A multifunctional xenon lamp device convenient to use

Abstract

The application relates to a multifunctional xenon lamp device convenient to use, and relates to the technical field of xenon lamp devices.The device comprises a case, a control module, a heat dissipation module, a light filtering module and a xenon lamp module.A light guide optical fiber element is arranged on the front panel of the case.The xenon lamp module comprises a heat dissipation sleeve.A fixing module is fixedly arranged in the case.The fixing module comprises upper and lower positioning support blocks.The upper and lower positioning support blocks are combined to form a mounting port.The heat dissipation sleeve is slidably arranged in the mounting port.A clamping groove is formed in the mounting port.A cylindrical bundle sleeve is clamped in the clamping groove.The heat dissipation sleeve is slidably inserted into the bundle sleeve.The light guide optical fiber element, the xenon lamp module and the bundle sleeve are arranged in a straight line.A through hole is formed in the rear panel of the case and is connected with the inside of the case.A box door is hingedly arranged on the through hole and can be opened and closed.The box door is positioned opposite the bundle sleeve.The application realizes quick installation and replacement of the xenon lamp module, and improves the convenience and maintenance efficiency of the device.

Description

Technical Field

[0001] This application relates to the field of xenon lamp equipment technology, and in particular to a user-friendly, multifunctional xenon lamp equipment. Background Technology

[0002] Xenon lamps, as an important light source, have wide applications in scientific research, medical treatment, and industrial testing. With continuous technological advancements, xenon lamp equipment has demonstrated superior performance in spectral analysis, microscopic imaging, and materials testing, significantly improving research efficiency and accuracy in these fields. Therefore, the design and production of xenon lamp equipment has become a current research hotspot in the field of optics. Currently, to meet market demand for multifunctional high-intensity xenon lamp equipment, the industry typically employs various designs to ensure easy coupling of the light source to optical fibers, flexible adjustment of light intensity, and spectral selection of different wavelengths through filtering devices, achieving basic light source control to adapt to specific experimental or testing needs.

[0003] However, existing xenon lamp equipment still has shortcomings in practical use, mainly in that: the replacement of the xenon lamp or xenon lamp lens inside the equipment is difficult and requires a complicated disassembly and assembly process. In this case, not only does it affect the maintenance efficiency of the xenon lamp equipment, but it may also limit the flexibility of the equipment in application. Summary of the Invention

[0004] To overcome the aforementioned technical problems, this application provides a user-friendly, multifunctional xenon lamp device.

[0005] This application provides a user-friendly, multi-functional xenon lamp device, which adopts the following technical solution:

[0006] A user-friendly, multi-functional xenon lamp device includes a chassis, a control module, a heat dissipation module, a filter module, and a xenon lamp module. An optical fiber element is mounted on the front panel of the chassis. A gap exists between the xenon lamp module and the optical fiber element. The xenon lamp module includes a cylindrical heat dissipation sleeve. A fixing module is fixedly mounted inside the chassis. The fixing module includes an upper positioning support block and a lower positioning support block, which together form a circular mounting opening. The heat dissipation sleeve is slidably installed within the mounting opening. An annular groove with a diameter larger than the mounting opening diameter forms a snap-fit ​​groove. A cylindrical bundled housing is snapped into the snap-fit ​​groove. The heat dissipation sleeve is slidably inserted into the bundled housing. The optical fiber element, the xenon lamp module, and the bundled housing are aligned linearly. An opening communicating with the interior of the chassis is provided on the rear panel of the chassis. A door is installed at the opening via a hinge, and the door is positioned directly opposite the bundled housing.

[0007] By adopting the above technical solution and designing the heat sink and cluster housing in an easy-to-assemble form, the goal of quickly replacing the xenon lamp module is achieved, greatly reducing the time and cost of maintenance and replacement. Simultaneously, by rationally selecting materials and structural forms, the heat dissipation capacity of the equipment is effectively enhanced, reducing the probability of failure and thus significantly improving the overall reliability and working efficiency of the xenon lamp equipment. The enclosure door design facilitates easy replacement of the xenon lamp by operators. When replacing the xenon lamp, operators use a Phillips screwdriver to remove and open the enclosure door. Then, the cluster housing and heat sink are rotated out as a whole, avoiding tangling of the wiring harness. The lens retainer is removed by rotating counterclockwise to expose the xenon lamp for lens replacement. This process greatly simplifies the time required for replacing the xenon lamp and coupling lens, improving efficiency.

