TWI549739B - Rotating wheel, fluid treatment apparatus, method for removing treatment block of the rotating wheel, and method for removing treatment frame of the rotating wheel - Google Patents

Description

Rotary wheel, fluid processing equipment, disassembly method of runner processing material block and runner Disposal method of material support

The present invention relates to a processing apparatus in the field of fluid processing and a runner thereof, and more particularly to a detachable wheel of a partial component and a method of disassembling the same.

In the field of fluid processing such as volatile organic matter treatment, a treatment-active material such as zeolite is often used to remove or modify a component to be treated in a fluid. The processing activity of these materials generally decays as the number of uses/time increases. Early practice was to replace the entire set of equipment containing the material, which was often accompanied by high cost of replacement.

Taking the zeolite runner as an example, when the zeolite treatment activity is lowered (for example, the zeolite is blocked by the polymer and the micropores lose the micropore specific surface area and the micropore volume), the conventional method will completely remove the old zeolite runner, and Replacement of the new zeolite runner, this method not only replaces the operation more difficult, the working time is longer, the removal and clearance of the zeolite runner is required, and the relevant pipe fittings need to be dismantled, and the material waste is easily caused. Take the 4200 mm diameter honeycomb zeolite runner commonly used in photovoltaic power plants and fabs as an example. The cost of the honeycomb zeolite runner is about NT$5 million. If the entire group of runners is replaced, it will be nearly 3 The lifting cost of ～5 metric tons and the need for large-scale spreader hoisting costs and related pipe fittings are about NT$9 million. It is obvious that the replacement of the entire set of runners will result in high replacement costs and the required working hours. Longer, it is really unsatisfactory for the industry.

Therefore, the invention patent of TW I364314 discloses a rotor replacement method applied to a honeycomb runner, which removes a plurality of adsorption blocks installed in the cassette box one by one, but such a design is applied. Sometimes the following problems are still encountered: the radial direction of the cassette may be obscured by other lines or equipment, and the radial removal of the adsorption block may become impossible or difficult to perform.

As can be seen from the above description, there is a real need in the art to achieve processing material replacement operations in other ways.

In view of this, it is a primary object of the present invention to provide a runner that allows the user to replace the process material in the axial direction.

In order to achieve the foregoing and other objects, the present invention provides a runner having an inlet side and an outlet side in the axial direction, the runner being for fluid to flow between its inlet side and outlet side, the rotor including a rotatable a rotating shaft of the shaft, at least one processing material support, at least one processing material block and a plurality of first connecting members, the processing material support enclosing at least one processing channel and disposed on the rotating shaft, the processing material block is filled in the processing a processing channel of the material holder, and the processing material block has an ability to move axially relative to the processing material holder, the first connecting members having a connecting capability of connecting the processing material block to the processing material holder, and the The ability of the first connector can be selectively released; the ability of the processing block to move axially relative to the processing material holder is limited before the connection capability of the first connector is released; when the first connector After the connection capability is released, the treated material block recovers its ability to move axially relative to the processing material holder.

In order to achieve the foregoing and other objects, the present invention also provides a method for disassembling a rotor processing material block applied to the foregoing reel, comprising the steps of: 1) releasing the connection capability of at least a portion of the first connecting member; The processing material block corresponding to the uncoupled first connecting member is axially removed from the processing channel of the processing material holder.

In order to achieve the foregoing and other objects, the present invention also provides a runner having an inlet side and an outlet side in the axial direction, the runner being for fluid to flow between its inlet side and the outlet side, the rotor including a a pivoting shaft, a plurality of processing material holders, a plurality of processing material blocks, and a plurality of second connecting members, each of the processing material holders respectively surrounding at least one processing channel, wherein the processing material holders are disposed on the rotating shaft, and at least one of the processing materials The processing material holder has an ability to move axially relative to the rotating shaft, and the processing material blocks are respectively filled in the processing channels of the processing material holders, and the second connecting members have at least a part of the processing material holder a connection capability connected to the rotating shaft, and the connecting capability of the second connecting member can be selectively released; the ability of the processing material holder to move axially relative to the rotating shaft before the connecting capability of the second connecting member is released is Restriction; when the connection capability of the second connector is released, its corresponding processing material holder resumes its ability to move axially relative to the axis of rotation.

