JP4814780B2 - Thermal storage type gas processor and thermal storage type gas processing equipment using the same - Google Patents

Description

The present invention relates to a regenerative gas processor used for purifying exhaust gas containing pollutants and deodorizing exhaust gas containing malodorous substances.
A plurality of heat storage chambers containing a heat storage material, a combustion chamber provided with combustion means for combusting a gas to be processed, and a gas to be processed and a combustion chamber introduced into the combustion chamber via the heat storage chamber for each of the heat storage chambers A plurality of supply and discharge chambers through which the processed gas derived from the heat storage chamber is passed are formed inside the container body,
The plurality of heat storage chambers are arranged in the horizontal direction at the upper and lower intermediate portions inside the body, and one end of each heat storage chamber is communicated with the combustion chamber, and the other end of each heat storage chamber is connected to the supply / discharge In addition to a structure that allows each room to communicate individually,
For each of the supply / exhaust chambers, a process gas introduction state in which the process gas is introduced into the combustion chamber from the outside of the container through the supply / discharge chamber, and a process for deriving the processed gas to the outside of the container through the supply / discharge chamber The present invention relates to a regenerative gas processor having a container connection port for each of a plurality of gas supply / exhaust passages that can be alternately switched to a spent gas derivation state, and a regenerative gas processing facility using the same.

  This type of regenerative gas processor passes the gas to be treated introduced from a part of the gas supply / exhaust passage connected to the body connection port to a part of the heat storage chamber through a part of the supply / discharge chamber. In this combustion chamber, the pollutants and malodorous substances in the gas to be treated are treated by combustion, and the treated gas after treatment in the combustion chamber is passed to another heat storage chamber, After heat storage is performed on the stored heat storage material in the heat storage chamber, the heat is stored in another gas supply / discharge path through another supply / discharge chamber.

  In this process, the gas supply / exhaust path is alternately switched between the treated gas introduction state and the treated gas derivation state, so that the treated gas is stored in each heat storage chamber by the heat storage material previously stored with the passage of the treated gas. It is possible to improve the thermal efficiency by preheating in the passage process.

By the way, conventionally, this type of regenerative gas processor employs a structure in which a vessel connection port portion for a gas supply / discharge path is formed on the bottom side wall portion of the vessel body. (For example, see Patent Document 1 below)
JP-A-2005-61675

  However, in the conventional structure as described above in which the body connection port portion for the gas supply / discharge path is formed in the bottom side wall portion, the gas supply path is connected to the device body connection port portion from the lower space outside the device body. In order to secure the connection space, the device must be installed in a state of being considerably lifted with respect to the device installation surface. The body height (that is, the height from the body installation surface to the top of the body) becomes considerably high, which means that, for example, the installation space such as the inside of an existing building or the lower space of an existing drying furnace There was a problem that it was difficult to install.

  In view of this situation, the main problem of the present invention is to effectively solve the above problems with a rational improvement.

[1] A first characteristic configuration of the present invention relates to a regenerative gas processor,
A plurality of heat storage chambers containing a heat storage material, a combustion chamber provided with combustion means for combusting a gas to be processed, and a gas to be processed and a combustion chamber introduced into the combustion chamber via the heat storage chamber for each of the heat storage chambers A plurality of supply and discharge chambers through which the processed gas derived from the heat storage chamber is passed are formed inside the container body,
The plurality of heat storage chambers are arranged in the horizontal direction at the upper and lower intermediate portions inside the body, and one end of each heat storage chamber is communicated with the combustion chamber, and the other end of each heat storage chamber is connected to the supply / discharge In addition to a structure that allows each room to communicate individually,
For each of the supply / exhaust chambers, a process gas introduction state in which the process gas is introduced into the combustion chamber from the outside of the container through the supply / discharge chamber, and a process for deriving the processed gas to the outside of the container through the supply / discharge chamber A regenerative gas processing device in which a vessel connection port portion is formed for each of a plurality of gas supply / exhaust passages that can be switched alternately to a spent gas derivation state,
The plurality of vessel connection ports are formed in the side wall portion in a form in which the gas supply path can be connected from the vessel lateral outer space.

  That is, according to the first characteristic configuration, the gas supply path can be connected from the lateral lateral space to the instrument connection port, which is equivalent to the instrument installation surface as in the conventional structure described above. Even if the container is not installed in a floating state, the connection space of the gas supply path to the container connection port can be secured.

  Therefore, the substantial body height can be reduced as compared with the above-mentioned conventional structure, and it should be easy to install in an installation space such as an existing building interior or a lower space of an existing drying furnace. it can.

[2] The second characteristic configuration of the present invention specifies an embodiment suitable for the implementation of the first characteristic configuration.
The plurality of vessel connection ports are intensively formed on one of the plurality of lateral side walls.

  In other words, according to the second feature configuration, for example, compared to the case where a plurality of body connection ports are dispersed and formed on a plurality of lateral side walls, a substantial plan view area (that is, a gas supply / discharge path). (Planar view area including the connection space) can be reduced, which makes it easier to install in the installation space.

[3] The third characteristic configuration of the present invention specifies an embodiment suitable for the implementation of the second characteristic configuration.
The supply / exhaust chamber separated from the lateral side wall portion in which the plurality of device body connection ports are formed in a concentrated manner and the body connection port portion corresponding thereto are communicated through the supply / discharge chamber adjacent to the side wall portion. It is in the point which is set as the structure connected through an air path.

  That is, in contrast to adopting a structure in which the plurality of container connection ports are formed intensively on one of the plurality of lateral side walls, for example, a supply / discharge chamber separated from the lateral side wall The device body connection port portion is communicated with a communication air passage provided outside the supply / discharge chamber adjacent to the lateral side wall portion (that is, above, below, and laterally of the supply / discharge chamber inside the device body). In some cases, an unusable space is created around the communication air passage.

  On the other hand, in the third characteristic configuration, the supply / exhaust chamber separated from the lateral side wall portion and the body connection port portion corresponding to the supply / exhaust chamber communicate with each other via a communication air passage penetrating the supply / exhaust chamber adjacent to the lateral side wall portion. For example, the space around the communication air passage can be effectively used as the internal space of the supply / discharge chamber adjacent to the lateral side wall.

  Therefore, while adopting a structure in which one of the plurality of lateral side wall portions is intensively formed, it is possible to effectively reduce the size of the vessel and to reduce the installation space described above. It can be made easier to install.

[4] The fourth characteristic configuration of the present invention specifies an embodiment suitable for the implementation of the third characteristic configuration.
The communication air passage is located at the end opposite to the heat storage chamber inside the supply / discharge chamber adjacent to the lateral side wall.

