TR2021017627U5 - Modular Structured Dehumidification System with Heating/Cooling and Sterilization Capabilities with Capacity Increasing Feature - Google Patents

Abstract

Compressed air (cold/hot quality depending on the process) from the bottom up from the gaps formed between the particles, grains and granules of the product, which are stacked on the product displacement band (32) in equal 5 thicknesses everywhere within the scope of the inner chamber (21) except for the contacting surfaces. ) to carry out drying, cooling, dehumidification and sterilization processes by passing the current, to be integrated on top of each other according to the need, and accordingly to increase the product processing volume and time, and to save space in the place where it is used.

Description

DESCRIPTION Modular Dehumidification System with Capacity Increasing Capacity and Heating/Cooling and Sterilization Abilities Technical Area Agricultural products, various organic substances, compost, organic fertilizer, organo-mineral fertilizer, manure, mineral material, various granular, granular and powdered products. It is about heating, drying, cooling, dehumidifying, sterilizing and ensuring hygienic conditions of the products. In particular, the invention belongs to the known applications of the Prior Art Technique with a modular structured system whose capacity can be increased when necessary, has high dehumidification efficiency, air flow rate, air pressure, air temperature, product processing speed can be measured and controlled, and can reprocess the product directed to the output when necessary. systems, their features, advantages and disadvantages are given below. Natural heat and wind drying technique in the sun or shade; In this oldest, traditional process; The products to be dried or dehumidified are laid out in the open area or on shelves specially prepared for the product, and benefit from the heat of the sun and the moisture-removing effect of the wind. However, this system is not reasonable today because weather conditions cannot be controlled, large areas are needed and a lot of labor is required. Rotary drum dryers; Basically, the system is a round boiler with loading and unloading covers on both sides. This boiler is rotated on its axis, goods are loaded from one side, hot air is blown into it and the boiler rotates. In some of them, due to the ears inside or the angle given to the exit direction of the boiler, these ears or the goods are turned upside down as the boiler rotates and hot air passes through it. In some models, the goods move in the direction of exit, thanks to the ears, and in others, thanks to the angle given to the boiler. In this system, dust-sized particles from the goods are ventilated with the escaping air. In order not to lose them, it is necessary to place a settling cyclone and filter at the exit of the system. They are large constructions to provide capacity. Great power is needed to rotate, support and heat the large construction. For these reasons, it is expensive, large and energy consuming compared to our system. Fluid bed dryers; Basically, in this system, goods are loaded onto a table with a hole in the bottom from one side, hot air is blown from the bottom and the system is vibrated up and down and forward. The goods move up and down with the air coming from the bottom and the hot air passes through, while the goods move to the exit with the effect of the loaded goods on one side and the forward vibration effect. In this system, dust-sized particles from the goods are ventilated with the escaping air. In order not to lose them, it is necessary to place a settling cyclone and filter at the outlet of the system. They are large constructions to provide capacity. Great powers are needed to vibrate, support and heat the large construction. For these reasons, it is expensive, large and energy consuming. Tray type drying ovens; In this system, products are placed on perforated trays and heated in the cabin. It is not suitable for small piece products. There is a lot of workmanship. Since it works as a fill-and-unload system, it is not suitable for continuous systems and is not industrially reasonable. It is suitable for drying small capacity vegetables and fruits. Accordingly, the aim of the invention is to provide a system structure capable of processing various products in granular, granular and powder form, such as agricultural products, various organic substances, compost, organic fertilizer, organo-mineral fertilizer, manure. Accordingly, the purpose of the invention is to provide hygienic conditions by heating, drying, cooling, dehumidifying, sterilizing and heating items such as agricultural products, various organic substances, compost, organic fertilizer, organo-mineral fertilizer, manure, and various products in granular, granular and powder form. Accordingly, another aim of the invention is to provide a system structure that can be integrated one above the other. Accordingly, another aim of the invention is to provide a system structure that can be used side by side. Accordingly, another aim of the invention is to provide a system structure whose capacity can be increased when needed. Accordingly, another aim of the invention is to use the heat in the system with high efficiency. Accordingly, another aim of the invention is to provide a system structure that allows full contact with all surfaces of the product. Accordingly, another aim of the invention is to provide a system structure that can re-process the processed product if deemed necessary. Accordingly, another aim of the invention is to provide a system structure with low energy consumption. In the preferred embodiment of the invention, the system has a single-layer structure. Explanation of the figures Figure 1. Isometric right side view of the complete system. Figure 