JP6619289B2 - Hydrogen separation module and hydrogen separator using the same - Google Patents

Description

The present invention relates to a hydrogen separation device that efficiently permeates and separates hydrogen from a fluid to be treated containing hydrogen, and particularly includes a heating function that heats the fluid to be treated to a required temperature prior to the permeation separation. and it relates to a hydrogen permeation separation function simultaneously hydrogen separation module and a hydrogen separation apparatus Ru provided.

  Hydrogen is regarded as an important next-generation clean energy alternative to conventional thermal power generation and nuclear power generation.For example, in addition to water electrolysis, for example, methane, propane gas, city gas, etc. Various technological developments such as a method for separating and extracting hydrogen gas according to the quality, and a method using a catalyst technology based on organic hydride have been undertaken.

  In particular, the method of separating and extracting hydrogen gas by steam reforming has the advantage that only hydrogen gas can be generated with very high purity and efficiency. For example, hydrogen gas such as Pd alloy or Pd-Cu alloy is selectively permeated and separated. It is used for a hydrogen separation module and a hydrogen production apparatus configured using a metal thin film material.

  As an example, for example, FIG. 7 shows an in-line type hydrogen separation membrane module 20, and the structure thereof includes, for example, a cylindrical housing container 21 and a hydrogen separation membrane member 22 incorporated almost coaxially therein. The separation membrane member 22 employs a cup-shaped member provided with a lid member 23 on the top surface so that the upstream side and the downstream side are substantially separated to form a processing chamber 22a therein. .

Then, the processing flow body X of the raw material is hydrogen is introduced from the introduction port XA to introduced from outside the system into the processing chamber 22a, included in該被processing fluids by permeation separation in the hydrogen separation membrane member 22 Only the gas is generated, and the obtained hydrogen gas is sent from the outlet 24 to the next process. On the other hand, the residual gas remaining in the processing chamber 22a and the unprocessed fluid to be processed are separately separated. It is configured to be taken out from the recovery port XB for recovery.

By the way, in such a hydrogen separation technique, hydrogen gas can be easily separated and extracted from the raw material gas fluid, but the reaction may be performed by heating the raw material gas to a predetermined reaction temperature of about 400 to 500 ° C. in advance. is necessary. As a heating method, for example, in addition to the method of supplying in the inline method after separately heating in the previous stage, as shown in FIG. 7 , for example, an external arranged on the outer peripheral side so as to wrap the entire module configured in a cylindrical shape A heater 25 is provided. (For example, Patent Documents 1 to 3)

  Japanese Patent Laying-Open No. 2015-171705   JP 2005-44709 A   JP 2004-75442 A

  However, in each of these prior arts, the fluid to be treated of the raw material gas to be introduced is difficult to obtain a good supply state with respect to the separation membrane material to be permeated and separated, and is liable to cause stagnation and partial supply unevenness. In addition to being able to obtain a uniform and efficient supply throughout the separation membrane material, the heat treatment is also carried out by an external heating system provided with a separate heating means or arranged outside so as to wrap the module, There is a need for improvements in terms of flow characteristics and heating characteristics, such as requiring larger heating means than necessary and increasing heat loss in terms of energy efficiency, resulting in an increase in the size of the separation membrane module itself. .

In view of the above problems, the present invention employs an internal heating system in which high-purity hydrogen gas is efficiently permeated and separated and a heating unit is provided at the center of the cylindrical module, thereby reducing and separating heat loss. membrane module to suppress an increase in size of itself, and an object thereof is to provide a uniform and efficient hydrogen separation to obtain a hydrogen supply excellent use properties available modules and the hydrogen separator.

That is, the invention according to claim 1 of the present invention includes a housing container, a cylindrical hydrogen separation member that selectively permeates and separates hydrogen in a fluid to be treated supplied from outside the system into the container, A detour member disposed concentrically on the inner peripheral side of the separation member, and a heating chamber for a heating member that heats the fluid to be treated to a predetermined temperature are provided on the inner peripheral side of the detour member. The fluid to be treated reverses the flow direction at the first flow path heated to a predetermined temperature while flowing in the gap between the outer peripheral surface of the heating chamber and the bypass member, and at the tip of the first flow path. The reversal region is provided on the outer peripheral surface side of the detour member, and is supplied via a second flow path in which hydrogen is permeated and separated while flowing concentrically with the first flow path. is a hydrogen separation module that is characterized in that configuration was.