[0008] In one specific implementation, the xenon lamp module further includes a xenon lamp assembly and a coupling mirror assembly disposed within the heat sink. The xenon lamp assembly includes a xenon lamp and a power socket, the power socket being fixedly disposed within the heat sink, and the xenon lamp being mounted on the power socket.

[0009] By adopting the above technical solution and designing the xenon lamp assembly and coupling mirror assembly to form a modular system, the difficulties encountered by traditional xenon lamp equipment when replacing xenon lamps or adjusting their positions are solved, simplifying the operation steps and reducing labor time.

[0010] In one specific implementation, the coupling mirror assembly includes a lens fixing member, a first xenon lamp lens, and a second xenon lamp lens. The first and second xenon lamp lenses are disposed inside the lens fixing member. The end of the lens fixing member extends out of the heat sink in the direction of the optical fiber element. The extended end of the lens fixing member is engaged and limited with the heat sink by a provided shoulder. The first and second xenon lamp lenses are aligned linearly with the xenon lamp. A pressure ring is provided inside the lens fixing member, and the pressure ring is engaged with the lens fixing member by the shoulder.

[0011] In one specific implementation, the filter module includes a drive motor and filter wheels. One drive motor is provided on each of the left and right sides of the heat sink. Both drive motors are supported and fixed by a fixing plate fixedly provided at the bottom of the chassis. Two filter wheels are provided and fixedly provided on the output shaft of the drive motor respectively.

[0012] In one specific implementation, the filter wheel has multiple circular holes arranged in a ring to form a filter port. A lens is fixedly installed inside the filter port. The two filter wheels are staggered and spaced a certain distance apart. The two filter ports overlap spatially and the centers of the two filter ports are on a horizontal straight line.

[0013] In one specific implementation scheme, light-blocking blocks are provided on the outer edges of both filter wheels, and a photoelectric sensor is fixedly provided at the bottom of the chassis corresponding to the positions of the two filter wheels. The photoelectric sensor includes a U-shaped block with a U-shaped cross-section and a light-sensing element embedded in the U-shaped block. A through-hole is formed on the top of the U-shaped block, and through holes are opened on the two sides of the U-shaped block to form light-emitting holes.

[0014] By adopting the above technical solution, a highly efficient electric drive method is used to replace manual dial control, saving manpower and material resources while avoiding adverse consequences caused by human error. This results in a high degree of automation, high precision, and faster response. The photoelectric sensor can promptly correct deviations, facilitating closed-loop control and automation.

[0015] In one specific implementation, the heat dissipation module includes a heat sink fixedly mounted on the two side walls of the lower positioning support block, and the heat dissipation module also includes a cooling fan fixedly mounted on the rear panel of the chassis. Heat dissipation holes are provided on the rear panel and the left and right side panels of the chassis.

[0016] By adopting the above technical solution, and through a reasonable heat dissipation layout and efficient heat dissipation devices, the goal of low power consumption and long-term operation was achieved. This effectively improved heat dissipation, reduced equipment temperature rise, and further enhanced equipment reliability and lifespan.

[0017] In one specific implementation, a front panel cover is removably provided on the front panel of the chassis.

[0018] By adopting the above technical solution, the front panel cover is used for correcting and adjusting the filter wheel and photoelectric sensor, providing operators with a quick access point.

[0019] In one specific implementation, the chassis also includes a power supply module and a capacitor module.

[0020] By adopting the above technical solutions, the power supply module and capacitor module are used to meet the operation requirements of the equipment under different working conditions.

[0021] In one specific implementation, the control module includes a display screen, operation buttons, a data transmission interface, and a network port located on the front panel of the chassis.

[0022] By adopting the above technical solutions, it is easier for equipment and operators to interact and use the equipment.

[0023] In summary, this application includes at least one of the following beneficial technical effects:

[0024] 1. By modularizing the first and second xenon lamp lenses, and placing the filter module and xenon lamp module inside the heat sink, and integrating the xenon lamp wiring harness through a bundled housing, a unified module is formed. In addition, a door is provided on the rear panel of the chassis, allowing operators to easily replace the xenon lamp and lens by opening the door. The replacement process does not require tidying up the wiring harness, reducing the need for plugging and unplugging the wiring harness, and keeping the equipment neat and orderly, reducing possible errors during replacement and improving efficiency.