  That is, if it is the above-mentioned 4th characteristic composition, for example, compared with the case where the above-mentioned communication air way is arranged in the heat storage room side in the inside of the supply and discharge room adjacent to the above-mentioned side wall part, the heat storage room side inside the supply and discharge room Since a large space can be secured, the ventilation area to the heat storage material in the heat storage chamber can be taken as wide as possible, and the thermal efficiency can be effectively improved.

In order to implement the fourth characteristic configuration (see FIGS. 3 and 4), the heat storage chamber side surface 10a of the communication air passage 10 is centered in plan view inside the supply / discharge chamber 6A adjacent to the lateral side wall portion 9. You may comprise in the form which a side is located in the opposite side to the said thermal storage chamber 3 rather than the planar view outer side in a connection air path orthogonal direction.

That is, according to this configuration , the communication air passage 10 is arranged at the end opposite to the heat storage chamber 3 in the supply / exhaust chamber 6A adjacent to the lateral side wall portion 9 , whereas the communication is performed. regenerator side 10a of the air passage 10 (i.e., the regenerator 3 in contact air passage installed part of Kyuhaishitsu 6A opposite sides) with a regenerator 3 through the supply and discharge chamber 6A from the device body connection opening 8 The supply gas in the supply / discharge chamber 6A is guided in such a manner that the gas to be processed and the processed gas passing from the heat storage chamber 3 through the supply / discharge chamber 6A to the body connection port 8 are guided in the supply / discharge chamber 6A . The gas passage resistance can be effectively reduced, thereby improving the processing efficiency and saving energy effectively.

[ 5 ] A fifth characteristic configuration of the present invention relates to a regenerative gas processing facility,
A regenerative gas processing facility using the regenerative gas processor according to any one of the first to fourth characteristic configurations,
A switching device for alternately switching each of the gas supply / exhaust passages between the treated gas introduction state and the treated gas derivation state is provided outside the container body,
The switching device includes a distributor having a plurality of supply / exhaust ports individually connected to the plurality of gas supply / exhaust passages, and the supply gas that passes the gas to be treated introduced from the gas supply passage to the gas supply / exhaust passage. While maintaining the state where both the exhaust port and the supply / exhaust port through which the treated gas led out from the gas supply / exhaust passage passes, the horizontal axis around the horizontal axis or the oblique axis in the sliding contact state with respect to the distributor While comprising a switching valve body that alternately switches between the supply gas exhaust port and the processed gas passage state by rotation around the core,
One end of each of the gas supply / discharge paths is individually connected to each of the body connection ports of the regenerative gas processor, and each of the gas supply / discharge paths is connected to each of the supply / discharge ports in the switching device. It is in the point which is made the structure which connects the other end of each separately.

In other words, according to the fifth feature configuration, a switching device that alternately switches the plurality of gas supply / exhaust passages between the treated gas introduction state and the treated gas derivation state is provided outside the body. Since the switching valve body of the switching device is configured to rotate around the horizontal axis or the oblique axis, for example, the switching device is more expensive than the configuration of rotating the switching valve body about the vertical axis. Thus, the height of the entire facility including the regenerative gas processor and the switching device can be effectively reduced.

  1, 2, and 6 show a regenerative gas processing facility, and T <b> 1 is a substantially box-shaped regenerative gas processing device placed on a facility installation surface (container installation surface) L in a lateral part of the facility. In this heat storage type gas processing device T1, a plurality of chambers (in this example, eight chambers) arranged in parallel in a plan view are arranged in the horizontal direction (particularly in the upper and lower intermediate portions inside the vessel body by the partition wall 2). And partitioning in a state of being arranged in a horizontal plane direction or a substantially horizontal plane direction), the breathable packed layer 4 of the heat storage material 4a is accommodated in each of the heat storage chambers 3, and the upper end of each heat storage chamber 3 is the upper part inside the vessel body A partition is formed in a state in which the lower end of each heat storage chamber 3 is arranged in a horizontal direction (specifically, in a horizontal plane direction or a substantially horizontal plane direction) at the lower part inside the container body by a partition wall 7. The first supply / exhaust chamber 6 of a plurality of chambers (in this example, eight chambers) arranged in parallel in a plan view They are allowed individually communicated open communication.

  5a is a burner disposed on the ceiling of the combustion chamber 5 as a combustion means for burning the gas G to be treated.

  In the side wall portion 9 of the regenerative gas processor T1, the gas to be treated G (for example, organic solvent) is supplied from the outside of the container to the combustion chamber 5 via the first supply / discharge chamber 6 for each of the first supply / discharge chambers 6. Alternately to the treated gas introduction state in which the exhaust air from the painting booth including the gas is introduced and the treated gas lead-out state in which the treated gas G ′ is led out to the outside of the container through the first supply / exhaust chamber 6. A plurality of (eight in this example) device connection ports 8 for each of a plurality of switchable (eight in this example) gas supply / discharge passages 11 are supplied from the lateral space outside the device body. The drain passage 11 is formed in a connectable form, and the container connection port 8 is communicated with the first supply / discharge chamber 6 inside the container.

  That is, in this heat storage type gas processor T1, the body connection port 8 for each of the gas supply / discharge passages 11 is formed in the side wall portion 9 in such a form that the gas supply / discharge passage 11 can be connected from the lateral lateral space of the body. By doing so, the connection space of the gas supply path 11 with respect to the container connection port part 8 is ensured in the container body outer space.

  T2 is a switching device that alternately switches each of the gas supply / exhaust passages 11 between a treated gas introduction state and a treated gas lead-out state, and this switching device T2 is installed on the side of the heat storage gas processor T1. It is placed on the installation surface L.

  Then, one end of each gas supply / discharge path 11 is individually connected to each of the body connection port portions 8 of the regenerative gas processor T1 from the lateral space outside the body, and the other end of each gas supply / discharge path 11 Are connected to the switching device T2.

  The vessel connection port portion 8 is formed intensively on one of the plurality (four in this example) of the side wall portions 9 to connect the gas supply / discharge passage 11. The substantial plan view area of the heat storage type gas processor T1 (that is, the plan view area of the heat storage type gas processor T1 including the connection space of the gas supply / exhaust passage 11) is reduced. Specifically, The horizontal side wall portion 9 on the switching device T2 side is formed in a state of being arranged in a single horizontal character at the lower portion corresponding to the first supply / discharge chamber 6.

  As shown in FIGS. 3 to 6, for the four first supply / discharge chambers 6 (adjacent first supply / discharge chambers 6 </ b> A) adjacent to the lateral wall portion 9 on the switching device T <b> 2 side, a corresponding device is provided. The inner opening 8a of the body connection port 8 is configured to communicate with the opening, and the four first supply / discharge chambers 6 (non-adjacent first supply / discharge chambers 6B) separated from the lateral side wall 9 on the switching device T2 side are provided. On the other hand, the inner opening 8a of the corresponding container connection port 8 is configured to communicate with each other via a metal communication duct 10 (an example of a communication air passage) that penetrates the adjacent first supply / discharge chamber 6A. The space around the communication duct 10 is used as the internal space of the adjacent first supply / discharge chamber 6A.

