JP2012527216A - Electric field treatment substance storage - Google Patents

Abstract

A plurality of overlapping electric field processing regions and insulating layers are secured in order to install a plurality of overlapping electric field processing regions using alternating voltages and storage temperatures of different intensities in the same electric field processing storage, and the plurality of overlapping electric field processing regions and insulating layers are secured. A separation electrode having a different polarity with respect to the overlapping electric field processing region is used between the overlapping electric field processing regions.
When storing an object to be processed such as food in an electric field treatment, an electrode for moving the position and the object to be processed are used to regularize the relationship between the object to be processed and the electrode, and an outer periphery forming electrode surrounding the electric field processing region is provided. The present invention provides an electric field treatment storage method and an electric field treatment storage that perform non-freezing storage, freshness maintenance, freshness maintenance after thawing and thawing of a frozen product, re-frozenness, etc., of a substance such as foods at a temperature lower than the growth temperature of general viable bacteria.
[Selection] Figure 1

Description

The present invention applies an alternating voltage of the same polarity to a plurality of electrodes in a storage used for storage of a substance such as food, and low temperature non-freezing storage of a substance such as food stored in the storage or frozen food The present invention relates to a fixed electric field processing storage and a simple electric field processing storage equipped with an electric field forming device that performs electric field processing for the purpose of low-temperature thawing and low-temperature non-freezing storage of materials, and a temperature adjusting device that is suitable for electric field storage of materials such as food.

  Conventional material storage such as food is generally frozen, low temperature, or normal temperature storage, etc., and food stored in the storage by applying AC voltage of the same polarity to multiple electrodes It seems that the electric field processing material storage that performs electric field processing corresponding to the temperature suitable for the purpose of storing such substances is not recognized as a general dissemination technology mainly due to the nonuniformity of stored items, A conventional thawing cabinet having a low temperature and a low temperature storage will be described. The object to be treated here refers to a substance such as food subjected to electric field treatment.

  FIG. 10 is a partial schematic front cross-sectional view of the electrode arrangement explanation of the thawing box of a device for thawing frozen food at a low temperature (JP-A-2-257867) as an electric field processing thawing device that performs electric field processing thawing on an object to be processed. FIG.

  As shown in FIG. 10, the inside 100 of the thawing cabinet is insulated from the outside, one pole on the secondary side of the transformer that uses AC at the commercial frequency as the power source is insulated and the other pole is made of a conductive material. The inside of the thawing cabinet 100 is connected to a frame 101 made of a conductive material, and the frame 101 is provided with a plurality of shelf plates 102 made of a conductive material to form an electric field processing region 103 (hatched portion). In this method, the object 104 is placed on the shelf board 102 and the electric field process of the object 104 is to be thawed.

  FIG. 11 is a partial schematic front view of an electrode arrangement explanation of a refrigerated storage device (Japanese Patent Laid-Open No. 9-138555) for storing food at a low temperature as an electric field processing storage device that performs electric field processing storage on an object to be processed. FIG.

  As shown in FIG. 11, an insulating wall 111 that insulates the interior 110 of the storage from the outside is provided, and one pole on the secondary side of the transformer that uses a commercial frequency alternating current as a power source is connected to the electrode 112, and the other pole Is connected to the electrode 113 to form an electric field treatment region (shaded portion) 114 and the object to be treated 115 is placed on the electrode 113 to achieve electric field treatment low-temperature storage.

  FIG. 12 is a partially schematic front cross-sectional explanatory view of an electrode arrangement description of a refrigerated storage device (PCT / JP2004 / 008774) that stores food at a low temperature as an electric field processing storage device that performs electric field processing storage on an object to be processed. is there.

  As shown in FIG. 12, an insulating wall 131 that insulates the inside of the refrigerated storage device 130 from the outside is provided, and a resistor is attached to the output line from one pole of the secondary side of the transformer that uses AC at the commercial frequency as a power source. Then, the tip is connected to the output line from the remaining one pole, and the output line is connected to the left and right wall surface electrodes 132 and 133 through the branching device, and the electric field processing region (shaded portion) 134 is connected. In this method, a plurality of shelf plates 135 are arranged in a non-contact manner on the left and right wall surface electrodes 132 and 133, and the object 136 is placed on the shelf plate 135 to achieve electric field treatment and low-temperature storage. is there.

  FIG. 13 is a partial schematic plan cross-sectional description of the electrode arrangement description of a refrigerated storage device (PCT / JP2004 / 17200) for storing a processing object at a low temperature as an electric field processing storage device that performs electric field processing storage on the processing object. FIG.

As shown in FIG. 13, an insulating wall 141 that insulates the inside 140 of the refrigerated storage device from the outside is provided on three surfaces, and a resistor is connected to the output line from one pole of the secondary side of the transformer that uses a commercial frequency alternating current as a power source. Is connected to the output line from the remaining one pole, and the output line is connected to the left and right wall surface electrodes 142, 143 and the insulated wall electrode 144 through the branching device. Then, an electric field processing region (shaded portion) 145 is formed, a plurality of shelf plates 146 are arranged in a non-contact manner with the three electrodes on the wall surface, and the object to be processed 147 is placed on the shelf plate 146 to perform electric field processing. This is a method for low-temperature storage.

FIG. 10: JP-A-2-257867,
FIG. 11: JP-A-9-138555,
Figure 12: PCT / JP2004 / 008774,
Figure 13: PCT / JP2004 / 17200,

Electric field processing methods such as Japanese Patent Laid-Open No. 2-257867 in FIG. 10, Japanese Patent Laid-Open No. 9-138555 in FIG. 11, PCT / JP2004 / 008774 in FIG. 12, PCT / JP2004 / 17200 in FIG. In this system, a spatial electric field processing region is formed inside a storage container that is insulated using a shelf electrode of this type, and an object to be subjected to the electric field processing is accommodated in the spatial electric field processing region to perform the electric field processing.
Accordingly, in Japanese Patent Laid-Open No. 2-257867 in FIG. 10 and Japanese Patent Laid-Open No. 9-138555 in FIG. 11, the mounting surface of the workpiece is in contact with the electrode, and the opposite side surface forms a non-contact layer with respect to the electrode. This is because the electric field treatment results differ between the top of the object to be processed on the side opposite to the bottom surface of the object to be processed placed on the electrode and the top and bottom of the object to be processed stacked in stages. This is because the divergence distances to the electrodes facing each other are different from each other, and nonuniformity occurs in the electric field processing effect.
Also in PCT / JP2004 / 008774 in FIG. 12 and PCT / JP2004 / 17200 in FIG. 13, the separation distance from the wall surface electrode varies depending on the placement position in the horizontal placement of the object to be processed. Unevenness occurs.

