Lamp dehumidification system

Abstract

The utility model discloses a lamp dehumidification system which comprises a lamp body, a lamp holder used for generating light beams and a supporting base used for supporting the lamp holder to rotate, and a sealed cavity is formed in the lamp holder and / or the supporting base. And the gas-liquid separation device is located outside the lamp body, and after the gas in the cavity is pumped out and dried by the gas-liquid separation device, the gas is conveyed back into the cavity, and circulation is formed. The external gas-liquid separation device is adopted, gas in the sealed cavity is pumped out and dried, then the gas is conveyed into the cavity again, and the humidity of the gas in the cavity can be effectively reduced after multiple times of such circulation. The limitation of traditional passive adsorption or heating dehumidification is broken through, the scheme is more flexible to operate, and additional high temperature caused by heating demisting work is also avoided. The gas-liquid separation device is independent of the lamp body and can be independently maintained, and the function of the lamp body is not affected; and meanwhile, the installation space in the lamp body is not occupied, and the LED lamp can be compatible with various types of lamps.

Description

TECHNICAL FIELD

[0001] The utility model relates to stage lamp technical field more specifically, it is a kind of lamp dehumidification system. BACKGROUND

[0002] Current market stage lamp although widely adopts IP65 level waterproof shell, but in actual use, moisture still cannot avoid seeping into inside lamp cavity.For example, when high-power light source runs, lamp cavity temperature can soar to 100 DEG C or more, and after show ends equipment sudden stop, temperature will quickly drop to about 40 DEG C.This sharp temperature difference change can form negative pressure in lamp cavity, like "suction tube" as if the external humid air is sucked into inside.Surface will quickly condense fog even water droplet when humid air contacts low-temperature lens glass or metal heat sink.If there is a large amount of water vapor in lamp cavity, not only lens is covered with white spots, distorts light pattern, and if electronic components in lamp cavity work in high humidity environment for a long time, it can seriously affect service life.

[0003] Industry commonly used "drying agent" scheme needs to open lamp cavity regularly to replace consumables, and maintenance cost is high, and heating dehumidification method can temporarily achieve lens demisting effect, but can cause lamp to extra consume 5-8% electricity, even interfere with reading accuracy of temperature sensor.For the touring lamps (such as from high-temperature stage to low-temperature warehouse) needing to be frequently moved and experiencing sharp temperature and humidity fluctuations, both methods are like "adhesive tape" as if difficult to solve problems, and industry urgently needs a flexible and versatile dehumidification scheme. UTILITY MODEL CONTENT

[0004] The utility model provides a lamp dehumidification system to overcome at least one of the defects of the prior art, by connecting the gas-liquid separation device, effectively reduce the humidity inside the stage lamp cavity.

[0005] To solve the above technical problems, the utility model adopts the technical scheme: provide a kind of lamp dehumidification system, including lamp body, with the lamp head for generating light beam and the support seat for supporting the rotation of the lamp head, the lamp head and / or the support seat are formed with sealed cavity;Gas-liquid separation device is located outside the lamp body, the gas-liquid separation device extracts the gas inside the cavity after drying, then is transported back inside the cavity, forms circulation.

[0006] The gas-liquid separation device is externally connected, and the gas in the sealed cavity is extracted, dried, and then transported into the cavity again. After several such cycles, the humidity of the gas in the cavity can be effectively reduced. The present scheme breaks the limitations of traditional passive adsorption or heating dehumidification, and is more flexible in operation, and avoids the additional high temperature caused by heating and dehumidifying. The gas-liquid separation device is independent of the lamp body and can be maintained separately without affecting the function of the lamp body. At the same time, it does not occupy the installation space inside the lamp body, and can be compatible with various types of lamps. In addition, the circulating drying mechanism can quickly balance the temperature difference of the cavity caused by the start and stop of the lamp body, effectively alleviate the negative pressure moisture absorption phenomenon, and can adapt to frequent temperature changes. It has strong versatility.

[0007] When the lamp is shipped, the lamp body is initially dehumidified by the gas-liquid separation device, and the cavity is resealed to keep the inside of the lamp body dry. When the lamp is used up, the light source stops heating, the temperature in the cavity changes dramatically, forming a negative pressure, and the humidity outside is absorbed into the cavity along with the gas. At this time, the gas-liquid separation device is used to extract the gas in the cavity for circulating dehumidification and drying, and finally a stable dry environment is formed in the cavity. The gas-liquid separation device can be removed after completing the work, which is convenient for storage. When the detection system in the lamp prompts that the humidity is too high, the gas-liquid separation device can also be used for dehumidification, which is suitable for various scenes.

