WO2019127430A1 - 一种流动水杀菌装置 - Google Patents

一种流动水杀菌装置 Download PDF

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Publication number
WO2019127430A1
WO2019127430A1 PCT/CN2017/120000 CN2017120000W WO2019127430A1 WO 2019127430 A1 WO2019127430 A1 WO 2019127430A1 CN 2017120000 W CN2017120000 W CN 2017120000W WO 2019127430 A1 WO2019127430 A1 WO 2019127430A1
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ultraviolet radiation
fluid chamber
fluid
flowing water
chamber
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PCT/CN2017/120000
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English (en)
French (fr)
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何宗江
贾志强
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深圳前海小有技术有限公司
深圳市海司恩科技有限公司
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Priority to PCT/CN2017/120000 priority Critical patent/WO2019127430A1/zh
Publication of WO2019127430A1 publication Critical patent/WO2019127430A1/zh

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    • C—CHEMISTRY; METALLURGY
    • C02—TREATMENT OF WATER, WASTE WATER, SEWAGE, OR SLUDGE
    • C02F—TREATMENT OF WATER, WASTE WATER, SEWAGE, OR SLUDGE
    • C02F1/00—Treatment of water, waste water, or sewage
    • C02F1/30—Treatment of water, waste water, or sewage by irradiation
    • C02F1/32—Treatment of water, waste water, or sewage by irradiation with ultraviolet light

Definitions

  • the invention relates to the field of ultraviolet sterilization technology, in particular to a flowing water sterilization device.
  • Sterilization of flowing water is a difficult point in the water field. How to ensure the sterilization efficiency? The problem that is encountered at present is that the theoretical calculation and the actual test results are far from each other. One of the reasons is that the light field is not uniform enough to accurately predict the amount of radiation that the water receives.
  • the object of the present invention can be achieved by the following technical measures:
  • the invention provides a flowing water sterilizing device, comprising: a first fluid chamber, a connecting chamber and a second fluid chamber which are sequentially connected from bottom to top;
  • the first ultraviolet radiation assembly includes a radiating element for irradiating the fluid with ultraviolet light and a parabolic mirror for reflecting the ultraviolet light;
  • the second ultraviolet radiation assembly includes a radiation element for irradiating the fluid with ultraviolet light and a convex lens for polymerizing the ultraviolet light;
  • the third ultraviolet radiation assembly includes a radiation element for irradiating the fluid with ultraviolet light, a convex lens for polymerizing ultraviolet light provided on one side of the radiation element, and another side of the radiation element A parabolic mirror for reflecting ultraviolet light.
  • the first fluid chamber and the second fluid chamber are arranged in mirror symmetry with respect to the connecting chamber.
  • the first fluid chamber bottom is provided with a first fluid inlet
  • the second fluid chamber top is provided with a first fluid outlet
  • a first sterilization unit is disposed in the connection cavity, the first sterilization unit includes two first ultraviolet radiation components, and the ultraviolet light emitting surfaces of the two first ultraviolet radiation components in the first sterilization unit respectively
  • a fluid passage for communicating the first fluid chamber and the second fluid chamber is formed between the first sterilization unit and the sidewall of the connection chamber toward the first fluid chamber and the second fluid chamber.
  • the first fluid chamber comprises, in order from bottom to top, an inverted circular table segment, a first cylindrical segment, a first circular table segment, a second cylindrical segment and a second circular table segment.
  • a sidewall of the inverted circular stage is provided with a first ultraviolet radiation component
  • a sidewall of the first cylindrical section is provided with a staggered third ultraviolet radiation component and a zigzag reflection component
  • the first The circular stage section is provided with a first ultraviolet radiation assembly
  • the second cylindrical section is provided with a staggered third ultraviolet radiation component and a zigzag reflection component on the side wall
  • the second circular stage section is provided with a first ultraviolet radiation component.
  • a sidewall of the inverted circular stage is provided with a first ultraviolet radiation component
  • a sidewall of the first cylindrical segment is provided with a second ultraviolet radiation component and a zigzag reflection component staggered
  • the first The circular stage section is provided with a first ultraviolet radiation assembly
  • the second cylindrical section is provided with a staggered second ultraviolet radiation component and a zigzag reflection component on the side wall
  • the second circular stage section is provided with a first ultraviolet radiation component.
  • the flowing water sterilizing device further comprises a first central tube extending from the bottom of the first fluid chamber into the first fluid chamber, the first central tube having a longitudinally extending internal fluid passage, the first The first water outlet is opened at one end of the center tube disposed near the connection cavity.