[0025] 2. By configuring the filter module, the filter wheel is driven by a drive motor to rotate, thereby changing different lenses to achieve light filtering and adjustment. This design allows the equipment to flexibly adjust the type of output light according to actual needs, enabling the equipment to meet different lighting requirements with higher efficiency. The filter module, in conjunction with the light sensor, can complete automated closed-loop control, automatically correcting and adjusting the equipment to ensure that the output light source can output illumination correctly and stably as required. Attached Figure Description

[0026] Figure 1 and Figure 2 This is a perspective view of an embodiment of this application;

[0027] Figure 3 , Figure 4 , Figure 5 and Figure 6 It is a schematic diagram of the specific internal structure of the equipment;

[0028] Figure 7 This is a schematic diagram of the specific structure of the photoelectric sensor;

[0029] Figure 8 and Figure 9 This is an assembly diagram of the heat dissipation module, the filter module, and the xenon lamp module;

[0030] Figure 10 , Figure 11 and Figure 12 This is a schematic diagram of the specific structure of the xenon lamp module.

[0031] Explanation of reference numerals in the attached diagram: 1. Chassis; 11. Optical fiber component; 12. Upper positioning support block; 14. Mounting port; 13. Lower positioning support block; 15. Snap-in slot; 16. Bundling sleeve; 17. Hinge; 171. Door; 18. Fixing plate; 19. Front panel cover; 21. Operation buttons; 22. Display screen; 23. Data transmission interface; 24. Network port; 31. Heat sink; 32. Cooling fan; 33. Ventilation hole ; 41. Drive motor; 42. Filter wheel; 43. Filter port; 44. Lens; 45. Light blocking block; 51. Heat sink; 52. Xenon lamp assembly; 521. Xenon lamp; 522. Power socket; 53. Lens fixing component; 531. Pressure ring; 54. First xenon lamp lens; 55. Second xenon lamp lens; 61. U-shaped block; 62. Light sensor; 63. Through port; 64. Light emission hole; 7. Power module; 8. Capacitor module. Detailed Implementation

[0032] The present application will be further described in detail below with reference to the accompanying drawings.

[0033] In the description of the invention, it should be understood that the orientation descriptions, such as up, down, front, back, left, right, etc., indicate the orientation or positional relationship based on the orientation or positional relationship shown in the accompanying drawings. They are only for the convenience of describing the invention and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation. Therefore, they should not be construed as limiting the invention.

[0034] This application discloses a user-friendly, multi-functional xenon lamp device, as shown in the embodiments below. Figure 1 and Figure 2 The system includes a chassis 1, a control module, a heat dissipation module, a filter module, and a xenon lamp module. An optical fiber element 11 is provided on the front panel of the chassis 1. There is a gap between the xenon lamp module and the optical fiber element 11. The xenon lamp module includes a cylindrical heat dissipation sleeve 51, which is made of aluminum alloy material with good thermal conductivity. The chassis 1 is internally fixed with a fixing module, which includes an upper positioning support block 12 and a lower positioning support block 13. The upper positioning support block 12 and the lower positioning support block 13 are vertically arranged. The upper positioning support block 12 is fixed to the top plate of the chassis 1 by bolts, and the lower positioning support block 13 is fixed to the bottom plate of the chassis 1 by bolts. The upper positioning support block 12 and the lower positioning support block 13 are rectangular blocks with a semi-circular through slot on their top, so that the upper positioning support block 12 and the lower positioning support block 13 together form a circular mounting port 14. The upper positioning support block 12 and the lower positioning support block 13 are made of thin aluminum alloy plate, so that the upper positioning support block 12 and the lower positioning support block 13 have good heat dissipation.

[0035] Reference Figures 3 to 6The heat sink 51 is slidably installed inside the mounting opening 14. The mounting opening 14 has an annular groove with a diameter larger than that of the mounting opening 14, forming a snap-fit ​​groove 15. A cylindrical bundled sleeve 16 is snapped into the snap-fit ​​groove 15. The heat sink 51 is slidably inserted into the bundled sleeve 16, allowing it to slide and adjust its position. The bundled sleeve 16 is used to store the equipment wiring harness, making it easier to locate the wiring harness when replacing the xenon lamp 521, thus shortening the replacement time. The diameter of the snap-fit ​​groove 15 is different from that of the mounting opening 14, forming a step for snapping the bundled sleeve 16. During installation, it only needs to be pushed to the end of the snap-fit ​​groove 15 for quick positioning and installation, achieving a blind installation effect. By setting the upper positioning support block 12, the lower positioning support block 13 and the bundled housing 16, the xenon lamp module is positioned and installed, fixing the angle change of the xenon lamp module, so that the optical fiber element 11, the xenon lamp module and the bundled housing 16 can always maintain a straight alignment.