  The connecting duct 10 is adjacent to the wall surface of the adjacent first supply / exhaust chamber 6A on the center side of the planar view body, on the floor surface of the adjacent first supply / exhaust chamber 6A (an example of the end opposite to the heat storage chamber 3). Thus, the ceiling surface of the adjacent first supply / discharge chamber 6A (that is, the opening surface with respect to the heat storage chamber 3) is prevented from being partially blocked by the communication duct 10, and the adjacent first supply / discharge chamber is suppressed. A communication area between the chamber 6A and the heat storage chamber 3 is secured.

  Further, the ceiling surface 10a (an example of the side surface of the heat storage chamber) of the communication duct 10 is such that the center side in plan view inside the adjacent first supply / discharge chamber 6A is on the opposite side of the heat storage chamber 3 from the outside in plan view in the direction perpendicular to the communication duct. More specifically, it is formed in an inclined surface shape (in short, a single-flow ceiling shape) located closer to the center side in plan view, and the adjacent first first supply along the inclined surface of the ceiling surface 10a. In the form of guiding the gas ventilation between the exhaust chamber 6A and the heat storage chamber 3, the gas passage resistance in the adjacent first supply / exhaust chamber 6A is effectively reduced.

The body connection port 8 for the adjacent first supply / discharge chamber 6A has an outer opening 8a (that is, an opening on the outer surface of the lateral side wall 9) having a circular shape corresponding to the gas supply path 11, and an inner opening. 8b (that is, the opening on the inner side surface of the lateral side wall portion 9) is formed in a cylindrical shape of a horizontal axis prismatic shape substantially the same shape as the outer opening 8a , while the container for the non-adjacent first supply / discharge chamber 6B The connection port portion 8 is formed in a cylindrical shape having a substantially horizontal axis pyramid shape in which the outer opening 8 a has a circular shape corresponding to the gas supply / discharge passage 11 and the inner opening 8 b has a shape corresponding to the connecting duct 10. is there.

  The switching device T2 includes a distributor 12 having a plurality of supply / discharge ports 14A individually connected to the plurality of gas supply / discharge passages 11, and a gas to be treated introduced from the gas supply passage 45 into the gas supply / discharge passage 11. While maintaining both the supply / exhaust port 14A through which the gas G passes and the supply / exhaust port 14A through which the processed gas G ′ led out from the gas supply / exhaust channel 11 to the gas exhaust channel 46 passes, the sliding to the distributor 12 is maintained. Each supply / exhaust port 14A is alternately switched between the gas to be processed state and the gas passage state to be processed by rotation around the horizontal axis in contact state (specifically, rotation around the horizontal axis or substantially horizontal axis). It is comprised from the switching valve body 15 for an air path switching.

  Specifically, as shown in FIGS. 7 to 10, the switching device T2 has a cylindrical air chamber 16 that receives the treated gas G ′ and a right side of the inside (that is, the regenerative gas processor T1). A valve body 17 provided on the opposite side), the switching valve body 15 provided on the left side of the air chamber 16 in the valve body 17 (that is, the heat storage gas processor T1 side), and a side view. And the second distributor 14 having an annular arrangement formed therein by the partition wall 13 and having a substantially cylindrical shape in a side view, and having a substantially L shape in a front view supported by the equipment installation surface L. The distributor 12 is fixedly attached to the installation base 18 and the valve body 17 is concentrically arranged on the right side of the distributor 12 and fixedly connected to the distributor 12. From the direction, it is arranged in the order of 'distributor 12-switching valve body 15-air chamber 16' concentrically. .

  On the bottom plate (in other words, the right side plate) 12a of the distributor 12 that also serves as the top plate (in other words, the left side plate) of the valve body 17, eight fan-shaped supply / exhaust ports 14A are provided for each second supply / discharge port. It is formed in an annular arrangement (that is, an arrangement aligned in the rotation direction of the switching valve body 15 described later) individually corresponding to the chamber 14, and an outer peripheral portion 19a and an inner peripheral portion 19b are formed on the right side surface of the bottom plate 12a. A distributor-side seal member 19 is provided which is composed of eight radial portions 19c and individually surrounds the supply / discharge port 14A.

  Reference numeral 14a denotes an annular reinforcing portion that extends in the circumferential direction in a form in which each supply / exhaust port 14A is divided into a plurality (three in this example) in the radial direction.

  As shown in FIGS. 9 and 10, the switching valve body 15 provided in the valve body 17 includes a disc-shaped valve top plate (in other words, a left side plate) 22 and a disc-shaped valve having a slightly smaller diameter. The bottom plate (in other words, the right side plate) 23, the valve peripheral wall 21, and the cylindrical rotary shaft 24 that forms the horizontal rotation shaft X are formed in a substantially horizontal truncated cone shape. The bottom plate 12a is slidably contacted (strictly, slidably contacted with the distributor-side seal member 19), and the valve bottom plate 23 is opened on the inner space 17A side of the air chamber 16 (more specifically, In the form of sliding contact (strictly speaking, sliding contact with the annular air chamber side seal member 25 provided at the opening edge) with respect to a left end opening edge of the sliding contact portion 53 described later. 17 is rotated around the horizontal axis P in the direction indicated by the arrow R in the figure.

  The rotating shaft X of the switching valve body 15 is attached to and detached from the tip of the cylindrical rotating shaft 24 (in other words, the left end) with respect to the first connecting rotating shaft 26 supported by the installation base 18 in a state of penetrating the distributor 12. The second connecting rotary shaft 27 supported by the air chamber 16 in a state of being freely connected and passing through the air chamber 16 and the purge chamber 20 formed on the right side of the inside of the air chamber 16 is connected to the cylindrical rotary shaft 24. The base end (in other words, the right end) is detachably connected.

  Specifically, between the distributor 12 and the installation base 18, the first connecting rotary shaft 26 is flange-bonded to the tip of the cylindrical rotary shaft 24 by fastening means such as bolts and nuts, and the left inside the air chamber 16 is left. The second connecting rotary shaft 27 is flange-joined to the base end of the cylindrical rotary shaft 24 by a fastening means such as a bolt or a nut at the side portion.

  Further, the base end surface of the cylindrical rotating shaft 24 is formed with a first purge communication port 24a communicating with the inner space thereof, and the distal end surface of the second connecting rotating shaft 27 communicates with the inner space thereof. The third purge communication port 27a is formed, so that the internal space of the cylindrical rotation shaft 24 and the second connection rotation shaft 27 are connected in communication with each other.