  • the flowing water sterilization device further comprises:
  • first conduit disposed at a central portion of the first fluid chamber sidewall and at a distal end of the second central tube, the first conduit communicating with the first fluid chamber and the second central tube;
  • the connecting chamber is provided with a second sterilization unit
  • the second sterilization unit comprises two first ultraviolet radiation components, and the ultraviolet light emitting surfaces of the two first ultraviolet radiation components of the second sterilization unit Facing the first fluid chamber and the second fluid chamber, respectively.
  • At least one of the first ultraviolet radiation component, the second ultraviolet radiation component or the third ultraviolet radiation component is disposed on the sidewall of the first fluid chamber and the sidewall of the second fluid chamber,
  • the UV light is more uniform and the sterilization efficiency is higher.
  • FIG. 1 is a schematic view showing the structure of a flowing water sterilizing apparatus according to a first embodiment of the present invention.
  • Fig. 2 is a schematic view showing the structure of a flowing water sterilizing apparatus according to a second embodiment of the present invention.
  • Fig. 3 is a schematic view showing the structure of a flowing water sterilizing apparatus according to a third embodiment of the present invention.
  • FIG. 4 is a schematic structural view of a first ultraviolet radiation assembly in a flowing water sterilization device according to an embodiment of the present invention.
  • FIG. 5 is a schematic structural view of a second ultraviolet radiation assembly in a flowing water sterilization apparatus according to an embodiment of the present invention.
  • FIG. 6 is a schematic structural view of a third ultraviolet radiation assembly in a flowing water sterilization device according to an embodiment of the present invention.
  • Fig. 7 is a view showing a flat use state of the flowing water sterilizing apparatus of the embodiment shown in Fig. 3.
  • the embodiment of the present invention provides a flowing water sterilizing device.
  • the flowing water sterilizing device comprises: a first fluid chamber 10 , a connecting chamber 30 and a second connected in sequence from bottom to top.
  • the fluid chamber 20, the sidewall of the first fluid chamber 10 and the sidewall of the second fluid chamber 20 are each provided with at least one of a first ultraviolet radiation component 41, a second ultraviolet radiation component 42, or a third ultraviolet radiation component 43. .
  • the first ultraviolet radiation component 41 includes a radiation element 1 for irradiating ultraviolet light to a fluid, and a parabolic mirror 2 for reflecting ultraviolet light;
  • a second ultraviolet radiation component 42 includes a radiating element 1 for irradiating a fluid with ultraviolet light and a convex lens 3 for polymerizing ultraviolet light;
  • the third ultraviolet radiating element 43 includes a radiating element 1 for irradiating the fluid with ultraviolet light, and is disposed at the radiation A convex lens 3 for polymerizing ultraviolet light on the element 1 side, and a parabolic mirror 2 for reflecting ultraviolet light on the other side of the radiation element 1 are provided.
  • the radiation element 1 is located at the focus of the parabolic mirror 2, and the ultraviolet light emitted by the first ultraviolet radiation component 41 is more uniform and more dispersed than the radiation element 1 is separately provided.
  • the radiating element 1 is located at the focus of the convex lens 3 for polymerizing the dispersed light emitted by the radiating element 1 into parallel light, and the ultraviolet light emitted by the second ultraviolet radiation component 42 is more uniform.
  • the radiating element 1 is located at the focus of the convex lens 3, and also at the focus of the parabolic mirror 2, which is used to polymerize the dispersed light emitted by the radiating element 1 into parallel light,
  • the emitted ultraviolet light is more uniform and dispersed, and the parabolic mirror 2 is used for reflecting the received ultraviolet light incident from the fluid chamber, and then being polymerized by the convex lens 3 and re-transmitted into the fluid chamber to increase the ultraviolet light efficiency.
  • the sidewalls of the first fluid chamber 10 and the second fluid chamber 20 are further provided with a zigzag reflection assembly 44, and further, the second ultraviolet radiation assembly 42 and the zigzag reflection assembly 44 are respectively on the side walls of the two sides.
  • the zigzag reflection assembly 44 and the third ultraviolet radiation assembly 43 are disposed opposite each other on the side walls of both sides, as shown in FIGS. 1, 2, and 3.
  • the zigzag reflection assembly 44 is used to reflect the direction of ultraviolet light deflection so as not to cause the ultraviolet light to return to the original path, adversely affecting the radiating element; the zigzag reflecting assembly 44 is in the form of a grating to increase the concentration of light.
  • the first fluid chamber 10 and the second fluid chamber 20 are mirror symmetrical with respect to the connection chamber 30.
