TW202220739A - Reverse cross-flow supergravity device with gas blocking ring wall including a casing, a bearing seat, a rotating shaft, a rotating bed unit and a liquid guiding tube - Google Patents

Abstract

A reverse cross-flow supergravity device with a gas blocking ring wall includes a casing, a bearing seat, a rotating shaft, a rotating bed unit and a liquid guiding tube. The rotating bed unit includes a base plate, a perforated top plate, a filling layer and a gas blocking ring wall. The base plate is connected to the rotating shaft. The perforated top plate allows a fluid to pass through and is connected to the casing by a first dynamic seal. The filling layer has a bottom surface, a top surface and an outer peripheral surface. The gas blocking ring wall surrounds a partial outer peripheral surface adjacent to the outer peripheral edge of the top surface and is spaced from the base plate to block gas from penetrating the partial outer peripheral surface. The reverse cross-flow supergravity device with the gas blocking ring wall of the present invention can additionally generate the function and effect of a cross-flow supergravity device in the reverse-flow supergravity device, and can keep the advantages of the reverse-flow supergravity device.

Description

Reverse cross-flow hypergravity device with choke wall

The present invention relates to a supergravity device, in particular to a reverse cross-flow supergravity device with a gas-blocking ring wall.

Existing hypergravity devices can be used to intercept and remove aerosols or soluble gaseous pollutants in the gas. However, if a counter-flow supergravity device is used, the contact time between the gas and the liquid is short, and the effect of removing pollutants is relatively limited; if a cross-flow supergravity device is used, holes are usually dug in the rotating bed substrate connected to the rotating shaft. Alternatively, the rotating bed base plate is replaced with support ribs for the gas to pass through. Therefore, a thicker rotating bed base plate or reinforced support ribs can be used to maintain the structure of the rotating bed, thereby increasing the manufacturing constraints of the supergravity device. In addition, when the concentration of suspended particles is high, if a cross-flow supergravity device is used, the openings on the outer peripheral surface of the rotating bed are generally small, so that the intercepted suspended particles are easily blocked or accumulated in the rotating bed.

Therefore, the purpose of the present invention is to provide a reverse cross-flow supergravity device with a gas choke ring wall, which can avoid the above-mentioned problems that are prone to occur in the prior art.

Therefore, the reverse cross-flow supergravity device with choke wall of the present invention includes a housing, a bearing seat, a rotating shaft, a rotating bed unit and a liquid conduit. The casing includes a bottom wall, a top wall and a surrounding wall. The top wall is opposite to the bottom wall and has a gas outlet for leading gas out of the casing. The surrounding wall is connected to the bottom wall and the top wall and has an air inlet for introducing gas into the casing. The bearing seat passes through the bottom wall. The rotating shaft is rotatably passed through the bearing seat. The rotating bed unit is arranged in the housing. The rotating bed unit includes a base plate, an annular opening top plate opposite to the base plate in the axial direction of the rotating shaft, a filling layer in the shape of a hollow cylinder and allowing fluid to penetrate, and a gas choke ring wall. The base plate is connected to the rotating shaft and is spaced apart from the housing. The perforated top plate allows fluid to pass through and is connected to the housing by a first dynamic seal. The filling layer extends from the base plate in the direction opposite to the bearing seat to the perforated top plate in the axial direction of the rotating shaft, and has an annular bottom surface in contact with the base plate, and a bottom surface in contact with the perforated top plate and in the shape of an annular shape. An annular top surface, an outer peripheral surface connected to the outer peripheral edge of the bottom surface and the outer peripheral edge of the top surface, and an inner peripheral surface connected to the inner peripheral edge of the bottom surface and the inner peripheral edge of the top surface. The inner peripheral surface defines a liquid spraying space inside. The baffle ring wall surrounds a portion of the outer peripheral surface adjacent to the outer peripheral edge of the top surface of the filling layer, and is spaced from the substrate to block the gas introduced into the housing from the air inlet from directly penetrating the outer peripheral surface adjacent to the filling layer. Part of the outer peripheral surface of the outer peripheral edge of the top surface. The liquid conduit extends from outside the housing into the liquid injection space and is spaced from the rotating bed unit.