  Further, the first coupling rotary shaft 26 is supported by the installation base 18 via a first bearing 28 that allows movement in the axis P direction thereof, and the second coupling rotary shaft 27 is supported in the direction of the axis P thereof. The second bearing 29 and the third bearing provided with seal members that allow the treated gas G ′ to leak outside through the gap between the air chamber 16 and the purge chamber 20. 30 and is supported by the air chamber 16 so that the switching valve body 15 can freely move in the direction of the axis P of the rotation axis X.

  In the valve top plate 22 of the switching valve body 15, a gas supply port 31 and a purge port 32 that are sequentially opposed to and communicated with the supply / discharge port 14 A on the distributor 12 side as the switching valve body 15 rotates. And the treated gas discharge port 33 are arranged in this order from the upper rotation side of the switching valve body 15, and the same supply / discharge port 14A (strictly, the same supply / discharge port on the distributor 12 side). 14A is formed so as not to communicate with each other at the same time (enclosed region of the distributor-side seal member 19 with respect to 14A).

  The valve bottom wall 23 is formed with a communication port 34 for the air chamber to communicate with the inside of the air chamber 16, and the switching valve body 15 and the air chamber in the valve body 17 are formed on the valve peripheral wall 21. A communication port 35 for a valve body that is communicated with the internal space 17A around 16 is formed.

  Further, the cylindrical rotary shaft 24 is formed with a second purge communication port 24b that communicates the internal space with a purge chamber 38 to be described later, and the internal space communicates with the cylindrical rotary shaft 24. A second purge communication port 27b is formed in the second connection rotary shaft 27 connected to the purge chamber 20. The fourth purge communication port 27b communicates the internal space with the purge chamber 20. The purge chamber 38 and the purge chamber 20 are communicated with each other via the internal space of the cylindrical rotary shaft 24, the internal space of the second connection rotary shaft 27, and the fourth purge communication port 27b.

  Reference numeral 15a denotes an annular reinforcing portion that extends in the circumferential direction in such a manner that each of the gas supply port 31 and the gas discharge port 33 to be processed is divided into a plurality (three in this example) in the radial direction.

  Inside the switching valve body 15 are a supply chamber 36 having a valve body communication port 35 formed on the valve peripheral wall 21 and a gas supply port 31 formed on the valve top plate 22 as a chamber inlet and outlet, and a valve bottom wall 23. A discharge chamber 37 having a communication port 34 for the air chamber formed in the above and a discharge port 33 for the processed gas formed in the valve top plate 22 as a chamber inlet / outlet, a horizontal partition wall 39, a first top plate side horizontal partition wall 40, A purge chamber that is partitioned by a spiral partitioning inner floor 41 and has a first purge communication port 24a formed in the cylindrical rotary shaft 24 and a purge port 32 formed in the valve top plate 22 as a chamber inlet / outlet. 38 is partitioned by a partition middle bottom 42 and a second top plate side horizontal partition wall 43 formed at a location adjacent to the first top plate side horizontal partition wall 40.

  That is, by dividing the inside of the switching valve body 15 into the supply chamber 36 and the discharge chamber 37 using the spiral partitioning inner floor 41, a wide opening area of the communication port 34 for the air chamber device in the valve bottom wall 23 is secured. Accordingly, the lateral length of the valve body is shortened while ensuring high discharge efficiency.

  Reference numeral 44 denotes a reinforcing rib plate provided with a communication port 44a for indoor communication.

  In this configuration, the gas supply path 45 for supplying the gas G to be processed is connected to the internal space 17A in the valve body 17 and the gas discharge path 46 for discharging the processed gas G ′ by the fan F is valved. A purge connected to the switching valve body 15 in the body 17 and the internal space 17A around the air chamber 16, and a part of the treated gas G ′ is taken out from the gas discharge passage 46 and supplied as the purge gas G ″. The gas supply path 47 is connected to the purge chamber 20 formed inside the air chamber 16 and is connected to the body connection port 8 of the regenerative gas processor T1 at each of the eight gases. The other end of the supply / discharge path 11 is individually connected to each of the eight second supply / discharge chambers 14.

  That is, in this regenerative gas processing facility, as shown in FIGS. 7 and 15, the valve body communication formed in the internal space 17 </ b> A of the valve body 17 and the valve peripheral wall 21 of the switching valve body 15 from the gas supply path 45. The gas to be processed G introduced into the supply chamber 36 of the switching valve body 15 through the port 35 communicates with the gas supply port 33 to be processed formed in the valve top plate 22 of the switching valve body 15 and the gas supply port 33 to be processed. A supply / discharge port 14A on the distributor 12 side, a second supply / discharge chamber 14 communicating with the supply / discharge port 14A, a gas supply / discharge channel 11 communicating with the second supply / discharge chamber 14, and a gas supply / discharge channel 11 communicated with the gas supply / discharge channel 11 The chamber connection port 8 and the first supply / exhaust chamber 6 communicating with the chamber connection port 8 are passed through a part of the heat storage chamber 3 to reach the combustion chamber 5. Contaminants and malodorous substances in the processing gas G are processed by combustion.

  Further, the treated gas G ′ is passed from the combustion chamber 5 to the other heat storage chamber 3 to store heat in the heat storage material 4 a accommodated in the heat storage chamber 3, and thereafter, the first gas communicated with the heat storage chamber 3. 1 supply / discharge chamber 6, an instrument body connection port portion 8 communicating with the first supply / discharge chamber 6, a gas supply / discharge passage 11 communicating with the device body connection port portion 8, and a second supply channel communicating with the supply / discharge passage 15 The switching valve body 15 is connected through the exhaust chamber 14, the supply / exhaust port 14A communicating with the second supply / exhaust chamber 14, and the treated gas discharge port 33 on the switching valve body 15 side facing the supply / exhaust port 14A. In addition to being led to the discharge chamber 37, the gas is led to the gas discharge path 46 through the communication port 34 for the air chamber and the air chamber 16.

  Further, as shown in FIGS. 8 and 15, the purge gas G ″ introduced from the purge gas supply passage 47 into the purge chamber 20 is supplied to the third purge communication port 27a formed in the second coupling rotary shaft 27. The internal space of the second connecting rotary shaft 27 and the cylindrical rotary shaft 24 and the first purge communication port 24 a formed in the cylindrical rotary shaft 24 of the switching valve body 15 are led to the purge chamber 38 of the switching valve body 15. A purge port 32 formed in the valve top plate 22 of the switching valve body 15, a supply / discharge port 14 </ b> A on the distributor 12 side that communicates with the purge port 32, and a second supply / discharge chamber connected to the supply / discharge port 14 </ b> A. 14, a gas supply / discharge passage 11 communicating with the second supply / discharge chamber 14, an instrument body connection port portion 8 communicating with the gas supply / discharge passage 11, and a first supply / exhaust passage communicating with the device connection port portion 8. Through the chamber 6, it is further passed through another heat storage chamber 3 to reach the combustion chamber 5, and this combustion chamber 5 Treated with combusting Oite purge gas G ", to merge the treated gas G '.