  The first object of the present invention is the electrode processing system of the above-described form (specifically, the electric field treatment region is a space region where low-temperature and high-humidity cooling reflux air is present as the electric field treatment region. In other words, the electric field treatment storage method is provided to solve various problems that occur in the processing object, and the relationship between the processing object and the electrode is regulated. It is to provide an electric field processing storage method for performing electric field processing.

  The second object of the present invention is to provide an electric field treatment storage method that concentrates electric lines of force from an electrode on an object to be treated, and suppresses a tendency to reduce the electric field treatment effect in a low temperature environment. It is an object of the present invention to provide an electric field treatment storage method for performing an electric field treatment adapted to the electrical tendency, outer shape, etc. of an object to be treated, such as controlling the number of directions of electric force lines from an object.

  The third object of the present invention is that when the objects to be processed accommodated in the electric field processing area in the same electric field processing storage store require alternating voltages of the same polarity with different strengths or storage temperatures, the same polarity with different strengths. Electric field processing and storage method of performing electric field processing on the object to be processed using the storage voltage and the electric field processing capacity resulting from the output of the transformer to obtain the AC voltage of the same polarity It is to provide an electric field processing storage method that solves the quantity.

The fourth object of the present invention is to provide a substance storage temperature suitable for the purpose of electric field treatment storage using the control device when applying electric field treatment to a substance such as food contained in the electric field treatment storage, the electric field application time for the substance, It is an object of the present invention to provide an electric field processing and storage method capable of managing the operation instructions to obtain regular, continuous and uniform results by increasing / decreasing the electric field application strength and the electric field lines forming direction.

  In order to achieve the first object, the present invention provides a plurality of contacts or a plurality of contact surfaces by moving the position with respect to the outer shape and electrical tendency of an object to be processed for the purpose of performing an electric field treatment. The electrode for applying the AC voltage of the same polarity to ensure the accuracy and the electrode for applying the AC voltage of the same polarity of the same power source as described above for mounting or housing the object to be processed are used. Take a way to regularize relationships.

In order to ensure such an object to be processed and a plurality of contacts or a plurality of contact surfaces accurately, an electrode to be moved and the object to be processed and a plurality of contacts or a plurality of contact surfaces to be accurately secured. In the electric field processing method using the workpiece mounting electrode or the workpiece receiving electrode, the relationship between the workpiece and the electrode is regularized by having a plurality of contacts or a plurality of contact surfaces. In addition, since the position moving electrode corresponding to the object to be processed and the object to be processed placing electrode or the object to be processed accommodating electrode are in a form in which the object to be processed is sandwiched in a substantially target relationship, a plurality of objects to be processed are in the same direction. Because it can have an infinitely far ground plane, the direction of the electric field lines is also regulated.
Therefore, individual external shapes of multiple objects to be processed, height, size, unevenness caused by stacking, etc., individual divergence between multiple objects to be processed and electrodes, and separation distance problems, It is possible to solve the problem of forming individual shielding layers for the electrodes of a plurality of objects to be processed.

  In order to achieve the second object, the present invention provides a non-electric field treatment region formed by a position-moving electrode that secures an object to be processed and a plurality of contacts or a plurality of contact surfaces, a mounting electrode, and a receiving electrode. The overlapping electric field processing region is configured to surround the electric field processing region with one or a plurality of electrodes to which an alternating voltage of the same polarity of the same power source as the plurality of electrodes is applied via the contact layer. In addition, the plurality of electrodes in the enclosing form are each arranged in a substantially opposing relationship, each of which is applied with an AC voltage having the same polarity as the electric field processing region and having the same power supply as the enclosing form. An electric field processing method is adopted in which a plurality of electrodes can individually turn on and off an alternating voltage of the same polarity.

In such an electric field processing method that constitutes an overlapping electric field processing region, electric force lines from a plurality of electrodes to an object to be processed can be complicated, complicated, and concentrated.
Therefore, when maintaining the freshness of the object to be treated, a low-temperature progress environment is required for general viable growth control, but as the temperature decreases, the effect of applying an electric field tends to decrease, Things deteriorate at low temperatures. By constituting these overlapping electric field processing regions, electrical processing on the surface of the object to be processed and kinetic activity of constituent molecules can be advanced with high efficiency.
In addition, the region or regions on the side that surrounds the non-contact layer through the non-contact layer is formed by one or more of the electrode and the plurality of contacts to be processed or a plurality of electrodes that apply the same polarity AC voltage to secure a plurality of contact surfaces. By switching on and off the application of alternating voltage of the same polarity to the electrodes individually for each electrode, it is possible to secure an infinitely far ground plane suitable for the component distribution, outer shape, electrical orientation, etc. of the object to be processed. Therefore, an effective electric field treatment can be applied to the object to be processed in a continuous and regular manner.

  In order to achieve the third object, the present invention makes it possible to set up multiple overlapping electric field processing regions using the same polarity alternating current voltages of different strengths or storage temperatures in the same electric field processing storage, in close proximity. For this purpose, the plurality of overlapping electric field processing regions and an insulating layer are secured, and a separation electrode having a different polarity with respect to the overlapping electric field processing region is used between the plurality of overlapping electric field processing regions.

In an electric field processing storage having a configuration using such a separation electrode, it is possible to configure a plurality of overlapping electric field processing regions using alternating voltages of different polarities and the same polarity. Specifically, since the AC voltage of the same polarity used in the overlapping electric field processing region is a weak current, the electric field processing effect and the electric field processing amount are not proportional. In addition, it is difficult to obtain an alternating voltage of the same polarity from a large number of transformers having different electric field processing areas in the vicinity.
Therefore, when a single transformer that obtains an AC voltage of the same polarity in the same electric field processing storage is used for the electric field processing region of the two divided voltages, the separation electrode is different from the electrodes of the two electric field processing regions. Any conductive material may be used as long as it has a polarity, and when there are a plurality of transformers for obtaining an AC voltage of the same polarity, a ground electrode is used as the separation electrode.

In order to achieve the fourth object, the present invention uses a control device to control the storage temperature, electric field application time, electric field application period, electric field intensity, electrode energization, etc. for the object to be processed that is suitable for the purpose of electric field treatment storage. Then, the operation management of the electric field processing area is performed regularly and continuously.

