Closed photo catalyst carrier structure and pollutants treatment system thereof

A photocatalyst and closed technology, which is applied in the field of closed photocatalyst carrier structure and its pollutant treatment system, can solve the problems of weak processing capacity, reducing the contact probability of pollutants and photocatalyst, and small fluid resistance.

Inactive Publication Date: 2008-06-18
杨小明
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  • Summary
  • Abstract
  • Description
  • Claims
  • Application Information

AI Technical Summary

Problems solved by technology

[0008] The above-listed patent applications have proposed photocatalyst carrier structures of different structures. Although these carrier structures can obtain a very large effective specific surface area for ultraviolet light irradiation, like any technology, there are still some weak points in these carrier structures, such as , the fluid resistance of the carrier structure is small, when the po...

Method used

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  • Closed photo catalyst carrier structure and pollutants treatment system thereof
  • Closed photo catalyst carrier structure and pollutants treatment system thereof
  • Closed photo catalyst carrier structure and pollutants treatment system thereof

Examples

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Embodiment 1

[0046] In embodiment 1 shown in Fig. 10, photocatalyst carrier structure comprises photocatalyst carrier structural part 10 and barrier plate 14, and catalyst carrier structural part 10 comprises several photocatalyst carrier porous material sheets 11 and ultraviolet light source 12, and barrier plate 14 is arranged on photocatalyst On both sides of the gap formed between the carrier porous material sheet 11, when the pollutant fluid flows from the A side of the photocatalyst carrier structural part 10 to the B side, due to the blocking effect of the barrier plate 14, the pollutant fluid does not flow from the photocatalyst carrier porous material sheet. 11 directly pass through the gap formed between them, but flow through the pores of the photocatalyst carrier porous material sheet. In this embodiment, the barrier plate 14 is disposed on one side of the thin plate 11 and forms a semi-closed cavity with the thin plate 11 . The photocatalyst carrier structure part 10 is an axi...

Embodiment 2

[0048] In embodiment 2 shown in Fig. 11, photocatalyst carrier structure comprises photocatalyst carrier structural parts 10 and barrier plate 14, and photocatalyst carrier structural part 10 comprises some photocatalyst carrier porous material sheets 11 and ultraviolet light source 12, and barrier plate 14 is arranged on photocatalyst carrier On both sides of the gap formed between the porous material sheet 11, when the pollutant fluid flows from the A side of the photocatalyst carrier structural part 10 to the B side, due to the blocking effect of the barrier plate 14, the pollutant fluid does not flow from the photocatalyst carrier porous material sheet. 11 directly pass through the gap formed between them, but flow through the pores of the photocatalyst carrier porous material sheet 11. In this embodiment, the barrier plate 14 is disposed on one side of the thin plate 11 and forms a semi-closed cavity with the thin plate 11 . The photocatalyst carrier structure component 1...

Embodiment 3

[0050] In embodiment 3 shown in Figure 12, the photocatalyst carrier structure comprises photocatalyst carrier structural parts 10 and barrier plate 14, and photocatalyst carrier structural part 10 comprises some photocatalyst carrier porous material thin plates 11 and ultraviolet light source 12, and barrier plate 14 is arranged on photocatalyst On both sides of the gap formed between the carrier porous material sheet 11, when the pollutant fluid flows from the A side of the photocatalyst carrier structure 10 to the B side, due to the blocking effect of the barrier plate 14, the pollutant fluid does not flow from the photocatalyst carrier porous material sheet 11 directly pass through the gap formed between them, but flow through the pores of the photocatalyst carrier porous material sheet. In this embodiment, the barrier plate 14 is disposed on one side of the thin plate 11 and forms a partly fully closed and partly semi-closed cavity with the thin plate 11 . The photocataly...

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Abstract

The invention discloses an enclosed-type photo-catalytic-carrier structure and the pollutant disposal system. The structure includes a plurality of photo-catalytic-carrier sheets and ultraviolet sources, wherein, all sheets are photo-catalytic-carrier porosint sheets, with a plurality of sheets are arranged and combined around the ultraviolet source; photo-catalysts are carried on the surface of each sheet; clearances for pollutant fluid to flow are left between each sheet and are enclosed or partly-enclosed. While the pollutant fluid flows through the carrier structure, the pollutant fluid flows from the corresponding clearance after resorting in cavities, so that the circulation path and the residence time of the pollutant fluid are changed. As the photo-catalysts on the carriers can be fully contacted, the contacting probability between the pollutant fluid and photo-catalytic carriers is increased, so that the pollutant disposal capacity is enhanced and the purification efficiency of carrier structure or the pollutant system formed by carrier structures to the pollutant fluid is greatly improved.

Description

technical field [0001] The invention relates to a photocatalyst processor for filtering pollutant fluid, more specifically to a closed photocatalyst carrier structure and a pollutant treatment system thereof. Background technique [0002] The photocatalytic properties of photocatalysts (such as nano-titanium dioxide) were discovered by Professor Fujiyu Akira in Japan in 1972, and have been extensively studied and applied so far. The basic principle of photocatalysis is: when semiconductor oxide (such as titanium dioxide) nanoparticles are irradiated by photons (such as ultraviolet light) with energy greater than the forbidden band width, electrons transition from the valence band to the conduction band, generating electron-hole pairs. Electrons are reducing, and holes are oxidizing. Holes react with OH- on the surface of oxide semiconductor nanoparticles to generate highly oxidizing OH radicals. Active OH radicals can oxidize many refractory organic compounds into CO2 and I...

Claims

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Application Information

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IPC IPC(8): B01J19/12B01J32/00B01J35/02B01D53/86C02F1/32
Inventor 杨小明
Owner 杨小明
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