A pulse strong light water body sterilization and organic matter degradation equipment

Abstract

The application belongs to the technical field of water treatment and specifically relates to a pulse strong light water body sterilization and organic matter degradation equipment, which comprises an outer box body, an inner tank body, pulse strong light sterilization and degradation lamp groups and a control assembly. The inner tank body is internally formed with a sterilization and degradation channel. Each pulse strong light sterilization and degradation lamp group comprises a plurality of lamp tubes. The effective sterilization and degradation intervals of every two adjacent lamp tubes in each pulse strong light sterilization and degradation lamp group and every two adjacent lamp tubes in adjacent two pulse strong light sterilization and degradation lamp groups are at least tangent. The control assembly comprises a power supply, a capacitor and a high-voltage package. The power supply and the capacitor are located on the same side and are provided with a partition plate between the power supply and the high-voltage package. The plurality of lamp tubes are divided into groups to form a plurality of pulse strong light sterilization and degradation lamp groups arranged along the flowing direction of the water body to perform sterilization and degradation on the water body for multiple times. The plurality of lamp tubes in each pulse strong light sterilization and degradation lamp group are pulsedly lighted. The effective sterilization and degradation intervals of the plurality of lamp tubes cover the entire sterilization and degradation channel to sterilize, disinfect and degrade organic matters of the entire water body. The power supply and the high-voltage package are separated by the partition plate, so that the electric stress impact on the power supply is effectively reduced.

Description

Technical Field

[0001] This invention belongs to the field of water treatment technology, specifically relating to a pulsed high-intensity light water sterilization and organic matter degradation device. Background Technology

[0002] In the field of water treatment, both domestic water and industrial wastewater require sterilization equipment for disinfection. The sterilization equipment is equipped with germicidal lamps that emit light waves of specific wavelengths. These light waves destroy the DNA or RNA of microorganisms in the water, causing them to become inactive, thereby achieving the purpose of disinfection.

[0003] However, in existing technologies, multiple germicidal lamps are generally arranged in a simple, spaced-out pattern. This fails to adequately consider fluid dynamics and the superposition effect of light fields between lamps, easily leading to "shadow zones" or areas of weak irradiation intensity within the internal flow field of the equipment. When the water to be treated flows through these areas, the microorganisms therein cannot be effectively inactivated due to insufficient ultraviolet radiation dose, resulting in unstable or even substandard water quality. Furthermore, this simple arrangement cannot adapt to changes in parameters such as water flow rate, leading to a high failure rate of the germicidal lamps. Additionally, germicidal lamps typically use a power supply to convert AC to DC to charge capacitors, and a high-voltage transformer generates high voltage to illuminate the lamps. However, in actual operation, capacitors frequently fail, causing the entire sterilization equipment to shut down for maintenance, affecting the continuity of water treatment. Summary of the Invention

[0004] The technical problem to be solved by this invention is: in order to solve the problem that the quality of the water discharged from the sterilization equipment in the prior art is unstable or even substandard and the capacitor is frequently damaged, causing the entire sterilization equipment to shut down and require maintenance, thus affecting the continuity of water treatment, a pulsed high-intensity light water sterilization and organic matter degradation device is provided.

[0005] The technical solution adopted by this invention to solve its technical problem is: a pulsed high-intensity light water sterilization and organic matter degradation device, comprising:

[0006] outer box;

[0007] The inner tank is fixed inside the outer casing and has a sterilization and degradation channel for water to pass through.

[0008] The pulsed high-intensity light disinfection and degradation lamp group has at least two groups arranged sequentially along the water flow direction in the disinfection and degradation channel. Each group of pulsed high-intensity light disinfection and degradation lamp groups includes multiple lamp tubes. The multiple lamp tubes include at least an inner lamp tube close to the inner channel wall of the disinfection and degradation channel and an outer lamp tube close to the outer channel wall of the disinfection and degradation channel. The effective disinfection and degradation intervals of two adjacent lamp tubes in each group of pulsed high-intensity light disinfection and degradation lamp groups and two adjacent lamp tubes in two adjacent groups of pulsed high-intensity light disinfection and degradation lamp groups are at least tangent. The effective disinfection and degradation interval of each inner lamp tube is at least tangent to the inner channel wall, and the effective disinfection and degradation interval of each outer lamp tube is also at least tangent to the outer channel wall.