In the electric field processing method of the configuration using such a control device, in performing the electric field processing storage for the object to be processed, the electric field processing purpose, for example, the storage of the non-freezing freshness of the object to be processed at the germ propagation temperature or lower, Conducts electric field processing operation management based on the electrical characteristics and storage time of the object to be processed, such as low-temperature thawing progress of frozen objects to be processed below zero temperature, freshness maintenance storage after thawing, refrigerated freshness maintenance storage of fresh objects to be processed, etc. Therefore, a large amount of uniform electric field processing can be performed regularly.

BRIEF DESCRIPTION OF THE DRAWINGS FIG. 1 is a schematic front cross-sectional explanatory diagram of an internal structure related to a fixed electric field processing storage 1 for performing electric field processing on an object to be processed according to Embodiment 1 of the present invention. BRIEF DESCRIPTION OF THE DRAWINGS FIG. Schematic front cross-sectional explanatory diagram of the internal structure of a simplified electric field processing storage 2 for applying an electric field treatment to an object to be processed according to Example 1 of the present invention The schematic explanatory drawing regarding the control system which performs an electric field process to the to-be-processed object concerning Example 1 and Example 2 of this invention Schematic front cross-section explanatory drawing of the internal structure regarding the simplified electric field processing storage 2 which performs an electric field process on the to-be-processed object concerning Example 2 of this invention Schematic side cross-sectional explanatory drawing of the internal structure related to the simplified electric field processing storage 2 for performing electric field processing on the workpiece according to the second embodiment of the present invention. Schematic plane cross-sectional explanatory drawing of an internal structure regarding the simplified electric field processing storage 2 which performs an electric field process to the to-be-processed object concerning Example 2 of this invention. Schematic plane cross-sectional explanatory drawing regarding the to-be-processed object accommodation electrode of the simplified electric field processing storage 2 which performs an electric field process to the to-be-processed object concerning Example 2 of this invention. Schematic side cross-sectional explanatory drawing regarding the to-be-processed object accommodation electrode of the simplified electric field processing storage 2 which performs an electric field process to the to-be-processed object concerning Example 2 of this invention. Prior art, Japanese Patent Laid-Open No. 2-257867 (Patent No. 1,405,591) Prior art, Japanese Patent Laid-Open No. 9-138055 (Patent 3698776) Prior art, PCT / JP2004 / 008774 Prior art, PCT / JP2004 / 17200

  An object to be subjected to electric field treatment in an electric field treatment storage having a plurality of electrodes such as an electrode and a placement electrode or a receiving electrode that moves the position has a plurality of electrodes and a plurality of contacts or a plurality of contact surfaces. It will have in the target surface. That means that the relationship between multiple objects to be processed and electrodes accommodated in the electric field processing area changes from the distance (irregular) to the contact (regular) in the conventional electric field processing storage. To do. Therefore, due to the irregular relationship between the object to be processed and the electrode, the non-uniformity problem caused by the individual external appearance, height, size, stacking, etc. It is possible to solve problems such as individual divergence and separation distance between an object and an electrode, problems of forming individual shielding layers for electrodes of a plurality of objects to be processed, and the like.

  The electric reaction in the electric field processing area of the object to be processed is because the electric field processing area is an AC electric field of the same polarity, so that if the position moving electrode and the mounting or accommodating electrode show a plus sign, the object to be processed is The negative electrode opposite to the electrode is shown on the surface side having the plurality of electrodes and contacts and the contact surface, and the electrode is on the surface side not having the contact points or contact surface with the plurality of electrodes, that is, the infinity ground direction surface side. The same reference numerals are shown. Further, when the plurality of electrodes show a minus sign, the object to be processed shows a plus sign opposite to the electrode on the surface side having the contact point or contact surface, and the electrode and contact point or contact point. The same reference numerals as those of the electrodes are shown on the surface side having no surface, that is, on the infinity ground direction surface side. Therefore, the object to be processed can be accurately detected from the contactless or contactless surfaces of the plurality of electrodes in synchronization with the plurality of position moving electrodes and mounting electrodes or receiving electrodes having a plurality of contacts or contact surfaces. This is an electric field treatment mode in which the electric field lines are changed to a substance that generates electric field lines.

Furthermore, in the electric field processing storage, a plurality of position moving electrodes and mounting electrodes that secure a plurality of contact surfaces or a plurality of contact surfaces, or an electric field processing region constituted by a receiving electrode and a non-contact layer The electrodes that form a plurality of spatial electric field processing regions arranged in a form surrounding the region use the same polarity AC voltage of the same power source as the electrode.
Therefore, the workpiece is present in the overlapping electric field processing region. This is because the application of AC voltage with the same polarity to multiple electrodes that form the spatial electric field processing area is controlled to increase / decrease the lines of electric force from the electrodes to the object to be processed, and it can be swung from the object to the ground at infinity. It is also an electric field processing form that can control the direction of the electric force lines to be emitted, control the number of electric force lines to be generated by increasing or decreasing the number of ground directions at infinity, or block the electric force lines to be generated.
Therefore, the electric field treatment suitable for the outer shape, electrical tendency, etc. of the substance such as food stored for the purpose of electric field treatment in the electric field treatment storage can be accurately performed. For example, in the case of foods, fine control such as reduction of protoplasmic flow rate, fine control such as suppression of respiratory metabolism, growth control of general living bacteria, low temperature deterioration suppression control, ice crystal generation suppression control, etc. With regard to, it is possible to obtain a continuous, stable and uniform electric field treatment effect.

  In the electric field processing storage of the configuration using the separation electrode, when configuring multiple electric field processing regions of different potentials close to each other using the same polarity AC voltage of different strength, use the secondary output line of the transformer. Corresponding with the take-out position change line and the line with a resistor. At that time, by securing both electric field processing regions and an insulating layer and using a different polar body having a different polarity with respect to the electric field processing region, that is, by using a separation electrode, the same electric field processing storage has the same polarity and different polarity. Electric field treatment at different potentials can be performed using AC voltage. Also, when using many transformers to obtain AC voltage of the same polarity in the same electric field treatment storage, and configuring the electric field treatment region close to each other, secure each electric field treatment region and an insulating layer and use a ground electrode as a separation electrode. Use it. Therefore, large-scale large-scale electric field processing is possible in the same electric field processing storage. In addition, when the storage temperature is changed for each electric field processing region, the separation electrode may be used as a shielding wall.