[0036] The heat dissipation module includes a heat sink 31 fixedly mounted on the two side walls of the lower positioning support block 13. The heat sink 31 is in close contact with the two side walls of the lower positioning support block 13. In this embodiment, the heat sink 31 is configured as a semiconductor heat sink, which can quickly reduce the temperature of the lower positioning support block 13 and conduct the low temperature evenly to the heat sink sleeve 51 through the grooves opened in the lower positioning support block 13. The heat dissipation module also includes a cooling fan 32 fixedly mounted on the rear panel of the chassis 1. The rear panel and the left and right side panels of the chassis 1 are provided with heat dissipation holes 33. The arrangement of the heat dissipation holes 33 and the cooling fan 32 can accelerate the heat exchange between the inside and outside of the chassis 1, keeping the temperature inside the chassis 1 close to the ambient temperature.

[0037] The rear panel of the chassis 1 has an opening that connects to the interior of the chassis 1. A door 171 is installed at the opening via a hinge 17. The door 171 is positioned directly opposite the cluster housing 16. The hinge 17 is fixedly connected to the bottom of the door 171, and the top of the door 171 is detachably fixed to the rear panel of the chassis 1 with screws. The door 171 is designed to be openable and closable via the hinge 17, allowing the operator to directly face the cluster housing 16 when the door 171 is opened.

[0038] Reference Figure 10 , Figure 11 and Figure 12The xenon lamp module also includes a xenon lamp assembly and a coupling mirror assembly housed within a heat sink 51. The xenon lamp assembly includes a xenon lamp 521 and a power socket 522. The power socket 522 is fixedly disposed within the heat sink 51, and the xenon lamp 521 is mounted on the power socket 522. The wiring harness of the power socket 522 is integrated and led out through a bundled housing 16. The coupling mirror assembly includes a lens holder 53, a first xenon lamp 521 lens, and a second xenon lamp 521 lens. The first xenon lamp 521 lens and the second xenon lamp 521 lens are disposed inside the lens holder 53. The lens holder 53 fixes the first xenon lamp 521 lens and the second xenon lamp 521 lens into a whole, making the coupling mirror assembly easy to disassemble as a whole. The end of the lens holder 53 extends out of the heat sink 51 towards the optical fiber element 11. The extended end of the lens holder 53 is engaged and limited with the heat sink 51 by a provided shoulder, thereby fixing the coupling mirror assembly within the heat sink 51 and avoiding the impact on accuracy and space utilization caused by using a fixing component. The first xenon lamp 521 lens and the second xenon lamp 521 lens are aligned in a straight line with the xenon lamp 521. A pressure ring 531 is provided inside the lens fixing member 53. The pressure ring 531 is engaged in the lens fixing member 53 by a shoulder. The pressure ring 531 is used to abut and limit the second xenon lamp 521 lens. The pressure ring 531 is made of rubber and has a large fixing friction force inside the lens fixing member 53, while also protecting the second xenon lamp 521 lens.

[0039] When replacing the xenon lamp 521, the operator uses a Phillips screwdriver to remove the screws on the rear panel and open the door 171. By rotating, the bundle housing 16 and the heat sink 51 can be removed as a whole, avoiding the process of tracing and untangling the wiring harness. Pull out the entire heat sink 51, rotate it counterclockwise and remove the lens retainer 53 to expose the xenon lamp 521. Use rubber tweezers to disassemble and replace the xenon lamp 521. Remove the retaining ring 531 to replace the lens of the xenon lamp 521.

[0040] The bulging surfaces of the first xenon lamp 521 lens and the second xenon lamp 521 lens are attached to each other, and an optical focusing area is formed on the first xenon lamp 521 lens and the second xenon lamp 521 lens. The light emitted by the xenon lamp 521 bulb is a beam of light that diverges in all directions. The beams of the first xenon lamp 521 lens and the second xenon lamp 521 lens can converge the xenon lamp 521 beam forward.

[0041] Reference Figure 7 , Figure 8 and Figure 9 The filter module includes a drive motor 41 and a filter wheel 42. There is one drive motor 41 on each side of the heat sink 51. Both drive motors 41 are supported and fixed by a fixing plate 18 fixedly installed at the bottom of the chassis 1. There are two filter wheels 42, which are respectively fixed on the output shaft of the drive motor 41.

