Multifunctional xenon lamp equipment convenient to use

Abstract

The invention discloses a multifunctional xenon lamp device convenient to use, and relates to the technical field of xenon lamp devices, the multifunctional xenon lamp 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 a front panel of the case, the xenon lamp module comprises a heat dissipation sleeve, and a fixing module is fixedly arranged in the case; the fixing module comprises an upper positioning supporting block and a lower positioning supporting block, the upper positioning supporting block and the lower positioning supporting block are jointly combined to form an installation opening, the heat dissipation sleeve is installed in the installation opening in a sliding fit mode, a clamping groove is formed in the installation opening, a cylindrical bundling sleeve shell is clamped in the clamping groove, and the heat dissipation sleeve is inserted in the bundling sleeve shell in a sliding fit mode. The light guide optical fiber element, the xenon lamp module and the bundling sleeve shell are arranged in a linear alignment mode, a through opening communicated with the interior of the machine box is formed in a rear panel of the machine box, a box door is installed at the through opening through a hinge in an opening and closing mode, and the position of the box door is right opposite to the bundling sleeve shell, rapid installation and replacement of the xenon lamp assembly are achieved, and the convenience and maintenance efficiency of equipment are improved.

Description

Technical Field

[0001] The present application relates to the technical field of xenon lamp equipment, and in particular to a multifunctional xenon lamp equipment that is easy to use. Background Art

[0002] As an important light source equipment, xenon lamps are widely used in scientific research, medical treatment and industrial testing. With the continuous development of technology, xenon lamp equipment has shown excellent performance in spectral analysis, microscopic imaging and material testing, and has greatly improved the research efficiency and accuracy in these fields. Therefore, the design and production of xenon lamp equipment has become one of the current research hotspots in the field of optics. At present, in order to meet the market demand for multifunctional xenon lamp equipment, the industry usually adopts a variety of designs to ensure that the light source can be easily coupled to the optical fiber, and can flexibly adjust the light intensity and achieve spectral screening of different wavelengths through filtering devices, so as to achieve basic light source control to meet specific experimental or detection needs.

[0003] However, the xenon lamp equipment in the prior art still has defects during actual use, mainly manifested in: the xenon lamp or xenon lamp lens inside the equipment is difficult to replace, and requires a complicated disassembly and assembly process. In this case, it not only affects the maintenance efficiency of the xenon lamp equipment, but also may limit the flexibility of the equipment in application. Summary of the invention

[0004] In order to overcome the above technical problems, the present application provides a multifunctional xenon lamp device that is easy to use.

[0005] The present application provides a multifunctional xenon lamp device that is easy to use, which adopts the following technical solution: A multifunctional xenon lamp device that is easy to use comprises a chassis, a control module, a heat dissipation module, a filter module and a xenon lamp module. An optical fiber element is arranged on the front panel of the chassis, and a spacing is provided between the xenon lamp module and the optical fiber element. The xenon lamp module comprises a cylindrical heat dissipation sleeve. A fixing module is fixedly arranged inside the chassis, and the fixing module comprises an upper positioning support block and a lower positioning support block. The upper positioning support block and the lower positioning support block are combined to form a circular installation opening. The heat dissipation sleeve is slidably installed in the installation opening. An annular groove with a diameter larger than the diameter of the installation opening is provided in the installation opening to form a clamping groove. A cylindrical cluster shell is clamped in the clamping groove. The heat dissipation sleeve is slidably inserted in the cluster shell. The optical fiber element, the xenon lamp module and the cluster shell are arranged in a straight line. A through opening connected to the inside of the chassis is provided on the rear panel of the chassis. A box door is installed at the through opening through a hinge to open and close. The position of the box door is just opposite to the cluster shell.