[0030] The verification material in which the electric field processing storage of the present invention was subjected to low temperature non-freezing freshness maintenance electric field processing storage using a fresh sashimi-fence type fillet as an electric field processing object is shown in [0030].
As a result, a decrease in general viable bacteria was observed, and the meat quality was in an unfrozen raw state and could be cut with a knife. Furthermore, no flow loss of the components to be treated (elution water, etc.) was observed. However, the electric field processing verification of the prior art has many “variations (freezing, partial freezing, non-freezing)”, and it has been difficult to select a comparative sample. In summary, in the prior art, the surface layer of the object to be processed is frozen in an ice state. Therefore, since it was unsuitable for the bacterial count change test, the material description is omitted.

The following are the materials related to maintaining the low-temperature non-freezing freshness of fresh meat in the electric field processing storage of the present invention.
Product name Warehousing temperature Number of initial bacteria / g Storage temperature Temperature Change of bacterial count / g Meat quality Fillet fence fillet ＋ 5 ℃ 38,000. −7 ℃ ～ −5 ℃ 24 hours 11,000.
48 hours 5,100. Raw state

In the electric field treatment storage of the present invention, as the electric field treatment object, using frozen frozen meat-fed type fillet, subjected to electric field treatment low temperature slow thawing, and further subjected to low temperature unfrozen freshness maintenance storage at the same temperature after thawing. The verification material is shown in [0032].
As a result, the meat was in a state where the low-temperature slow thawing was completed, it returned to the raw state, and was cut with a knife. Also, no component loss was observed. Regarding the low-temperature non-freezing storage at the same temperature after thawing, no tendency to grow general viable bacteria was observed.
However, the electric field processing verification in the prior art has many variations (decompression (decompression / partial defrost / non-decompression)), and it has been difficult to select comparative samples. Therefore, the data on the thawing and freshness maintenance of the frozen salmon meat stored in the electric field treatment section is shown in [0033] as reference data.

The following are materials for low-temperature slow thawing and low-temperature unfrozen freshness storage in the electric field treatment storage of the present invention.
Product name Warehousing temperature Number of initial bacteria / g Storage temperature Temperature Change of bacterial count / g Status Fillet fence type fillet −20 ° C 300> −3 ° C to −5 ° C 24 hours 300> No outflow
48 hours 300> No outflow
72 hours 300> No outflow

Reference materials for thawing and maintaining freshness of frozen salmon meat stored in the no-electric field treatment area are shown below. However, since the thawing does not proceed at the same storage temperature (the temperature described in [0035]) as the electric field treatment storage of the present invention, the storage temperature was set to a temperature at which the thawing proceeds.
As a result, the meat was in a state where slow thawing was completed and the hardness was cut with a kitchen knife, but component loss was observed.

Product name Warehousing temperature Initial number of bacteria / g Storage temperature Temporal change in number of bacteria / g Status Fillet fence fillet −20 ° C 300> ± 0 ° C to + 3 ° C 24 hours 300> Overflow
48 hours 40,000.
72 hours 100,000.

  [0035] Weight change data relating to moisture evaporation control due to exhaustion due to respiration and heat generation are shown in [0035] using fresh spinach as an electric field treatment object in the electric field treatment storage of the present invention. In the verification by the conventional technique, it was difficult to select a comparative sample “many variations (because the electric field processing area is a space)”. Therefore, the material of the sample accommodated in the no-electric field processing section is shown in [0036]. The electric field treatment in the electric field treatment storage of the present invention continuously maintains the freshness of the food.

The freshness maintenance storage material accommodated in the electric field processing storage of this invention. The storage temperature is a general storage temperature (4 ° C.).
Product name: Spinach / Packing: Resin packaging goods Storage temperature Storage temperature Storage humidity Humidity Overweight Weight loss Evaluation + 8 ° C + 4 ° C 85% 72 hours ▲ 3.1% Stable after rapid progress

Freshness-maintaining storage materials housed in a no-electric field treatment zone. The storage temperature is a general storage temperature (4 ° C.).
Product name: Spinach / Packing: Resin packaging Goods storage temperature Storage temperature Storage humidity Humidity Overweight Weight loss Evaluation + 8 ° C + 4 ° C 85% 72 hours ▲ 5.5% Continued slowly

  Embodiments of the present invention will be described below with reference to the drawings. However, the dimensions, materials, shapes, and other arrangements of the component parts described in this example are not intended to limit the scope of the present invention only, unless otherwise specified, and are merely explanations. Absent. In addition, as long as the same effect is obtained, it is possible to change the combination of the configuration described in the embodiment with the configuration described in the other embodiments.

FIG. 1 is a schematic front cross-sectional explanatory view of an internal structure related to a fixed electric field processing storage 1 that performs electric field processing on an object to be processed according to Example 1 of the present invention.
FIG. 2 is a schematic side cross-sectional explanatory diagram of the internal structure of the stationary electric field processing storage 1 that performs the electric field processing on the workpiece according to the first embodiment of the present invention.
2 and 3 are schematic plan cross-sectional explanatory views of an internal structure related to a stationary electric field processing storage 1 that performs electric field processing on an object to be processed according to Embodiment 1 of the present invention.
FIG. 4 is a schematic explanatory diagram relating to a control system for applying an electric field process to an object to be processed according to the first and second embodiments of the present invention.

FIG. 3 is a schematic front cross-sectional explanatory view of an internal structure relating to a simplified electric field processing storage river that performs electric field processing on an object to be processed according to Embodiment 2 of the present invention.
FIG. 4 is a schematic side cross-sectional explanatory diagram of the internal structure of the simplified electric field processing storage 2 that performs electric field processing on an object to be processed according to the second embodiment of the present invention.
FIG. 5 is a schematic plan cross-sectional explanatory diagram of the internal structure relating to the simplified electric field processing storage 2 that performs electric field processing on the workpiece according to the second embodiment of the present invention.
FIG. 6 is a schematic side sectional view of the internal structure of the simplified electric field processing storage 2 for subjecting the object to be processed according to the second embodiment of the present invention to electric field processing. FIG. 7 shows the object to be processed according to the second embodiment of the present invention. FIG. 8 is a schematic plan cross-sectional explanatory diagram of the internal structure relating to the simplified electric field processing storage 2 for performing electric field processing on FIG. 8. FIG. 8 is a schematic diagram of the simplified electric field processing storage 2 for performing electric field processing on an object to be processed according to Example 2 of the present invention. It is a schematic plane cross-sectional explanatory drawing regarding a to-be-processed object accommodation electrode.
FIG. 9 is a schematic side cross-sectional explanatory diagram related to the object-receiving electrode of the simplified electric field processing storage 2 that performs electric field processing on the object to be processed according to the second embodiment of the present invention.
Since the temperature maintenance control system device (collective name of the temperature variable device and the low-temperature reflux air supply / exhaust device) in the fixed electric field processing storage 1 shown here uses a general-purpose temperature maintenance control system device, Omit the explanation.
In addition, a transformer for obtaining an AC voltage of the same polarity used for electric field processing is equipped with a resistor on one pole on the secondary side, and the tip is connected to the remaining one-pole output line, and the output line is connected via a branching device. Therefore, since it is a general method of Zhou Ji that applies to a plurality of electrodes, the explanation is omitted.