According to a second aspect of the present invention, the tip of the bypass member has a plurality of cutout holes in which the tip surface is notched. The invention according to claim 3 is characterized in that the bypass member has a tip notch. In the invention according to claim 4, the first flow path and the second flow path are each 0.1% in contact with or fixed to the other ring plate that partitions and holds the hydrogen separation member. The invention according to claim 5 is configured such that the hydrogen separation member includes a hydrogen permeable membrane having a hydrogen permeation separation function, a metal buffer sheet and a metal that wraps around and supports the outer surface of the hydrogen permeable membrane. a der Ru hydrogen separation module being composed of a laminated structure article and perforated plate.

Furthermore the invention according to claim 6, as the hydrogen separator, the claims hydrogen separation module according to any one of claims 1 to 5, supplied from the target fluid in a predetermined generating hydrogen gas, piping for discharging And heating means are provided in the heating chamber.

  As described above, the present invention provides a heating chamber in the interior thereof, and on the primary side of hydrogen permeation separation, a bypass member is interposed so as to effectively supply the fluid to be processed along the wall surface of the heating chamber. Thus, by forming a complicated bypass flow path, there is an advantage that the problem of retention of the fluid to be processed and the optimum heating characteristics can be achieved at the same time.

  That is, with this configuration, the fluid to be introduced is first subjected to effective heat treatment in the first flow path close to the heating chamber, and the flow path is made relatively narrow with a predetermined opening gap by the bypass member. Since the fluid to be treated is adjusted, the flow rate can be increased to flow through the narrow first flow path and be sent to the tip, and can be bypassed and fed to the second flow path. Residence is prevented by such a complicated and narrow channel structure.

  In addition, since the flow path is adjacent to the heating chamber, in particular, the first flow path is adjacent to the heating chamber, the optimum heat treatment is performed, the heating energy can be used effectively, and the second formed on the outside thereof. Also in the flow path, since the environment in which the heating state can be maintained is provided, the module as a whole can obtain a more stable heating state with less heat energy. Therefore, according to the present invention, the supply flow rate of the fluid to be processed It is possible to obtain a good heating state while suppressing the stay phenomenon due to the increase in the thickness of the material.

  According to the inventions of claims 2 to 5 of the present application, the effect is further improved, and a more efficient hydrogen production apparatus can be obtained by the invention of claim 6.

  It is sectional drawing which shows one form of the hydrogen separation module concerning this invention.   It is a principal part expansion perspective view of a detour member.   It is a cross-sectional enlarged view which shows the vicinity of the inversion area | region.   It is an enlarged view of a section showing an example of a permeation separation member.   It is a left view of the hydrogen separation module of FIG.   It is the schematic of the composite type incorporating several modules as another form of a hydrogen separation module.   FIG. 6B is a schematic left side view of FIG. 6A.   It is sectional drawing which shows an example of the conventional type of a hydrogen separation module.

  As shown in FIG. 1, a hydrogen separation module 1 (hereinafter also simply referred to as a module) of the present invention extends in a housing container 2, a hydrogen separation member 3 in the housing container 2, and an axial center direction in the center portion thereof. A heating chamber 4 and a bypass member 5 for optimizing the supply state of the fluid X to be processed are provided. The fluid X to be processed passes through the first flow path 6A between the heating chamber 4 and the bypass member 5. After being heated to a predetermined temperature, the hydrogen gas is permeated and separated at the stage of the second flow path 6C that flows in the reverse direction through the reversal region 6B that changes the supply direction of the fluid X to be processed. It is based on what is done.

  The basic principle of hydrogen permeation separation has been widely known (for example, the monthly magazine “Functional Materials” (2003 No. 4 P.76-P.87)), for example, natural gas, propane gas or the like to be treated. When hydrogen molecules in the fluid come into contact with the separation member, at that moment, they are dissociated into hydrogen atoms to be ionized to become protons and pass through the inside of the separation membrane. And when it reaches the back side, it is explained that it becomes a hydrogen molecule by combining with electrons.

  The present invention pays attention to the upstream side of the hydrogen permeation separation (primary side of the inflow to the hydrogen separation membrane / center side of the module), and adjusts the formation in the heating and the passage formation of the inflow to be processed, thereby improving usability and thermal efficiency. An excellent and efficient hydrogen permeation separation module can be provided, and further, a heating means can be incorporated into this module to constitute a hydrogen separation apparatus that performs heat treatment simultaneously. The contents of the present invention will be described below with reference to the drawings.