[0008] Further, the gas-liquid separation device includes a condensing unit for condensing, a separation unit for separating water from the condensed gas-liquid mixture, and an air flow driving mechanism for driving the gas to flow sequentially between the cavity, the condensing unit, and the separation unit. Under the drive of the air flow driving mechanism, the gas in the cavity is extracted to the gas-liquid separation device, the humid hot gas is rapidly cooled below the dew point by the condensing unit, the water vapor is condensed into liquid water droplets, and the liquid water droplets are intercepted by the separation unit. Finally, the dry gas is transported back into the cavity, and several cycles are performed according to the requirements to make the cavity reach the ideal humidity. Through the synergistic effect of condensation-separation and circulating air flow design, the drying efficiency and reliability are improved.

[0009] Further, the condensing unit includes a condensing cavity for condensing and a refrigeration sheet for cooling the condensing cavity. The refrigeration sheet and the condensing cavity cooperate to continuously cool the condensing cavity, so that the water vapor in the humid hot gas flowing through the condensing cavity is condensed.

[0010] Further, the condensing unit further includes a cover body covering the refrigeration sheet, the cover body is buckled on the refrigeration sheet and forms the condensing cavity together, and the refrigeration sheet is provided with cooling fins. The cooling fins greatly increase the heat exchange area and further improve the cooling efficiency.

[0011] Further, under the driving of the airflow driving mechanism, the gas is divided into at least two airflows into the condensing cavity. The humid hot air enters the condensing cavity through at least two paths, so that the airflows are blown more uniformly to all parts of the condensing cavity, thereby improving the heat exchange efficiency.

[0012] Further, the separation unit is a pressure regulating filter or a membrane dryer or an adsorption dryer. The type of separation device can be selected as needed, the pressure regulating filter is suitable for high-flow working environment, the combination of pressure reducing valve and inertial separation structure can expand the volume and reduce the pressure when the airflow passes at high speed, so as to promote the condensation and interception of water vapor; the membrane dryer can selectively permeate water molecules and directly discharge water vapor under the driving of air pressure, without the need to increase moving parts, thereby effectively reducing the energy consumption of the gas-liquid separation device; the adsorption dryer is suitable for ultra-low dew point scenes and has high reliability.

[0013] Further, a heating device is further included, which heats the gas output by the gas-liquid separation device and then inputs the gas into the cavity. The gas heated by the heating device is re-input into the cavity to heat other gases in the cavity, so that the gas mixed with water vapor becomes humid hot gas, which is extracted by the gas-liquid separation device for the next cycle. The heating device can avoid the situation that the temperature of the lamp body drops rapidly due to stopping working, so as to make the air pressure in the cavity more stable.

[0014] Further, the gas-liquid separation device further includes a sensor for detecting the temperature and / or humidity of the gas, which is arranged at the gas inlet and / or gas outlet of the gas-liquid separation device. By arranging the sensor, the temperature and / or humidity of the gas in the cavity can be more intuitively observed and more accurately controlled.

[0015] Further, the cavity in the lamp head and the cavity in the support seat are in communication with each other, and the cavity is connected with the gas-liquid separation device through air permeable holes, one of which is arranged on the lamp head and the other of which is arranged on the support seat. The gas-liquid separation device works after being connected with the cavity through the air permeable holes, the gas in the cavity is extracted from the lamp head and then dehumidified by the gas-liquid separation device, the dried gas is transported from the air permeable holes to the support seat, and the gas in the lamp body flows from the support seat to the lamp head, thereby forming a cycle.

[0016] Further, the support base comprises an arm for pivoting the lamp head, and a case for pivoting the arm, the cavity of the lamp head, the cavity of the arm and the cavity of the case are communicated with each other, one of the air holes is arranged on the lamp head close to the light outlet, and the other air hole is arranged on the case. The flow path of the gas in the lamp body is "case-arm-lamp head", the gas-liquid separation device extracts the gas in the lamp body from the air hole of the lamp head, after completing the dehumidification, the dry gas is transported back to the case to enter the inside of the lamp body, the air flow channel in the lamp body is effectively lengthened, so that the air in the lamp body can be fully extracted and dried, and the gas drying efficiency is further improved.