[0009] The control components are used to control the pulsed lighting of multiple lamps in each group of pulsed light disinfection and degradation lamps. The control components include a power supply, a capacitor and a high-voltage transformer connected in sequence. The power supply and the capacitor are located on the same side and are separated from the high-voltage transformer by a partition.

[0010] Furthermore, the upstream side of the sterilization and degradation channel is an inlet, and the downstream side is an outlet. The inlet and outlet are arranged adjacent to each other and a partition is provided between them to form a ring-shaped sterilization and degradation channel.

[0011] Furthermore, the side of the partition facing the liquid inlet is formed with a liquid inlet collision surface for colliding with the water entering from the liquid inlet to slow down the liquid inlet flow rate.

[0012] The partition portion has an outlet collision surface on the side facing the outlet, which is directly opposite to the direction of water flow in the sterilization and degradation channel, so as to collide with the water and slow down the outlet flow rate.

[0013] Furthermore, the inlet gradually bends towards the inlet collision surface along the direction of water flow, and the outlet gradually bends towards the outlet collision surface in the opposite direction to the water flow.

[0014] Furthermore, the partition is bent into the following form: a barrier section for separating the capacitor from the high-voltage transformer, and a first bent section and a second bent section formed by bending from both ends of the barrier section.

[0015] Furthermore, the sterilization and degradation channel includes a sterilization section equipped with pulsed high-intensity light sterilization and degradation lamps and a reflux section near the liquid inlet collision surface.

[0016] Furthermore, the number of capacitors is at least two, and the number of high-voltage packs is at least two sets. The number of both corresponds to the number of pulsed high-intensity light disinfection and degradation lamp sets, and each set of high-voltage packs contains multiple high-voltage packs, with multiple high-voltage packs corresponding one-to-one with multiple lamp tubes.

[0017] Furthermore, the inner tank body is integrally cast.

[0018] Furthermore, the bottom of the inner tank is provided with a drain outlet that communicates with the sterilization and degradation channel.

[0019] Furthermore, the bottom of the inner tank is provided with a support base, and the inner peripheral wall of the support base and the outer peripheral wall of the inner tank form a drain cavity that communicates with the drain outlet.

[0020] The beneficial effects of this invention are as follows: This invention divides multiple lamps into multiple groups to form multiple pulsed high-intensity light disinfection and degradation lamp groups arranged along the water flow direction to disinfect and degrade the water multiple times. In addition, multiple lamps in each group of pulsed high-intensity light disinfection and degradation lamp groups are lit in a pulsed manner. At the same time, the effective disinfection and degradation range of multiple lamps covers the entire sterilization and degradation channel to sterilize, disinfect and degrade organic matter in all water bodies. Furthermore, the capacitor is separated from the high-voltage transformer by a partition, which effectively reduces the electrical stress impact on the power supply, thereby improving the service life of the power supply.

[0021] Other features and advantages of this application will become clear from the following detailed description of exemplary embodiments with reference to the accompanying drawings. Attached Figure Description

[0022] The present invention will be further described below with reference to the accompanying drawings and embodiments.