[0006] By adopting the above technical solution, the purpose of quickly replacing the xenon lamp module is achieved by designing the heat dissipation sleeve and the cluster sleeve shell to be easy to assemble, which greatly reduces the time and cost of maintenance and replacement. At the same time, by reasonably selecting materials and structural forms, the heat dissipation capacity of the equipment is effectively enhanced, and the probability of failure is reduced, thereby significantly improving the overall reliability and work efficiency of the xenon lamp equipment. By setting the door of the box, it is convenient for operators to replace the xenon lamp. When replacing the xenon lamp, the operator uses a cross screwdriver to remove and open the door. Then rotate the cluster sleeve and the heat dissipation sleeve as a whole to avoid entanglement in the wiring harness. Rotate counterclockwise to remove the lens fixings to expose the xenon lamp for lens replacement. This process greatly simplifies the time for replacing the xenon lamp and the coupling mirror, and improves the efficiency of use.

[0007] In a specific possible implementation scheme, the xenon lamp module also includes a xenon lamp assembly and a coupling mirror assembly placed in the heat dissipation sleeve, the xenon lamp assembly includes a xenon lamp and a power socket, the power socket is fixedly arranged in the heat dissipation sleeve, and the xenon lamp is installed on the power socket. The xenon lamp module also includes a xenon lamp assembly and a coupling mirror assembly placed in the heat dissipation sleeve, the xenon lamp assembly includes a xenon lamp and a power socket, the power socket is fixedly arranged in the heat dissipation sleeve, and the xenon lamp is installed on the power socket.

[0008] By adopting the above technical solution and designing the xenon lamp assembly and the coupling mirror assembly, the xenon lamp assembly and the coupling mirror assembly are modularized, which solves the difficult problems encountered by traditional xenon lamp equipment when replacing the xenon lamp or adjusting the position, and simplifies the operation steps and labor consumption.

[0009] In a specific possible implementation scheme, the coupling mirror assembly includes a lens fixing part, a first xenon lamp lens and a second xenon lamp lens, wherein the first xenon lamp lens and the second xenon lamp lens are arranged inside the lens fixing part, and the end of the lens fixing part extends out of the heat dissipation sleeve toward the direction of the optical fiber element, and the extended end of the lens fixing part is clamped and limited with the heat dissipation sleeve through a set boss, and the first xenon lamp lens and the second xenon lamp lens are aligned in a straight line with the xenon lamp, and a pressure ring is arranged inside the lens fixing part, and the pressure ring is clamped in the mirror fixing part through the boss.

[0010] In a specific possible implementation scheme, the filter module includes a drive motor and a filter wheel, wherein one drive motor is disposed on each of the left and right sides of the heat dissipation sleeve, and the two drive motors are supported and fixed by a fixing plate fixed at the bottom of the chassis, and two filter wheels are disposed and are respectively fixed on the output shafts of the drive motors.

[0011] In a specific possible implementation scheme, the filter wheel is provided with a plurality of circular holes in a ring shape to form a filter port, a lens is fixedly arranged in the filter port, two filter wheels are staggered front and back and arranged at a certain distance, the two filter ports overlap in space and the centers of the two filter ports are on a horizontal straight line.

[0012] In a specific possible implementation scheme, the outer edges of the two filter wheels are each provided with a light blocking block, and a photoelectric sensor is fixedly provided at each position of the bottom of the chassis corresponding to the two filter wheels, and 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 opening is formed on the top of the U-shaped block, and through holes are aligned on two side surfaces of the U-shaped block to form a light emitting hole.

[0013] By adopting the above technical solution, an efficient electric drive method is used instead of manual dial control, which saves manpower and material resources while avoiding the adverse consequences caused by human errors. The automation level is high, the precision is high and the response is faster. The setting of the photoelectric sensor can correct the deviation in time, which is convenient for closed-loop control and automation.

[0014] In a specific feasible implementation scheme, the heat dissipation module includes a radiator 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, and heat dissipation holes are provided on the rear panel and left and right side panels of the chassis.

[0015] By adopting the above technical solutions, through reasonable heat dissipation layout and efficient heat dissipation devices, the goal of low power consumption and long-term operation is achieved. The heat dissipation effect is effectively improved, the temperature rise of the equipment is reduced, and the reliability and service life of the equipment are further improved.

[0016] In a specific implementation manner, a front panel cover is detachably provided on the front panel of the chassis.

[0017] By adopting the above technical solution, the front panel cover is used for correcting and adjusting the filter wheel and the photoelectric sensor, providing a quick access for the operator.