  • the specific structure of the second fluid chamber 20 is described with reference to the first fluid chamber 10.
  • a first fluid inlet 10a is provided at the bottom of the first fluid chamber 10 and a first fluid outlet 20a is provided at the top of the second fluid chamber 20.
  • the first sterilization 301 consisting of two first ultraviolet radiation assemblies 41 is provided in the connection chamber 30, and the ultraviolet light from the two first ultraviolet radiation assemblies 41 in the first sterilization unit 301 is provided.
  • the face faces the first fluid chamber 10 and the second fluid chamber 20, respectively, and a fluid passage 303 for communicating the first fluid chamber 10 and the second fluid chamber 20 is formed between the first sterilization unit 301 and the side wall of the connection chamber 30.
  • the first fluid chamber 10 includes, in order from bottom to top, an inverted circular section 101, a first cylindrical section 102, a first circular section 103, a second cylindrical section 104, and a second circular section 105.
  • round table means a vertical circular table having a lower bottom surface diameter larger than the upper bottom surface diameter
  • inverted circular table means a circular table having a lower bottom surface diameter smaller than the upper bottom surface diameter. That is, the first circular stage section 103 and the second circular stage section 105 are both upright circular stages having a lower bottom surface diameter larger than the upper bottom surface diameter.
  • the first fluid chamber 10 increases first and then decreases from bottom to top.
  • the one end of the first fluid chamber 10 away from the connecting chamber 30 has a larger diameter, and the end of the first fluid chamber 10 near the connecting chamber has a smaller diameter.
  • the angle between the side wall of the inverted circular section 101 and the vertical direction is a, the angle of the side wall of the first circular stage section 103 with the vertical direction is b, and the angle of the side wall of the second circular stage section 105 with the vertical direction is c.
  • the stepped design can effectively stabilize the water flow, especially the first ultraviolet radiation component 41 disposed in the inverted circular stage section 101, the first circular stage section 103 and the second circular stage section 105, which has a greater influence on the water flow and can cause different degrees.
  • the cyclotron and turbulence drive the bacteria and particles in the water to increase the contact surface of the light.
  • the angles of a, b, and c are used to adjust the illumination area and the flow pattern, which are parameters that have considerable effects.
  • the first ultraviolet radiation component 41 is disposed on the sidewall of the inverted circular section 101, and the third cylindrical section 102 is provided with staggered third ultraviolet radiation on the sidewall of the first cylindrical section 102.
  • the assembly 43 and the zigzag reflection assembly 44, the first circular stage section 103 is provided with a first ultraviolet radiation component 41, and the second cylindrical section 104 is provided with a staggered third ultraviolet radiation component 43 and a zigzag reflection component 44 on the side wall.
  • the second circular stage section 105 is provided with a first ultraviolet radiation component 41.
  • the third ultraviolet radiation component 43 and the zigzag reflection component 44 are staggered on the side walls, and the zigzag reflection component 44 and the third ultraviolet radiation component 43 are respectively disposed opposite to each other on the side walls;
  • the second cylindrical section 104 the third ultraviolet radiation assembly 43 and the zigzag reflection assembly 44 are staggered on the side walls, and the zigzag reflection assembly 44 and the third ultraviolet radiation assembly 43 are disposed opposite each other on the side walls of the two sides.
  • the first ultraviolet radiation assemblies 41 are respectively disposed on the side walls of the inverted circular stage section 101, the first circular stage section 103 and the second circular stage section 105, and the angle a of the inverted circular stage section 101 causes the radiation of the first ultraviolet radiation component 41 located thereon.
  • the element illuminates the intermediate passage of the first fluid chamber 10 and the remaining dead zone of the first circular section 103 by reflected light, solving the problem of no light irradiation in the entire area.
  • the first ultraviolet radiation component 41 is disposed on the sidewall of the inverted circular section 101, and the second cylindrical section 102 is provided with second ultraviolet radiation staggered on the sidewall of the first cylindrical section 102.
  • the assembly 42 and the serrated reflector assembly 44, the first circular stage section 103 is provided with a first ultraviolet radiation assembly 41, and the second cylindrical section 104 is provided with a second ultraviolet radiation assembly 42 and a zigzag reflection assembly 44 staggered on the side walls.
  • the second circular stage section 105 is provided with a first ultraviolet radiation component 41.
  • the second ultraviolet radiation component 42 and the zigzag reflection component 44 are staggered on the side walls, and the zigzag reflection component 44 and the second ultraviolet radiation component 42 are respectively disposed opposite to each other on the side walls;
  • the second ultraviolet radiation assembly 42 and the zigzag reflection assembly 44 are staggered on the side walls, and the zigzag reflection assembly 44 and the second ultraviolet radiation assembly 42 are disposed opposite each other on the side walls.