2. is the left side view of the system assembly from the heating module side. Figure 3. Side view of the system complex from the product loading unit side. Figure 4. View of the system assembly from the rear front profile. Figure 5. View of the system assembly from the front profile. Figure 6. A close-up view of the end caps. Figure 7. is the isometric view of the main body without the heating module. Figure 8. A close-up view of the main body air inlet opening. Figure 9. is the bottom view of the main body. Figure 10. Side section view of the main body. Figure 11. Isometric view of the main body opened. Figure 12. This is the distributed view of the air cell. Figure 13. A close-up view of the porous structure of the displacement band. Figure 14. Isometric view of the main body in a dispersed state. Figure 15. A close-up view of the holes in the air cell. Figure 16. The view of the multi-storey integrated system structure. Figure 17. Isometric view of the multi-storey integrated system structure from the air heating modules perspective. Figure 18. The open view of the multi-storey integrated system structure from the side area. Figure 19. is the top view of the multi-storey integrated system structure. Figure 20. The view of the multi-storey integrated system structure from the opposite side of the air heating modules. Figure 21. The front profile view of the multi-storey integrated system structure from the air heating modules side. Figure 22. View of the product loading unit assembly. Figure 23. A close-up view of the product loading unit mounted on the main body. Figure 24. View of the product loading unit chamber. Figure 25. Side section view of the product loading unit chamber. Figure 26. This is a cross-sectional view of the air heating module from the heaters perspective. Figure 27. It is a visual explanation of the product processing process with compressed air in the inner chamber. Figure 28. Shows the relationship between product inlet ports and product outlet ports in the integrated system structuring. Figure 29. Shows the positions of the product displacement bands and the opposite direction of movement in the integrated system structuring. Figure 30. Shows the product entry point and product discharge point of the system in the integrated system structuring. Figure 31. Shows the gradual process direction of the product within the system in the integrated system structuring. Reference numbers . System . Main Body 21. inner chamber 22. Product inlet 23. Product outlet 24. End cover/s. Side cover/s 26. Ventilation section/s 27. Hot air inlet 28. Air cell 28.1. Air cell air inlet port 29. Perforated top plate 29.1. Perforated top plate air holes. Product stacking guide 31. Overflow barrier Product displacement belt Drive drum Tail drum Gearmotor drive motor Discharge holes Air heating module Air heating module body Air heating module air inlet hot air outlet outlet Air flow meter Product loading element Spiral . Product loading line Product discharge line Product guidance cover Control panel Detailed description of the invention The invention is related to a "modular dehumidification system with capacity increase feature, heating/cooling and sterilization capabilities", which eliminates all the disadvantages in the relevant subject mentioned above and provides the intended results. Characteristic feature of the system: Within the scope of the inner chamber (21), compressed air (cold/hot depending on the process) flows from the gaps formed between the particles, grains and grains of the product stacked on the product displacement belt (32), except for their contacting surfaces. ) It carries out the drying, cooling, dehumidification and sterilization processes by passing the current, can be integrated preferably one on top of the other according to the need, and accordingly the product processing volume and time can be increased, and space saving is ensured in the place where it is used. Accordingly, in the system (10); The compressed air transferred under pressure through (28) ensures that the product particles (grain, granule, etc.) in the product layer are stacked regularly on the product displacement band (32) moving from the product inlet port (22) to the product outlet point (23). It passes through the product layer in question from bottom to top by contacting all surfaces except the contact surfaces and exits to the external environment through the discharge holes (36) preferably located on the upper parts of the side walls of the inner chamber (21). Consequently; The product is carried on the product displacement belt (32) from the product inlet port (22) point to the product outlet port (23) point, and is contacted by the (cold/hot quality) pressurized air flow provided uninterruptedly from bottom to top through the air cell (28) throughout the process period. It changes the temperature state of the product particles in the product layer as a result of the air flow contact in question, and accordingly, the particles in the product layer and the product layer formed by the particles cool down, dry, lose moisture and accordingly sterilize them. The perforated top plate air holes (29.1) belonging to the air cell (28) in question are arranged parallel to each other on the longitudinal axis and have equal hole spacing, and in the parallel hole rows in question, the odd numbered rows are in the same alignment on the horizontal axis, and the even numbered rows are 45 degrees relative to the holes in the single rows. It has an angled sorting order that stays in front or behind. The elements that make up the modular dehumidification system with capacity increasing feature, whose characteristic product processing feature has been summarized above, and the purposes, functional features, mounting positions of the elements in question, and explanations of other