  This will be described with reference to FIG. The left and right wall surfaces 01 of the fixed electric field processing storage 1 are composed of a multilayer body of an insulating material, a heat insulating material, and an exterior material from the inside that accommodates an object to be processed, and the ceiling portion 02 and the floor surface portion 03 have the same specifications. is there. On the ceiling portion 02, supply pipe systems 02A and 02B for recirculation of cold air for maintaining and adjusting the temperature in the cabinet are arranged, and an exhaust pipe system 02C for recirculation of cold air is arranged in the center.

As shown in FIG. 1, the ceiling part 02 which forms to-be-processed object accommodation electrode 04A, 04B in the ceiling part 02 of the fixed-type electric field process storage 1 and the left-right both ends and the left-right wall surface 01 of the floor surface part 03. 02, the frame pillars 01A, 01B, 01C, 01D made of a material in which the tip of the side, the floor surface 03, and the leg of the side are insulated are provided at four locations on the back wall side and four locations on the open / close door side ( (It is not shown in the figure).
Also, since the plurality of support posts 01A, 01B, 01C, 01D of the frame body constitute the workpiece receiving electrodes 04A, 04B, each of them is a rod-shaped differential reinforcement bar (here, insulated) (It is not shown for explaining the arrangement of the electrodes.). A plurality of mounting electrodes 04C, 04D, 04G, 04H, and top plate electrodes 04E, 04F are provided on the workpiece-receiving electrodes 04A, 04B on the left and right wall surfaces 01 of the fixed electric field processing storage 1, respectively. In addition, the plurality of pillars 01A, 01B are made of a conductive material, and have mounting electrodes 04C, 04D, 04G, 04H, top plate electrodes 04E, 04F, and non-contact layers made of a conductive material. Each wall electrode is fitted.

As shown in FIG. 1, a plurality of support columns 01C and 01D arranged on the back wall side and the open / close door side of the workpiece receiving electrodes 04A and 04B are provided with guide rails, respectively. Conductivity that blocks the front surfaces of the housing electrodes 04A and 04B and that moves up and down along the guide rail in a form having a non-contact layer with respect to the mounting electrodes 04C, 04D, 04G, and 04H and the top plate electrodes 04E and 04F. A lifting electrode made of a conductive material is arranged, and the lifting electrode is connected to the driving shafts of the lifting electrode driving devices 02F and 02G in the center of the ceiling portion 02 and is lifted and lowered. In addition, the joining portion and the winding portion of the lifting electrode to the lifting electrode drive shaft are made of an insulating material, and the other portions are made of a conductive material. It is.
Here, the driving device is used, but a bellows-type telescopic sliding door made of a conductive material fixed on one side of the back wall may be used.

  As shown in FIG. 1, in the central part of the ceiling part 02, the middle position part of the lifting electrode driving devices 02 F and 02 G shows a different polarity with respect to the electric field processing area of the workpiece receiving electrodes 04 A and 04 B, In addition, a separation electrode driving device 02H that lifts and lowers the separation electrode 04 made of a conductive material that secures the lifting electrode and the insulating layer is provided. In addition, the separation electrode is in the form of air permeability or an air blocking shape depending on the application. Further, although the driving device is used here, a bellows-type telescopic sliding door made of a conductive material fixed on one side of the back wall may be used.

As shown in FIG. 1, the workpiece receiving electrodes 04A, 04B are shown here as a plurality of mounting electrodes 04C, 04D, 04G, 04H made of a conductive material, and a plurality of conductive electrodes made of a conductive material. The top plate electrodes 04E and 04F are individually attached to the frame body made up of the plurality of columns 01A, 01B, 01C, and 01D of the plurality of workpiece receiving electrodes 04A and 04B and the transfer bars, respectively, with fixing brackets. Mounted in a fixed form.
The object to be processed for the electric field processing of the fixed electric field processing storage 1 is the outer shape, form of the object to be processed placed on the placing electrodes 04C, 04D, 04G, 04H of the object receiving electrodes 04A, 04B, Between the mounting electrodes 04C and 04D, which are in a vertical relationship due to weight, usability, etc., is a mounting form that can be easily changed by moving the fixing bracket.

As shown in FIG. 1, the mounting electrodes 04C, 04D, 04G are placed on the side facing the mounting electrodes 04C, 04D of the workpiece receiving electrodes 04A, 04B and the floor surface 03 of the top plate electrodes 04E, 04F. , 04H, a plurality of position moving electrodes 04P, 04Q made of a conductive material that moves up and down to move the position in order to secure a contact point or a contact surface to be processed. At 04L and 04M, the left and right wall electrodes, the lifting electrode and the non-contact layer are secured.
The plurality of position moving electrodes 04P and 04Q are provided with a plurality of insulating cords 04L and 04M provided on the front, rear, left and right of the plurality of position moving electrodes 04P and 04Q by a plurality of moving electrode operating tools 04J and O4K, which are individually attached. Thus, it is possible to secure a contact or contact surface with the object to be processed on the mounting electrodes 04C, 04D, 04G, and 04H by freely moving them.
On the floor surface 03, a hook 03A made of an insulating material is disposed in consideration of drainage.

This will be described with reference to FIG. The open / close door 05 of the fixed electric field processing storage 1 and the left and right walls 05A, 05B on the open / close door 05 side are composed of a multilayer body using an insulating material, a heat insulating material, and an exterior material from the side that accommodates an object to be processed. The back wall 06 has the same specification.
Reference numeral 05C denotes an opening / closing handle for the opening / closing door 05. The open / close door 05 is connected to a power on / off device of the fixed electric field processing storage 1 for applying an AC voltage of the same polarity to all electrodes.
At the corners of the left and right walls 05A, 05B of the open / close door 05, a plurality of columns 01A, 01B, 01C, 01D constituting the frame of the workpiece receiving electrodes 04A, 04B are provided, and the open / close made of a conductive material is provided. The door side wall surface electrodes 05D and 05E have left and right wall surface electrodes 01E and 01F, elevating electrodes 07A and 07B, mounting electrodes 04C, 04D, 04G and 04H, top plate electrodes 04E and 04F, and non-contact layers. It is inserted.