  • the first ultraviolet radiation assemblies 41 are respectively disposed on the side walls of the inverted circular stage section 101, the first circular stage section 103 and the second circular stage section 105, and the angle a of the inverted circular stage section 101 causes the radiation of the first ultraviolet radiation component 41 located thereon.
  • the element illuminates the intermediate passage of the first fluid chamber 10 and the remaining dead zone of the first circular section 103 by reflected light, solving the problem of no light irradiation in the entire area.
  • the flowing water sterilization device further includes a first central tube 50 extending from the bottom of the first fluid chamber 10 into the first fluid chamber, the first central tube 50 having A longitudinally extending inner fluid passage 501, the first central tube 50 is disposed adjacent to the connecting chamber 30 and has a first water outlet 502.
  • the fluid is subjected to the first irradiation while flowing through the first central tube 50, and after entering the first central tube 50 and entering the other portions of the first fluid chamber 10, the irradiation is again performed to extend the irradiation time.
  • the flowing water sterilization device further includes: extending into the second flow from the top of the second fluid chamber 20.
  • the second central tube 60 in the body cavity 20 has a longitudinally extending internal fluid passage 601.
  • the second central tube 60 is provided with a second water outlet 602 at one end disposed adjacent to the connection chamber 30.
  • the flowing water sterilizing device further includes: a first duct 70 and a second fluid outlet 20b, wherein the first duct 70 is disposed at one end of the side wall of the first fluid chamber 10 and at the other end of the second center tube 60, the first duct The first fluid chamber 10 and the second central tube 60 are connected to each other; the second fluid outlet 20b is opened in the middle of the side wall of the second fluid chamber 20.