The effect of the present invention is that the reverse cross-flow supergravity device with the gas choke wall of the present invention can additionally generate a cross-flow supergravity device in the counter-flow supergravity device without changing the substrate design of the rotating bed unit. The function and effect, and can retain the advantages of the counter-flow supergravity device.

The content of the present invention will be described in detail below:

In some specific embodiments of the present invention, the reverse cross-flow supergravity device with a gas choke ring wall further includes a baffle plate disposed above the rotating bed unit, which cooperates with the inner peripheral surface of the packing layer to define together out of the liquid spray space, so as to block the gas between the outer peripheral surface and the inner peripheral surface of the filling layer from entering the liquid spray space, and the liquid conduit passes through the partition plate.

More preferably, the partition is connected to the perforated top plate by a second dynamic seal.

More preferably, the liquid conduit includes at least two liquid conduit branches extending toward the base plate of the rotating bed unit, and the liquid conduit branches are arranged in the liquid spray space at intervals. Still more preferably, the ends of the liquid conduit branches are located in the liquid spray space, and the pipe wall of the end of each liquid conduit branch has a plurality of openings facing the filling layer. Still more preferably, the liquid conduit branches do not have openings in the pipe wall adjacent to the top surface of the packing layer.

In other embodiments of the present invention, the liquid conduit penetrates through the perforated top plate and extends toward the base plate of the rotating bed unit through a third dynamic seal, and the end of the liquid conduit is located in the liquid spray space , and the wall of the end of the liquid conduit has a plurality of openings facing the filling layer.

Preferably, the filling layer is in the shape of a hollow cylinder, the gas blocking ring wall is annular, and the gas blocking ring wall and the filling layer are arranged coaxially.

Preferably, the choke ring wall has a plurality of small holes. More preferably, the small holes are disposed on the gas choke ring wall at intervals and away from the top surface of the filling layer.

Before the present invention is described in detail, it should be noted that in the following description, similar elements are designated by the same reference numerals.

The present invention will be further described with respect to the following examples, but it should be understood that these examples are only used for illustration and should not be construed as a limitation of the implementation of the present invention.

Referring to FIGS. 1 and 2 , a first embodiment of a reverse cross-flow supergravity device having a choke ring wall 43 of the present invention includes a housing 1, a bearing seat 2, a rotating shaft 3, a rotating bed unit 4, A liquid conduit 5 and a partition 7 .

The casing 1 includes a bottom wall 11 , a top wall 12 and a surrounding wall 13 . The top wall 12 is opposite to the bottom wall 11 and has an air outlet 121 for exporting air to the outside of the casing 1 . The surrounding wall 13 is connected to the bottom wall 11 and the top wall 12 and has an air inlet 131 for introducing gas into the casing 1 .

The bearing seat 2 passes through the bottom wall 11 .

The rotating shaft 3 is rotatably passed through the bearing seat 2 .

The rotating bed unit 4 is arranged in the housing 1 . The rotating bed unit 4 includes a base plate 41 , a perforated top plate 44 , a packing layer 42 and a choke ring wall 43 .

The base plate 41 is connected to the rotating shaft 3 and is spaced apart from the housing 1 .

The perforated top plate 44 is annular relative to the base plate 41 in the axial direction of the rotating shaft 3 , the perforated top plate 44 allows fluid to pass through and is connected to the housing 1 through a first dynamic seal 61 .