  In this embodiment, a cylindrical product having a circular cross section in which the housing container 2, the hydrogen separation member 3, the heating chamber 4, and the detour member 5 are concentrically arranged is shown. For example, the housing container 2 substantially covers the hydrogen separation member 3. It is sealed so that it is wrapped and isolated from the outside world. The shape and structure are not necessarily limited to this, and the shape and dimensions thereof are arbitrarily set in consideration of the purpose of use and each of the built-in members.

  That is, as for the cross-sectional shape of the housing container 2, one that is integrally molded as an ellipse or a square-shaped product in addition to a circle, or one that has the body 2 </ b> A and the end member 2 </ b> B separated from each other by welding, for example. The end member 2B in the shape of a cap is used in FIG.

  The module 1 is connected to an end member 2B on one side of the housing container 2 through the introduction port 7 for introducing the fluid X to be processed used for the processing and the internal first flow path 6A through the conduit 7A, and further to the outside. The second flow path 6C provided in the second flow path 6C is provided with a feed port 9 that permeates and separates hydrogen gas and feeds it to the next step, and residual gas remaining in the flow path or untreated fluid X Is separately collected. Further, the other end member 2B of the housing container 2 is provided with a supply member 9A having a relatively large diameter opening 4A forming the heating chamber 4 in the center and the feeding port 9, and piping and joints. To be sent to the next process.

  In this configuration, the fluid X to be treated is introduced from the introduction port 7 as indicated by an arrow in FIG. 1 and once dispersed radially by the top plate 4B of the heating chamber 4, the longitudinal length formed by the heating chamber 4 and the bypass member 5 is formed. It is fed through the first flow path 6A extending in the direction. In addition, in order to improve the smoothness of dispersion | distribution of the to-be-processed fluid X, it is also preferable to provide hemispherical thru | or conical bulging part 4B1 in the midpoint vicinity of the top plate 4B.

  The first flow path 6 </ b> A forms a relatively narrow flow path by the bypass member 5. The fluid X to be processed passing through the first flow path 6A is heated to a temperature (for example, about 350 to 550 ° C.) required for the hydrogen permeation reaction by the heating member H incorporated in the heating chamber 4 at the time of use. The flow rate is increased and sent to the next process. The size of the separation distance of the first flow path 6A affects the flow rate of the fluid X to be processed, and the flow speed of the fluid X to be processed can be increased by reducing the separation distance of the first flow path 6A. Stagnation of the fluid X to be processed can be reduced. Therefore, it is desirable that the gap interval in the first flow path 6A is set to, for example, 0.1 to 10 mm, preferably 0.5 to 7 mm.

  If the separation distance of the first flow path 6A is narrow, for example, less than 0.1 mm, it is difficult to obtain a sufficient supply of the fluid X to be processed, and the production efficiency of hydrogen gas is reduced. On the other hand, if the width exceeds 10 mm, the holding temperature of the fluid to be treated heated by the heating member H varies from part to part, and is not preferable in terms of energy efficiency of hydrogen separation, and the flow rate is insufficient. It is difficult to expect improvement of retention due to.

  Further, the heating member H is, for example, a rod-like long product, and a member having a characteristic capable of heating the inside of the heating chamber 4 to the predetermined temperature is employed. FIG. 1 shows an example of this. The entire heating member H is composed of a single large-diameter rod-shaped product. However, the present invention is not limited to this. For example, a plurality of small-diameter heating members H1, H2,. They can be collected and arranged, or inserted into a plurality of small rooms that are provided separately. In FIG. 5, these are provided at arbitrary intervals on the circumferential line in the cross section.

  In this embodiment, the detour member 5 is a cylindrical body whose one end is attached to the outer peripheral portion of the ring plate 7B provided at the tip of the conduit 7A having the introduction port 7, and the tip portion is as shown in FIG. What is provided with the some notch part 5A comprised by notching a part of surrounding surface is used.

  This notch portion 5A constitutes a reversal region 6B that substantially reverses the flow direction of the first flow path 6A in the reverse direction, and the treated fluid X is sufficiently circulated at a predetermined flow rate as shown in FIG. The size, shape, number of cutouts, and the like are appropriately adjusted so as to have a large opening area. The cutout portion 5A is formed by providing a semicircular size with a radius of about 1 to 10 mm, for example, and providing about 2 to 20 points. For example, the cutout portion 5A has a continuous mountain shape. Thus, it can also be provided continuously over the entire peripheral surface.