In order to achieve the foregoing and other objects, the present invention also provides a method for disassembling a rotor treatment material holder applied to the aforementioned reel, comprising the steps of: 1) releasing the connection capability of one of the second connectors; and 2) corresponding The treatment material holder of the second connector that is disconnected is axially removed.

In order to achieve the foregoing and other objects, the present invention also provides a fluid processing apparatus comprising a runner, an inlet box and an outlet box as described above, the inlet box being disposed on an inlet side of the wheel, the outlet box being provided At the outlet side of the runner, the fluid handling apparatus is configured to introduce at least a portion of the fluid from the inlet tank to the runner and from the outlet tank.

Please refer to FIG. 1 , which is a first embodiment of a fluid processing apparatus 1 for treating a fluid such as a gas or a liquid, including but not limited to a part of a gas or a liquid. Remove, modify, or change the physical state. The fluid processing apparatus 1 has a rotor 2, an inlet box 3 and an outlet box 4. The rotor 2 has an inlet side 2a and an outlet side 2b. The inlet box 3 is provided on the inlet side 2a of the runner 2, and the outlet The tank 4 is provided on the outlet side 2b of the runner 2, and a plurality of runners are defined inside the inlet box 3 and the outlet box 4 depending on the usage requirements. The fluid processing apparatus 1 allows at least a portion of the fluid to be introduced into the rotor 2 from the inlet tank 3 and discharged from the outlet tank 4; in other possible embodiments, the fluid processing apparatus 1 is also adapted to introduce a portion of the fluid from the outlet tank 4 into the runner. 2 and discharged from the inlet box 3; in other possible embodiments, the fluid processing apparatus 1 is also available for partial fluid flow from the inlet box 3 / outlet box 4 sequentially through the runner 2 and the outlet box 4 / inlet box 3, and then The outlet box 4/inlet box 3 is returned through the runner 2 and discharged from the inlet box 3/outlet box 4. For maintenance or other purposes, a service door 3a may be provided on the side of the inlet box 3 for personnel access, and the outlet box 4 may have a similar service door design.

In the present embodiment, the fluid processing apparatus 1 is a honeycomb zeolite concentrator for gas purification treatment, which comprises an adsorption zone 5, a desorption zone 6 and a desorption regeneration heat exchange zone 7 (also referred to as "purge isolation zone or cooling cooling zone", wherein "zeolite" is the main processing material having processing activity in the fluid processing device 1, "honeycomb" refers to the shape of the runner of the runner 2, and "concentration" refers to its For the technical effect to be realized, taking the exhaust gas containing volatile organic compounds (VOC) as an example, the exhaust gas is introduced into the adsorption zone 5, and the VOC is adsorbed by the zeolite of the adsorption zone 5 in the runner 2, and the treated exhaust gas is then passed through the outlet tank 4 Discharge; the desorbed gas enters through the desorption gas inlet 8 of the inlet tank 3, while heat exchange is performed in the desorption regeneration heat exchange zone 7 in the reel 2 to preheat and simultaneously cool the runner, and has an isolation adsorption zone 5 and The effect of high and low concentration gas flow between the desorption zone 6 can be further increased to a suitable desorption temperature by a heater according to requirements, and then separately introduced into the desorption zone 6 in the reel 2 to remove the VOC adsorbed by the zeolite. Out, finally adsorbed gas The inlet box 3 desorbed gas outlet 9 of discharge, the concentration of VOC contained in the desorbed gas at this time is typically significantly higher than the concentration of VOC in the exhaust gas to be treated, i.e. to reach a "concentrated" effect. It should be noted that the fluid treatment apparatus suitable for use in the present invention is not limited to a honeycomb zeolite concentrator, and other fluid treatment equipment applicable to the present invention includes, but is not limited to, a rotary suction/desorption processor, Fluid handling equipment such as a rotary catalyst processor, a rotary exchanger (such as a heat exchanger or an ion exchanger).

Referring to Figures 2 to 4, the first embodiment of the runner is illustrated. The runner 2 is capable of flowing a fluid such as a gas or a liquid between the inlet side 2a and the outlet side 2b. The flow between the outlet sides includes, but is not limited to, fluid entering the interior from the runner inlet side 2a and directly discharged from the outlet side 2b, fluid entering the interior from the runner outlet side 2b and being directly discharged from the inlet side 2a, fluid being passed from the runner inlet side 2a The interior is again discharged by other outlets located on the inlet side 2a, the fluid enters the interior by the runner outlet side 2b and is discharged by other outlets located at the outlet side 2b. The fluid typically flows axially within the wheel 2, but does not exclude the possibility of radial or irregular flow of fluid within the wheel 2.