The filling layer 42 has a hollow cylindrical shape and allows fluid to penetrate. The filling layer 42 extends from the base plate 41 in the direction opposite to the bearing seat 2 to the perforated top plate 44 in the axial direction of the rotating shaft 3 , and has a An annular bottom surface 421 in contact with the base plate 41 , a annular top surface 422 in contact with the opening top plate 44 , an outer peripheral surface 423 connected to the outer peripheral edge of the bottom surface 421 and the outer peripheral edge of the top surface 422 , and An inner peripheral surface 424 connected to the inner peripheral edge of the bottom surface 421 and the inner peripheral edge of the top surface 422 . The inner peripheral surface 424 defines an internal spray space 40 .

In this embodiment, the bottom wall 11 of the casing 1 is non-planar, and the distance from the bottom wall 11 to the base plate 41 increases gradually as the bearing seat 2 goes toward the surrounding wall 13 of the casing 1 .

The baffle ring wall 43 surrounds a portion of the outer peripheral surface 423 adjacent to the outer peripheral edge of the top surface 422 of the filling layer 42 and is spaced apart from the substrate 41 to block the gas introduced into the housing 1 from the air inlet 131 directly. A portion of the outer peripheral surface 423 adjacent to the outer peripheral edge of the top surface 422 of the filling layer 42 is penetrated. In this embodiment, the choke ring wall 43 has a plurality of small holes 431 , and the small holes 431 are disposed in the gas choke ring wall 43 at intervals and away from the top surface 422 of the filling layer 42 .

In this embodiment, the filling layer 42 is in the shape of a hollow cylinder, the gas blocking ring wall 43 is annular, and the gas blocking ring wall 43 and the filling layer 42 are coaxially disposed.

The liquid conduit 5 extends from the outside of the casing 1 into the liquid spray space 40 and penetrates the partition 7 and is spaced from the rotating bed unit 4 .

The baffle 7 is disposed above the rotating bed unit 4 and cooperates with the inner peripheral surface 424 of the packing layer 42 to define the liquid spray space 40 to block the outer peripheral surface 423 and the inner peripheral surface of the packing layer 42 The gas between 424 enters the spray space 40 . In this embodiment, the partition plate 7 is connected to the opening top plate 44 through a second dynamic seal 62 .

In this embodiment, the liquid conduit 5 includes four liquid conduit branches 51 extending toward the base plate 41 of the rotating bed unit 4 , and the liquid conduit branches 51 are arranged in the liquid spray space 40 at intervals. The end of the liquid conduit branch 51 is located in the liquid spray space 40 , and the pipe wall of the end of each liquid conduit branch 51 has a plurality of openings 52 facing the filling layer 42 . In this embodiment, the perforated top plate 44 is circular, the inner periphery of the top surface 422 of the filling layer 42 is circular, and the partition 7 is disc-shaped.

Referring to FIG. 3 , the second embodiment of the reverse cross-flow supergravity device having the choke ring wall 43 of the present invention is similar to the first embodiment, the difference is that in the second embodiment, the reverse cross-flow supergravity device is The gravity device does not include the partition plate 7, the liquid conduit 5 passes through the opening top plate 44 through a third dynamic seal 63 and extends toward the base plate 41 of the rotating bed unit 4 into the liquid spray space 40, the liquid The end of the conduit 5 is located in the liquid spray space 40 , and the wall of the end of the liquid conduit 5 has a plurality of openings 52 facing the filling layer 42 .

