WO2017039552A1

WO2017039552A1 - The method of changing chemical or physical properties of the fluid molecules with vibration resonance element

Info

Publication number: WO2017039552A1
Application number: PCT/TR2015/050265
Authority: WO
Inventors: Fatih Yaman
Original assignee: Fatih Yaman
Priority date: 2015-08-31
Filing date: 2015-12-25
Publication date: 2017-03-09

Abstract

The method involves, a volume that contains one or more resonators and one or more vibrating elements to which one or more fluids are added and evacuated by heating with a heater or applying magnetic field with a magnet or both by heating and applying a magnetic field. The fluid or fluids sent to the vibrating elements impact volume are affected physically or chemically due to heat or magnetic field or both of them. The benefit of the method is related to this effect.

Description

The Method of Changing Chemical or Physical Properties of the Fluid Molecules with Vibration Resonance Element

This invention is about the method that changes the chemical and physical features of fluid molecules by having the fluid gas or liquid go through a volume containing elements vibrated by a resonator under the effect of heat or a magnetic field.

State of The Art

Among the states of the art of the method are processes such as applying magnetic field to the fluid or increasing its temperature with a heater. These techniques create physical and chemical changes on fluid molecules. However, the prior ones do not include vibration resonance elements.

Technical Problems to Be Solved by the Invention

Solutions such as physical or chemical separation or consolidation, decreasing or increasing the pressure or velocity of the fluid are provided by the invention for the method in which the fluid molecules of gages and liquids that run through the vibrating element with the help of a resonator undergo physical and chemical changes under the effect of heat and magnetic field.

Description of the Figures Fig.1

[Simple application mechanism I showing the elements of the method.]

Fig.2

[Cross section showing the vibrating element impact volume.]

Fig.3

[Simple application mechanism II showing elements of the method.]

Fig.4

[Cross section showing the vibrating element impact volume including multiple input channels.]

Fig.5

[Simple application mechanism III showing the elements of the method.]

Fig.6

[Cross section showing the vibrating element impact volume including multiple discharge channels.]

Fig.7

[Simple application mechanism IV showing the method elements.]

Fig.8

[Cross section showing the vibrating element impact volume involving the vacuuming discharge channels.]

Fig.9

[Cross section showing the vibrating element impact volume involving multiple input channels and multiple discharge channels.]

Fig.10

[Simple application mechanism V showing the vibrating element impact volume body that increases or decreases the volume on the work axis or axes.]

Fig.11

[Simple application mechanism VI including netting elements as vibrating elements.]

Fig.12

[Perspective view of the netting element with the volume.]

Fig.13

[Front two-dimensional view’ of the circular patterned netting element.]

Fig.14

[Front two-dimensional view of the diagonal patterned netting element.]

Fig.15

[Perspective view of the oval solid element.]

Fig.16

[Perspective view of the diagonal solid element.]

Fig.17

[Perspective view of the rough solid element.]

Fig.18

[Perspective view of the helical solid element.]

Fig.19

[Simple application mechanism VII including a helical solid element as vibrating element.]

10: Vibrating element impact volume
11: Vibrating elements
12: Resonator
13: Heater
14: Magnet
15: Input Channel
17: Vibrating element impact volume body
20: Vibrating element impact volume including multiple input channels
22: Resonator on the vibrating element
25: Input Channels
30: Vibrating element impact volume including more than one discharge channel
35: Discharge Channels
40: Vibrating element impact volume involving vacuuming discharge channels
45: Discharge Channel (with vacuum element)
46: Vacuum Element
40a: The vibrating element impact volume including multiple input channels and multiple discharge channels
47: The body of the vibrating element impact volume
51: Voluminous netting element
52: Circular patterned netting element
53: Diagonal-patterned netting element
61: Helical solid element
62: Oval solid element
63: Diagonal solid element
64: Helical solid element

The method involves a volume that includes one or more resonators and one or more vibrating elements in which a vibrating element impact volume (10) is created by heating with a heater or applying a magnetic field with a magnet or both and to which one or more fluids are sent through the input channel and are evacuated through the discharge channel.

The volume in which the element is vibrated with a resonator is the vibrating element impact volume (10). The fluid or fluids that are sent to the vibrating element impact volume are affected physically or chemically by heat or a magnetic field or both heat and magnetic field impact. The benefit of the method is related to this impact.