Moreover, the front-end | tip part of the detour member 5 can contact | abut or adhere to one holding member 3A which attaches the hydrogen separation member 3, for example, and the flow direction of the to-be-processed fluid X is reversed by the notch part 5A. The hydrogen gas is permeated and separated by being sent to the second flow path 6C. The inversion region 6B may be provided with a predetermined gap between the reverse member 6A and the holding member 3A by simply reducing the length of the bypass member 5 instead of the individually formed cutouts 5A. In that case, since the tip of the detour member 5 is in a free state, it is desirable to provide a separate holding means.

6 C of 2nd flow paths are formed as a flow path where the to- be- processed fluid X flows into the reverse direction in the longitudinal direction of the hydrogen separation member 3, and the outer peripheral side vicinity of 6 A of 1st flow paths. Therefore, the to-be-processed fluid X heated in the area | region of the 1st flow path 6A is sent to the 2nd flow path 6C, maintaining the temperature, and temperature does not fall remarkably also in the 2nd flow path 6C. . Therefore, the thermal energy can be effectively utilized in a state where the reduction of heat loss is minimized without increasing the size of the separation membrane module itself, and the thermal insulation effect is also achieved.

  The second flow path 6 </ b> C means a gap space formed between the outer peripheral surface of the detour member 5 and the hydrogen separation member 3. The gap interval of the second flow path 6C is set so as to have a separation distance similar to that of the first flow path 6A, but the present invention is not limited to this, and is slightly wider than the first flow path 6A, for example, 1. It may be set to be 01 to 3 times, more preferably about 1.2 to 2 times. By forming the second flow path 6C in such a slightly wide width, the flow rate of the fluid X to be processed flowing in the second flow path 6C is less than the flow speed of the first flow path 6A. Accordingly, the residence time of the fluid X to be treated in the second flow path 6C can be increased, and the contact frequency between the fluid X to be treated and the hydrogen separation member 3 can be increased. It will be done well. As a result, it is possible to reduce the proportion of the unprocessed fluid X that is discharged from the recovery port 8 in the unprocessed state, that is, the so-called unprocessed hydrogen X that has not been generated.

  As shown in FIG. 3, as the structure in the vicinity of the inversion region 6B, the bending radius of the first curved surface R1 from the first flow path 6A to the inversion region 6B and the second curved surface R2 from the inversion region 6B to the second flow path 6C are compared. In this case, the first curved surface R1 may have a larger bending radius than the second curved surface R2. With such a configuration, the fluid X to be treated flows smoothly by reducing the flow resistance by the first curved surface R1 even in the vicinity of the inversion region 6B. And the to-be-processed fluid X which reached | attained the inversion area | region 6B is decelerated to moderate flow velocity, suppressing the stay of the to-be-processed fluid X by 2nd curved surface R2 whose bending radius is smaller than 1st curved surface R1.

  Accordingly, both smooth introduction of the fluid X to be processed into the flow path and reduction in the ratio of the unprocessed fluid X to be processed can be achieved, and suitable hydrogen separation becomes possible.

  Referring to FIG. 4, the hydrogen separation member 3 is a thin film-like hydrogen made of a specific metal material having a function of selectively permeating hydrogen atoms contained in the fluid X to be processed to generate hydrogen gas. A separation membrane M is used. Hydrogen separation membranes M having such a permeation function have been widely known in the past. For example, palladium metal, vanadium metal, etc. disclosed in JP 2007-90295 A, JP 2008-155118 A, etc. Thin film materials made of various alloys such as palladium-copper alloy, palladium-silver alloy and vanadium-nickel alloy, which are alloy materials, are employed.

  The film thickness of the hydrogen separation membrane M is not particularly limited in the present invention, and a film thickness of, for example, 5 to 50 μm as disclosed in the prior art and the like is characteristically preferable. In addition, the size and shape of the hydrogen separation member 3 are set in a range that can be accommodated in the housing container 2 in consideration of the purpose of use and processing capacity. For example, in the case of a cylindrical product with a circular cross section, the diameter is 10 to 300 mm. Molded to have a length of 50 to 1000 mm.