In this embodiment, the reel 2 includes a rotatable rotating shaft 10, a processing material holder 20, a plurality of processing material blocks 30, and a plurality of first connecting members 40.

The rotating shaft 10 can have a shaft column 11 and a turntable 12 that rotates synchronously with the shaft column 11. The shaft column 11 and the turntable 12 can be integrally formed or connected by welding, screwing or the like. It should be noted that the design of the rotating shaft is not limited thereto. For example, in other possible embodiments, the rotating shaft may also be a shaft tube and rotatably sleeved on a shaft center. The "rotation about the axis" includes rotating about a virtual axis and rotating about a physical axis.

The processing material holder 20 is provided on the rotating shaft 10. In the present embodiment, the rotating shaft 10 is located at the geometric center of the processing material holder 20, and the processing material holder 20 is supported by the rotating shaft 10. In this embodiment, the processing material support 20 can be connected to the rotating shaft 10 in an integrally formed manner. Alternatively, in other possible embodiments, the processing material support 20 can be disposed on the rotating shaft 10 in a relatively displaceable manner, for example, on the rotating shaft. The turntable 12 of 10, the treatment material holder 20 and the rotating shaft 10 can be used, but is not limited to being fixed by welding or screwing. In this embodiment, the treatment material support 20 can be a complete and non-detachable unit. Alternatively, in other possible embodiments, the treatment material support 20 can be assembled from a plurality of detachable design units.

One of the functions of the treatment material holder 20 is to support the treatment material block 30. At the same time, the treatment material support 20 encloses at least one treatment passage 21 through which the fluid can pass. The treatment passage 21 is generally axially extended, but is not excluded. The possibility of extending in other directions. The treatment channel 21 is generally axially open on the inlet side and the outlet side of the runner 10, i.e. has two openings in the axial direction; in a possible embodiment, it is also possible for the treatment channel to be provided at other locations.

The processing block 30 is filled in the processing channel 21 of the processing material holder 20, and in the processing material block 30, at least a portion of the processing material block 30 has the ability to move axially relative to the processing material holder 20. The processing material block 30 is detachably filled in the processing channel 21; the inside of the processing material block 30 is generally defined with a flow path through which the fluid can pass; in the usual use case, the processing material block 30 is A major component is a treatment material having a treatment activity for the target fluid component to be treated. These treatment materials can partially or completely remove, modify or change the physical state of the target fluid component, such as temperature, and the treatment material used depends on the target fluid component. And depending on the effect you want to achieve. For example, for a wheel used to remove VOCs in a gas, alternative treatment materials include, but are not limited to, VOC adsorbent materials such as zeolite or activated carbon. The treatment material block 30 may include, in addition to the aforementioned treatment materials, other structures such as a support capable of supporting the treatment material, a shaping material, or a carrier carrying the treatment material, for example, a honeycomb zeolite runner, for example. The treated material block 30 is mainly composed of a honeycomb substrate and a zeolite coated on the surface of the honeycomb substrate.

One of the embodiments of the support for supporting the treatment material will be described below. As shown in FIGS. 2 to 4, the treated material block 30 has a plurality of sides 31 and a plurality of faces 32 respectively surrounded by a plurality of sides 31, and each side 31 of the treated material block body 30 is provided with an angle steel. 33. The angle 33 covers the partial surface of the two adjacent faces 32 of the treated material block 30, and all the faces 32 of the treated material block 30 are surrounded by the angles 33. The angle 33 is made of a material having suitable structural support, and is not limited to steel. Other available materials may be metal, alloy or non-metal.

In order to allow the fluid to pass axially through the treated material block 30 without being obstructed by the angle steel 33, a portion of the angle steel 33 may have a baffle 331 on the inlet side or the outlet side of the runner, the baffle 331 being provided in the axial direction. The through hole 332 allows gas to enter the inside of the processing material block 30 through the through hole 332.

In order to maintain the surface of the treated material block 30 flat, the treated material block 30 has a step 34 on the side 31 provided with the angle 33, the angle 33 is provided on the step 34, and the outer surface of the angle 33 and the two adjacent faces 32 are The surface not covered by the angle 33 is flush, thereby giving the treated block 30 a relatively flat appearance in the axial and radial directions.

