Submicron gas purification apparatus and modular filtering chamber device
Patent Information
- Application Number
- TW114129683
- Authority / Receiving Office
- TW · TW
- Patent Type
- Patents
- Current Assignee / Owner
- Filing Date
- 2025-08-04
- Publication Date
- 2026-10-11
- Estimated Expiration
- 2045-08-03
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Figure TWG2TB001915603_001 
Figure TWG2TB001915603_002 
Figure TWG2TB001915603_003
Abstract
Claims
1. A submicron-level gas purification and treatment device, comprising: A first filter chamber (10) includes an inlet (11), a filter baffle (12), and a connecting port (13). The inlet (11) is connected to a fluid pressurizing device (20) and supplies gas to the filter baffle (12). The connecting port (13) is located on the other side of the filter baffle (12) to supply the gas to a second filter chamber (30). The second filter chamber (30) includes multiple filters (31) and a plate (32). The filters (31) sequentially include an end filter unit (311), a relay filter unit (312), and a flow guide bottom cover unit (313) connected to each other from top to bottom. The end filter unit (311) and the relay filter unit (312) both have a flat hollow shape. The hollow structure (317) has an air outlet (318) and a plurality of steering guide holes (314) connected to the bottom of the hollow structure (317). Each steering guide hole (314) is formed in a single manufacturing method and has an air inlet channel (3141) located on one side below a hollow disc structure (3143) and an air outlet channel (3142) located on the other side above the hollow disc structure (3143). The air inlet channel (3141) is directly opposite the first upper wall (3144) of the hollow disc structure (3143), and the air outlet channel (3142) is directly opposite a second upper wall (3171) of the hollow structure (317). An output chamber (40) is located directly above the plate (32). The end filter unit (311) passes through and is fixed to the plate (32). After the end filter unit (311) is connected to at least one relay filter unit (312), a plurality of the air outlets (318) form a connecting channel (3180). The connecting channel (3180) passes through the plate (32) to guide the gas to the output chamber (40).
2. A submicron-level gas purification and treatment device as described in claim 1, wherein, These steering guide holes (314) can be modularly expanded and arranged along the axial or radial direction of the filter (31).
3. A submicron-level gas purification and treatment device as described in claim 1, wherein, Each of the aforementioned steering guide holes (314) has an intake passage (3141) and an exhaust passage (3142) with a diameter of approximately 1.5-5 mm.
4. A submicron-level gas purification and treatment device as described in claim 1, wherein, The steering guide hole (314) has a sleeve (316) and the air outlet of the communication port (13) is perpendicular to the wall of the sleeve (316).
5. A submicron-level gas purification and treatment device as described in claim 1, wherein, Furthermore, the relay filtration unit (312) and the flow guide bottom cover unit (313) have an angled housing (315).
6. A submicron-level gas purification and treatment device as described in claim 1, wherein, The relay filtration unit (312) can be configured in multiples and modularly assembled in series along the axial direction of the filter (31), and the number of units connected in series can be flexibly adjusted according to the gas flow rate and pressure conditions.
7. A submicron-level gas purification and treatment device as described in claim 2, wherein, The distance between any two adjacent steering guide holes (314) is greater than the diameter of the intake passages (3141) and the exhaust passages (3142).
8. A submicron-level gas purification and treatment device as described in claim 1, further comprising a control device (50) disposed beside the fluid pressurization device (20), wherein, The control device (50) is electrically connected to the fluid pressurization device (20).
9. A submicron-level gas purification and treatment device as described in claim 8, wherein, The control device (50) can control the output speed of one of the fluid pressurizing devices (20).
10. A single-cell filter chamber device (200), comprising: A housing (60) includes a single air inlet (61), a single air outlet (62) and a single drain outlet (63). A filter (31) is provided inside the housing (60). The filters (31) are sequentially arranged from top to bottom, including an end filter unit (311), at least one intermediate filter unit (312) and a flow guide bottom cover unit (313) which are fixedly connected to each other. Both the end filter unit (311) and the relay filter unit (312) have a flat hollow structure (317) and an air outlet (318). The bottom of the hollow structure (317) is connected to a plurality of turning guide holes (314). Each turning guide hole (314) is formed in a single manufacturing method and has an air inlet channel (3141) located on one side below a hollow disc structure (3143) and an air outlet channel (3142) located on the other side above the hollow disc structure (3143). The air inlet channel (3141) is directly opposite the first upper wall (3144) of the hollow disc structure (3143), and the air outlet channel (3142) is directly opposite the second upper wall (3171) of the hollow structure (317). The flow guide bottom cover unit (313) is located at the very end of the filter (31), and has a bottom cover protrusion (3131) for engaging with a relay groove (3122) of the relay filter unit (312). The bottom of the flow guide bottom cover unit (313) has a barrier wall (3132), the surface of which is located below the relay filter unit (312) and is positioned relative to the positions of the plurality of turning guide holes (314), so that there is no straight airflow channel below the turning guide holes (314). Both the flow guide bottom cover unit (313) and the relay filter unit (312) have a conical angled shell (315); wherein, the filter (31) is fitted with a sleeve (316), and the unit air inlet (61) faces the outer wall of the sleeve (316), so that after a gas enters from the unit air inlet (61), it enters from the opening below the sleeve (316), passes through the plurality of turning guide holes (314) and the air outlet (318) in sequence, and is discharged from the unit air outlet (62).
Citation Information
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