[0018] In a specific possible implementation scheme, a power supply module and a capacitor module are also provided in the chassis.

[0019] By adopting the above technical solution, the power module and the capacitor module are used to meet the operation of the equipment under different working conditions.

[0020] In a specific possible implementation scheme, the control module includes a display screen, operation buttons, a data transmission interface and a network port arranged on the front panel of the chassis.

[0021] By adopting the above technical solution, it is convenient for the equipment and operators to interact and use each other.

[0022] In summary, the present application includes at least one of the following beneficial technical effects: 1. By modularizing the first xenon lamp lens and the second xenon lamp lens, arranging the filter module and the xenon lamp module in the heat dissipation sleeve, and integrating the xenon lamp wiring harness through the cluster sleeve, an integrated module is formed. In addition, a box door is provided at the rear panel of the chassis, so that the operator can easily replace the xenon lamp and the lens by opening the box door. The replacement process does not require combing the wiring harness, reducing the process of plugging and unplugging the wiring harness, and can make the equipment tidy and orderly, reduce possible errors during replacement, and improve efficiency.

[0023] 2. By setting the filter module, the filter module drives the filter wheel to rotate through the driving motor, so as to replace different lenses to filter and adjust the light. This design enables the device to flexibly adjust the type of output light according to actual needs, so that the device can meet different lighting needs with higher efficiency. The filter module is used in conjunction with the photosensitive element to complete automatic closed-loop control, automatically correct and adjust the equipment to ensure that the output light source can output irradiation correctly and stably as required. BRIEF DESCRIPTION OF THE DRAWINGS

[0024] Figure 1 and Figure 2 is a stereoscopic view of an embodiment of the present application; Figure 3 , Figure 4 , Figure 5 and Figure 6 It is a schematic diagram of the specific internal structure of the device; Figure 7 It is a schematic diagram of the specific structure of the photoelectric sensor; Figure 8 and Fig. 9 It is a schematic diagram of the assembly of the heat dissipation module, the light filter module and the xenon lamp module; Fig.10 , Fig.11 and Fig.12 It is a schematic diagram of the specific structure of the xenon lamp module.

[0025] Description of reference numerals: 1, chassis; 11, optical fiber element; 12, upper positioning support block; 14, mounting port; 13, lower positioning support block; 15, snap-in slot; 16, cluster housing; 17, hinge; 171, cabinet door; 18, fixing plate; 19, front panel cover; 21, operation button; 22, display screen; 23, data transmission interface; 24, network port; 31, radiator; 32, cooling fan; 33, cooling hole ; 41. driving motor; 42. filter wheel; 43. filter port; 44. lens; 45. light blocking block; 51. heat dissipation sleeve; 52. xenon lamp assembly; 521. xenon lamp; 522. power socket; 53. lens fixing part; 531. pressure ring; 54. first xenon lamp lens; 55. second xenon lamp lens; 61. U-shaped block; 62. light sensing element; 63. through port; 64. light emitting hole; 7. power supply module; 8. capacitor module. DETAILED DESCRIPTION

[0026] The present application is further described in detail below in conjunction with the accompanying drawings.

[0027] In the description of the invention, it should be understood that descriptions involving orientation, such as up, down, front, back, left, right, etc., indicating orientations or positional relationships, are based on the orientations or positional relationships shown in the drawings, and 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, be constructed and operated in a specific orientation, and therefore should not be understood as a limitation on the invention.

[0028] The present application embodiment discloses a multifunctional xenon lamp device which is easy to use. Figure 1 and Figure 2 , including a chassis 1, a control module, a heat dissipation module, a filter module and a xenon lamp module. An optical fiber component 11 is arranged on the front panel of the chassis 1. There is a distance between the xenon lamp module and the optical fiber component 11. The xenon lamp module includes a cylindrical heat dissipation sleeve 51. The heat dissipation sleeve 51 is made of aluminum alloy material with good thermal conductivity. A fixing module is fixedly arranged inside the chassis 1, and 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 are vertically arranged up and down. The upper positioning support block 12 is fixedly arranged on the upper panel of the chassis 1 by bolts, and the lower positioning support block 13 is fixedly arranged on the bottom panel of the chassis 1 by bolts. The upper positioning support block 12 and the lower positioning support block 13 are arranged in a rectangular block shape and a semicircular through groove is opened on the top thereof, so that the upper positioning support block 12 and the lower positioning support block 13 are combined to form a circular installation opening 14. The upper positioning support block 12 and the lower positioning support block 13 are made of thin aluminum alloy plates, so that the upper positioning support block 12 and the lower positioning support block 13 have good heat dissipation.