When the rotating shaft 3 is externally driven to rotate to rotate the rotating bed unit 4 relative to the housing 1, a liquid (such as water) enters the spray liquid from the opening 52 of the liquid conduit 5 or its liquid conduit branch 51 The space 40 is sprayed toward the filling layer 42 , and the liquid contacting the filling layer 42 will flow outward in the radial direction of the rotating shaft 3 by the centrifugal force generated by the rotation. At the same time, the gas containing pollutants (such as suspended particles or soluble gaseous pollutants) is introduced into the housing 1 through the air inlet 131 , and the gas blocked by the gas choke ring wall 43 will pass along the gas choke ring wall 43 . The flow is dispersed from the outside to both sides, so as to avoid excessive concentration entering the filling layer 42 from an orientation close to the air inlet 131 . After the gas enters the filling layer 42 from the part of the outer peripheral surface 423 adjacent to the outer peripheral edge of the bottom surface 421 of the filling layer 42 (ie, the part of the outer peripheral surface 423 away from the outer peripheral edge of the top surface 422 of the filling layer 42 ), the gas enters the filling layer 42 . In 42, the liquid is first contacted in a countercurrent manner, and particles with larger particle size or gaseous pollutants easily dissolved in the liquid can be brought out of the filling layer 42 by the liquid first; then, the gas is in the filling layer 42. The layer 42 turns toward the air outlet 121 and contacts the liquid in a cross-flow manner, thereby obtaining a longer flow path in the filling layer 42 and the contact time with the liquid, which can effectively remove particles with smaller particle size or It is a gaseous pollutant with a small dissolution rate. The baffle 7 in the first embodiment and the third dynamic seal 63 in the second embodiment can further prolong the gas flow path and the gas-liquid contact time, and improve the effect of removing pollutants in a cross-flow manner.

In the described embodiment, the small holes 431 on the choke ring wall 43 can allow the liquid accumulated inside the choke ring wall 43 to be discharged to the outside of the choke ring wall 43 by centrifugal force.

In addition, in the first embodiment, the liquid conduit branches 51 do not have openings 52 in the pipe wall adjacent to the top surface 422 of the filling layer 42 , in the second embodiment, the liquid conduit 5 is adjacent to the The tube wall of the top surface 422 of the filling layer 42 does not have openings 52 , so the fine droplets entrained by the gas can be further removed by the filling layer 42 near the top surface 422 of the filling layer 42 (that is, not by the filling layer 42 ). The top surface 422) of the filling layer 42 is entrained, thereby producing the effect of removing liquid mist.

To sum up, the reverse cross-flow supergravity device with the choke ring wall 43 of the present invention can be operated in the counter-flow type without changing the design of the base plate 41 of the rotating bed unit 4 by the setting of the choke ring wall 43 . The function and effect of the cross-flow super-gravity device are additionally generated in the super-gravity device, and the advantages of the counter-flow super-gravity device can be retained, so the object of the present invention can be achieved indeed.

However, the above are only examples of the present invention, and should not limit the scope of the present invention. Any simple equivalent changes and modifications made according to the scope of the application for patent of the present invention and the content of the patent specification are still within the scope of the present invention. within the scope of the invention patent.

1: Shell 11: Bottom wall 12: Top Wall 121: air outlet 13: Surrounding the Wall 131: Air intake 2: Bearing seat 3: Rotary axis 4: Rotary bed unit 40: Spray space 41: Substrate 42: Filler layer 421: Underside 422: top surface 423: Peripheral surface 424: inner surface 43: choke ring wall 431: Small hole 44: Opening top plate 5: Liquid conduit 51: Liquid conduit branch 52: Opening 61: First dynamic seal 62: Second dynamic seal 63: The third dynamic seal 7: Partition

Other features and effects of the present invention will be clearly presented in the embodiments with reference to the drawings, wherein: [Fig. 1] is a schematic cross-sectional view of a first embodiment of a reverse cross-flow supergravity device with a gas choke ring wall of the present invention; [FIG. 2] is a perspective exploded schematic view of a rotating bed unit and a partition of the first embodiment; and [ FIG. 3 ] is a schematic cross-sectional view of a second embodiment of a reverse cross-flow supergravity device with a gas choke ring wall according to the present invention.