  • a second sterilization unit 302 is disposed in the connection cavity 30, and the second sterilization unit 302 includes two first ultraviolet radiation components 41, and two first ultraviolet radiations in the second sterilization unit 302.
  • the ultraviolet illuminating surface of the assembly 41 faces the first fluid chamber 10 and the second fluid chamber 20, respectively.
  • the first central tube 50 After the fluid enters from the internal fluid passage 501 of the first central tube 50, the first central tube 50 flows out of the first water outlet 502 into the first fluid chamber 10, and then enters the first conduit 70 and the second central tube 60 in sequence, from the first The two water outlets 602 flow out into the second fluid chamber 20 and finally out of the second fluid outlet 20b, further increasing the residence time of the fluid in the flowing water sterilization device.
  • the flowing water sterilizing device shown in Fig. 3 can be used in flat as long as it can be used vertically, as shown in Fig. 7.

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  • Health & Medical Sciences (AREA)
  • Toxicology (AREA)
  • Life Sciences & Earth Sciences (AREA)
  • Hydrology & Water Resources (AREA)
  • Engineering & Computer Science (AREA)
  • Environmental & Geological Engineering (AREA)
  • Water Supply & Treatment (AREA)
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Abstract

一种流动水杀菌装置，该流动水杀菌装置包括：从下至上依次连通的第一流体腔(10)、连接腔(30)和第二流体腔(20)；第一流体腔(10)的侧壁上和第二流体腔(20)的侧壁上均设有第一紫外辐射组件(41)、第二紫外辐射组件(42)或第三紫外辐射组件(43)中的至少一种。

Description

一种流动水杀菌装置 技术领域
本发明涉及紫外杀菌技术领域，具体涉及一种流动水杀菌装置。
背景技术
流动水杀菌是水领域的一个难点，如何保证杀菌效率，目前碰到的问题是，理论计算和实际测试结果相差比较远。原因之一是光场不够均匀，无法准确预估水接受的照射剂量。
鉴于此，克服以上现有技术中的缺陷，提供一种新的流动水杀菌装置成为本领域亟待解决的技术问题。
发明内容
本发明的目的在于针对现有技术的上述缺陷，提供一种流动水杀菌装置。
本发明的目的可通过以下的技术措施来实现：
本发明提供了一种流动水杀菌装置，包括：从下至上依次连通的第一流体腔、连接腔和第二流体腔；
所述第一流体腔的侧壁上和第二流体腔侧壁上均设有第一紫外辐射组件、第二紫外辐射组件或第三紫外辐射组件中的至少一种；
所述第一紫外辐射组件包括用于对流体进行紫外光照射的辐射元件和用于对紫外光进行反射的抛物面反射镜；
所述第二紫外辐射组件包括用于对流体进行紫外光照射的辐射元件和用于对紫外光进行聚合的凸面透镜；
所述第三紫外辐射组件包括用于对流体进行紫外光照射的辐射元件、设于所述辐射元件一侧的用于对紫外光进行聚合的凸面透镜、以及设于所述辐射元件另一侧的用于对紫外光进行反射的抛物面反射镜。
优选地，所述第一流体腔和所述第二流体腔相对于所述连接腔镜像对称设置。
优选地，所述第一流体腔底部设有第一流体入口，所述第二流体腔顶部设 有第一流体出口。