The first connecting member 40 has a connecting ability to connect the processing material block 30 to the processing material holder 20, and the connection ability of the first connecting member 40 can be selectively released. In this embodiment, there is a gap 25 between the processing material support 20 and the processing material block 30, and the first connecting member 40 is a rubber strip completely filled in the gap 25, such as silicone rubber, and the same gap 25 may be provided. For the plurality of strips, the strip may be disposed only on the inlet side and/or the outlet side of the runner, and the strip may be partially filled in the gap 25 and partially exposed to the gap 25, but in this embodiment The outer side of the strip on the inlet side/outlet side is flush with the surface of the treated material block 30 and the treated material holder 20. On the other hand, the same type of first connector 40 can be used in the same gap 25, for example, all using a strip for connection purposes; in other possible embodiments, the first connector 40 used in the same gap 25 The type of the first connecting member 40 is not limited thereto. The first connector 40 can be disposed at a full or partial circumference of the treatment block 30 in the radial direction.

The ability of the treatment block 30 to move axially relative to the treatment material holder 20 is limited before the connection capability of the first connector 40 is released, at which point the treatment block 30 cannot or is difficult to move axially relative to the treatment material holder 20, The two are essentially static. After the connection capability of the first connecting member 40 is released, the processing block body 30 resumes its ability to move axially relative to the processing material holder 20; the method of releasing the capability of the first connecting member 40 depends on the type of the first connecting member 40 and Depending on the fixing method, taking the strip as an example, the strip can be cut by the cutter, so that the first connecting member 40 loses the connection ability of connecting the processing block 30 to the processing material holder 20, but the way of releasing the strip connecting ability is Not limited to this.

The first connecting member 40 can further have the ability to seal the gap 25, that is, the fluid can not be flown by one of the inlet side and the outlet side of the runner through the gap 25 to the inlet side and the outlet side of the runner. On one side, for example, the strip is a connector that can have both connection and sealing capabilities.

When one of the processing block bodies 30 is to be disassembled, the following steps can be performed:

1) releasing the connection capability of the first connecting member 40 between the processing material block 30 and its corresponding processing material holder 20; the first connecting member 40 not involved in the processing material block 30 does not have to be disconnected;

2) The processing material block 30 is axially removed from the processing channel 21 of the processing material holder 20, as shown in Fig. 2.

When the person performs the above-described disassembly work, the inside space of the inlet box 3 can be entered via the entrance box maintenance door 3a as shown in Fig. 1, and the removed processing material block 30 is taken out by the maintenance door 3a. In other suitable occasions, personnel may also perform the disassembly operation in the outlet box 4, or a plurality of personnel may cooperate with the outlet box 4 to complete the disassembly operation in the inlet box 3, respectively.

When the treatment material block 30 is installed, the treatment material block 30 is placed in the treatment channel 21, and then the first connection member 40 is installed between the treatment material block body 30 and the treatment material holder 20, for example, the silicone rubber is injected into the treatment material. After the gap 25 between the treated material block 30 and the treated material holder 20 is cured, the treated material block 30 and the treated material holder 20 can be positioned.

In the foregoing embodiment, all the sides 31 of the treated material block 30 are covered by the angle 33, but the number of angles 33 can be actually adjusted, for example, in the second embodiment of the runner shown in Figs. 5 to 7, the angle steel 33 surrounds only the face on the outlet side of the treated material block 30, and the outer surfaces of these angled steels 33 are flush with the other surfaces of the treated material block 30, and the edges 31 at other positions of the treated material block 30 are not covered by the angle 33 . In order to position the angle 33, the angle between the angle 33 and the step 34 can be fixed, for example, by applying a glue to make the angle 33 and the treatment block 30 relatively stationary.