  By the way, when such a thin-film hydrogen separation membrane M is used, the fluid X to be treated is supplied in a pressurized state to which a constant load pressure is applied from the inner peripheral side. A structure that can withstand this is required. As a method for this, in this embodiment, as shown in FIG. 4, a lamination is adopted in which an encapsulating member C that encloses the hydrogen separation membrane M and receives the supply pressure (internal pressure) is disposed on the outer peripheral side.

  The encapsulating member C includes, for example, a punching plate (perforated perforated plate) P and a buffer sheet S having a porous structure that prevents the hydrogen separation membrane M from being partially pressed and deformed by the opening edge thereof. To do. As the buffer sheet S, for example, a non-woven sintered sheet or a powder molded sheet made of an inorganic metal fiber material such as stainless steel, nickel metal, nickel alloy or the like is adopted, and it has workability and weldability as well as certain flexibility and elasticity. Etc. are preferably provided.

  In addition, the nonwoven fabric sintered sheet product may be a single nonwoven fabric layer or a laminate of two or more layers as appropriate, and further, for example, at the interface between the nonwoven fabric layer and the hydrogen separation membrane M. It can also be composed of a composite laminate material having a multilayer structure in which a metal screen mesh or the like is disposed. By this screen mesh, the constituent filaments of the nonwoven fabric layer can be prevented from sticking to the hydrogen separation membrane M, and the adverse effect exerted thereby can be reduced.

  As the punching plate P, for example, as disclosed in Japanese Patent Application Laid-Open No. 2008-246430, a metal perforated plate having small holes punched at substantially equal intervals is employed.

  In the configuration in which the hydrogen separation member 3 has such a multi-layered structure and the fluid X to be treated is supplied from the inside to the in-out direction, the hydrogen separation membrane M is formed by the supply pressure of the fluid X to be treated. Even if the hydrogen separation membrane M is wrinkled or loosened, the hydrogen separation membrane M is always stretched with a predetermined tension, and the supply pressure is protected by the encapsulating member C with sufficient pressure resistance. Therefore, damage can be prevented. Therefore, the hydrogen separation membrane M and the encapsulating member C such as the punching plate P and the buffer sheet S can be used in a stacked state in which they are simply overlapped with each other. Can also be used.

  Further, the hydrogen separation member 3 is fixed to the separate holding member 3A and the second holding member 3B located on the inflow side without leaking at both ends, and the second holding member 3B is further connected to the inflow side conduit 7A. Between the opposite surfaces so as to have a recovery path for sending residual gas remaining in the second flow path 6C and raw material gas that could not be separated into hydrogen to the recovery port 8 With a gap.

  Thus, a hydrogen production apparatus is configured by adding a predetermined heating means in the heating chamber 4 of the module 1, and hydrogen gas obtained by permeating and separating the hydrogen separation member 3 is sequentially supplied from the feed port 9 to the outside ( For example, as an energy source for fuel cells. In this case, instead of the method of inserting the heating member H as shown in the figure, the heating means may be of a type that directly heats by blowing a gas burner from the opening 4A side of the heating chamber 4, for example. .

  The hydrogen separation module 1 of the present embodiment has a single hydrogen separation member 3 disposed in the housing container 2, and the housing container 2, the inlet 7, and the recovery from the hydrogen separation module 1 as shown in FIGS. 6A and 6B, for example. A plurality of hydrogen separation internal modules 100 excluding the port 8 and the feeding port 9 (so-called internal exposed state, schematically indicated by broken lines in FIGS. 6A and 6B) are arranged in parallel and are combined and incorporated. Thus, a composite module Z having a larger capacity can be configured. In this case, the feeding port 9 is provided on the composite module Z side. The treatment conditions are preferably such that the downstream hydrogen partial pressure is less than the upstream hydrogen partial pressure, for example, in an overload state of about 0 to 2 atmospheres. The hydrogen gas generated in each hydrogen separation internal module 100 is fed from the feed port 9. In the example of FIGS. 6A and 6B, the flow path of the feeding port 9 of the composite module Z is set as the central axis (the one-dot chain line in FIG. 6A and the center of the feeding port 9 in FIG. 6B) around the central axis. Five hydrogen separation internal modules 100 are built in the composite module Z. 6A and 6B are both schematic views, the detailed description of the hydrogen separation internal module 100 is omitted. However, each hydrogen separation internal module 100 in the composite type module Z is different from the hydrogen separation module shown in FIG. 1 is not limited to the same configuration as that obtained by removing the housing container 2, the introduction port 7, the recovery port 8, and the feed port 9, but may be implemented by combining different configurations. The same applies to the arrangement and the number of installed hydrogen separation internal modules 100.