优选地，所述连接腔内设有第一杀菌单元，所述第一杀菌单元包括两个第一紫外辐射组件，所述第一杀菌单元中的两个第一紫外辐射组件的紫外出光面分别朝向第一流体腔和第二流体腔，所述第一杀菌单元和所述连接腔的侧壁之间形成用于连通第一流体腔和第二流体腔的流体通道。
优选地，所述第一流体腔从下至上依次包括倒置圆台段、第一圆柱段、第一圆台段、第二圆柱段和第二圆台段。
优选地，所述倒置圆台段的侧壁上设有第一紫外辐射组件，所述第一圆柱段的侧壁上设有交错排列的第三紫外辐射组件和锯齿形反射组件，所述第一圆台段设有第一紫外辐射组件，所述第二圆柱段的侧壁上设有交错排列的第三紫外辐射组件和锯齿形反射组件，所述第二圆台段设有第一紫外辐射组件。
优选地，所述倒置圆台段的侧壁上设有第一紫外辐射组件，所述第一圆柱段的侧壁上设有交错排列的第二紫外辐射组件和锯齿形反射组件，所述第一圆台段设有第一紫外辐射组件，所述第二圆柱段的侧壁上设有交错排列的第二紫外辐射组件和锯齿形反射组件，所述第二圆台段设有第一紫外辐射组件。
优选地，该流动水杀菌装置还包括从所述第一流体腔底部伸入所述第一流体腔内的第一中心管，所述第一中心管具有一纵向延伸的内部流体通道，所述第一中心管靠近连接腔设置的一端开设有第一出水口。
优选地，该流动水杀菌装置还包括：
从所述第二流体腔顶部伸入所述第二流体腔内的第二中心管，所述第二中心管具有一纵向延伸的内部流体通道，所述第二中心管靠近连接腔设置的一端开设有第二出水口；
一端设于所述第一流体腔侧壁中部、另一端设于所述第二中心管顶端的第一管道，所述第一管道连通所述第一流体腔和所述第二中心管；以及
开设于所述第二流体腔侧壁中部的第二流体出口。
优选地，所述连接腔内卡设有第二杀菌单元，所述第二杀菌单元包括两个第一紫外辐射组件，所述第二杀菌单元中的两个第一紫外辐射组件的紫外出光 面分别朝向第一流体腔和第二流体腔。
本发明的流动水杀菌装置中，第一流体腔的侧壁上和第二流体腔侧壁上均设有第一紫外辐射组件、第二紫外辐射组件或第三紫外辐射组件中的至少一种，紫外光更均匀，杀菌效率更高。
附图说明
图1是本发明第一实施例的流动水杀菌装置的结构示意图。
图2是本发明第二实施例的流动水杀菌装置的结构示意图。
图3是本发明第三实施例的流动水杀菌装置的结构示意图。
图4是本发明实施例的流动水杀菌装置中第一紫外辐射组件结构示意图。
图5是本发明实施例的流动水杀菌装置中第二紫外辐射组件结构示意图。
图6是本发明实施例的流动水杀菌装置中第三紫外辐射组件结构示意图。
图7是图3所示实施例的流动水杀菌装置的平躺使用状态图。
具体实施方式
为了使本发明的目的、技术方案及优点更加清楚明白，下面结合附图和具体实施例对本发明作进一步详细说明。应当理解，此处所描述的具体实施例仅仅用以解释本发明，并不用于限定本发明。
如本文所用的词语“示例性”或“说明性”表示用作示例、例子或说明。在本文中描述为“示例性”或“说明性”的任何实施方式未必理解为相对于其它实施方式是优选的或有利的。下文所描述的所有实施方式是示例性实施方式，提供这些示例性实施方式是为了使得本领域技术人员做出和使用本公开的实施例并且预期并不限制本公开的范围，本公开的范围由权利要求限定。在其它实施方式中，详细地描述了熟知的特征和方法以便不混淆本发明。出于本文描述的目的，术语“上”、“下”、“左”、“右”、“前”、“后”、“竖直”、“水平”和其衍生词将与如图1定向的发明有关。而且，并无意图受到前文的技术领域、背景技术、发明内容或下文的详细描述中给出的任何明示或暗示的理论限制。还应了解在附图中示出和在下文的说明书中描述的具体装置和过程是在所附权利 要求中限定的发明构思的简单示例性实施例。因此，与本文所公开的实施例相关的具体尺寸和其他物理特征不应被理解为限制性的，除非权利要求书另作明确地陈述。
为了使本揭示内容的叙述更加详尽与完备，下文针对本发明的实施方式与具体实施例提出了说明性的描述；但这并非实施或运用本发明具体实施例的唯一形式。实施方式中涵盖了多个具体实施例的特征以及用以建构与操作这些具体实施例的方法步骤与其顺序。然而，亦可利用其它具体实施例来达成相同或均等的功能与步骤顺序。
本发明实施例提供了一种流动水杀菌装置，请参阅图1、图2和图3所示，该流动水杀菌装置包括：从下至上依次连通的第一流体腔10、连接腔30和第二流体腔20，第一流体腔10的侧壁上和第二流体腔20的侧壁上均设有第一紫外辐射组件41、第二紫外辐射组件42或第三紫外辐射组件43中的至少一种。
其中，请参阅图4至图6所示，第一紫外辐射组件41包括用于对流体进行紫外光照射的辐射元件1和用于对紫外光进行反射的抛物面反射镜2；第二紫外辐射组件42包括用于对流体进行紫外光照射的辐射元件1和用于对紫外光进行聚合的凸面透镜3；第三紫外辐射组件43包括用于对流体进行紫外光照射的辐射元件1、设于辐射元件1一侧的用于对紫外光进行聚合的凸面透镜3、以及设于辐射元件1另一侧的用于对紫外光进行反射的抛物面反射镜2。在第一紫外辐射组件41，辐射元件1位于抛物面反射镜2的焦点处，相对于单独设置辐射元件1，第一紫外辐射组件41发出的紫外光更均匀更分散。在第二紫外辐射组件42中，辐射元件1位于凸面透镜3的焦点处，用于将辐射元件1发出的分散的光聚合成平行光，第二紫外辐射组件42发出的紫外光更均匀。在第三紫外辐射组件43中，辐射元件1位于凸面透镜3的焦点处，同时也位于抛物面反射镜2的焦点处，凸面透镜3用于将辐射元件1发出的分散的光聚合成平行光，发出的紫外光更均匀更分散，抛物面反射镜2用于将接收的从流体腔内射入的紫外光进行反射，再被凸面透镜3聚合后重新发送至流体腔内，增加紫外光效率。