The method may be implemented in various ways. The method will be described with the references in the accompanying drawings.

The method includes one or more physical vibration resonators (12), one or more vibratable elements (11), one or more heaters (13), one or more magnets that may create magnetic field (14). In method, the heater (13) or the magnet (14) or both the heater and magnet (13, 14) are used together. The body (17) covering the vibrating element impact volume (10), also contains the input channel (15) and the discharge channel (16) elements.

The method may contain one or more input channels (25) that send the fluid or fluids to the vibrating element impact volume (20). These input channels (25) are the elements of the volume body used for the method or input elements such as manifold, nozzles or injectors that are connected externally to the body.

Input elements with the fluid or fluids are sent through the input channels continuously and intermittently (pulsed) to the vibrating element impact volume.

The method may contain one or more discharge channels (35) that evacuate the fluid or fluids affected in the vibrating element impact volume (30). These discharge channels (35) are the elements or the environment body used for the method or discharge elements such as manifold, nozzles or injectors that are connected externally to the body.

The fluid or fluids are discharged from the vibrating element impact volume (40) through the discharge elements. During the evacuation of the fluid or fluids, the discharge element, contains or does not contain the vacuum (46) elements that vacuum the vibrating element impact volume (40).

The method may include one or more input or discharge channels connected to the vibrating element impact volume (40a).

The vibrating element or elements of the method are in form of a net (51) or a solid structure (61) that are made of metals, polymers, composites or various materials suitable for vibration and have a superficial or voluminous structure. These elements may be present one or more in the method.

The resonator (12, 22) used in the method vibrates the netting element (51, 52, 53), which is the vibrating element and may be diagonal patterned, circular patterned or both diagonal and circular patterned or even more patterned.

The resonator (12, 22) used in the method to vibrate the solid volume element (61, 62 ,63, 64) may be present one or more in a smooth or rough structure and in a diagonal, oval or helical geometrical structure.

The vibrating element volume body (47) used in the method implementation includes one or more channels that present or do not present a diameter change or increase or decrease of the volume on the work axis and axes.

The vibration resonator (12, 22), used in this method, is a resonator in the prior method that vibrates the vibrating element constantly or in variable frequencies, intensities and intervals.

The resonator or (12), the heater (13) and magnet (14), used in the method, which may be found one or more in number and in different angles are connected to the system onto the body or internally or externally.

In the method, the resonator (22) may be found on the vibrating element.

The heater (13), used in the method, is a heater in the prior which heats the vibrating element impact volume at desired temperature.

The magnet (14), used in the method, is a magnet used in the prior art which generates continuous or variable magnetic field in the vibrating element impact volume.

The vacuums (46), used in the method, are vacuums (pump, impeller) used in the prior art that vacuum the vibrating element impact volume, allow the evacuation of the fluid or fluids through the evacuation channels (45) and provide variable or constant vacuum effect.

Claims

The method that is used in order to change the physical or chemical features of fluids involves a volume that contains one or more resonators, or one or more vibrating elements that are vibrated by heating with a heater or applying magnetic field with a magnet or both by heating and applying a magnetic field to create a vibrating element impact volume to which one or more fluids are sent through the input channels, and are evacuated through discharge channels.
According to claim 1 it is characterized as a method which consists of a vibrating element impact volume (20) to which one or more liquid input channels (25) are connected.
According to claim 1 it is characterized as a method which consists of a vibrating element impact volume (30) to which one or more liquid discharge channels (35) are connected.
According to claim 1 it is characterized as a method which involves the evacuation of the fluid or fluids sent to the vibrating element impact volume (40) with a vacuum element (46).
It is the element vibrated with the resonator in claim 1, which has one or more vibratable netting (51) or vibratable solid elements (61).
It is the element vibrated with the resonator in claim 1 that is made of metal, polymer, composite or made of different materials suitable for vibration and has a planar (52) or voluminous (51) net structure, whose patterns are diagonal (53) or circular or both diagonal and circular.
It is the element vibrated with the resonator in claim 1 that has a smooth (63) or rough (64) surface, with a diagonal (63), oval (62) or helical (61) shape and a vibratable solid volume structure.
According to claim 1 it is a method whose body element (47), which has one or more channels, is to be used in its application, and has a feature of increasing and decreasing the volume on its working axis or axes.