  Then, by rotating the switching valve body 15 in this process, the gas supply port 31, purge port 32, and processed gas discharge port 33 formed on the valve top plate 22 of the switching valve body 15 are opposed to each other. The supply / exhaust port 14A on the distributor 12 side to be communicated is sequentially switched, and by this switching, the heat storage chamber 3 through which the gas G to be processed passes, the heat storage chamber 3 through which the purge gas G ″ passes, and the processed gas G ′ are changed. In the form of sequentially switching the heat storage chambers 3 to be passed, the respective heat storage chambers 3 are sequentially switched to the passing state of the gas G to be processed, the passing state of the purge gas G ″, and the passing state of the processed gas G ′ in that order. Thus, the gas to be processed G is preheated in the process of passing through each of the heat storage chambers 3 by the heat storage material 4a previously stored with the passage of the processed gas G ′.

  In addition, after passing the gas to be processed G, the purge gas G ″ (a part of the processed gas G ′) is allowed to pass through each heat storage chamber 3 before passing the processed gas G ′ next. The gas to be processed G remaining in the heat storage chamber 3 is discharged to the combustion chamber 5 before passing the next processed gas G ′, and then the gas to be processed G ′ passing through the heat storage chamber 3 is left to be processed. The gas G is prevented from being mixed.

  In addition, as shown in FIG. 6, eight gas body connection ports 8 of the regenerative gas processor T1 and eight second supply / discharge chambers 14 of the switching device T2 are connected by eight gas supply / discharge channels 11. Upper gas supply / exhaust passages connected to the four second chambers 14 for the adjacent first supply / exhaust chambers 6A to the four body connection ports 8 for the individual connection. 11a are individually connected and the lower gas supply / discharge connected to the four second supply / discharge chambers 14 on the lower side with respect to the four container connection ports 8 for the non-adjacent first supply / discharge chambers 6B. The paths 11b are individually connected, and the lengths of the air paths from the first supply / discharge chambers 6 to the second supply / discharge chambers 14 through the gas supply / discharge paths 11 are made uniform.

  A drive unit 48 for rotating the switching valve body 15 is detachably disposed on the right side of the installation base 18 (specifically, on the right side of the valve body 17). A driving rotary shaft 49 including a connecting flange portion 49a as a connecting portion that is detachably connected to the rotating shaft X of the valve body 15 by fastening means such as a bolt or a nut (specifically, flange joint), a pressing piece 50b, A cylinder 50 as a switching valve body urging means for pressing and supporting the driving rotary shaft 49 from the right side to the approaching side (left side) of the switching valve body 15 with respect to the rotation axis X with the pressure of gas or liquid via the bearing 50a. And a motor 51 with a speed reducer that rotates the drive rotary shaft 49 by a chain connection with the drive rotary shaft 49 is assembled to a frame frame 52 that is detachably attached to the installation base 18.

  That is, the drive unit 48 transmits the pressing force by the cylinder 50 to the rotating shaft X of the switching valve body 15 via the driving rotating shaft 49, so that the pressing force of the cylinder 50 does not act on the air chamber 16. In this state, the switching valve body 15 is driven and rotated by the motor 51 with a speed reducer while urging the displacement in the perspective direction (in this example, the lateral direction) with respect to the distributor 12 freely toward the distributor 12 side. By transmitting to the rotation axis X of the switching valve body 15 by the shaft 49, the switching valve body 15 is rotated around the horizontal axis P in the valve body 17 in the direction indicated by the arrow R in the figure.

  The air chamber 16 is divided into a cylindrical sliding contact portion 53 whose left opening edge is a sliding contact surface with respect to the switching valve body 15 and an air chamber main body 54 on the right side thereof, and the sliding contact portion 53. And the air chamber main body 54 are covered with an annular gap between the sliding contact portion 53 and the air chamber main body 54 by a cloth-made telescopic wind tunnel 55 having airtightness and flexibility (that is, the sliding contact portion). 53 and the air chamber main body 54 are connected in an airtight state or in a state of being kept substantially airtight).

  In addition, a plurality of spring units 61 (four in this example) as slidable contact portion urging means for urging the slidable contact portion 53 toward the switching valve body 15 are slidably contacted with the air chamber 16. Assembling equipment (specifically, assembling equipment in a state extending between the air chamber main body 54 and the sliding contact portion 53) is arranged around the portion 53 at equal intervals.

  64 is fixedly connected to the spring unit 61 in a state in which a gap between the spring unit 61 and the sliding contact portion 53 is closed (in other words, in a state of contacting both the spring unit 61 and the sliding contact portion 53). With this restriction ring body 64, the displacement of the sliding contact portion 53 with respect to the air chamber main body 54 in the direction excluding the perspective direction with respect to the switching valve body 15, in this example, the orthogonal direction to the perspective direction ( That is, the displacement in the vertical direction) is reliably regulated.

  As shown in FIGS. 11 to 12, a telescopic wind tunnel fixing bolt (not shown) is attached to the outer peripheral surface of the left-side wind tunnel holding body 56 having a horizontal axis that is connected to the right end of the sliding contact portion 53. A large number of mounting holes 56a are formed at equal intervals in the circumferential direction, and a substantially cylindrical right wind tunnel connected to the left opening edge of the air chamber body 54 (that is, the opening edge on the sliding contact portion 53 side). A large number of mounting holes 57a for mounting telescopic wind tunnel fixing bolts (not shown) are formed on the outer peripheral surface of the holding body 57 at equal intervals in the circumferential direction.

  Then, the left and right end portions of the telescopic wind tunnel 55 are respectively connected to the left wind tunnel holding body 56 connected to the sliding contact portion 53 and the right wind tunnel holding body 57 connected to the air chamber body 54 with the telescopic wind tunnel fixing bolts. By fixing, the sliding contact portion 53 is switched with respect to the air chamber main body 54 within the wind tunnel length range of the telescopic wind tunnel 55 (that is, within the length range in the axis P direction) by the flexibility of the telescopic wind tunnel 55. It is configured to be displaceable in the perspective direction with respect to the valve body 15.