进一步地，第一流体腔10和第二流体腔20的侧壁上还设有锯齿形反射组 件44，更进一步地，第二紫外辐射组件42和锯齿形反射组件44分别在两侧的侧壁上相对设置，或者，锯齿形反射组件44和第三紫外辐射组件43分别在两侧的侧壁上相对设置，如图1、图2和图3所示。锯齿形反射组件44用来反射紫外光偏转方向，不至于使得紫外光原路返回，对辐射元件产生不利影响；锯齿形反射组件44是采用光栅形式，增加光的集中度。
在一个优选实施方式中，如图1、图2和图3所示，第一流体腔10和第二流体腔20相对于连接腔30呈镜像对称。在本说明书中，第二流体腔20的具体结构参见对第一流体腔10的说明。
在图1所示的实施例中，第一流体腔10底部设有第一流体入口10a，第二流体腔20顶部设有第一流体出口20a。
在图1所示的实施例中，连接腔30内设有由两个第一紫外辐射组件41组成的第一杀菌301，第一杀菌单元301中的两个第一紫外辐射组件41的紫外出光面分别朝向第一流体腔10和第二流体腔20，第一杀菌单元301和连接腔30的侧壁之间形成用于连通第一流体腔10和第二流体腔20的流体通道303。
在一个优选实施方式中，如图1所示，第一流体腔10从下至上依次包括倒置圆台段101、第一圆柱段102、第一圆台段103、第二圆柱段104和第二圆台段105。在本说明书中，“圆台”表示下底面直径大于上底面直径的正置圆台，“倒置圆台”表示下底面直径小于上底面直径的圆台。也就是说，第一圆台段103和第二圆台段105均为下底面直径大于上底面直径的正置圆台。第一流体腔10从下至上尺寸先增加再逐渐减小。第一流体腔10远离连接腔30的一端直径较大，第一流体腔10靠近连接腔的一端直径较小。其中，倒置圆台段101侧壁与竖直方向的角度为a，第一圆台段103侧壁与竖直方向的角度为b，第二圆台段105侧壁与竖直方向的角度为c。这种台阶状设计，可以有效稳定水流，尤其是在倒置圆台段101、第一圆台段103和第二圆台段105内设置的第一紫外辐射组件41，对水流影响更甚，可以造成不同程度的回旋和湍流，将水中细菌和粒子带动运动，增加光照射接触面，a、b、c的角度用来调节光照区域和流水样态，是具有相当作用的参数。
在以上实施方式的基础上，请参阅图1所示，倒置圆台段101的侧壁上设有第一紫外辐射组件41，第一圆柱段102的侧壁上设有交错排列的第三紫外辐射组件43和锯齿形反射组件44，第一圆台段103设有第一紫外辐射组件41，第二圆柱段104的侧壁上设有交错排列的第三紫外辐射组件43和锯齿形反射组件44，第二圆台段105设有第一紫外辐射组件41。在第一圆柱段102内，第三紫外辐射组件43和锯齿形反射组件44在侧壁上交错排列，锯齿形反射组件44和第三紫外辐射组件43分别在两侧的侧壁上相对设置；第二圆柱段104内，第三紫外辐射组件43和锯齿形反射组件44在侧壁上交错排列，锯齿形反射组件44和第三紫外辐射组件43分别在两侧的侧壁上相对设置。第一紫外辐射组件41分别设于倒置圆台段101、第一圆台段103和第二圆台段105的侧壁上，倒置圆台段101的角度a使位于其上的第一紫外辐射组件41的辐射元件通过反射光照射到第一流体腔10的中间通道以及第一圆台段103剩下的盲区，解决整个区域无光照射的问题。
在以上实施方式的基础上，请参阅图2所示，倒置圆台段101的侧壁上设有第一紫外辐射组件41，第一圆柱段102的侧壁上设有交错排列的第二紫外辐射组件42和锯齿形反射组件44，第一圆台段103设有第一紫外辐射组件41，第二圆柱段104的侧壁上设有交错排列的第二紫外辐射组件42和锯齿形反射组件44，第二圆台段105设有第一紫外辐射组件41。在第一圆柱段102内，第二紫外辐射组件42和锯齿形反射组件44在侧壁上交错排列，锯齿形反射组件44和第二紫外辐射组件42分别在两侧的侧壁上相对设置；第二圆柱段104内，第二紫外辐射组件42和锯齿形反射组件44在侧壁上交错排列，锯齿形反射组件44和第二紫外辐射组件42分别在两侧的侧壁上相对设置。第一紫外辐射组件41分别设于倒置圆台段101、第一圆台段103和第二圆台段105的侧壁上，倒置圆台段101的角度a使位于其上的第一紫外辐射组件41的辐射元件通过反射光照射到第一流体腔10的中间通道以及第一圆台段103剩下的盲区，解决整个区域无光照射的问题。
在一个优选实施方式中，请参阅图2所示，该流动水杀菌装置还包括从所 述第一流体腔10底部伸入所述第一流体腔内的第一中心管50，第一中心管50具有一纵向延伸的内部流体通道501，第一中心管50靠近连接腔30设置的一端开设有第一出水口502。流体在流经第一中心管50时接受第一次照射，离开第一中心管50后进入第一流体腔10其它部分后再接受一次照射，延长照射时间。