[0023] Figure 1 This is a three-dimensional schematic diagram of the present invention;

[0024] Figure 2 This is the front view of the present invention;

[0025] Figure 3 yes Figure 2 A magnified view of part A in the middle;

[0026] Figure 4 This is a schematic diagram of the arrangement of the high-voltage transformer in this invention;

[0027] Figure 5 This is a schematic diagram of the inner tank in this invention;

[0028] Figure 6 This is a diagram of the internal structure of the inner tank in this invention;

[0029] Figure 7 This is a top view of the present invention;

[0030] Figure 8 This is a schematic diagram of the structure of the present invention after the inner tank is removed;

[0031] Figure 9 This is a schematic diagram of the capacitor structure inside the casing;

[0032] In the picture:

[0033] 1. Outer box;

[0034] 2. Inner tank; 201. Sterilization and degradation channel; 2011. Inner channel wall; 2012. Outer channel wall; 2013. Sterilization and degradation section; 2014. Reverse flow section; 202. Liquid inlet; 203. Liquid outlet; 204. Partition; 2041. Liquid inlet collision surface; 2042. Liquid outlet collision surface; 205. Sewage outlet;

[0035] 3. Pulsed high-intensity light disinfection and degradation lamp assembly; 301. Lamp tube; 302. Effective disinfection and degradation zone;

[0036] 4. Power supply;

[0037] 5. Capacitors;

[0038] 6. High voltage transformer;

[0039] 7. Partition; 701. Barrier section; 702. First bend section; 703. Second bend section; 704. Edge retainer;

[0040] 8. Support base; 801. Drainage chamber. Detailed Implementation

[0041] The invention will now be described in further detail with reference to the accompanying drawings. These drawings are simplified schematic diagrams, illustrating only the basic structure of the invention in a schematic manner. Therefore, they only show the components relevant to the invention. Orientations and references (e.g., up, down, left, right, etc.) are only used to aid in the description of the features in the drawings. Therefore, the following specific embodiments are not intended to be restrictive, and the scope of the claimed subject matter is defined solely by the appended claims and their equivalents.

[0042] like Figures 1-9 As shown, a pulsed high-intensity light water sterilization and organic matter degradation device includes:

[0043] The outer casing 1 has an inner cavity and is equipped with casters at the bottom, which allow the device to be moved to a predetermined position.

[0044] The inner tank 2 is fixed in the inner cavity of the outer casing 1, and a sterilization and degradation channel 201 for water supply is formed inside the inner tank 2;

[0045] The pulsed high-intensity light disinfection and degradation lamp group 3 has at least two groups arranged sequentially along the water flow direction in the disinfection and degradation channel 201. Each pulsed high-intensity light disinfection and degradation lamp group 3 includes multiple lamp tubes 301. The multiple lamp tubes 301 include at least an inner lamp tube 301 near the inner channel wall 2011 of the disinfection and degradation channel 201 and an outer lamp tube 301 near the outer channel wall 2012 of the disinfection and degradation channel 201. The outer lamp tube 301 surrounds the outer side of the inner lamp tube 301. The inner lamp tubes in the multiple disinfection and degradation lamp groups 3 are arranged circumferentially at intervals, and the outer lamp tubes in the multiple pulsed high-intensity light disinfection and degradation lamp groups 3 are also arranged circumferentially at intervals.

[0046] In each group of pulsed light disinfection and degradation lamps 3, the effective disinfection and degradation intervals 302 of two adjacent lamps 301 and two adjacent lamps 301 in two groups of pulsed light disinfection and degradation lamps 3 are at least tangent to each other, preferably intersecting. In addition, the effective disinfection and degradation intervals 302 of each inner lamp 301 are at least tangent to the inner channel wall 2011, preferably intersecting. The effective disinfection and degradation intervals 302 of each outer lamp 301 are also at least tangent to the outer channel wall 2012, preferably intersecting.