  As shown in FIG. 2, a plurality of pillars 01A, 01B, 01C, 01D constituting the frame of the workpiece receiving electrodes 04A, 04B are provided at the corners of the back wall 06 of the fixed electric field processing storage 1 The rear wall side wall electrodes 06A and 06B made of a conductive material are the left and right wall surface electrodes 01E and 01F, the lift electrodes 07A and 07B, the mounting electrodes 04C, 04D, 04G, 04H, and the top plate electrodes 04E, 04F. And are fitted in a form having a non-contact layer.

As shown in FIG. 2, 04 is a separation electrode, and 07 is a machine room that houses the power system of the AC voltage of the same polarity, the storage temperature conversion maintenance device system, the control device system, etc. of the fixed electric field processing storage 1. Yes, 07A and 07B are lifting electrodes.
04A and 04B are workpiece receiving electrodes, 04C and 04D are mounting electrodes provided on the workpiece receiving electrode electrodes 04A and 04B, and a plurality of holes on the mounting electrodes 04C and 04D. 08 is a hole through which the insulating cable of the position moving electrode is passed, and 04J and 04K are position moving electrode operation tools.
Reference numerals 02F and 02G denote driving devices for raising and lowering the raising and lowering electrodes 07A and 07B. Reference numeral 02H denotes a driving device for raising and lowering the separation electrode 04H.

  This will be described with reference to FIG. 07 is a machine room of the fixed electric field processing storage 1, 02 is a ceiling part, 03 is a floor part, 06 is a back wall, 05A is a wall surface on the door side, 05 is an open / close door, 05C is a handle of the open / close door, and 02A is a cold air recirculation supply system pipe. 01C is a support column of the frame of the workpiece receiving electrode 04A, 07C and 07D are crosspieces passed between the support column 01C of the frame of the workpiece storage electrode 04A, and 04C is a mounting electrode 04P is a position moving electrode. In addition, 04E is a top electrode of the workpiece receiving electrode 04A, 04L is an insulating cable, and 04J is a position moving electrode operation for operating the insulating cable 04L to move the position moving electrode 04P up and down. It is a tool. 7E is a grounding earth of the fixed electric field processing storage 1.

  This will be described with reference to FIG. This control system is a form which controls the electric field processing amount of a transformer as a standard (unit). The point is that the input switcher turns on and off the multiple electrodes that surround the moving electrode on the touch panel display, and maintains the temperature in the electric field treatment storage unit by using the temperature sensor in cooperation with the air conditioning damper. It is to maintain the indicated temperature that matches the applied strength uniformly in the electric field processing region. In addition, a program based on the electrical property of the object to be processed can be operated by instructing the object to be processed using the touch panel display from the PLC for an electric field processing purpose of the object to be processed, an electric field processing time, and the like.

  In the fixed electric field processing storage 1 having such a configuration, a position-moving electrode used as a workpiece receiving electrode that has a contact or contact surface on the upper and lower surfaces and applies an AC voltage of the same polarity to the workpiece. The mounting electrode and the top plate electrode are made of a conductive material, and have a mesh shape, a lattice shape, a bar shape, or a porous shape that does not hinder the reflux of cooling air. The plate-like shape and the position-moving electrode are preferably attached to a flat plate-like shape, a linear shape having a large amount of flexibility, a mesh shape, a lattice shape, a bar shape, or a porous conductive material.

  In the fixed electric field processing storage 1 having such a configuration, the peripheral wall of the workpiece receiving electrode that surrounds the position moving electrode, the placement electrode, and the top electrode of the workpiece receiving electrode with a non-contact layer is provided. The left and right wall surface electrodes, the side wall surface electrodes, and the open / close door side wall surface electrodes are flat plate shapes made of a conductive material, and the shape thereof is preferably a plate shape or a porous plate. In addition, the power supply of the electric field processing system between the opening and closing of the open / close door needs to be separated from the back side insulating wall surface as a countermeasure against dew condensation due to being cut off or to the extent necessary for the dew condensation water removal process.

  In the fixed electric field processing storage 1 having such a configuration, the electrode portion of the lifting / lowering electrode disposed with all the electrodes mounted on the workpiece receiving electrode and the contact layer so as to block the front surface of the workpiece receiving electrode. The shape is preferably a curtain made of a conductive material, or a curtain-like curtain having a high air permeability, a mesh, or a lattice. Further, an air blocking shape made of a conductive material is also used depending on the application.

  In the fixed electric field processing storage 1 having such a configuration, the separation electrode for separating the electric field processing region may have a curtain shape made of a conductive material, or a horizontal curtain shape, a mesh shape, a lattice shape, etc. that are highly air permeable. good. Further, an air blocking shape made of a conductive material is also used depending on the application.

FIGS. 5-9 is explanatory drawing of the simple electric field process storage 2 which performs an electric field process to the to-be-processed object concerning Example 2 of this invention.
The temperature maintenance control system device (collective name of temperature variable device and low-temperature reflux air supply / exhaust device) in the simple electric field processing storage 2 shown here uses a general-purpose temperature maintenance control system device, and therefore its mechanical explanation Omit.
In addition, a transformer for obtaining an AC voltage of the same polarity used for electric field processing is equipped with a resistor on one pole on the secondary side, and the tip is connected to the remaining one-pole output line, and the output line is connected via a branching device. Since this is a general method of Zhou Ji that applies to multiple electrodes, the explanation is omitted. Note that as described above (paragraph 0038), it is possible for those skilled in the art to modify the configuration described in the embodiment with the configuration of the other embodiments.

  This will be described with reference to FIG. The left and right wall surfaces 11 of the simplified electric field processing storage 2 according to the second embodiment of the present invention are composed of a multilayer body of an insulating material, a heat insulating material, and an exterior material from the inside that accommodates an object to be processed, and a ceiling portion 12 and a floor surface portion 13. Is the same specification. In the workpiece accommodating electrode accommodated in the workpiece accommodating electrode accommodating region 17 on the opposite surface of the workpiece accommodating electrode accommodating region 17, made of a conductive material at a position close to the ceiling portion 12 of the left and right wall surfaces 11. Position moving electrode 14 for applying an AC voltage of the same polarity to secure a contact point or contact surface with the object to be processed, a driving roller 15 used for position movement, and a manual up-and-down rotating operation unit 15A for operating the position moving electrode 14 In addition, the horizontal rail 16 provided with the raising / lowering rope 15B made of an insulating material for operating the position moving electrode 14 via the driving roller 15 in the operation of the manual raising / lowering rotary type operating unit 15A has a substantially parallel relationship in the front-rear direction. Multiple handed over.