  58 is a metal first reinforcing cylinder attached with a telescopic wind tunnel fixing bolt together with a left end portion of the telescopic wind tunnel 55 in a state of being located inside the telescopic wind tunnel 55 with respect to the left wind tunnel holding body 56 of the sliding contact portion 53; 59 has an outer diameter that is slidable in the first reinforcing cylinder 58 while being fitted inside, and is located inside the telescopic wind tunnel 55 with respect to the right wind tunnel holding body 57 of the air chamber body 54. It is the metal 2nd reinforcement cylinder attached with the telescopic wind tunnel fixing bolt with the right end part.

  When the first reinforcing cylinder 58 and the second reinforcing cylinder 59 are attached to the wind tunnel holding bodies 56 and 57 as described above, at least a part of the second reinforcing cylinder 59 is always fitted inside the first reinforcing cylinder 58. Even when a later-described restricting ring body 64 is damaged, the sliding contact portion 53 with respect to the air chamber main body 54 is displaced in a direction other than the perspective direction with respect to the switching valve body 15. In the example, the displacement in the direction orthogonal to the perspective direction (that is, the vertical direction) is restricted by the contact of the second reinforcing cylinder 59 with the first reinforcing cylinder 58 attached to the sliding contact portion 53.

  Further, by disposing the first reinforcing cylinder 58 and the second reinforcing cylinder 59 inside the telescopic wind tunnel 55, the pressure difference between the inside and outside of the telescopic wind tunnel 55 (the gas G to be treated outside the telescopic wind tunnel 55 and the processed gas inside the telescopic wind tunnel 55 is processed. The inward movement of the telescopic wind tunnel 55 that is easily pressed inward due to the pressure difference with the gas G ′ is abutted and regulated, and the telescopic wind tunnel 55 is generated by the tensile force in the surface direction generated in the telescopic wind tunnel 55 by the inner pressing force. To prevent problems such as deterioration.

  As shown in FIGS. 13 and 14, the spring unit 61 as the sliding contact portion urging means is formed by projecting radially outward at equal intervals in the circumferential direction at the left opening edge of the air chamber main body 54. A unit frame 62 (not shown) that is bolt-connected to (four in this example) the main body side flange pieces 54 a and the main body side flange pieces 54 a of the air chamber main body 54 at the left opening edge of the sliding contact portion 53. A pair of compression coil springs 64 are interposed between the pressing bodies 63 fitted to the right end surfaces of the plurality of sliding contact side flange pieces 53a formed to project outward in the radial direction in opposition to each other. Yes, the pressing body 63 is held in a state in which the right end of the spring is fixedly supported by the air chamber main body 54 via the unit frame 62 (in other words, the air chamber main body 54 is used as a reaction force fulcrum via the unit frame 58). Elastically pressed to the left , Thereby, it is a configuration for biasing the sliding portion 53 to the left via the pressing member 63.

  The pressing body 63 is transmitted to a support piece 63c that extends over the left ends of the pair of compression coil springs 64, a pressing pin 63a that is inserted into an insertion hole formed in the center of the support piece 63c, and the support piece 63c. The nut 63d for transmitting the pressing force of the compression coil spring 64 to the pressing pin 63a and the nut 63e for preventing the pressing pin 63a from coming off from the insertion hole.

  The pressing pin 63a has a fitting projection for the fitting recessed portion 53b formed on the right surface of the sliding contact side flange piece 53a at the left end, and has a thread groove for screwing the nuts 63d and 63e on the outer peripheral surface. Thus, the position of the nut 63d relative to the pressing pin 63a can be freely changed, and the urging force of the pressing pin 63a on the sliding contact portion 53 can be changed.

  That is, the spring unit 61 as the slidable contact portion urging means urges the slidable contact portion 53 of the air chamber 16 toward the switching valve body 15, and separately from this, as the switching valve body urging means. By urging the switching valve body 15 toward the distributor 12 with no urging force acting on the air chamber 16 by the cylinder 50, the sliding contact portion urging means and the switching valve body urging means By independent adjustment to each, the urging force to the sliding contact portion 53 for pressing the air chamber side seal member 25 and the urging force to the switching valve body 15 for pressing the distributor side seal member 19 are changed. It can be adjusted separately.

  Then, by the individual adjustment of the urging force with respect to the sliding contact portion 53 and the switching valve body 15, an opening edge (in detail) on the inner space 17 </ b> A side of the air chamber 16 between the air chamber 16 and the switching valve body 15. The air chamber side seal member 25 is pressed against the valve bottom plate 23 of the switching valve body 15 by an appropriate force in such a manner that the equipped air chamber side sealing member 25 is pressed by the sliding contact portion 53 to the left opening edge of the sliding contact portion 53. The communication between the internal space 17A of the valve body 17 and the interior of the air chamber 16 and the switching valve body 15 through the space between the air chamber 16 and the switching valve body 15 is prevented. By preventing this communication, the internal space 17A Mixing of the gas to be processed G in the gas chamber and the processed gas G ′ in the air chamber 16 is effectively and reliably prevented, and the bottom plate 12 a of the distributor 12 is disposed between the distributor 12 and the switching valve body 15. A mode in which the distributor-side seal member 19 of the equipment is pressed by the switching valve body 15 A gas supply port 33 to be processed 33 through the gap between the bottom plate 12a of the distributor 12 and the valve top plate 22 of the switching valve body 15 is securely pressed against the valve top plate 22 of the switching valve body 15 with an appropriate force. The communication between the exhaust gas discharge port 35 and the purge port 32 is blocked by the sliding contact of the distributor-side seal member 19 with respect to the valve top plate 22, and mixing of the gas G to be processed into the processed gas G 'due to the clearance communication. Prevent effectively and reliably.

  Each of the bottom corners (four corners in this example) of the frame 52 in the drive unit 48 has a lock function that can roll along the installation base 18 in one direction (in this example, the axis P direction). Rollers 52a (an example of moving means) are provided, and each of the lower surface corners (four corners in this example) of the valve body 17 has a direction on the installation base 18 (in this example, the axis P direction). A rolling wheel 17a with a lock function (an example of a moving means) that can roll along is provided.

  Therefore, the connection between the rotating shaft X and the drive unit 48 is released, and the drive unit 48 is detached from the switching device T2 along the direction of the axis P, so that the drive unit 48 can be replaced or inspected in a dedicated space. It can be done easily.

  Further, the connection between the distributor 12 and the valve body 17 is released by releasing the connection between the distributor 12 and the valve body 17 and detaching the valve body 17 from the switching device T2 along the axis P direction. The distributor-side seal member can be easily inspected and replaced, and the valve body 17 can be easily replaced and inspected in a dedicated space.

  In this case, a mode of detaching the valve body 17 from the switching device T2 together with the drive unit 48, and a mode of detaching the valve body 17 from the switching device T2 alone after the drive unit 48 is detached from the switching device T2. Any of these may be adopted.