[0042] The filter wheel 42 has multiple circular holes in a ring to form a filter port 43. A lens 44 is fixedly installed inside the filter port 43. The two filter wheels 42 are staggered and spaced a certain distance apart. The two filter ports 43 overlap in space and the centers of the two filter ports 43 are on a horizontal straight line.

[0043] The xenon lamp 521 in this embodiment is a high-brightness focusing bulb. The light from the xenon lamp 521 is refracted by a first xenon lamp 521 lens and a second xenon lamp 521 lens, improving light utilization and allowing more light to pass through the lens 44. Two sets of lenses 44 overlap spatially; one set is equipped with a filter lens 44. In this embodiment, the filter lens 44 is set to R, G, B, W, 365, and 406 type lenses 44, and the other set is equipped with an attenuator, with specific transmittances of 5%, 12.5%, 25%, 40%, 63%, and 100%, respectively. During illumination, the brightness of the light source can be seamlessly connected without any brightness gaps. The xenon lamp 521 light spot is reshaped a second time through the filter module, extending its optical path before being coupled to the optical fiber element 11 for conduction and illumination, resulting in a higher light power density at the output port. In the extended optical path, different specifications of lenses 44 are used in the filter module to design the overall optical path according to requirements, meeting actual usage needs.

[0044] Both filter wheels 42 have light-blocking blocks 45 on their outer edges. At the bottom of the chassis 1, a photoelectric sensor is fixedly installed at the position corresponding to each of the two filter wheels 42. The photoelectric sensor includes a U-shaped block 61 with a U-shaped cross section and a light-sensing element 62 embedded in the U-shaped block 61. A through-hole 63 is formed on the top of the U-shaped block 61, and through holes are opened on the two sides of the U-shaped block 61 to form light-emitting holes 64. The light-emitting aperture 64 is used for light transmission. When the two filter wheels 42 rotate to change the lens 44, the light-blocking block 45 passes through the passage 63 formed at the top of the U-shaped block 61, thereby blocking the light transmitted through the light-emitting aperture 64, causing its brightness to change continuously. The light-sensing element 62 senses the ambient brightness and transmits the sensing signal to the computer to generate a light wave diagram. When the ambient brightness around the light-sensing element 62 changes, that is, when the light-blocking block 45 passes through the passage 63, the light wave diagram will fluctuate. Based on this principle, the actual rotation of the lens 44 is calculated, and it is deduced which two different types of lenses 44 are being used at this time.

[0045] Reference Figure 1The front panel of the chassis 1 is detachably equipped with a front panel cover 19, which is fixed by screws. The front panel cover 19 is positioned directly opposite the filter wheel 42 and the photoelectric sensor. Removing the front panel cover 19 allows for correction and adjustment of the filter wheel 42 and the photoelectric sensor, facilitating error correction and maintenance. The control module includes a display screen 22, operation buttons 21, a data transmission interface 23, and a network port 24 on the front panel of the chassis 1, facilitating operation and adjustment by the operator.

[0046] Reference Figure 3 The chassis 1 also contains a power module 7 and a capacitor module 8. The power module 7 supplies power to the entire device. The cooperation between the capacitor module 8 and the power module 7 enables the xenon lamp 521 to be quickly powered on and off when it needs to flash, thereby achieving the technical effect of making the xenon lamp 521 flash rapidly, while also maintaining the service life of the power module 7.

[0047] The implementation principle of this application embodiment is as follows: When this device is in use, the operation of the device can be controlled as a whole through the control module. The control module adjusts the combination of the lens 44 so that it outputs light as needed. The heat dissipation module starts when the xenon lamp 521 is turned on to cool the device and extend the service life of the device. When the xenon lamp 521 needs to be replaced, the operator can replace it through the reserved door 171.

[0048] The above are all preferred embodiments of this application, and are not intended to limit the scope of protection of this application. Therefore, all equivalent changes made in accordance with the structure, shape and principle of this application should be covered within the scope of protection of this application.

