws moist air directly from the atmosphere or from the environment; b.) the air compressor compresses or pressurizes the cold dry air, injects, infuses or introduces the pressurized cold dry air to the cold air storage lank; c.) the pressurized cold moist air is stored in the cold air storage tank and/or flows or passes through to the heater tank; d.) the pressurized cold moist air for heating is introduced or infused to the heater tank, and heated with the temperature ranging from more or less 50 degrees centigrade (50⁰C) up to 300 degrees centigrade (300⁰C) or more, by the heat coming from the burner/furnace/heater; g.) warm to hot pressurized moist air from the heater tank, is introduced or infused into the hot air storage tank is stored and/or flows or passes through and introduced or infused to the drying chamber with the desired or needed air temperature; h.) the pressurized warm to hot air that dried the products inside the drying chamber, and laden with moisture, escapes from the drying chamber through the drying chamber air outlet or exhaust and eventually to the environment.

142. The process according to claim 141 drying simultaneously two or more different kinds of products with two or more drying chambers, one drying chamber for each kind of product, or the same product in two or more drying chambers;

143. The process according to claim 141, expanded for drying several kinds of products simultaneously, or drying the same product in two or more drying chambers, the moist to dry, cold to hot pressurized air passes through two or more: a.) compressors; b.) cold air storage tanks; c.) heater tanks; d.) drying chambers.

144. The process according to 141, wherein it is used in the process of heating or warming the room, house or building; the process cut short at the air exhaust, or at the portion of the metal tube or pipe connecting the drying chamber, then to the designed metal tube or pipe fitting, and eventually to room, house or building.

Figure 7

145. The process of drying products, based on embodiment 6 (figure 7), with the use of the cold to hot compressed or pressurized dry air passing through, along or within the condenser to the air warmer, air compressor, series of air tanks connected by metal tubes or pipes and to the pressurized drying chamber, the process comprising: a.) the air compressor sucks or draws moist air from the atmosphere or from the environment through the condenser and the air warmer; b.) the moist air drawn from the atmosphere or environment passes through the condenser, the condenser condenses the moisture, and the moisture, in a form of water droplets, separates from the air making the air dry; c.) the cold dry air reaches the air warmer, and the air warmer warms the cold air from the condenser to a certain degree centigrade, flows to the air compressor; d.) the air compressor compresses or pressurizes the cold dry air, injects, infuses or introduces the pressurized cold dry air to the cold air storage tank; e.) the pressurized cold dry air is stored in the cold air storage tank, and/or flows or passes through to the heater tank; f.) the pressurized cold dry air for heating is introduced or infused to the heater tank, and heated with the temperature ranging from more or less 50 degrees centigrade (50°C) up to 300 degrees centigrade (300⁰C) or more, by the heat coming from the burner/furnace/heater; g.) hot pressurized dry air from the heater tank is introduced or infused directly to the drying chamber; h.) the pressurized warm to hot air that dried the products inside the drying chamber, and laden with moisture, escapes from the drying chamber through the drying chamber air outlet or exhaust and eventually to the environment.

146. The process according to claim 145 wherein the cold dry air from the condenser enters or flows directly to the air compressor when the system opted not to use the air warmer and the air warmer is eliminated in the interconnection series of the major components or parts.

147. The process according to claim 145 drying simultaneously two or more different kinds of products with two or more drying chambers, one drying chamber for each kind of product, or the same product in two or more drying chambers;

148. The process according to claim 145, expanded for drying several kinds of products simultaneously, or drying the same product in two or more drying chambers, the moist to dry, cold to hot pressurized air passes through two or more: a.) condensers; b.) air warmers; c.) compressors; d.) cold air storage tanks; e.) heater tanks; and, f.) drying chambers.

149. The process according to claim 145, used in air drying with the temperature ranges from 25 degrees centigrade to 36 degrees centigrade (25°C - 36°C).

150. The process according to 145, wherein it is used in the process of heating or warming the room, house or building; the process cut short at the air exhaust, or at the portion of the metal tube or pipe connecting the drying chamber, then to the designed metal tube or pipe fitting, and eventually to room, house or building.

Figure 8

151. The process of drying products, based on embodiment 7 (figure 8), with the use of the cold to hot compressed or pressurized moist air passing through, along or within the air compressor, series of air tanks connected by metal tubes or pipes and to the pressurized drying chamber, the process comprising: a.) the air compressor sucks or draws moist air directly from the atmosphere or from the environment; b.) the air compressor compresses or pressurizes the cold moist air, injects, infuses or introduces the pressurized cold moist air to the cold air storage tank; c.) the pressurized cold dry air is stored in the cold air storage tank and/or flows or passes through to the heater tank; d.)the pressurized cold moist air for heating is introduced or infused to the heater tank, and heated with the temperature ranging from more or less 50 degrees centigrade (50°C) up to 300 degrees centigrade (300⁰C) or more, by the heat coming from the burner/furnace/heater; e.) hot pressurized dry air from the heater tank is introduced or infused directly to the drying chamber; f.) the pressurized warm to hot air that dried the products inside the drying chamber, and laden with moisture, escapes from the drying chamber through the drying chamber air outlet or exhaust and eventually to the environment.