  Each of the bottom corners (four corners in this example) of the installation stand 18 has a locking function that can roll along the equipment installation surface L along one direction (in this example, the axis P direction). 18a (an example of a moving means) is provided, and the switching device T2 is moved to a dedicated space so that replacement or complicated inspection can be easily performed in the dedicated space.

  In short, in this regenerative gas processing facility, the housing connection port 8 of the regenerative gas processing device T1 is formed on the lateral side wall 9 in such a form that the gas supply / discharge passage 11 can be connected from the lateral lateral space. By adopting a configuration in which the regenerative gas processor T1 is placed on the equipment installation surface L, the substantial body height of the regenerative gas processor T1 is effectively reduced, and at the same time, the switching device T2 By adopting a configuration in which the switching valve body 15 is rotated around the horizontal axis, the height of the switching device T2 is also effectively reduced. It is a facility that is easy to install in installation spaces such as the interior of buildings and the lower space of existing drying furnaces.

[Another embodiment]
Next, another embodiment will be listed.
In the above-described embodiment, the combustion chamber 5 is formed in the upper portion inside the vessel body, the plurality of first supply / discharge chambers 6 are formed in the lower portion inside the vessel body, and the upper ends of the respective heat storage chambers 3 communicate with the combustion chamber 5. In addition, the configuration in which the lower end of each heat storage chamber 3 is individually communicated with each first supply / exhaust chamber 6 is shown as an example, but the combustion chamber 5 is formed in the lower part inside the vessel body, and a plurality of first The supply / exhaust chamber 6 is formed in the upper part inside the container, and the upper end of each heat storage chamber 3 is individually communicated with each first supply / exhaust chamber 6, communicated with the combustion chamber 5, and the lower end of each heat storage chamber 3. May be configured to communicate with the combustion chamber 5.

  In the above-described embodiment, an example in which the regenerative gas processor T1 is placed on the equipment installation surface L has been described. However, the regenerative gas processor T1 is disposed in a state slightly lifted from the equipment installation surface L. It may be.

  The switching device that alternately switches each of the gas supply / exhaust passages 11 between the treated gas introduction state and the treated gas lead-out state is the switching mode as shown in the above-described embodiment (that is, the gas supply by the rotation of the switching valve body). The switching paths are not limited to those in which each of the exhaust passages 11 is alternately switched between the treated gas introduction state and the treated gas derivation state, and various switching forms can be employed. The gas supply / discharge path 11 may be switched in such a manner that the gas supply / exhaust passage 11 is alternately switched between a gas to be processed introduction state and a treated gas lead-out state.

  Various configurations can be changed for the specific configurations of the heat storage chamber 3, the combustion chamber 5, the first supply / exhaust chamber 6, the vessel connection port portion 8, and the communication form thereof.

  The connection form for connecting each of the plurality of gas supply / discharge passages 11 to each of the plurality of vessel connection ports 8 can take various connection forms. For example, the plurality of gas supply / discharge passages 11 are unitized. To configure a gas supply / discharge channel unit, unitize a plurality of device connection ports 8 to configure a device connection port unit, and connect the gas supply / discharge channel unit to the device connection port unit Therefore, a connection configuration may be adopted in which each of the plurality of gas supply / discharge passages 11 is connected to each of the plurality of vessel connection ports 8.

  In the above-described embodiment, as an example in which the side surface of the heat storage chamber of the communication duct 10 is configured in such a manner that the center side in the plan view inside the adjacent first supply / discharge chamber 6A is located on the opposite side of the heat storage chamber 3 from the outside in plan view. Although the example in which the ceiling surface 10a is formed in an inclined surface shape in which the center side in the plan view inside the adjacent first supply / discharge chamber 6A is located on the opposite side of the heat storage chamber 3 from the outside in the plan view has been shown, the shape is limited to the shape of the inclined surface. Alternatively, a staircase shape or a curved surface shape may be used.

  In the above-mentioned embodiment, although the example which comprises a connection air path with a metal was shown, you may comprise not only this but with various materials.

  The specific configuration of the switching device T2 is not limited to the configuration shown in the above-described embodiment, and various configuration changes can be made.

  As described above, when the configuration of the switching device T2 is changed, for example, instead of the rotation axis X of the switching valve body 15 being a horizontal axis, it may be configured as an oblique axis or a vertical axis.

  Further, for example, instead of configuring the switching valve body urging means with the cylinder 50, it may be configured with an elastic body such as a compression coil spring, a tension coil spring, a motor, rubber, etc. The biasing means may be constituted by an elastic body such as a tension coil spring, a cylinder, a motor, or rubber instead of being constituted by a compression coil spring.

  Further, for example, instead of configuring the rotation axis X of the switching valve body 15 by detachably connecting three divided shaft portions, two or four or more divided shaft portions are connected, or Instead of connecting the divided shaft portions, it may be constituted by only one shaft portion.

  Further, for example, in order to constitute the moving means of the valve body 17 and the drive unit 48, the rolling wheels 17a and 52a with a lock function that can roll on the installation base 18 are arranged on the valve body 17 and the drive unit 48 side. Instead of providing, a roller wheel with a lock function is provided on the installation base 18 side, or a rail is passed over the installation base 18, and a rail receiver that slides or slides on the rail or rolls on the rail. Rollers may be provided in the valve body 17 and the drive unit 48, or obstacles that restrict the moving direction of the drive unit 48 may be provided on the installation base 18.

  Similarly, in order to constitute the moving means of the installation stand 18, instead of providing the lock wheel 18a with a lock function capable of rolling on the equipment installation surface L on the installation stand 18 side, the wheel with the lock function is provided. Even if it is provided on the installation surface L side or a rail is passed over the equipment installation surface L, a rail receiver that slides or slides on the rail or a rolling wheel that rolls on the rail is provided on the installation base 18. Alternatively, an obstacle that regulates the moving direction of the installation base 18 may be provided on the equipment installation surface L.

  Further, for example, the telescopic wind tunnel 55 may be made of an elastic body such as paper, a sheet, or rubber, a bellows-like metal or resin, instead of being made of a cloth having airtightness and flexibility.

  Further, for example, instead of providing the distributor 12 with the distributor-side seal member 19 interposed between the distributor 12 and the switching valve body 15, the switching valve body 15 may be equipped.

  Further, for example, instead of installing the air chamber device side seal member 25 interposed between the switching valve body 15 and the air chamber device 16 in the air chamber device 16, the switching valve body 15 is equipped. Good.

  Further, for example, instead of arranging the distributor 12 and the valve body 17 side by side in the horizontal direction, these may be arranged side by side or in the vertical direction.