1: Shell

11: Bottom wall

12: Top Wall

121: Air outlet

13: Surrounding the Wall

131: Air intake

2: Bearing seat

3: Rotary axis

4: Rotary bed unit

40: Spray space

41: Substrate

42: Filler layer

421: Underside

422: top surface

423: Peripheral surface

424: inner surface

43: choke ring wall

44: Opening top plate

5: Liquid conduit

51: Liquid conduit branch

52: Opening

61: First dynamic seal

62: Second dynamic seal

7: Partition

Claims (10)

A reverse cross-flow hypergravity device with choke walls, comprising: A casing includes a bottom wall, a top wall opposite to the bottom wall, and a surrounding wall connected to the bottom wall and the top wall, the top wall has an air outlet for leading out gas to the outside of the casing, the having an air inlet around the wall for introducing gas into the housing; a bearing seat, passing through the bottom wall; a rotating shaft, rotatably passing through the bearing seat; A rotating bed unit, arranged in the casing, the rotating bed unit includes: a base plate, connected to the rotating shaft and spaced apart from the housing, an annular perforated top plate relative to the base plate in the axial direction of the rotating shaft, the perforated top plate allows fluid to pass through and is connected to the housing by a first dynamic seal, A filling layer in the shape of a hollow cylinder and allowing fluid to penetrate, extends from the base plate in the direction opposite to the bearing seat to the perforated top plate in the axial direction of the rotating shaft, the filling layer has a contact with the base plate and is An annular bottom surface, an annular top surface in contact with the opening top plate, an outer peripheral surface connected to the outer peripheral edge of the bottom surface and the outer peripheral edge of the top surface, and an inner peripheral edge connected to the bottom surface and the top surface. the inner peripheral surface of the inner peripheral edge, the inner peripheral surface defining a liquid spray space located inside, and A gas choke ring wall surrounds a portion of the outer peripheral surface adjacent to the outer peripheral edge of the top surface of the filling layer and is spaced from the substrate to block the gas introduced into the housing from the air inlet from directly penetrating adjacent to the filling layer part of the outer perimeter of the outer perimeter of the top surface; and A liquid conduit extends from the exterior of the housing into the liquid spray space and is spaced from the rotating bed unit. The reverse cross-flow supergravity device with a choke ring wall as claimed in claim 1, further comprising a baffle plate disposed above the rotating bed unit, which cooperates with the inner peripheral surface of the packing layer to jointly define the jetting The liquid space is used to block the gas between the outer peripheral surface and the inner peripheral surface of the filling layer from entering the liquid spraying space, and the liquid conduit is penetrated through the partition plate. The reverse cross-flow supergravity device with choke ring wall as claimed in claim 2, wherein the partition plate is connected to the perforated top plate by a second dynamic seal. The reverse cross-flow hypergravity device with choke wall as claimed in claim 2, wherein the liquid conduit comprises at least two liquid conduit branches extending toward the base plate of the rotating bed unit, the liquid conduit branches They are spaced apart from each other in the liquid ejection space. The reverse cross-flow supergravity device with a gas choke wall as claimed in claim 4, wherein the ends of the liquid conduit branches are located in the liquid spray space, and the pipe wall at the end of each liquid conduit branch There are a plurality of openings facing the filling layer. The reverse cross-flow hypergravity device with a gas choke ring wall as claimed in claim 5, wherein the liquid conduit branches do not have openings in the pipe wall adjacent to the top surface of the packing layer. The reverse cross-flow supergravity device with choke wall as claimed in claim 1, wherein the liquid conduit is penetrated through the perforated top plate by a third dynamic seal and extends toward the base plate of the rotating bed unit , the end of the liquid conduit is located in the liquid spray space, and the pipe wall of the end of the liquid conduit has a plurality of openings facing the filling layer. The reverse cross-flow supergravity device with a gas choke ring wall as claimed in claim 1, wherein the filling layer is in the shape of a hollow cylinder, the gas choke ring wall is in a circular ring shape, and the gas choke ring wall is in the shape of a hollow cylinder. The filling layers are arranged coaxially. The reverse cross-flow hypergravity device with a choke ring wall as claimed in claim 1, wherein the choke ring wall has a plurality of small holes. The reverse cross-flow supergravity device with a choke ring wall as claimed in claim 9, wherein the small holes are disposed on the choke ring wall at intervals and away from the top surface of the filling layer.

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