characteristic features of the system's product processing process are given below. According to this; - An inner chamber (21), which is the realization area of the product processing process formed in the inner region by the combination of the upper, lower, side, front and rear wall(s) and the said walls, - A product inlet port configured on the upper wall for the entry of the product into the inner chamber (21). (22), the product outlet port (23) configured on the bottom wall to ensure the exit of the product from the main body (20), end caps (24) on the front and rear walls, ventilation sections (26) configured on the two side walls to ensure ventilation, air cell (28). ) discharge holes (36) configured on the side walls close to the upper wall in order to evacuate the compressed air transferred from bottom to top to the product displacement belt (32) from the outer inner chamber (21) to the outer space, - Preferably on the main body for the drive of the drive drum (33). In each main body (20) configuration located in the outer area of the (20), there is at least one gearmotor drive motor (35), - A drive drum (33) for the drive of the product displacement band (32), - Horizontal drive of the product displacement band (32). There is at least one tail drum (34) in each main body configuration, which is positioned horizontally on the same axis as the drive drum (33) for the purpose of adjusting the tension on the axis and fixing it in the working area, in the direction of the product outlet port (23), and which can be changed by adjusting its position on the horizontal axis when necessary. , - It includes the drive drum (33) and the tail drum (34) with the inner part of the two end areas, horizontally fixed on the axis of the said drive drum (33) and the tail drum (34), capable of radial axial movement, allowing the passage of pressurized air flow through it. In order to ensure that the product poured on the product displacement belt (32) is distributed, stacked and arranged within the desired boundaries in the horizontal and vertical planes, with at least one product displacement belt (32) that has sufficient pores and in a way that allows positioned, height-adjustable product stacking guide (30), Product displacement belt except for the product exit mouth (23) region in order to prevent the product from spilling into the inner chamber (21) from other side regions of the product displacement belt (32) other than the product exit mouth (23). Overflow barriers (31) located around the product displacement belt (32) are placed at the top and bottom of the product displacement belt (32) in order to ensure the pressurized exit of the hot/cold air flow transferred through the air heating module via the fan to the product layer stacked on the product displacement belt (32). It has a perforated top plate (29) containing air holes (29.1), positioned in the inner space of the wall, configured to create pressurized discharge of air on it, its side and bottom walls are closed, its upper area is open in proportion to the perforated top plate (29), its inner part is open. In the empty structure, a main body (20) complex, which includes the air cell (28) with the air cell air inlet port (28.1) on one side wall and integrated with these elements, ensures that the air required for cooling, drying and dehumidification is taken from the external environment. In order to ensure that the air is sent into the air cell (28) via the air heating module (40), the fan (50) mounted in the direction of the air inlet port (42) of the air heating module, the heater/arari (46) inside the air heating module body, passing through it, to ensure the heating of the air. Air heating module (40), which contains an air flow meter (45) to measure the amount of air, a heat meter (44) to measure the temperature of the heated air, and is connected to the air cell air inlet port from the air outlet direction mouth through the main body air inlet port (37), It carries the main body (20) and the air heating module (40) integrated with it, the chassis (60) for fixing it to the ground, loading the product into the system (10), discharging the product coming out of the product outlet (23) as a result of the process, to a desired vehicle or point, or carrying out the process. In order to send the product that has been seen and discharged from the product outlet (23) to the product processing process again when necessary, a chamber (71) into which the product is poured, a product transfer spiral (72) located at the bottom of the said chamber (71), or a belt or elevator. product direction plate (75), which enables a product batch that has been taken into the product processing process and has the desired values to be directed to the product discharge line element (74) or, if necessary, to the product loading line element (73) in order to be taken into the product processing process again, product loading line element With a product loading unit (70) complex consisting of (73) and product discharge line element (74), data acquisition and evaluation of the heat meter(s) (44), air flow meter(s) (45), geared drive motor(s) ( 35), ensuring the speed settings of the fan (50) motor/s, activating and disabling the air heating module heaters (46), accordingly advancing the product displacement band/s (32) of the system (10) at the desired speed, accordingly the product It consists of a control panel (80) to adjust the processing speed, the temperature of the inner chamber (21) and to control the amount of air entering the air cell (28). Below, a general description of how the system works is given through a module; When the system (10) starts, it transfers the product filled into the chamber (71) of the product loading unit (70) to the product inlet port (22) via the product loading line element (73). From the discharge point