请参阅图3所示的优选实施例中，图3所示的实施例在图2所示实施例的基础上，该流动水杀菌装置还包括：从第二流体腔20顶部伸入第二流体腔20内的第二中心管60，第二中心管60具有一纵向延伸的内部流体通道601，第二中心管60靠近连接腔30设置的一端开设有第二出水口602。该流动水杀菌装置还包括：第一管道70和第二流体出口20b，其中，第一管道70一端设于第一流体腔10侧壁中部、另一端设于第二中心管60顶端，第一管道70连通第一流体腔10和第二中心管60；第二流体出口20b开设于第二流体腔20侧壁中部。
图3所示的实施例中，连接腔30内卡设有第二杀菌单元302，第二杀菌单元302包括两个第一紫外辐射组件41，第二杀菌单元302中的两个第一紫外辐射组件41的紫外出光面分别朝向第一流体腔10和第二流体腔20，在图3所示实施例中，连接腔30内无过水通道。流体从第一中心管50的内部流体通道501进入后，从第一出水口502流出第一中心管50进入第一流体腔10内，再依次进入第一管道70和第二中心管60，从第二出水口602流出进入第二流体腔20，最后从第二流体出口20b流出，进一步增加了流体在流动水杀菌装置中的停留时间。
图3所示的流动水杀菌装置除了可以垂直使用，还可以平躺使用，如图7所示。
以上所述仅为本发明的较佳实施例而已，并不用以限制本发明，凡在本发明的精神和原则之内所作的任何修改、等同替换和改进等，均应包含在本发明的保护范围之内。

Claims (10)

  1. 一种流动水杀菌装置，其特征在于，该流动水杀菌装置包括：从下至上依次连通的第一流体腔、连接腔和第二流体腔；
    所述第一流体腔的侧壁上和第二流体腔侧壁上均设有第一紫外辐射组件、第二紫外辐射组件或第三紫外辐射组件中的至少一种；
    所述第一紫外辐射组件包括用于对流体进行紫外光照射的辐射元件和用于对紫外光进行反射的抛物面反射镜；
    所述第二紫外辐射组件包括用于对流体进行紫外光照射的辐射元件和用于对紫外光进行聚合的凸面透镜；
    所述第三紫外辐射组件包括用于对流体进行紫外光照射的辐射元件、设于所述辐射元件一侧的用于对紫外光进行聚合的凸面透镜、以及设于所述辐射元件另一侧的用于对紫外光进行反射的抛物面反射镜。
  2. 根据权利要求1所述的流动水杀菌装置，其特征在于，所述第一流体腔和所述第二流体腔相对于所述连接腔镜像对称设置。
  3. 根据权利要求1或2所述的流动水杀菌装置，其特征在于，所述第一流体腔底部设有第一流体入口，所述第二流体腔顶部设有第一流体出口。
  4. 根据权利要求1或2所述的流动水杀菌装置，其特征在于，所述连接腔内设有第一杀菌单元，所述第一杀菌单元包括两个第一紫外辐射组件，所述第一杀菌单元中的两个第一紫外辐射组件的紫外出光面分别朝向第一流体腔和第二流体腔，所述第一杀菌单元和所述连接腔的侧壁之间形成用于连通第一流体腔和第二流体腔的流体通道。
  5. 根据权利要求1或2所述的流动水杀菌装置，其特征在于，所述第一流体腔从下至上依次包括倒置圆台段、第一圆柱段、第一圆台段、第二圆柱段和第二圆台段。
  6. 根据权利要求5所述的流动水杀菌装置，其特征在于，所述倒置圆台段的侧壁上设有第一紫外辐射组件，所述第一圆柱段的侧壁上设有交错排列的第三紫外辐射组件和锯齿形反射组件，所述第一圆台段设有第一紫外辐射组件， 所述第二圆柱段的侧壁上设有交错排列的第三紫外辐射组件和锯齿形反射组件，所述第二圆台段设有第一紫外辐射组件。
  7. 根据权利要求5所述的流动水杀菌装置，其特征在于，所述倒置圆台段的侧壁上设有第一紫外辐射组件，所述第一圆柱段的侧壁上设有交错排列的第二紫外辐射组件和锯齿形反射组件，所述第一圆台段设有第一紫外辐射组件，所述第二圆柱段的侧壁上设有交错排列的第二紫外辐射组件和锯齿形反射组件，所述第二圆台段设有第一紫外辐射组件。
  8. 根据权利要求1或2所述的流动水杀菌装置，其特征在于，该流动水杀菌装置还包括从所述第一流体腔底部伸入所述第一流体腔内的第一中心管，所述第一中心管具有一纵向延伸的内部流体通道，所述第一中心管靠近连接腔设置的一端开设有第一出水口。
  9. 根据权利要求8所述的流动水杀菌装置，其特征在于，该流动水杀菌装置还包括：
    从所述第二流体腔顶部伸入所述第二流体腔内的第二中心管，所述第二中心管具有一纵向延伸的内部流体通道，所述第二中心管靠近连接腔设置的一端开设有第二出水口；
    一端设于所述第一流体腔侧壁中部、另一端设于所述第二中心管顶端的第一管道，所述第一管道连通所述第一流体腔和所述第二中心管；以及
    开设于所述第二流体腔侧壁中部的第二流体出口。
  10. 根据权利要求9所述的流动水杀菌装置，其特征在于，所述连接腔内卡设有第二杀菌单元，所述第二杀菌单元包括两个第一紫外辐射组件，所述第二杀菌单元中的两个第一紫外辐射组件的紫外出光面分别朝向第一流体腔和第二流体腔。
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