On the other hand, in the third embodiment of the runner illustrated in FIG. 8, the angle 33 is also disposed only at the outlet side of the treatment block 30, but the angle 33 is in direct contact with the treatment material holder 20, and the angle steel 33 and the treatment material holder 20 can even be fixed by adhesive, solder, screw, bolt, etc., and the angle steel 33 and the treatment material block 30 are separably designed, and the angle steel 33 can be restrained in the axial direction. The material block 30 is disengaged toward the outlet side, and the first connecting member 40 (for example, a rubber strip) may be disposed only at a position close to the inlet side. When the processing material block 30 is disassembled, only the connection capability of the first connecting member 40 on the inlet side needs to be released, and the processing material block 30 can be axially removed from the processing side 21 by the inlet side, and the angle steel 33 remains with the processing material holder 20 One of the advantages of such an angle 33 on the outlet side is that the angle 33 is more resistant to the wind pressure experienced by the treated block 30 than the strip (typically most of the fluid flows from the inlet side) On the outlet side, the treatment material block 30 is relatively stable and fixed. In other possible embodiments, the angle steel 33 can also be further fixed to the processing material block 30 by means of bonding. At this time, when the processing material block 30 is to be disassembled, the angle steel 33 must be detached from the processing material block 30 (this The angle steel is considered to be the first joint) or the angle 33 is disconnected from the treatment material support 20 (the angle steel is considered to be part of the treatment block).

In the foregoing embodiment, the unit that can be axially disassembled in the rotating wheel is a processing material block, but in other possible embodiments, the processing material bracket can also be an axially replaceable unit in the rotating wheel, for example, in the first In the fourth embodiment of the reel shown in FIGS. 9 to 12, the reel includes a pivotable shaft 100, a plurality of processing material holders 110, a plurality of processing material blocks 120, a plurality of second connecting members and a cassette. The box 140, wherein the rotating shaft 100, the processing material holder 110 and the processing material block 120 are substantially similar to those disclosed in the foregoing embodiments, in particular, at least one of the processing material holders 110 has an axial direction relative to the rotating shaft 100. The ability to move, that is, at least one processing material holder 110 is axially movably disposed on the rotating shaft 100.

The second connecting member has a connecting capability for connecting the processing material holder 110 having the axial movement capability to the rotating shaft 100, and the connecting capability of the second connecting member can be selectively released; as a possible embodiment, the second connection The components may be, but are not limited to, connectors such as rubber strips, screws, bolts, solders, adhesives, snaps, etc., and the manner in which the connection capability of the second connecting member is released depends on the type of the second connecting member and the connection manner thereof, and is soldered. For example, if the processing material holder 110 and the rotating shaft 100 are connected by welding, a flame spray gun can be used to disconnect the connection between the processing material holder 110 and the rotating shaft 100.

The cassette 140 is for accommodating the rotating shaft 100, the processing material holders 110, the processing material blocks 120 and the second connecting members. The cassette 140 has an inlet 141 and an outlet 142 in the axial direction. An inlet side pivot bracket 143 and an outlet side pivot bracket 144 further include an outer frame 145. The inlet side pivot bracket 143 and the outlet side pivot bracket 144 are respectively located on both axial sides of the outer frame 145. In this embodiment, the inlet-side pivot bracket 143 has a horizontal crossbar 1431, a support ladder 1432 supports the horizontal crossbar 1431 in the longitudinal direction, and a stirrup 1433 spans the middle of the horizontal crossbar 1431, and a positioning bearing 1436. To support the rotating shaft 100, a vertical rod 1434 and two inclined rods 1435, the vertical rod 1434 and the oblique rod 1435 are radiated upward from the jaw 1433 to the outer frame 145 centering on the rotating shaft 100; in this embodiment, The outlet-side pivot bracket 144 has a similar structural design to the inlet-side pivot bracket 143, but in fact, the structural design of the outlet-side pivot bracket 144 and the inlet-side pivot bracket 143 need not be identical, and the inlet-side pivot bracket 143 and the outlet-side pivot bracket 144 The structural design is also not limited to the one shown in this embodiment. The cassette 142 is further provided with a partition 146 on the inlet side hinge bracket 143. The inlet 141 is surrounded by the partition 146. Similarly, the cassette 140 is further provided with a partition 147 on the outlet side pivot bracket 144. The outlet 142 is enclosed by a partition 147 that can be used to limit the flowable area of the fluid.

The rotating shaft 100 is pivotally disposed between the inlet-side rotating shaft bracket 143 and the outlet-side rotating shaft bracket 144. For example, the two ends of the rotating shaft 100 are rotatably disposed on the inlet-side rotating shaft bracket 143 and the outlet-side rotating shaft bracket 144.