of the product loading line element (73) to the product inlet port (23). ) the poured product starts to fill on the product displacement band (32) that moves radially and axially in the horizontal plane clockwise from the product inlet port (22) point to the product outlet port (23) point in the inner chamber (21). The moving product displacement band ( When the product pile irregularly poured on the product reaches the stack guide (30), it is arranged at the same thickness everywhere on the product displacement belt (32) with the adjusted height and horizontal spread. The product inlet port (22) is placed on the product displacement belt (32) at the set speed. The location is changed (moved, transferred) from the point to the product outlet point (23). Simultaneously with the operations in question, air is drawn from the external environment through the fan (50). If the air is to be heated according to the process to be applied to the product, the module inside the air heating module (40) ( 40) and transfers it to the air cell (28). The pressurized hot/cold air that fills the air cell (58) passes under pressure from bottom to top through the perforated top plate air holes (29.1) located on the perforated top plate (29) of the product displacement band (32). ) goes towards the product stacked part, the product enters the pores (32.1) of the upper wall where the product is laid on the displacement belt (32), passes through the product layer and moves towards the ceiling of the inner chamber (21), exits to the external environment through the discharge holes (36), the product enters the inlet (32). 22) The product poured onto the product displacement belt (32) is exposed to a continuous pressurized hot/cold air flow applied from under the product displacement belt (32) over the air cell (28) throughout the process until the product reaches the exit port (23), The product reaching the product outlet (23) is poured from the product outlet (23) to the outside of the main body (20) and into the chamber (71) of the product loading unit (70) positioned under the product outlet (23) of the main body (20). If, as a result of the processing process, it has lost moisture at the intended values or cooled or sterilized, the product direction plate (75) positioned on the product loading unit (70) changes direction to cover the screw (72) and open the product discharge line element (74) channel. It directs the product to the product discharge line element (74). It is transferred to the vehicle or silo or pit or chamber or area to be stored. If the product has not lost moisture at the intended values as a result of the processing process or has not cooled or has not been sterilized, the product is positioned on the product loading unit (70). The direction plate (75) changes direction in a way that opens the screw (72) and closes the channel leading to the product discharge line element (74). Accordingly, it directs the product to the product loading line element (73). The product is delivered via the product loading line element (73). The product is transferred to the inlet port (22) for reprocessing, the product is poured from the inlet port (22) onto the product displacement belt (23), and the product processing process is repeated. The product that has been processed in the system (10) and discharged from the product outlet; When necessary, it is subjected to a second or more than one processing process (a certain number of cycles), after its first discharge from the system, it is mixed in the second loading phase or in the case of repeated sequential loading and unloading depending on the situation. Accordingly, the location and position of the particles forming the product on the product displacement band (32) change at each process stage. Accordingly, different surfaces of each product particle in the product layer processed on the product displacement belt (32) are exposed to the process. The mixing in question occurs in the overlapping integrated system (10) structuring, when the product is transferred downwards, starting from the main body (20) in the upper row, by being processed sequentially in the other main bodies (20). Depending on the product processing structure of the system explained above, during the product processing process carried out within the scope of the inner chamber (21), the pressurized air flow transferred from the air cell (28) towards the lower wall of the upper wall of the product displacement belt (32) passes from the product entrance point. (22) is placed on the product displacement belt (32), which moves towards the product outlet point (23), by touching all surfaces of the product particles (grain, granule, etc.) in the product layer, which are regularly stacked with the same thickness everywhere, except for the surfaces in contact with each other. The product layer in question passes from bottom to top during the product processing period and, accordingly, the product particles forming the product layer on the product displacement band (32) are exposed to pressurized air flow throughout the process, and they cool or warm up as a result of being exposed to the said pressurized air flow. In order to increase capacity, each main body (20) is integrated on top of each other with its characteristic structure and content. The working and product processing method of the main module of the system (10), which consists of at least one main body (20), at least one air heating module (40), and its chassis (60), is the same in the multi-storey structure, and the subject of the product is very diverse. It has an integrated layout that allows it to be used in multi-storey system structuring. Accordingly, in the structuring resulting from the overlapping integration of the system (10); Multiple main bodies (20), each with its own air heating module (40) and