[0017] Further, the number of the lamp bodies is multiple, the cavities of the multiple lamp bodies are communicated with each other through air holes, and the gas-liquid separation device is used to simultaneously perform the circulating drying on the gas in the cavities of the multiple lamp bodies. By connecting the multiple lamp bodies in series and then simultaneously performing the gas drying on the lamp bodies by the gas-liquid separation device, the system is suitable for large-scale performances and theme venues with a large number of lamp bodies, and the use and maintenance costs are greatly reduced. BRIEF DESCRIPTION OF DRAWINGS

[0018] Figure 1 is a schematic diagram of the gas flow in the lamp dehumidification system of the utility model.

[0019] Figure 2 is a working principle diagram when the air flow driving mechanism is installed on the gas outlet of the gas-liquid separation device in the utility model.

[0020] Figure 3 is a structural schematic diagram of the gas-liquid separation device in the utility model.

[0021] Figure 4 is a structural schematic diagram of the gas-liquid separation device after removing the shell in the utility model.

[0022] Figure 5 is an exploded structural schematic diagram of the condensation unit in the utility model.

[0023] In the drawings:

[0024] 100, gas-liquid separation device; 110, airflow driving mechanism; 120, condensing unit; 121, cover body; 122, refrigeration fin; 123, cooling fin; 124, heat dissipation fin; 125, fan; 130, separation unit; 140, heating device; 141, heating wire; 142, shell; 150, sensor; 161, power supply; 162, control panel; 171, housing; 172, base plate; 180, conduit; 190, flow divider; 200, lamp body; 210, lamp head; 211, light outlet; 220, support seat; 221, arm; 222, case; 310, air inlet; 320, air outlet; 400, air permeable hole. DETAILED DESCRIPTION

[0025] The accompanying drawings are only used for illustrative description and cannot be understood as a limitation to the patent; in order to better illustrate the embodiments, some components in the drawings can be omitted, enlarged or reduced, and do not represent the actual product size; it can be understood by those skilled in the art that some well-known structures and their descriptions in the drawings can be omitted. The positional relationship described in the drawings is only used for illustrative description and cannot be understood as a limitation to the patent.

[0026] As shown in Figure 1 , Figure 3 and Figure 4 , a lamp dehumidification system includes a lamp body 200 having a lamp head 210 for generating a light beam and a support seat 220 for supporting the rotation of the lamp head 210, a sealed cavity is formed in the lamp head 210 and / or the support seat 220; a gas-liquid separation device 100 is located outside the lamp body 200, which dries the gas inside the cavity and then transports it back to the inside of the cavity to form a cycle.

[0027] The gas-liquid separation device 100 is connected to the sealed cavity, which dries the gas inside the cavity and then transports it back to the inside of the cavity. After several such cycles, the humidity of the gas in the cavity can be effectively reduced. This scheme breaks the limitations of traditional passive adsorption or heating dehumidification, and is more flexible to operate, and avoids the additional high temperature caused by heating and dehumidification. The gas-liquid separation device 100 is independent of the lamp body 200 and can be maintained separately without affecting the function of the lamp body 200; at the same time, it does not occupy the installation space inside the lamp body 200, and can be compatible with various types of lamps; in addition, the circulating drying mechanism can quickly balance the temperature difference of the cavity caused by the start and stop of the lamp body 200, effectively alleviate the negative pressure moisture absorption phenomenon, and can adapt to frequent temperature changes. The working condition has strong versatility.

[0028] When the lamp is shipped, the lamp body 200 is initially dehumidified by the gas-liquid separation device 100, and then the cavity is resealed to keep the inside of the lamp body 200 dry. When the lamp is used, the light source stops heating, the temperature in the cavity changes sharply, a negative pressure is formed, and the humidity in the outside air is sucked into the cavity. At this time, the gas-liquid separation device 100 is used to extract the gas in the cavity to perform cyclic dehumidification and drying, so that a stable dry environment is formed in the cavity, and the gas-liquid separation device 100 can be removed after completing the work, which is convenient for storage. When the detection system in the lamp prompts that the humidity is too high, the gas-liquid separation device 100 can also be used for dehumidification, which is suitable for various scenes.

[0029] Preferably, the gas-liquid separation device 100 is provided with a power supply 161 and a control panel 162 for sending control signals, so that it can work independently of the lamp body 200. Alternatively, the power supply 161 of the lamp body 200 can be connected to work by sending electrical signals.

[0030] Preferably, the lamp head 210 is used to generate a light beam, and the lamp head 210 is pivotally connected to the support seat 220, so that the light beam can be projected at multiple angles.