[0047] The system includes a control component for controlling the pulsed illumination of multiple lamps 301 in each pulsed light disinfection and degradation lamp group 3. The component includes a power supply 4, a capacitor 5, and a high-voltage transformer 6 connected in sequence. The power supply 4 and capacitor 5 are located on the same side, and a partition 7 is provided between them and the high-voltage transformer 6. When the water contains organic matter that is difficult to degrade (such as antibiotics, pesticides, new pollutants, etc.), the high-voltage transformer 6 will generate a momentary high-voltage pulse. This pulse will cause electrical stress impact on the power supply 4. Long-term action can easily lead to dielectric breakdown or performance degradation of the power supply 4. The partition 7 can separate the power supply 4 from the high-voltage transformer 6, effectively reducing the electrical stress impact on the power supply and thus improving the service life of the power supply 4. The partition 7 is also provided with wire holes for connecting wires to pass through.

[0048] Domestic water or sewage is injected into the sterilization channel 201 of the inner tank 2. During the water flow, it passes through multiple sets of pulsed high-intensity light sterilization and degradation lamps 3. The power supply 4 in the control component converts AC power into high-voltage DC power to charge the capacitor 5. After the high-voltage transformer 6 generates high voltage and breaks down to light up the lamp tube 301, the capacitor 5 continues to discharge and light up the lamp tube 301. During the water flow, multiple lamp tubes 301 in each set of pulsed high-intensity light sterilization and degradation lamps 3 are pulsedly lit to sterilize, disinfect, and degrade the water. After multiple sterilization and degradation processes, the sterilization and degradation effect is greatly improved. At the same time, the effective sterilization range 302 of two adjacent lamp tubes 301 is at least tangent, and the lamp tube 301 is at least tangent to the inner channel wall 2011 and the outer channel wall 2012 of the sterilization and degradation channel 201. Thus, the effective sterilization and degradation range 302 of the pulsed high-intensity light sterilization and degradation lamps 3 covers the entire sterilization and degradation channel 201 to sterilize, disinfect, and degrade all the water entering the sterilization and degradation channel 201.

[0049] In this embodiment, multiple lamp tubes 301 are divided into multiple groups to form multiple pulsed high-intensity light disinfection and degradation lamp groups 3 arranged along the water flow direction to disinfect and degrade the water multiple times. At the same time, the effective disinfection and degradation range 302 of multiple lamp tubes 301 covers the entire sterilization and degradation channel 201 to disinfect and degrade all water. Furthermore, the power supply 4 is separated from the high-voltage transformer 6 by the partition 7, which effectively reduces the electrical stress impact on the power supply 4 and thus improves the service life of the power supply 4.

[0050] In some examples, the upstream side of the sterilization and degradation channel 201 is an inlet 202 and the downstream side is an outlet 203. The inlet 202 and the outlet 203 are arranged adjacent to each other and a partition 204 is provided between them to form a ring-shaped sterilization and degradation channel 201. The adjacent arrangement of the inlet 202 and the outlet 203 extends the length of the sterilization and degradation channel 201, thereby extending the residence time of water in the sterilization and degradation channel 201 and further improving the sterilization and degradation effect.

[0051] In some examples, the partition 204 has an inlet collision surface 2041 on the side facing the inlet 202 for colliding with the water entering from the inlet 202 to slow down the inlet flow rate, thereby preventing the fluid entering from the inlet 202 from flowing too fast and failing to be fully disinfected and degraded by the disinfection lamp group 3.

[0052] The partition 204 has an outlet collision surface 2042 on the side facing the outlet 203, which is directly opposite to the water flow direction in the sterilization and degradation channel 201 so as to collide with the water and slow down the outlet flow rate. The inlet collision surface 2041 and the outlet collision surface 2042 are arranged opposite to each other.

[0053] After the water enters the sterilization and degradation channel 201 through the inlet 202, its flow velocity is slowed down after colliding with the inlet collision surface 2041. During the collision and return process, it collides again with the water that just entered the sterilization and degradation channel 201 (e.g., ...). Figure 3 As shown), the flow rates of both water bodies are reduced, and then they enter the effective disinfection and degradation zone 302 of the pulsed light disinfection and degradation lamp group 3 for sterilization and degradation. When it reaches the vicinity of the outlet 203, it first collides with the outlet collision surface 2042 that is directly opposite to its flow direction, and the flow rate is slowed down. During the collision and return process, it is sterilized and degraded again. At the same time, it collides again with the water body that has just arrived near the outlet 203 to reduce the flow rate of the subsequent water body so that it can be sterilized and degraded more fully.