fan (50), have an integrated structure in a row on top of each other on a single chassis (60). In the multi-layered system (10) structuring in question, the product displacement bands (32) of each main body (20) will work in the opposite direction to each other, and the product inlet ports (21) and product outlet ports (22) of each main body (20) will be connected to each other. are integrated on top of each other to have serial coupling. Accordingly, in the application of the system, where multiple main bodies (20), each with its own air heating module (40) and fan (50), have an integrated structure in a row on top of each other on a single chassis (60), the product is located on the top floor. The main body (20) module is located at the top to enable the main body (20) module at the bottom floor to enter from the product inlet port (21) and gradually pass between the main body (20) modules, from top to bottom, until it is discharged from the product outlet port (22). Except for the product inlet port (21) of the main body (20) and the product outlet port (22) of the lowermost main body (20), the product inlet ports (21) of all the main body (20) modules (20) and the product outlet ports (21) located in between. 22) have serial connection with each other. Accordingly, in the application of the system, which includes more than one main body (20), each with its own air heating module (40) and fan (50), integrated with each other in a row order on a single chassis (60), the system (10) allows product entry from the outside. The point is the product inlet port (22) of the main body (20) located at the top, and the product discharge point is the product outlet port of the main body (20) located at the bottom floor. As a result of the integrated structure of the system with the row order in question, the product loaded into the system (10) from outside enters from the product inlet port (22) of the main body (20) located at the top, and then passes through the product exit port (22) of the main body (20) located at the bottom floor. 22) is allowed to circulate sequentially, gradually, from top to bottom until it is discharged, undergoing the same process within each main body (20) module, and at the end of the processing process, it is allowed to exit from the product outlet port (22) of the main body (20) located at the bottom.TR TR TR TR

Claims (1)

1. It is a modular dehumidification system with capacity increasing feature, heating/cooling and sterilization capabilities. To be able to heat, dry, cool, dehumidify, sterilize and provide hygienic conditions of various products such as agricultural products, various organic substances, compost, organic fertilizer, organo mineral fertilizer, manure, mineral material in granular, granular and powder form, and to provide hygienic conditions of the system when necessary ( 10) In order to increase the product processing capacity and to re-process the product intended for its output when necessary, an inner chamber (21) which is the realization area of the product processing process formed in the inner region by the combination of the upper, lower, side, front and rear wall/s and the walls in question. , Product inlet port (22) configured on the upper wall to allow the product to enter the inner chamber (21), product outlet port (23) configured on the lower wall to allow the product to exit the main body (20), end caps (24) on the front and rear walls to ensure ventilation. ventilation sections (26) configured on the two side walls, discharge holes (configured on the side walls close to the upper wall) in order to evacuate the pressurized air transferred from the air cell (28) to the product displacement band (32) from bottom to top, from the inner chamber (21) to the outdoors. 36), At least one gearmotor drive motor (35) in each main body (20) configuration, preferably located in the outer region of the main body (20) to drive the drive drum (33), At least one gearbox to drive the product displacement band (32). grain drive drum (33), for the purpose of adjusting the tension of the product displacement (32) band on the horizontal axis and fixing it in the working area, at least one tail drum (34), containing the drive drum (33) and the tail drum (34) with the inner part of the two end areas, horizontally fixed on the axis of the said drive drum (33) and the tail drum (34), capable of radial axial movement. In order to ensure the distribution, stacking and arrangement of the product poured on the product displacement band (32) at the desired limits in the horizontal and vertical plane, with at least one product displacement band (32) that has a sufficient amount of pores to allow the passage of pressurized air flow, At least one height-adjustable product stacking guide (30) located in the direction of the inlet mouth (22), in order to prevent the product from spilling into the inner chamber (21) from other side regions of the product displacement belt (32) other than the product outlet mouth (23). Overflow barriers (31) located around the product displacement belt (32) except for the mouth (23) region, in order to ensure the pressurized exit of the hot/cold air flow transferred to the product layer stacked on the product displacement belt (32) via the air heating module via the fan. It has a perforated top plate (29) containing air vents (29.1), positioned in the inner space of the upper and lower walls of the product displacement band (32), configured to create pressurized discharge of air on it, its side and bottom walls are closed, its upper area is perforated. A main body (20) that is open in proportion to the upper plate (29), has an empty interior structure, contains at least one air cell (28) with an air cell air inlet port (28.1) on one side wall, and is integrated with these elements in question, In order to ensure