The inlet side hinge bracket 143 divides the inlet 141 into a plurality of inlet blocks 1411. For example, the horizontal cross bar 1431 and each of the diagonal rods 1436 are surrounded by an inlet block 1411, and the vertical rod 1435 and the diagonal rods 1436 are Similarly, an inlet block 1411 is also enclosed; likewise, as shown in Fig. 10, the outlet side hinge bracket 144 also divides the outlet 142 into a plurality of outlet blocks 1421. The partitions 146, 147 may include at least one movable partition 1461 adjacent to one of the inlet blocks 1411 or one of the outlet blocks 1421. In the present embodiment, the movable partitions 1461 are adjacent to one of the inlet blocks 1411. In this embodiment, the movable partition plate 1461 is detachably disposed on the outer frame 145. When the movable partition plate 1461 is in the working position, the movable partition plate 1461 is coupled to the outer frame 145 and surrounds the other portion of the partition plate 146. The inlet 141 is such that its immediately adjacent inlet block 1411 is shielded to have a smaller profile, and the movable partition 1461 is partially overlapped in the axial direction with at least one of the processing material holders 110. When the movable partition 1461 is not in the working position, for example, the movable partition 1461 has been detached from the outer frame 145, the at least one processing material support 110 may not overlap with the movable partition 1461 in the axial direction. The contour of the inlet block 1411 immediately adjacent to 1461 is enlarged enough for one of the processing material holders 110 to be axially removed from the cassette via the enlarged inlet block 1411. If the partition 147 on the outlet side also has a movable partition, it is similar in design to the movable partition 1461, and details are not described herein.

The ability of the processing material holder 110 to move axially relative to the rotating shaft 100 is limited before the connection capability of the second connecting member is released. At this time, the processing material holder 110 and the rotating shaft 100 are relatively stationary, and the processing material holder 110 can be coupled with the rotating shaft 100. And turn. On the other hand, when the connecting ability of the second connecting member is released, the corresponding processing material holder 110 resumes its ability to move axially relative to the rotating shaft 100.

When the treatment material holder 110 is to be disassembled, the following steps can be performed:

1) releasing the connection capability of a part of the second connecting member;

2) As shown in Figs. 11 and 12, the treatment material holder 110 corresponding to the second connection member to which the connection is released is axially removed from the cassette 140.

It should be noted that the processing material holder 110 having the axially movable ability and the adjacent processing material holder 110 may also be connected in an appropriate connection manner, and before the processing material holder 110 is moved in the axial direction, The connection relationship with the adjacent processing material holder 110 must be further broken. It should be noted that, if the processing material holder 110 corresponding to the second connecting member capable of being disconnected does not correspond to the enlarged inlet block 1411 in the axial direction, before the step 2) (included in step 1) Before) rotating the wheel first, the treatment material holder 110 to be removed is axially corresponding to the inlet block 1411 immediately adjacent to the movable partition 1461. It should be noted that if the axial movement path of the treatment material holder 110 to be disassembled overlaps with the movable partition 146, the movable partition 146 may be first moved to the inoperative position, so that the movable partition 146 is immediately adjacent to the movable partition 146. The outline of the entrance block 1411 is enlarged (as shown in Fig. 9) to dispose of the material holder 110.

Please refer to FIG. 13 , which mainly shows another arrangement of the movable partition 1461. In more detail, the movable partition 1461 of the embodiment is pivotally disposed on the outer frame 145 by a hinge or other pivoting element. Therefore, the movable partition plate 1461 can be pivoted between the working position and the open position; in FIG. 13, the movable partition plate 1461 is in the open position, and the movable partition plate 1461 can be prevented from overlapping the axial direction of the treatment material holder 110. The contour of the inlet block 1411 immediately adjacent to the movable partition 1461 is enlarged enough that the treatment material holder 110 is axially removed from the cassette 140 via the enlarged inlet block 1411.

It should be noted that, in addition to being detachably or pivotally disposed, the movable partition may be disposed by other means, such as setting the movable partition and other components of the cassette to be relatively slidable, or movable The partition may also be pivotally connected to the inlet side shaft bracket or the outlet side shaft bracket. In addition, it can be understood that if the movable partition is axially overlapped with one of the processing blocks when in the working position, the movable partition is also required to be moved to non-working when the processing block is to be separately disassembled. The position is such that the inlet block or the outlet block immediately adjacent to the movable partition is enlarged enough to be axially removed from the treated material block, and the working principle is the same as that of disassembling the material support.

Please refer to FIG. 14 , which mainly shows another connection manner of the processing material holder 110 and the rotating shaft 100 . The processing material holder 110 and the rotating shaft 100 have corresponding screw holes, and the second connecting member 130 (ie, the screw) is utilized. The two are selectively screwed together.