[0031] Preferably, one lamp body 200 is matched with one gas-liquid separation device 100, so as to ensure the dehumidification efficiency of the gas in the lamp body 200. The gas drying system is suitable for waterproof stage lamps and also suitable for indoor stage lamps with low waterproof requirements.

[0032] In the preferred embodiment of the utility model, the gas-liquid separation device 100 includes a condensing unit 120 for condensation, a separation unit 130 for separating water from the gas-liquid mixture after condensation, and an air flow driving mechanism 110 for driving the air to flow in sequence between the cavity, the condensing unit 120 and the separation unit 130. Under the driving of the air flow driving mechanism 110, the gas in the cavity is extracted to the gas-liquid separation device 100, the humid hot gas is rapidly cooled below the dew point by the condensing unit 120, the water vapor is condensed into liquid water droplets, the liquid water droplets are intercepted by the separation unit 130, and finally the dry gas is delivered back to the cavity. According to the requirement, several times of circulation are carried out, so that the ideal humidity in the cavity is achieved. Through the synergistic effect of condensation-separation and the circulation of air flow, the drying efficiency and reliability are improved.

[0033] Preferably, the air flow driving mechanism 110 can select an air pump or a fan according to the requirement to provide driving force for the air flow.

[0034] Preferably, according to design needs, the air pump is arranged between the air inlet 310 of the gas-liquid separation device 100 and the condensing unit 120, and / or in front of the air outlet 320 of the gas-liquid separation device 100.

[0035] Preferably, the gas-liquid separation device 100 comprises a substrate 172 and a shell 171 buckled on the substrate 172, both of which form a containing cavity, the gas flow driving mechanism 110, the condensing unit 120 and the separation unit 130 located in the containing cavity are all mounted on the substrate 172. The gas-liquid separation device 100 has one air inlet 310 and one air outlet 320 penetrating the shell 171, and the air inlet 310 of the gas-liquid separation device 100 is connected with the shunt 190 between the gas flow driving mechanism 110; the number of air inlets 310 and air outlets 320 of the gas flow driving mechanism 110 is both 2, the condensing unit 120 has two air inlets 310 and one air outlet 320, and the number of air inlets 310 and air outlets 320 of the separation unit 130 is both 1; under the action of the shunt 190 and the gas flow driving mechanism 110, the gas entering from the air inlet 310 of the gas-liquid separation device 100 is divided into two paths and enters the condensing unit 120 from two directions for cooling, and then is output from the air outlet 320 of the condensing unit 120 to the separation unit 130, and finally is re-delivered back to the inside of the cavity.

[0036] Preferably, each air outlet 320 and the corresponding air inlet 310 are sealedly connected through the pipe 180 to avoid that the gas is mixed with other gas or re-penetrates water vapor during flowing.

[0037] As shown in the drawings, Figure 4 With Figure 5 In the preferred embodiment of the utility model, the condensing unit 120 comprises a condensing cavity for condensation and a refrigeration fin 122 for cooling the condensing cavity. The cooperation of the refrigeration fin 122 and the condensing cavity continuously cools the condensing cavity, so that the water vapor in the hot and humid gas flowing through the condensing cavity is condensed.

[0038] In the preferred embodiment of the utility model, the condensing unit 120 further comprises a cover body 121 covering the refrigeration fin 122, the cover body 121 is buckled on the refrigeration fin 122 and forms the condensing cavity together, and the refrigeration fin 122 is provided with a cooling fin 123. The arrangement of the cooling fin 123 greatly increases the heat exchange area and further improves the cooling efficiency.

[0039] Preferably, the refrigeration sheet 122 is a semiconductor refrigeration sheet 122 with a hot end face and a cold end face, the cold end face is located in the cover 121, the hot end face is exposed outside the condensation cavity, and the outside is provided with a plurality of parallel arranged heat dissipation fins 124, and the heat generated by the hot end face is dissipated in time by cooperating with the fan 125.

[0040] Optionally, the refrigeration sheet 122 is a micro-compressor.

[0041] In the preferred embodiment of the utility model, under the driving of the airflow driving mechanism 110, the gas is divided into at least two airflows entering the condensation cavity. The humid hot air enters the condensation cavity through at least two ways, so that the airflow blows to all parts of the condensation cavity more uniformly, and the heat exchange efficiency is improved.