[0029] Reference Figures 3 to 6The heat dissipation sleeve 51 is slidably installed in the installation opening 14. The installation opening 14 is provided with an annular groove with a diameter larger than that of the installation opening 14 to form a clamping groove 15. A cylindrical cluster shell 16 is clamped in the clamping groove 15. The heat dissipation sleeve 51 is slidably inserted in the cluster shell 16. The heat dissipation sleeve 51 can slide in the cluster shell 16 to adjust its position. The cluster shell 16 is used to store the equipment harness, so that the equipment harness is integrated and stored in the cluster shell 16. When replacing the xenon lamp 521, it is convenient to correspond to the corresponding wires, easy to find the harness, and shorten the replacement time. The diameter of the clamping groove 15 is different from the diameter of the installation opening 14, so that it forms a step for clamping the cluster shell 16. When installing, it only needs to be pushed to the end of the clamping groove 15 to quickly locate and install it, so that it has the effect of blind installation. By setting the upper positioning support block 12, the lower positioning support block 13 and the cluster housing 16, the position of the xenon lamp module is positioned and installed, and the angle change of the xenon lamp module is fixed, so that the optical fiber element 11, the xenon lamp module and the cluster housing 16 can always maintain a straight line alignment.

[0030] The heat dissipation module includes a radiator 31 fixedly arranged on the two side walls of the lower positioning support block 13. The radiator 31 is close to the two side walls of the lower positioning support block 13. In the embodiment of the present application, the radiator 31 is configured as a semiconductor heat dissipation, which can quickly reduce the temperature of the lower positioning support block 13, and the low temperature is evenly conducted to the heat dissipation sleeve 51 through the groove opened in the lower positioning support block 13. The heat dissipation module also includes a heat dissipation fan 32 fixedly arranged 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 provision of the heat dissipation holes 33 and the heat dissipation fan 32 can accelerate the heat exchange between the inside and outside of the chassis 1, and keep the temperature inside the chassis 1 always close to the ambient temperature.

[0031] The rear panel of the chassis 1 is provided with a through hole connected to the inside of the chassis 1, and a box door 171 is installed at the through hole to be opened and closed by a hinge 17. The position of the box door 171 is directly opposite to the cluster casing 16. The hinge 17 is fixedly connected to the bottom of the box door 171, and the top of the box door 171 is detachably fixed to the rear panel of the chassis 1 by screws. The box door 171 is set to be openable and closable by the hinge 17, so that the operator can face the cluster casing 16 when opening the box door 171.

[0032] Reference Fig.10 , Fig.11 and Fig.12The xenon lamp module also includes a xenon lamp assembly and a coupling mirror assembly placed in the heat dissipation sleeve 51. The xenon lamp assembly includes a xenon lamp 521 and an electrical socket 522. The electrical socket 522 is fixedly arranged in the heat dissipation sleeve 51. The xenon lamp 521 is installed on the electrical socket 522. The wiring harness of the electrical socket 522 is integrated and led out through the cluster shell 16. The coupling mirror assembly includes a lens fixing part 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 arranged inside the lens fixing part 53. The lens fixing part 53 fixes the first xenon lamp 521 lens and the second xenon lamp 521 lens into a whole, so that the coupling mirror assembly is easy to disassemble as a whole. The end of the lens fixing part 53 extends out of the heat dissipation sleeve 51 in the direction of the optical fiber element 11. The protruding end of the lens fixing part 53 is clamped and limited with the heat dissipation sleeve 51 through the provided boss, so that the coupling mirror assembly is fixed in the heat dissipation sleeve 51, avoiding the influence of the fixing part on the accuracy and the utilization of space. The first xenon lamp 521 lens and the second xenon lamp 521 lens are aligned in a straight line with the xenon lamp 521, and a pressure ring 531 is provided in the lens fixing part 53. The pressure ring 531 is clamped in the lens fixing part 53 through a boss, and the pressure ring 531 is used to abut and limit the lens of the second xenon lamp 521. The pressure ring 531 is set to be made of rubber material, and has a large fixing friction force in the lens fixing part 53, and can protect the lens of the second xenon lamp 521.