[0054] In some examples, the inlet 202 gradually bends towards the inlet collision surface 2041 along the direction of water flow and has an inlet guiding arc surface. The water entering from the inlet 202 is guided by the inlet guiding arc surface and faces the inlet collision surface 2041, so that the water fully collides with the inlet collision surface 2041, thereby consuming more kinetic energy and reducing the flow velocity of the water to the maximum extent.

[0055] The outlet 203 gradually bends towards the outlet collision surface 2042 in the direction opposite to the water flow and has an outlet guiding arc surface, so that the water can fully collide with the outlet collision surface 2042 and be deflected, while flowing towards the outlet 203 under the guidance of the outlet guiding arc surface.

[0056] In some examples, the partition 7 includes a barrier section 701 for separating the power supply 4 from the high-voltage transformer 6, a first bent section 702 and a second bent section 703 formed by bending from both ends of the barrier section 701, and a flange 704 extending in the same direction as the first bent section 702. The barrier section 701, the first bent section 702, and the flange 704 form a first mounting space for installing the high-voltage transformer 6. The extension length of the flange 704 is less than the extension length of the first bent section 702. The first mounting space is an open structure. During the process of the high-voltage transformer 6 generating a high voltage of 12000V, a shock wave will be generated, impacting the external structure. The open structure of the first mounting space can effectively reduce the impact from the high-voltage transformer 6 compared to a fully enclosed structure. Furthermore, the distance L2 between the high-voltage transformer 6 and the outer casing 1 is at least twice the width L1 of the high-voltage transformer 6 to effectively reduce the impact from the high-voltage transformer 6. The barrier section 701 and the second bent section 703 form a second mounting space for installing the power supply 4 and the capacitor 5.

[0057] In some examples, the sterilization and degradation channel 201 includes a sterilization and degradation section 2013 equipped with a pulsed light sterilization and degradation lamp group 3 and a backflow section 2014 near the liquid inlet collision surface 2041. The backflow section 2014 contains not only low-speed water flow that collides with the liquid inlet collision surface 2041 and then turns back, but also high-speed water flow that has just flowed into the sterilization and degradation channel 201 from the liquid inlet 202. In order to avoid the high-speed water flow from causing too much impact on the pulsed light sterilization and degradation lamp group 3 and causing damage to the sterilization lamp group 3, the backflow section 2014 is not equipped with a pulsed light sterilization and degradation lamp group 3. That is, the sterilization and degradation section 2013 is equipped with a pulsed light sterilization and degradation lamp group 3 for sterilization and degradation, while the backflow section 2014 is not equipped with a pulsed light sterilization and degradation lamp group 3 to slow down the water flow rate.

[0058] In some examples, the number of capacitors 5 is at least two, and the number of high-voltage packs 6 is at least two groups. The number of both corresponds to the number of pulsed light disinfection and degradation lamp groups 3, and each group of high-voltage packs 6 contains multiple high-voltage packs 6. Multiple high-voltage packs 6 correspond one-to-one with multiple lamp tubes 301.

[0059] In this embodiment, there are six sets of pulsed high-intensity light disinfection and degradation lamp groups 3, six corresponding capacitors 5, and six high-voltage transformers 6. Each set of pulsed high-intensity light disinfection and degradation lamp groups 3 contains five lamps 301, two inner lamps 301 and three outer lamps 301. Each set of high-voltage transformers 6 also contains five lamps. Each high-voltage transformer 6 is used to light up its corresponding lamp 301. The water body generally stays in the sterilization and degradation channel 201 for about 4 seconds, and each lamp 301 can be lit twice per second. The five lamps in each set of pulsed high-intensity light disinfection and degradation lamp groups 3 are lit up a total of ten times per second, so that the water body can be fully disinfected and degraded without incomplete disinfection and degradation.