[0042] In the preferred embodiment of the utility model, the separation unit 130 is a pressure regulating filter or a membrane dryer or an adsorption dryer. The type of separation device can be selected according to the need, the pressure regulating filter is suitable for high-flow working environment, through the combination of pressure reducing valve and inertial separation structure, the volume is enlarged and the pressure is reduced when the airflow passes at high speed, so as to promote the condensation and interception of water vapor; the membrane dryer can selectively permeate water molecules, and directly discharge water vapor under the driving of air pressure, without increasing moving parts, effectively reducing the energy consumption of the gas-liquid separation device 100; the adsorption dryer is suitable for ultra-low dew point scene, and has high reliability.

[0043] Preferably, the separation unit 130 is a pressure regulating filter, which is a more commonly used filter on the market, and its working process is as follows:

[0044] (1) The humid cold air after the condensation unit 120 enters the separation unit 130 through the air inlet 310, first hits the baffle or cyclone guide structure inside, uses the centrifugal force to make the large particle water droplets separate due to inertia, and preliminarily accumulates at the bottom of the shell 142;

[0045] (2) Use multiple layers of filter cores (usually made of fiber, sintered metal or ceramic material) to capture small water droplets through interception, diffusion and adsorption; with the flow of gas, the liquid water in the gas-liquid mixture finally converges to the liquid collection cavity at the bottom of the separation unit 130;

[0046] (3) The automatic water drain in the separation unit 130 triggers the water drainage action by detecting the liquid level in the liquid collection cavity, and drains the liquid water out of the gas-liquid separation device 100 through the water drain.

[0047] As Figure 2As shown in another embodiment of the utility model, the separation unit 130 is a liquid water retention groove arranged in the condensation cavity, liquid water is guided to the retention groove by the flow guide groove, and the water vapor in the retention groove is discharged, achieving the effect of water and gas separation.

[0048] As Figure 1 and Figure 4 As shown in the preferred embodiment of the utility model, the heating device 140 is further included, which heats the gas output by the gas-liquid separation device 100 and then inputs the heated gas into the cavity. The gas heated by the heating device 140 is re-input into the cavity, and other gas in the cavity is heated, so that the gas mixed with water vapor becomes humid hot gas, which is extracted by the gas-liquid separation device 100 for the next cycle. At the same time, the heating device 140 can avoid the situation that the temperature of the lamp body 200 drops rapidly due to stop working, so that the air pressure in the cavity is more stable.

[0049] Preferably, the gas-liquid separation device 100 further includes a condensation unit 120 for condensation, a separation unit 130 for separating water from the gas-liquid mixture after condensation, and an airflow driving mechanism 110 for driving the gas to flow in the cavity, the condensation unit 120, the separation unit 130 and the heating device 140 in sequence.

[0050] Preferably, the heating device 140 includes a shell 142 forming a heating cavity, and a heating wire 141 installed in the shell 142.

[0051] In the preferred embodiment of the utility model, the gas-liquid separation device 100 further includes a sensor 150 for detecting the temperature and / or humidity of the gas, and the sensor 150 is arranged at the gas inlet 310 and / or the gas outlet 320 of the gas-liquid separation device 100. By arranging the sensor 150, the temperature and / or humidity of the gas in the cavity can be observed more intuitively and controlled more accurately.

[0052] Preferably, the gas inlet 310 and the gas outlet 320 of the gas-liquid separation device 100 are both provided with the sensor 150, and the sensor 150 can be used to detect the temperature and humidity of the gas.

[0053] In the preferred embodiment of the utility model, the cavity in the lamp head 210 and the cavity in the support base 220 are in communication with each other, the cavity is connected with the gas-liquid separation device 100 through the air hole 400, one of the air holes 400 is arranged on the lamp head 210, and the other air hole 400 is arranged on the support base 220. The flow path of the gas in the lamp body 200 is "machine box 222-arm 221-lamp head 210", the gas-liquid separation device 100 extracts the gas in the lamp body 200 from the air hole 400 of the lamp head 210, after completing the dehumidification, the dry gas is transported back to the machine box 222 to enter the inside of the lamp body 200, and the air flow channel in the inside of the lamp body 200 is effectively lengthened, so that the air in the lamp body 200 can be fully extracted and dried, and the gas drying efficiency is further improved.

[0054] Preferably, the air hole 400 has a mounting position for mounting a waterproof air valve, when the gas-liquid separation device 100 is removed from the air hole 400 after completing the work, the waterproof air valve is mounted on the air hole 400, effectively preventing external water vapor from entering the cavity, facilitating operation, and also ensuring the air pressure balance in the cavity.