As shown in FIG. 5, a bottom-type pullout scissor 13A made of an insulating material is disposed at the bottom of the bottom electrode 13 of the simplified electric field processing storage 2 at the bottom of the workpiece-receiving electrode storage area 17. In the gap between the scissors 13A and the workpiece receiving electrode receiving region 17, there are two types of high and low types made of a conductive material that applies an AC voltage of the same polarity from the same power source as the position moving electrode 14 to the workpiece receiving electrode. A low leg energizing metal fitting 17A and a high leg energizing metal fitting 17B having legs are disposed.
In addition, the back wall of the simplified electric field processing storage 2 is also composed of a multilayer body of insulating material, heat insulating material, and exterior material from the inside that accommodates the object to be processed. Exhaust ports 18A and 18B are disposed, and a machine room 19 that houses a general-purpose temperature maintenance and control system device, a power system device that obtains an AC voltage of the same polarity used for electric field processing, a control device, and the like is provided below the bottom surface portion 13. Is arranged.

  This will be described with reference to FIG. An arrangement region 18C, such as a cooling tube and an AC voltage conducting wire tube of the same polarity, is arranged outside the back wall surface 18 of the simplified electric field processing storage 2 according to the second embodiment of the present invention, and accommodates the workpiece containing electrode. At the end of the region 17, an opening / closing door 20 of the simplified electric field processing storage 2 made of a multilayer body of insulating material, heat insulating material, and exterior material is provided from the inside that accommodates an object to be processed. 20A is provided, and the opening / closing operation of the opening / closing door 20 is connected to an on / off device of an AC voltage power supply of the same polarity. 12 is a ceiling part, 13 is a floor surface part, 13A is a child with a bottomed drawer, 14 is a position moving electrode, 15A is a manual up-and-down rotating operation part of the position moving electrode 14, and 15B is an insulating material. This is a rope for raising and lowering the position moving electrode 14. Furthermore, 17A is a low leg energizing metal fitting, 17B is a high leg energizing metal fitting, and 19 is a machine room.

This will be described with reference to FIG. The position moving electrode 14 of the simplified electric field processing storage 2 that performs electric field processing on the workpiece according to the second embodiment of the present invention is provided with a plurality of holes 15C for lifting and lowering, and is provided in the plurality of horizontal rails 16. The manual up-and-down rotation type operation unit 15A is rotated, and the up-and-down line 15B is operated to move the position.
17 is an object accommodation electrode accommodation area, 18 is a back wall surface, 18C is an arrangement area for cooling pipes, AC voltage conducting wire tubes of the same polarity, 20 is an opening / closing door, 20A is a handle, and 20B is an opening / closing door. 20 hinges.

  As shown in FIG. 5 to FIG. 7, the low-leg energization provided in the lower part of the workpiece receiving electrode receiving area 17 of the simplified electric field processing storage 2 for applying the electric field treatment to the workpiece according to the second embodiment of the present invention. 8 to FIG. 9, a metal object 17 made of a conductive material that is used by accommodating and placing an object to be processed on the metal fitting 17A and the high-leg metal fitting 17B. explain.

  As shown in FIGS. 8 to 9, the workpiece receiving electrode 21 includes a plurality of columns 22 made of an insulating material and a workpiece placing made of a flat plate material made of a conductive material and having high air permeability. The electrode 25 and the above-described placement electrode 25 are composed of a plurality of surrounding wall electrodes 23 arranged in a substantially opposing relationship with a non-contact layer in a surrounding form, and the placement electrode 25 and the plurality of surrounding wall electrodes 23. The position moving electrode 14 and an AC voltage having the same polarity from the same power source are applied. The plurality of peripheral wall electrodes 23 are joined by a plurality of support posts 22 made of an insulating material, and each of the plurality of support posts 22 forms an insulating layer between the plurality of peripheral wall electrodes 23.

  As shown in FIG. 8 to FIG. 9, a plurality of crosspieces 24 made of an insulating material are provided below the plurality of peripheral wall electrodes 23 at the bottom of the workpiece accommodation electrode 21, and on the plurality of crosspieces 24, A mounting electrode 25 made of a conductive material and made of a flat plate material having a high air permeability is provided with a plurality of peripheral wall electrodes 23 and a non-contact layer. It has both electrodes and a plurality of contact points or contact surfaces in a target relationship in a form sandwiched by the electrodes 14.

  As shown in FIG. 8 to FIG. 9, the AC voltage application of the same polarity to the workpiece accommodation electrode 21 is applied to the plurality of peripheral wall electrodes 23 by the two types of low leg energization fittings 17 </ b> A, and a single high leg energization is performed. In this configuration, the metal fitting 17B is applied to the mounting electrode 25. Therefore, the AC voltage of the same polarity can be turned on and off with the plurality of peripheral wall electrodes 23 facing each other using the input switch of the control device.

In the simple electric field processing storage 2 having such a configuration, a position moving electrode that has contacts or contact surfaces on the upper and lower surfaces and applies an AC voltage of the same polarity to the object to be processed, and the object to be processed The mounting electrode in the electrode is made of a conductive material, and may have a mesh shape, a lattice shape, a bar shape, or a porous shape that does not hinder the reflux of cooling air. It is preferable that a linear, mesh, lattice, crosspiece, or porous conductive material having a flexible bend is attached.
In addition, the mounting electrode in the workpiece receiving electrode has a mesh shape, a lattice shape, a cross shape, or a porous shape. Similarly, the surrounding wall electrode has a mesh shape, a lattice shape, a cross shape, or a porous shape. Etc.

Further, although not shown, if the low temperature non-frozen freshness is maintained for a short time, the workpiece receiving electrode 21 does not have the plurality of columns 22 made of an insulating material, and the mounting electrode 25 and the plurality of surrounding walls. The electrode 25 is integrated and formed as a bowl-shaped electrode provided with a peripheral wall using a conductive material having high air permeability, and the position moving electrode 14 is used with the bowl-shaped electrode and a non-contact layer. You can also.