  Further, for example, the gas supply path 45 for supplying the gas G to be processed is connected to the internal space 17A in the valve body 17 and the gas discharge path 46 for discharging the processed gas G ′ by the fan F is used as the valve body. 17 is connected to the switching valve body 15 and the internal space 17A around the air chamber 16, and a part of the treated gas G ′ is taken out from the gas discharge passage 46 and supplied as the purge gas G ″. Although an example in which the supply path 47 is connected to the purge chamber 20 formed inside the air chamber 16 is shown, the gas supply path 45 for supplying the gas G to be processed by the fan F is provided in the valve body 17. A gas exhaust passage 46 for communicating with the space 17A and exhausting the treated gas G 'is communicated with the switching valve body 15 in the valve body 17 and the internal space 17A around the air chamber 16, and the purge gas G ″ Is discharged and introduced into the gas supply path 45 The purge chamber 20 formed inside of the purge gas discharge passage 46 to the air chamber 16 may be configured to communicatively connected.

  In this case, a part of the treated gas G ′ in the combustion chamber is passed as a purge gas G ″ from the combustion chamber 5 to the other heat storage chamber 3 and then the first supply / exhaust chamber communicated with the heat storage chamber 3. 6, a body connection port portion 8 communicating with the first supply / discharge chamber 6, a gas supply / discharge passage 11 communicating with the device connection port portion 8, and a second supply / discharge chamber 14 communicating with the gas supply / discharge passage 11 The purge of the switching valve body 15 through the supply / discharge port 14A communicating with the second supply / discharge chamber 14 and the purge port 32 formed in the valve top plate 22 of the switching valve body 15 communicating with the supply / discharge port 14A oppositely. The first purge communication port 24a formed in the cylindrical rotary shaft 24 of the switching valve body 15, the internal space of the cylindrical rotary shaft 24 and the second connecting rotary shaft 27, the second connection Purge gas exhaust through the third purge communication port 27 a formed in the rotary shaft 27 and the purge chamber 20. In the form where the gas to be processed G is led to the passage 47 and merged with the gas to be processed G through the purge gas discharge passage 47, the heat storage chamber 3 is purged after passing the gas to be processed G and then the processed gas G '. The working gas G ″ is passed.

  The gas to be treated G is not limited to the exhaust gas of the painting equipment, but may be any gas as long as it can be treated by combustion in the combustion chamber 5, and the purpose of treatment is limited to purification and deodorization. is not.

  The combustion means equipped in the combustion chamber 5 is not limited to the burner 7 but may be an electric heater or the like. Further, in each heat storage chamber 3, a catalyst is disposed on the combustion chamber 5 side of the heat storage material 4a. The gas to be processed G may be processed by catalytic combustion.

Side view of regenerative gas processing equipment according to the present invention The top view of the heat storage type gas processing equipment concerning the present invention Cross section of adjacent first supply / discharge chamber (cross section in the direction perpendicular to the connecting duct) AA line sectional view of FIG. BB sectional view of FIG. Explanatory drawing which shows the connection state of a 1st supply / discharge chamber and a gas supply / discharge path Side view of switching device Side view of switching device Exploded perspective view of the main part of the switching device Disassembled perspective view of switching valve body Side sectional view of the main part of the switching device Exploded perspective view of the main part of the switching device Side sectional view of the main part of the switching device Spring unit perspective view Functional explanatory diagram of a regenerative gas processing facility according to the present invention

Explanation of symbols

T1 Thermal storage gas processor T2 Switching device G Processed gas G 'Processed gas 3 Thermal storage chamber 4a Thermal storage material 5 Combustion chamber 5a Combustion means 6 Supply / exhaust chamber (first supply / exhaust chamber)
8 Body connection port portion 9 Side wall portion 10 Communication air passage 11 Gas supply / discharge passage 12 Distributor 14A Supply / discharge port 15 Switching valve body 45 Gas supply passage 46 Gas discharge passage

Claims (5)

A plurality of heat storage chambers containing a heat storage material, a combustion chamber provided with combustion means for combusting a gas to be processed, and a gas to be processed and a combustion chamber introduced into the combustion chamber via the heat storage chamber for each of the heat storage chambers A plurality of supply and discharge chambers through which the processed gas derived from the heat storage chamber is passed are formed inside the container body,
The plurality of heat storage chambers are arranged in the horizontal direction at the upper and lower intermediate portions inside the body, and one end of each heat storage chamber is communicated with the combustion chamber, and the other end of each heat storage chamber is connected to the supply / discharge In addition to a structure that allows each room to communicate individually,
For each of the supply / exhaust chambers, a process gas introduction state in which the process gas is introduced into the combustion chamber from the outside of the container through the supply / discharge chamber, and a process for deriving the processed gas to the outside of the container through the supply / discharge chamber A regenerative gas processing device in which a vessel connection port portion is formed for each of a plurality of gas supply / exhaust passages that can be switched alternately to a spent gas derivation state,
The regenerative gas processing device in which the plurality of container connection ports are formed in a lateral wall portion in a form in which the gas supply path can be connected from a container lateral outer space.   The regenerative gas processor according to claim 1, wherein the plurality of vessel connection ports are formed intensively on one of the plurality of side wall portions.   The communication air passing through the supply / discharge chamber adjacent to the lateral wall portion, through the supply / discharge chamber separated from the lateral wall portion in which the plurality of device body connection ports are concentratedly formed, and the body connection port portion corresponding thereto. The regenerative gas processor according to claim 2, wherein the regenerator is configured to communicate with each other through a path.   The regenerative gas processor according to claim 3, wherein the communication air passage is disposed at an end opposite to the heat storage chamber inside the supply / discharge chamber adjacent to the lateral side wall portion. A regenerative gas processing facility using the regenerative gas processor according to any one of claims 1 to 4,
  A switching device for alternately switching each of the gas supply / exhaust passages between the treated gas introduction state and the treated gas derivation state is provided outside the container body,
  The switching device includes a distributor having a plurality of supply / exhaust ports individually connected to the plurality of gas supply / exhaust passages, and the supply gas that passes the gas to be treated introduced from the gas supply passage to the gas supply / exhaust passage. While maintaining the state where both the exhaust port and the supply / exhaust port through which the treated gas led out from the gas supply / exhaust passage passes, the horizontal axis around the horizontal axis or the oblique axis in the sliding contact state with respect to the distributor While comprising a switching valve body that alternately switches between the supply gas exhaust port and the processed gas passage state by rotation around the core,
  One end of each of the gas supply / discharge paths is individually connected to each of the body connection ports of the regenerative gas processor, and each of the gas supply / discharge paths is connected to each of the supply / discharge ports in the switching device. Regenerative gas processing equipment that is configured to communicate with the other end of each.

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