Claims

1. A user-friendly, multi-functional xenon lamp device, characterized in that: The system includes a chassis (1), a control module, a heat dissipation module, a filter module, and a xenon lamp module. An optical fiber element (11) is mounted on the front panel of the chassis (1). A gap exists between the xenon lamp module and the optical fiber element (11). The xenon lamp module includes a cylindrical heat dissipation sleeve (51). A fixing module is fixedly installed inside the chassis (1). The fixing module includes an upper positioning support block (12) and a lower positioning support block (13). The upper positioning support block (12) and the lower positioning support block (13) together form a circular mounting opening (14). The heat dissipation sleeve (51) is slidably mounted on the mounting opening (14). 4) Inside the mounting port (14), an annular groove with a diameter larger than that of the mounting port (14) is formed to form a snap-fit ​​groove (15). A cylindrical bundled sleeve (16) is snapped into the snap-fit ​​groove (15). The heat dissipation sleeve (51) is slidably inserted into the bundled sleeve (16). The optical fiber element (11), the xenon lamp module and the bundled sleeve (16) are aligned in a straight line. The rear panel of the chassis (1) has an opening that communicates with the inside of the chassis (1). A door (171) is installed at the opening by a hinge (17). The position of the door (171) is directly opposite the bundled sleeve (16).

2. The user-friendly multi-functional xenon lamp device according to claim 1, characterized in that: The xenon lamp module also includes a xenon lamp assembly (52) and a coupling mirror assembly placed inside the heat sink (51). The xenon lamp assembly (52) includes a xenon lamp (521) and a power socket (522). The power socket (522) is fixedly disposed inside the heat sink (51), and the xenon lamp (521) is mounted on the power socket (522).

3. The user-friendly multi-functional xenon lamp device according to claim 2, characterized in that: The coupling mirror assembly includes a lens fixing member (53), a first xenon lamp lens, and a second xenon lamp lens. The first xenon lamp lens and the second xenon lamp lens are disposed inside the lens fixing member (53). The end of the lens fixing member (53) extends out of the heat sink (51) in the direction of the optical fiber element (11). The extended end of the lens fixing member (53) is engaged and limited with the heat sink (51) by a shoulder. The first xenon lamp lens and the second xenon lamp lens are aligned in a straight line with the xenon lamp (521). A pressure ring (531) is provided inside the lens fixing member (53). The pressure ring (531) is engaged inside the lens fixing member by a shoulder.

4. The user-friendly multi-functional xenon lamp device according to claim 1, characterized in that: The filter module includes a drive motor (41) and a filter wheel (42). There is one drive motor (41) on each side of the heat sink (51). Both drive motors (41) are supported and fixed by a fixing plate (18) fixedly installed at the bottom of the chassis (1). There are two filter wheels (42) and they are respectively fixed on the output shaft of the drive motor (41).

5. The user-friendly multi-functional xenon lamp device according to claim 4, characterized in that: The filter wheel (42) has multiple circular holes in a ring to form a filter port (43). A lens (44) is fixedly installed inside the filter port (43). The two filter wheels (42) are staggered and spaced a certain distance apart. The two filter ports (43) overlap in space and the centers of the two filter ports (43) are on a horizontal straight line.

6. The user-friendly multi-functional xenon lamp device according to claim 4, characterized in that: The outer edges of the two filter wheels (42) are provided with light blocking blocks (45). At the bottom of the housing (1), a photoelectric sensor is fixedly installed at the position corresponding to the two filter wheels (42). The photoelectric sensor includes a U-shaped block (61) with a U-shaped cross-section and a light-sensing element (62) embedded in the U-shaped block (61). The top of the U-shaped block (61) has a through-hole (63), and the two sides of the U-shaped block (61) are aligned and have through holes to form light-emitting holes (64).

7. The user-friendly multi-functional xenon lamp device according to claim 1, characterized in that: The heat dissipation module includes a heat sink (31) fixedly installed on the two side walls of the lower positioning support block (13), and the heat dissipation module also includes a heat dissipation fan (32) fixedly installed on the rear panel of the chassis (1). Heat dissipation holes (33) are provided on the rear panel and the left and right side panels of the chassis (1).

8. The user-friendly multi-functional xenon lamp device according to claim 1, characterized in that: The front panel of the chassis (1) is detachably provided with a front panel cover (19).

9. A user-friendly multi-functional xenon lamp device according to claim 1, characterized in that: The chassis (1) is also equipped with a power supply module (7) and a capacitor module (8).

10. A user-friendly multi-functional xenon lamp device according to claim 1, characterized in that: The control module includes a display screen (22), operation buttons (21), a data transmission interface (23), and a network port (24) located on the front panel of the chassis (1).

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