A feature of this technology regarding industrialization is that it can be easily developed by reusing conventional storage technology in the commercialization of technology, that is, in the manufacturing business. This means that capital investment and basic technology research for new manufacturing equipment are not required for commercialization of this technology.
In terms of the product sales business, the market targets are on a global scale, such as the seasonality of food and the uneven distribution of production areas, the oligopoly problem in the food processing and large-scale distribution fields that are becoming the equipment industry, the deficiency and satiety disposal problem in the consumer life field. is there. Specifically, by utilizing the features of this technology, appropriate distribution of food production and profits, food resource protection and waste emission reduction, ensuring consumer safety, etc. for distribution storage, consumption end storage, etc. It is expected to be able to respond effectively at a low cost.

1: Fixed type electric field processing storage 2: Simple type electric field processing storage 01: Left and right wall surfaces 01A, 01B, 01C, 01D: Supports,
02: Ceiling part 02A, 02B: Air supply pipe system 02C: Exhaust pipe system 02F, 02G: Lifting electrode drive device 02H: Separation electrode drive device 03: Floor surface portion 03A: Samurai child 04A, 04B: Workpiece accommodation electrode 04C, 04D, 04G, 04H: mounting electrode,
04E, 04F: Top plate electrode,
04J, 04K: Moving electrode operation tools 04L, 04M: Insulating rope 04P, 04Q: Position moving electrode 05: Open / close door 05A, 05B: Left / right wall 05C: Open / close handle 05D, 05E: Open / close door side wall surface electrode
06: Back wall 06A, 06B: Back wall side wall surface electrode 07: Machine room 07A, 07B: Lifting electrode,
07C, 07D: Crosspiece 08: Hole,
11: Both right wall surfaces 12: Ceiling
13: Floor surface part 14: Position moving electrode 15: Driving roller 15A: Manual lifting rotary operation part 15B: Lifting cable 15C: Lifting cable hole 16: Cross rail 17: Object to be processed storage electrode storage area 17A: Low leg Energizing bracket 17B: High-leg energizing bracket 18A, 18B: Air supply / exhaust port 18C: Arrangement area 19: Machine room 20: Opening / closing door 20A: Handle 20B: Hinge 21: Workpiece receiving electrode 23: Surrounding wall electrode 25: Workpiece Mounting electrode 7E: Earth ground

Claims (13)

  An electrode that contains a substance to be stored in an electric field and an electrode that moves in order to secure a contact point or a contact surface with the substance by securing a non-contact layer with the electrode are provided in a substantially opposite relationship. An electric field processing storage, wherein an alternating voltage of the same polarity is applied to an electrode that accommodates the substance and an electrode that is to be moved in a form that ensures a contact or a contact surface in a substantially opposing relationship.   Forming an electrode and a non-contact layer for both an electrode containing a substance to be subjected to electric field storage, and a non-contact layer for securing the electrode and moving the position in order to secure a contact point or a contact surface with the substance. The electrodes are arranged in a manner that sandwiches, surrounds, or surrounds the electric field treatment region formed by the both electrodes, and surrounds the electrode that accommodates the substance, the electrode that moves the position, and the electric field treatment region formed by both electrodes. Or an electric field treatment storage, wherein an alternating voltage of the same polarity is applied to the surrounding electrode.   A plurality of electric field processing regions using the same polarity AC voltage of the same power source with different storage temperatures are provided in the same electric field processing storage, and an insulating layer is secured in the middle of the electric field processing region so as to have a different polarity with respect to the electric field processing region. The electric field processing storage according to claim 1, wherein a heteropolar body is used.   A plurality of electric field processing regions using alternating voltages of the same polarity and different potentials of the same power source are provided in the same electric field processing storage, and an insulating layer is secured in the middle of the electric field processing region to show a different polarity with respect to the electric field processing region The electric field processing storage according to claim 1, wherein a heteropolar body is used.   A plurality of electric field processing regions using alternating voltages of the same polarity of different power sources are provided in the same electric field processing storage, and an earth layer is used by securing an insulating layer in the middle of the electric field processing region. 2. Electric field processing storage according to 2.   6. The electrode according to any one of claims 1 to 5, wherein the electrode for accommodating the substance, the electrode for moving the position, and the electrode in a form surrounding and surrounding or surrounding the electric field treatment region formed by both electrodes are not grounded. The electric field processing storage according to crab.   The electrode that contains the substance is made of a conductive material and has a shape that is rich in air permeability, and the shape of the planar portion is a lattice shape, a mesh shape, a bar shape, a porous shape, and has a strength corresponding to the weight of the substance to be contained. The electric field processing storage according to any one of claims 1 to 5.   The electrode to be moved is made of a conductive material and has a shape that is highly air permeable, and the planar portion is made of a lattice, a mesh, a cross, a porous, a flat shape such as a plurality of protrusions, or a conductive material. A flexible linear material, a mesh-like material, or the like having a deflection is attached and connected to a vertical drive device or a manual vertical motion operation device. The electric field processing storage as described.   The electrode that contains the substance, the electrode that moves, and the electric field treatment region formed by both electrodes are sandwiched, enclosed, or surrounded by a conductive material that is flat, cylindrical, polygonal, or breathable. Claims 1 to 3, characterized in that they are arranged with a secret contact or a non-contact layer on the inner wall surface that is insulated in the electric field treatment storage in the form of a rich mesh, lattice, bar, porous. The electric field processing storage according to any one of 5.   The electrode on the entrance / exit side of the containing substance is an electrode in the form of sandwiching, enclosing or surrounding the electrode for containing the substance, the electrode for moving the position, and the electric field treatment region formed by both electrodes, and is formed of a conductive material, or a flat plate shape, or The electric field processing storage according to any one of claims 1 to 5, wherein the electric field processing storage is connected to a driving device or a manual operation device in a mesh shape, a lattice shape, a bar shape, or a porous shape that is rich in air permeability.   The heteropolar body and the ground electrode for separating the electric field processing region are made of a flexible conductive material, and the shape is a flat plate, or a mesh, lattice, bar, or porous material with high air permeability. The electric field processing storage according to claim 1, wherein the electric field processing storage is connected to a manual operation device.     6. The AC voltage of the same polarity with respect to the substance subjected to the electric field treatment is applied on / off, applied intensity adjustment, application time adjustment, intermittent application, temperature adjustment, etc. through a control device. The electric field processing storage according to crab.   6. The electric field processing substance storage according to claim 1, wherein the storage for performing electric field processing storage is provided with a temperature adjustment maintaining device for converting and maintaining the temperature inside the storage outside.