[0055] In the preferred embodiment of the utility model, the support base 220 includes an arm 221 for pivoting the lamp head 210 and a machine box 222 for pivoting the arm 221, the cavity of the lamp head 210, the cavity of the arm 221 and the cavity of the machine box 222 are in communication with each other, one of the air holes 400 is arranged on the lamp head 210 close to the light outlet 211, and the other air hole 400 is arranged on the machine box 222. The air flow channel of the entire cavity in the lamp body 200 is effectively lengthened, so that the air in the lamp body 200 can be fully extracted to the gas-liquid separation device 100 for drying, and the gas drying efficiency is further improved.

[0056] In the preferred embodiment of the utility model, the number of the lamp body 200 is multiple, the cavities of the multiple lamp bodies 200 are respectively connected with each other through the air holes 400, and the gas-liquid separation device 100 is used to simultaneously circulate and dry the gas in the cavities of the multiple lamp bodies 200. After the multiple lamp bodies 200 are connected in series, the gas-liquid separation device 100 is used to simultaneously dry the gas in these lamp bodies 200, which is suitable for large-scale performances and theme venues with a large number of lamp bodies 200, and greatly reduces the use and maintenance costs.

[0057] Obviously, the above embodiments of the present application are merely examples for clearly illustrating the present application, and are not intended to limit the implementation modes of the present application. For those skilled in the art, on the basis of the above description, other different forms of changes or variations can also be made. Here, it is not necessary and also impossible to exhaust all the implementation modes. Any modification, equivalent replacement and improvement, etc. made within the spirit and principle of the present application shall be included in the protection scope of the claims of the present application.

Claims

1. A luminaire dehumidification system, characterized in that, The application relates to a lamp body (200) with a lamp head (210) for generating a light beam and a supporting seat (220) for supporting the rotation of the lamp head (210), a sealed cavity being formed in the lamp head (210) and / or the supporting seat (220); a gas-liquid separation device (100) outside the lamp body (200), which dries and then delivers the gas inside the cavity, forming a cycle. The gas-liquid separation device (100) comprises a condensing unit (120) for condensation, a separation unit (130) for separating the moisture from the condensed gas-liquid mixture, and a gas flow driving mechanism (110) for driving the gas to flow in the cavity, the condensing unit (120) and the separation unit (130) in sequence. The condensing unit (120) comprises a condensing cavity and a refrigeration sheet (122) for cooling the condensing cavity.

2. The luminaire dehumidification system of claim 1, wherein, The condensing unit (120) further comprises a cover body (121) covering the refrigeration sheet (122), the cover body (121) being buckled on the refrigeration sheet (122) and forming the condensing cavity together, and cooling fins (123) being arranged on the refrigeration sheet (122).

3. The luminaire dehumidification system of claim 2, wherein, The output gas is divided into at least two gas flows entering the condensing cavity under the driving of the gas flow driving mechanism (110).

4. The luminaire dehumidification system of claim 3, wherein, The separation unit (130) is a pressure regulating filter or a membrane dryer or an adsorption dryer.

5. The luminaire dehumidification system of claim 3, wherein, The application further comprises a heating device (140) for heating the gas output by the gas-liquid separation device (100) and then inputting the gas into the cavity.

6. The luminaire dehumidification system of claim 2, wherein, The gas-liquid separation device (100) further comprises a sensor (150) for detecting the temperature and / or humidity of the gas, the sensor (150) being arranged at the gas inlet (310) and / or the gas outlet (320) of the gas-liquid separation device (100).

7. The luminaire dehumidification system of claim 1, wherein, The cavity in the lamp head (210) and the cavity in the supporting seat (220) are in communication with each other, and the cavities are connected with the gas-liquid separation device (100) through gas permeation holes (400), one of the gas permeation holes (400) being arranged on the lamp head (210) and the other being arranged on the supporting seat (220).

8. The luminaire dehumidification system of claim 1, wherein, The supporting seat (220) comprises an arm (221) for pivoting the lamp head (210) and a case (222) for pivoting the arm (221), the cavities in the lamp head (210), the arm (221) and the case (222) being in communication with each other, one of the gas permeation holes (400) being arranged on the lamp head (210) near the light outlet (211) and the other being arranged on the case (222).

9. The luminaire dehumidification system of claim 1, wherein, ​ 10. The luminaire dehumidification system of claim 9, wherein, ​ 11. The luminaire dehumidification system of claim 1, wherein, The number of the lamp body (200) is multiple, the cavities of the multiple lamp bodies (200) are communicated with each other through the air holes (400), and the gas-liquid separation device (100) is used for simultaneously circulating and drying the gas in the cavities of the multiple lamp bodies (200).

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