152. The process according to claim 151 drying simultaneously two or more different kinds of products with two or more drying chambers, one drying chamber for each kind of product, or the same product in two or more drying chambers;

153. The process according to claim 151, expanded for drying several kinds of products simultaneously, or drying the same product in two or more drying chambers, the moist to dry, cold to hot pressurized air passes through two or more: a.) compressors; b.) cold air storage tanks; c.) heater tanks; d.) drying chambers.

154. The process according to 151, wherein it is used in the process of heating or warming the room, house or building; the process cut short at the air exhaust, or at the portion of the metal tube or pipe connecting the drying chamber, then to the designed metal tube or pipe fitting, and eventually to room, house or building.

Figure 9

155. The process of drying products, based on embodiment 8 (figure 9), with the use of the cold to hot compressed or pressurized dry air passing through, along or within the condenser to the air warmer, air compressor, series of air tanks connected by metal tubes or pipes and to the pressurized drying chamber, the process comprising: a.) the air compressor sucks or draws moist air from the atmosphere or from the environment, through the condenser and the air warmer; b.) the moist air drawn from the atmosphere or environment passes through the condenser, the condenser condenses the moisture, and the moisture, in a form of water droplets, separates from the air making the air dry; c.) the cold dry air reaches the air warmer, and the air warmer warms the cold air from the condenser to a certain degree centigrade, flows to the air compressor; d.) the air compressor compresses or pressurizes the cold dry air, injects, infuses or introduces the pressurized cold dry air to the heater tank; f.) the pressurized cold dry air for heating is introduced or infused to the heater tank, and heated with the temperature ranging from more or less 50 degrees centigrade (5O⁰C) up to 300 degrees centigrade (300⁰C) or more, by the heat coming from the burner/furnace/heater; g.) hot pressurized dry air from the heater tank is introduced or infused and stored in the hot air storage tank and/or flows or passes through; h.) the pressurized dry air from the air storage tank with the desired or needed temperature is introduced or infused to the drying chamber; i.) the pressurized warm to hot air that dried the products inside the drying chamber, and laden with moisture, escapes from the drying chamber through the drying chamber air outlet or exhaust and eventually to the environment.

156. The process according to claim 155 wherein the cold dry air from the condenser enters or flows directly to the air compressor when the system opted not to use the air warmer and the air warmer is eliminated in the interconnection series of the major components or parts.

157. The process according to claim 155 drying simultaneously two or more different kinds of products with two or more drying chambers, one drying chamber for each kind of product, or the same product in two or more drying chambers;

158. The process according to claim 155, expanded for drying several kinds of products simultaneously, or drying the same product in two or more drying chambers, the moist to dry, cold to hot pressurized air passes through two or more: a.) condensers; b.) air warmers; c.) compressors; d.) heater tanks; e.) hot air storage tanks; and, f.) drying chambers.

159. The process according to claim 155, used in air drying with the temperature ranges from 25 degrees centigrade to 36 degrees centigrade (25°C - 36°C).

160. The process according to 155, wherein it is used in the process of heating or warming the room, house or building; the process cut short at the air exhaust, or at the portion of the metal tube or pipe connecting the drying chamber, then to the designed metal tube or pipe fitting, and eventually to room, house or building.

Figure 10

161. The process of drying products, based on embodiment 9 (figure 10), with the use of the cold to hot compressed or pressurized moist air passing through, along or within the air compressor, series of air tanks connected by metal tubes or pipes and to the pressurized drying chamber, the process comprising: a.) the air compressor sucks or draws moist air directly from the atmosphere or from the environment; b.) the air compressor compresses or pressurizes the cold moist air, injects, infuses or introduces the pressurized cold dry air to the heater tank; c.) the pressurized cold dry air for heating is introduced or infused to the heater tank, and heated with the temperature ranging from more or less 50 degrees centigrade (5O⁰C) up to 300 degrees centigrade (300°C) or more, by the heat coming from the burner/furnace/heater; e.) hot pressurized dry air from the heater tank is introduced or infused to and is stored in the hot air storage tank and/or flows or passes through; f.) the pressurized dry air from the hot air storage tank is introduced or infused to the drying chamber; g.) the pressurized warm to hot air that dried the products inside the drying chamber, and laden with moisture, escapes from the drying chamber through the drying chamber air outlet or exhaust and eventually to the environment.