  Thus, according to the evaluation test of the inventors of the present invention using the hydrogen separation module and the hydrogen production apparatus using the same, a test result that achieves a hydrogen recovery rate of 95% or more by reducing stagnation and supply unevenness of the source gas is obtained. In addition, the occupied volume of the hydrogen separation module can be reduced to about 2/3 or less compared to the case of using only external heating, which is a conventional method. Furthermore, it was confirmed that the energy efficiency in heating in that case can be reduced to 1/2 or less to reduce heat loss.

  Further, the example in which the plurality of hydrogen separation internal modules 100 are incorporated in the composite module Z as shown in FIG. 6A has been described. However, the present invention is not limited to this, and although not shown, the hydrogen separation modules 1 are simply arranged in parallel. You may implement in the state connected. At this time, each hydrogen separation module 1 may be implemented in a state where it is built in the composite module Z, or may be implemented in a state where it is exposed without using the composite module Z.

  In addition, the parallel connection may connect the introduction ports 7 using a connecting member (not shown), may connect the collection ports 8, may connect the feeding ports 9, You may employ | adopt the method of managing centrally by using these together. If the hydrogen separation modules 1 of the introduction port 7, the recovery port 8, and the supply port 9 are separately connected in parallel with a connecting member, even if a problem occurs, only the relevant hydrogen separation module 1 can be replaced. good. In that case, for example, a hydrogen concentration sensor (not shown) is provided at the feed port 9 and external notification is made on the condition that the hydrogen gas concentration fed from the feed port 9 is detected to be lower than a specified value. It is preferable that the user replaces the hydrogen separation module 1 upon receiving this external notification.

  Furthermore, the hydrogen concentration sensor is replaced with an impurity concentration sensor, and external notification is performed on the condition that the impurity concentration sensor detects a value exceeding the specified value for the impurity concentration other than hydrogen fed from the feed port 9. You may carry out.

As described above, the present invention can be reduced in size by adopting a heating member as a built-in type, enhances its handleability and is excellent in terms of thermal energy. For example, the usability as an inline type can be improved.

DESCRIPTION OF SYMBOLS 1 Hydrogen separation module 2 Housing container 3 Hydrogen separation member 4 Heating chamber 5 Detour member 6A 1st flow path 6B Inversion area 6C 2nd flow path 7 Inlet 8 Collection port 9 Feeding port 11 Exterior cylinder H Heating member

Claims (6)

A housing container;
In the container, a cylindrical hydrogen separation member that selectively permeates and separates hydrogen in the fluid to be treated supplied from outside the system,
A detour member disposed concentrically on the inner peripheral side of the hydrogen separation member;
Furthermore, a heating chamber for a heating member that heats the fluid to be processed to a predetermined temperature is provided on the inner peripheral side of the bypass member,
The fluid to be treated flowing from the introduction port is heated to a predetermined temperature while flowing in the gap between the outer circumferential surface of the heating chamber and the bypass member;
At the tip of the first flow path, an inversion region that reverses the flow direction;
It is provided on the outer peripheral surface side of the bypass member, and is configured to be supplied through a second flow path in which hydrogen is permeated and separated while flowing concentrically with the first flow path. hydrogen separation module shall be the. The tip portion of the bypass member, hydrogen separation module according to claim 1 in which a plurality of notch hole that lacks off the distal end surface. The bypass member, via its distal notch, hydrogen separation module of claim 2, the hydrogen separation member formed by contact with or fixed to the ring plate on the other side of partition holding. It said first passage and the second flow path, hydrogen separation module according to claim 1 that are configured respectively with a gap of 0.1 to 10 mm. 5. The hydrogen separation member is constituted by a laminated structure product of a hydrogen permeable membrane having a hydrogen permeation separation function, a metal buffer sheet that wraps and supports the outer surface of the hydrogen permeable membrane, and a metal porous plate. hydrogen separation module according. Heating said hydrogen separation module according to claim 1, wherein the predetermined supply for producing hydrogen gas from the process fluid, and respectively connected configured to a pipe for discharge, and the heating chamber A hydrogen separator characterized by comprising means.

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