[0060] In some examples, the inner tank 2 is integrally cast, which can avoid rusting caused by welding, and the sterilization channel 201 is smoothly designed without any dead corners.

[0061] In some examples, the bottom of the inner tank 2 is provided with a drain port 205 that communicates with the sterilization and degradation channel 201, and the liquid inlet 202 and the liquid outlet 203 are both connected to the top of the sterilization and degradation channel 201. After long-term operation, the dirt accumulated inside the device can be discharged from the drain port 205.

[0062] In some examples, the bottom of the inner tank 2 is provided with a support base 8, and the inner peripheral wall of the support base 8 and the outer peripheral wall of the inner tank 2 form a drain cavity 801 that communicates with the drain port 205. The dirt discharged from the drain port 205 can enter the drain cavity 801 from the drain port 205 and then be discharged.

[0063] Working principle:

[0064] Water (domestic water or sewage) is injected into the sterilization and degradation channel 201 of the inner tank 2. During the water flow, it passes sequentially through multiple sets of pulsed high-intensity light sterilization and degradation lamps 3. The power supply 4 in the control component converts AC power into high-voltage DC power to charge the capacitor 5. The high-voltage transformer 6 generates high voltage, breaking down and illuminating the lamp 301. The capacitor 5 then continuously discharges, illuminating the lamp 301. During the water flow, multiple lamps 301 in each set of pulsed high-intensity light sterilization and degradation lamps 3 are pulsedly lit to sterilize and degrade the water. After multiple sterilization and degradation processes, the sterilization and degradation effect is greatly improved. Simultaneously, adjacent lamps 301... The effective disinfection zones 302 are all at least tangent, and the lamp tube 301 is at least tangent to the inner channel wall 2011 and the outer channel wall 2012 of the sterilization and degradation channel 201. This allows the effective disinfection and degradation zones 302 of the pulsed high-intensity light disinfection and degradation lamp group 3 to cover the entire sterilization and degradation channel 201 to sterilize, disinfect, and degrade all water entering the sterilization and degradation channel 201. The lamp tube 301 uses ultraviolet light in the 200-400nm band for sterilization and degradation, visible light in the 400-760nm band for energy supply, and infrared light in the 760-1100nm band for heating to fully disinfect, sterilize, and degrade the water.

[0065] Furthermore, after the water enters the sterilization channel 201 from the inlet 202, its flow rate is slowed down after colliding with the inlet collision surface 2041. During the collision and reversal process, it collides again with the water that just entered the sterilization and degradation channel 201, and the flow rates of both waters are reduced. Then, the reversing water enters the effective sterilization and degradation zone 302 of the pulsed light sterilization and degradation lamp group 3 for sterilization and degradation. When it reaches the vicinity of the outlet 203, it first collides with the outlet collision surface 2042 that is directly opposite to its flow direction, and its flow rate is slowed down. During the collision and reversal process, it is sterilized and degraded again. At the same time, it collides again with the water that just arrived near the outlet 203 to reduce the flow rate of the subsequent water and allow it to be sterilized and degraded more fully.

[0066] The above description, based on the preferred embodiments of the present invention, provides inspiration. Those skilled in the art can make various changes and modifications without departing from the inventive concept. The technical scope of this invention is not limited to the contents of the specification but must be determined according to the claims.