162. The process according to claim 161 drying simultaneously two or more different kinds of products with two or more drying chambers, one drying chamber for each kind of product, or the same product in two or more drying chambers;

163. The process according to claim 161, expanded for drying several kinds of products simultaneously, or drying the same product in two or more drying chambers, the moist to dry, cold to hot pressurized air passes through two or more: a.) compressors; b.) heater tanks; c.) hot air storage tanks; d.) drying chambers.

164. The process according to 161, wherein it is used in the process of heating or warming the room, house or building; the process cut short at the air exhaust, or at the portion of the metal tube or pipe connecting the drying chamber, then to the designed metal tube or pipe fitting, and eventually to room, house or building. Figure 11

165. The process of drying products, based on embodiment 10 (figure 11), with the use of the cold to hot compressed or pressurized dry air passing through, along or within the condenser to the air warmer, air compressor, an air tank and to the pressurized drying chamber, the process comprising: a.) the air compressor sucks or draws moist air from the atmosphere or from the environment through the condenser and the air warmer; b.) the moist air drawn from the atmosphere or environment passes through the condenser, the condenser condenses the moisture, and the moisture, in a form of water droplets, separates from the air making the air dry; c.) the cold dry air reaches the air warmer, and the air warmer warms the cold air from the condenser to a certain degree centigrade, flows to the air compressor; d.) the air compressor compresses or pressurizes the cold dry air, injects, infuses or introduces the pressurized cold dry air to the heater tank; f.) the pressurized cold dry air for heating is introduced or infused to the heater tank, and heated with the temperature ranging from more or less 50 degrees centigrade (50°C) up to 300 degrees centigrade (300⁰C) or more, by the heat coming from the burner/furnace/heater; g.) the hot pressurized dry air from the heater tank is introduced or infused directly to the drying chamber; h.) the pressurized warm to hot air that dried the products inside the drying chamber, and laden with moisture, escapes from the drying chamber through the drying chamber air outlet or exhaust and eventually to the environment.

166. The process according to claim 165 wherein the cold dry air from the condenser enters or flows directly to the air compressor when the system opted not to use the air warmer and the air warmer is eliminated in the interconnection series of the major components or parts.

167. The process according to claim 165 drying simultaneously two or more different kinds of products with two or more drying chambers, one drying chamber for each kind of product, or the same product in two or more drying chambers;

168. The process according to claim 165, expanded for drying several kinds of products simultaneously, or drying the same product in two or more drying chambers, the moist to dry, cold to hot pressurized air passes through two or more: a.) condensers; b.) air warmers; c.) compressors; d.) heater tanks; and, f.) drying chambers.

169. The process according to claim 165, used in air drying with the temperature ranges from 25 degrees centigrade to 36 degrees centigrade (25°C - 36°C).

170. The process according to 165, wherein it is used in the process of heating or warming the room, house or building; the process cut short at the air exhaust, or at the portion of the metal tube or pipe connecting the drying chamber, then to the designed metal tube or pipe fitting, and eventually to room, house or building.

Figure 12

171. The process of drying products, based on embodiment 11 (figure 12), with the use of the cold to hot compressed or pressurized moist air passing through, along or within the air compressor, an air tank and to the pressurized drying chamber, the process comprising: a.) the air compressor sucks or draws moist air directly from the atmosphere or from the environment; b.) the air compressor compresses or pressurizes the cold dry air, injects, infuses or introduces the pressurized cold dry air to the tank; c.) the pressurized cold dry air for heating is introduced or infused to the heater tank, and heated with the temperature ranging from more or less 50 degrees centigrade (50°C) up to 300 degrees centigrade (300⁰C) or more, by the heat coming from the burner/furnace/heater; d.) hot pressurized dry air from the heater tank is introduced or infused directly to the drying chamber; e.) the pressurized warm to hot air that dried the products inside the drying chamber, and laden with moisture, escapes from the drying chamber through the drying chamber air outlet or exhaust and eventually to the environment.

172. The process according to claim 171 drying simultaneously two or more different kinds of products with two or more drying chambers, one drying chamber for each kind of product, or the same product in two or more drying chambers;

173. The process according to claim 171, expanded for drying several kinds of products simultaneously, or drying the same product in two or more drying chambers, the moist to dry, cold to hot pressurized air passes through two or more: a.) compressors; b.) heater tanks; and, c.) drying chambers.

174. The process according to 171, wherein it is used in the process of heating or warming the room, house or building; the process cut short at the air exhaust, or at the portion of the metal tube or pipe connecting the drying chamber, then to the designed metal tube or pipe fitting, and eventually to room, house or building.