Referring to Figure 15, in a second embodiment of the fluid processing apparatus of the present invention, a back end processing apparatus 1' is further included, and the back end processing apparatus 1' is further configured to further process the fluid discharged from the outlet box 4, which is applicable. The back end treatment device 1' of the present invention includes, but is not limited to, an incinerator (such as a fuel or catalytic incinerator), a condenser or a fluidized floating bed suction and desorption device, wherein the heat of combustion generated by the incinerator is provided As the heat energy required for the regeneration of the rotor desorption.

Finally, it should be noted that the constituent elements disclosed in the foregoing embodiments are merely illustrative and are not intended to limit the scope of the present invention. Alternatives or variations of other equivalent elements should also be applied for in this case. Covered by the scope.

1‧‧‧ Fluid handling equipment
1'‧‧‧ Back-end processing unit
2‧‧‧runner
2a‧‧‧ entrance side
2b‧‧‧Exit side
3‧‧‧Inlet box
3a‧‧‧Maintenance door
4‧‧‧Outlet box
5‧‧‧Adsorption zone
6‧‧‧Decoupling area
7‧‧‧Desorbed regenerative heat exchange zone
8‧‧‧Desorption gas inlet
9‧‧‧Desorbed gas outlet
10‧‧‧ shaft
11‧‧‧ shaft column
12‧‧‧ Turntable
20‧‧‧Processing material bracket
21‧‧‧Processing channel
25‧‧‧ gap
30‧‧‧Processing block
31‧‧‧ side
32‧‧‧ Face
33‧‧‧Angle
331‧‧ ‧ baffle
332‧‧‧through hole
34‧‧‧
40‧‧‧First connector
100‧‧‧ shaft
110‧‧‧Processing material bracket
120‧‧‧Processing block
130‧‧‧Second connection
140‧‧‧Card box
141‧‧‧ entrance
1411‧‧‧ entrance block
142‧‧ Export
1421‧‧‧Export block
143‧‧‧Inlet side hinge bracket
1431‧‧‧ horizontal rail
1432‧‧‧Support ladder
1433‧‧‧栱
1434‧‧‧ pole
1435‧‧‧ diagonal rod
1436‧‧‧ Positioning bearing
144‧‧‧Exit side shaft bracket
145‧‧‧Front frame
146‧‧ ‧ partition
1461‧‧‧ movable partition
147‧‧ ‧ partition

Figure 1 is a perspective view of a first embodiment of a fluid processing apparatus.

Figure 2 is a partial exploded view of the first embodiment of the runner.

Figure 3 is a front view of the first embodiment of the runner.

Figure 4 is a cross-sectional view taken along line 4-4 of Figure 3.

Figure 5 is a perspective view of a second embodiment of the runner.

Figure 6 is a partial exploded view of the second embodiment of the runner.

Fig. 7 is a cross-sectional view showing a second embodiment of the runner, the cross-sectional position of which is similar to that of Fig. 4.

Figure 8 is a cross-sectional view showing a third embodiment of the runner, the cross-sectional position of which is similar to that of Figure 4.

Figure 9 is a partial exploded view of the fourth embodiment of the runner with the movable diaphragm not in the working position.

Figure 10 is a perspective view of a fourth embodiment of the runner, mainly showing the exit side structure of the runner.

Figure 11 is a partial exploded view of the fourth embodiment of the runner with the treatment material holder removed axially out of the cassette.

Figure 12 is a side elevational view of a fourth embodiment of the runner with the treatment material holder removed axially out of the cassette.

Figure 13 is a perspective view of a fifth embodiment of the runner with the movable partition in the open position.

Figure 14 is a partially exploded front elevational view of the sixth embodiment of the runner.

Figure 15 is a perspective view of a second embodiment of the fluid processing apparatus.