Claims

1. A pulsed high-intensity light water sterilization and organic matter degradation device, characterized in that: include: Outer box (1); The inner tank (2) is fixed inside the outer box (1) and has a sterilization and degradation channel (201) through which water is supplied. The pulsed high-intensity light disinfection and degradation lamp group (3) has at least two groups arranged sequentially along the water flow direction in the disinfection and degradation channel (201). Each group of pulsed high-intensity light disinfection and degradation lamp groups (3) includes multiple lamp tubes (301). The multiple lamp tubes (301) include at least an inner lamp tube (301) near the inner channel wall (2011) of the disinfection and degradation channel (201) and an outer lamp tube (301) near the outer channel wall (2012) of the disinfection and degradation channel (201). Each group of pulsed high-intensity light disinfection and degradation lamp groups (3) has at least two groups arranged sequentially along the water flow direction in the disinfection and degradation channel (201). The effective disinfection and degradation intervals (302) of two adjacent lamp tubes (301) in the pulsed light disinfection and degradation lamp group (3) and two adjacent lamp tubes (301) in the two adjacent pulsed light disinfection and degradation lamp groups (3) are at least tangent to each other, and the effective disinfection and degradation interval (302) of each inner lamp tube (301) is at least tangent to the inner channel wall (2011), and the effective disinfection and degradation interval (302) of each outer lamp tube (301) is also at least tangent to the outer channel wall (2012); The control components are used to control the pulsed lighting of multiple lamps (301) in each group of pulsed light disinfection and degradation lamps (3), including a power supply (4), a capacitor (5) and a high voltage transformer (6) connected in sequence. The power supply (4) and the capacitor (5) are located on the same side, and a partition (7) is provided between them and the high voltage transformer (6). The upstream side of the sterilization and degradation channel (201) is the inlet (202), and the downstream side is the outlet (203). The inlet (202) and the outlet (203) are arranged adjacent to each other and a partition (204) is provided between them to form a ring-shaped sterilization and degradation channel (201). After the water enters the sterilization and degradation channel (201) from the inlet (202), it first collides with the partition (204) that is directly opposite to its flow direction to slow down the flow rate. The partition (204) has an inlet collision surface (2041) on the side facing the inlet (202) for colliding with the water entering from the inlet (202) to slow down the inlet flow rate. The partition (204) has an outlet collision surface (2042) on the side facing the outlet (203) that is directly opposite to the direction of water flow in the sterilization and degradation channel (201) so as to collide with the water and slow down the outlet flow rate. The inlet (202) bends gradually toward the inlet collision surface (2041) along the direction of water flow, and the outlet (203) bends gradually toward the outlet collision surface (2042) in the opposite direction to the water flow.

2. The pulsed high-intensity light water sterilization and organic matter degradation device according to claim 1, characterized in that: The partition (7) is bent into shape, including a barrier section (701) for separating the power supply (4) from the high voltage pack (6) and a first bent section (702) and a second bent section (703) formed by bending from both ends of the barrier section (701).

3. The pulsed high-intensity light water sterilization and organic matter degradation device according to claim 1, characterized in that: The sterilization and degradation channel (201) includes a sterilization and degradation section (2013) equipped with a pulsed light sterilization and degradation lamp group (3) and a reflux section (2014) near the liquid inlet collision surface (2041).

4. The pulsed high-intensity light water sterilization and organic matter degradation device according to claim 1, characterized in that: The number of capacitors (5) is at least two, and the high voltage packs (6) are divided into at least two groups. The number of both groups corresponds to the number of pulsed light disinfection and degradation lamp groups (3). Each group of high voltage packs (6) contains multiple high voltage packs, and multiple high voltage packs (6) correspond one-to-one with multiple lamp tubes (301).

5. The pulsed high-intensity light water sterilization and organic matter degradation device according to claim 1, characterized in that: The inner tank (2) is integrally cast.

6. The pulsed high-intensity light water sterilization and organic matter degradation device according to claim 1, characterized in that: The bottom of the inner tank (2) is provided with a drain outlet (205) that communicates with the sterilization and degradation channel (201).

7. The pulsed high-intensity light water sterilization and organic matter degradation device according to claim 6, characterized in that: The bottom of the inner tank (2) is provided with a support base (8), and the inner peripheral wall of the support base (8) and the outer peripheral wall of the inner tank (2) form a drain cavity (801) that communicates with the drain outlet (205).

Images