that the air required for cooling, drying and dehumidification is taken from the external environment and sent into the air cell (28) via the air heating module (40), the fan (50) mounted in the direction of the air inlet port (42) of the air heating module is used to heat the air. Inside the heating module body, the heater/arari (46) contains the air flow meter (45) to measure the amount of air passing through it, the heat meter (44) to measure the temperature of the heated air, from the air outlet direction mouth to the main body air inlet port (37). Air heating module (40) connected to the air cell air inlet port (28.1), carrying the main body (20) and the air heating module (40) integrated with it, chassis (60) for fixing to the ground, loading the product into the system (10), at the end of the process In order to discharge the product coming out of the product outlet (23) to a desired vehicle or point, or to send the product that has been processed and discharged out of the product outlet (23) to the product processing process again when necessary, a chamber (71) into which the product is poured is placed in the said chamber (71). ) a product transfer screw (72), or belt or elevator located at the bottom of the product processing process, to the product discharge line element (74) or, if necessary, to the product loading line element to ensure that a product batch with the desired values is taken into the product processing process again. A product loading unit (70) consisting of a product guiding plate (75) that enables the orientation of the (73), product loading line element (73) and product discharge line element (74), heat meter(s) (44), air flow meter(s) ( 45), obtaining and evaluating the data, ensuring the speed settings of the gearmotor drive motor (35), fan (50) motor(s), commissioning and disabling the air heating module heaters (46), depending on these, the product displacement band of the system (10). It is characterized by having a structure consisting of a control panel (80) to advance the pipe (32) at the desired speed, adjust the product processing speed and the temperature of the inner chamber (21), and control the amount of air entering the air cell (28). . According to Claim 1, it is a modular dehumidification system with capacity increasing feature and heating/cooling and sterilization capabilities. After the product loaded into the system (10) from outside enters from the product inlet port (22) of the main body (20) located at the top, until it is discharged from the product outlet port (22) of the main body (20) located at the bottom floor, sequentially and gradually, from top to bottom, Each of them is connected to its own air heating module (40) and fan (50) in order to ensure that it circulates within each main body (20) module by performing the same process and exits from the product outlet port (22) of the main body (20) located at the bottom at the end of the processing process. It is characterized by having more than one main body (20) with an integrated structure in a row, one above the other, on a single chassis (60). According to Claim 2, it is a dehumidification system with a modular structure, heating/cooling and sterilization capabilities, with the ability to increase capacity; In the integrated structuring of the system with multiple main bodies (20), each with its own air heating module (40) and fan (50), in a row on top of each other on a single chassis (60), the product displacement of the main bodies (20) The working directions of the bands (32) are opposite to each other, and the product inlet ports (21) and product outlet ports (22) of each main body (20) have an integrated arrangement on top of each other in a serial connection. According to Claim 2, it is a modular dehumidification system with capacity increase feature and heating/cooling and sterilization capabilities. In the system structure, which has more than one main body (20), each with its own air heating module (40) and fan (50), integrated with each other in a row order on a single chassis (60), the main body of the product is located on the top floor. The (20) module enters from the product inlet port (21) and the main body (20) module at the bottom floor is placed at the top to gradually pass between the main body (20) modules from top to bottom until it is discharged from the product outlet port (22). Except for the product inlet port (21) of the body (20) and the product outlet port (22) of the lowermost main body (20), the product inlet ports (21) and product outlet ports (22) of all main body (20) modules (20) located in between. This is because they involve serial connection with each other. According to Claim Z, it is a modular dehumidification system with capacity increase feature and heating/cooling and sterilization capabilities. In the structuring of the system (10), which has more than one main body (20), each with its own air heating module (40) and fan (50), integrated into each other in a row order on a single chassis (60), the system (10) The product entry point from outside is the product inlet port (22) of the main body (20) located at the top, and the product discharge point is the product outlet port (23) of the main body (20) located at the bottom floor. It is a modular dehumidification system with capacity increasing feature and heating/cooling and sterilization capabilities according to any of the claims. The perforated top plate air holes (29.1) belonging to the air cell (28) in question are arranged parallel to each other on the longitudinal axis and have equal hole spacing, and in the parallel hole rows in question, the odd numbered rows are in the same alignment on the horizontal axis, and the even numbered rows are 45 degrees relative to the holes in the single rows. It has an angled sorting order that stays in front or behind.