2‧‧‧runner

10‧‧‧ shaft

11‧‧‧ shaft column

12‧‧‧ Turntable

20‧‧‧Processing material bracket

21‧‧‧Processing channel

30‧‧‧Processing block

31‧‧‧ side

32‧‧‧ Face

33‧‧‧Angle

Claims (17)

a rotating wheel having an inlet side and an outlet side in the axial direction, the rotating wheel is configured to flow a fluid between an inlet side and an outlet side thereof, the rotating wheel comprising: a shaft pivotable; at least one processing material a scaffold having at least one processing channel, the processing material support being disposed on the rotating shaft; at least one processing material block being filled in the processing channel of the processing material support, the processing material block having an axial direction opposite to the processing material support The ability to move; and a plurality of first connectors having a connection capability to connect the processing block to the processing material holder, and the connection capability of the first connector can be selectively released; when the first connector The ability of the processing material block to move axially relative to the processing material support is limited before the connection capability is released; when the connection capability of the first connecting member is released, the processing material block recovers relative to the processing material The ability of the bracket to move axially. The reel according to claim 1, wherein the processing material holder has a gap between the processing material holder and the processing material block, and the first connecting member is a rubber strip at least partially filled in the gap. The runner according to claim 1, wherein the processing material holder has a gap between the processing material block and the processing material block, and the first connecting member further has one of an inlet side and an outlet side of the rotating wheel. The side flows through the gap to the ability of the other side of the inlet side and the outlet side of the rotor. The wheel of claim 1, wherein at least a portion of the first connector is located on an inlet side of the wheel. The runner according to claim 1, wherein the processing material block has a plurality of sides and a plurality of faces respectively surrounded by the plurality of sides, and at least one side of the processing material block is provided with an angle steel covering the angle steel A partial surface of two adjacent faces of the treated material block. The rotor of claim 5, wherein the plurality of sides of one side of the processing material block are provided with the angle steel. A runner as claimed in claim 6 wherein the face surrounded by the angle is located on the exit side of the runner. The rotor of claim 5, wherein the processing material block has a step on an edge provided with an angle steel, the angle steel is disposed at the step, and the outer surface of the angle steel and the two adjacent surfaces are not The angle covered by the angle steel is flush. The reel according to claim 5, wherein at least a portion of the angle steel has a baffle on the inlet side or the outlet side of the reel, and the baffle is provided with a through hole in the axial direction. A runner having an inlet side and an outlet side in the axial direction, the runner being for flowing fluid between its inlet side and the outlet side, the runner comprising: a cassette; a pivotable shaft And a plurality of processing material holders respectively surrounding at least one processing channel and being received in the cassette, the processing material holders are disposed on the rotating shaft, and at least one processing material holder has The ability to move axially relative to the spindle within the cassette; a plurality of processing block bodies, respectively filled in the processing channels of the processing material holders; and a plurality of second connectors having at least a portion of the processing material The connecting capability of the bracket is coupled to the rotating shaft, and the connecting capability of the second connecting member can be selectively released; the ability of the processing material bracket to move axially relative to the rotating shaft before the connecting capability of the second connecting member is released When the connection capability of the second connector is released, the corresponding processing material holder recovers its ability to move axially relative to the rotation axis within the cassette. A method for disassembling a rotor processing material block according to any one of claims 1 to 9, comprising the steps of: 1) releasing a connection capability of at least a portion of the first connector; and 2) corresponding The processing material block of the first connector that is uncoupled is axially removed from the processing channel of the processing material holder. A method for disassembling a runner handling material holder for a runner as claimed in claim 10, comprising the steps of: 1) releasing the connection capability of at least a portion of the second connector; and 2) corresponding to the ability to be disconnected The treatment material holder of the second connector is axially removed. The method for disassembling the reel processing material holder according to claim 12, further comprising the step of breaking the connection relationship between the processing material holder to be axially removed and its adjacent processing material holder. A fluid processing apparatus comprising: a reel according to any one of claims 1 to 10; an inlet box disposed on an inlet side of the reel; and an outlet box disposed at an outlet side of the reel The fluid processing apparatus is configured to allow at least a portion of the fluid to be introduced into the wheel from the inlet box and discharged from the outlet box. A fluid processing apparatus according to claim 14 which is a honeycomb zeolite concentrator for gas purification treatment, the fluid treatment apparatus comprising an adsorption zone, a desorption zone and a desorption regeneration heat exchange zone. The fluid processing apparatus of claim 14 further comprising a back end processing device for further processing fluid discharged from the outlet tank, the back end treatment device being an incinerator, a condenser or a fluidized floating bed suction Desorption equipment. The fluid processing apparatus of claim 15 further comprising a back end processing device for further processing fluid discharged from the outlet tank, the back end treatment device being an incinerator, a condenser or a fluidized floating bed suction Desorption equipment.