[0033] When replacing the xenon lamp 521, the operator uses a Phillips screwdriver to remove the screws on the rear panel and then opens the box door 171. The cluster shell 16 and the heat dissipation sleeve 51 can be taken out as a whole by rotating them, avoiding the process of aligning and untangling the wiring harness. The entire heat dissipation sleeve 51 is pulled out, and the lens fixing part 53 is rotated counterclockwise to expose the xenon lamp 521. The xenon lamp 521 can be disassembled and replaced using rubber tweezers, and the xenon lamp 521 lens can be replaced by pulling out the pressure ring 531.

[0034] The bulged surfaces of the first xenon lamp 521 lens and the second xenon lamp 521 lens fit together, 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 that diverges in all directions, and the light beams of the first xenon lamp 521 lens and the second xenon lamp 521 lens can make the xenon lamp 521 beam converge forward.

[0035] Reference Figure 7 , Figure 8 and Fig. 9 The filter module includes a drive motor 41 and a filter wheel 42. A drive motor 41 is provided on each of the left and right sides of the heat dissipation sleeve 51. The two drive motors 41 are supported and fixed by a fixing plate 18 fixedly provided at the bottom of the chassis 1. Two filter wheels 42 are provided and are respectively fixedly provided on the output shafts of the drive motor 41.

[0036] The filter wheel 42 is provided with a plurality of circular holes in a ring shape to form a filter port 43, in which a lens 44 is fixedly provided, and two filter wheels 42 are staggered front and back and arranged at a certain distance, and the two filter ports 43 overlap in space and the centers of the two filter ports 43 are on a horizontal straight line.

[0037] The xenon lamp 521 in the embodiment of the present application adopts a high-brightness spotlight bulb. The light of the xenon lamp 521 is refracted by the first xenon lamp 521 lens and the second xenon lamp 521 lens, which improves the utilization rate of light and allows more light to pass through the lens 44. The two groups of lenses 44 overlap in space, one of which is loaded with a filter lens 44. In the embodiment of the present application, the filter lens 44 is set to R, G, B, W, 365 and 406 types of lenses 44, and the other group is loaded with an attenuation plate, with specific transmittances of 5%, 12.5%, 25%, 40%, 63% and 100% respectively. The brightness of the light source can be seamlessly connected during irradiation, and there is no brightness fault phenomenon. The light spot of the xenon lamp 521 is reshaped twice by the filter module, and its light path is extended, and then coupled to the optical fiber element 11 for transmission and irradiation, so that the light power density of the light outlet is higher. In the extended light path, the filter module is matched with lenses 44 of different specifications, and the light path is designed as a whole according to the needs to meet the actual use needs.

[0038] The outer edges of the two filter wheels 42 are each provided with a light blocking block 45, and a photoelectric sensor is fixedly provided at each position corresponding to the two filter wheels 42 at the bottom of the chassis 1. 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 formed on two side surfaces of the U-shaped block 61 to form a light emitting hole 64. The light-emitting hole 64 is used for transmitting light. When the two filter wheels 42 rotate to replace the lenses 44, the light-blocking block 45 will pass through the through hole 63 formed at the top of the U-shaped block 61, thereby blocking the light passing through the light-emitting hole 64, causing its brightness to change continuously. The light-sensing element 62 senses the brightness of the surrounding environment, transmits the sensed signal to the computer and generates a light wave graph. When the brightness of the environment around the light-sensing element 62 changes, that is, when the light-blocking block 45 passes through the through hole 63, the light wave graph will fluctuate. Based on this principle, the actual rotation of the lens 44 is calculated, and it is inferred which two different types of lenses 44 are being combined for use by the device at this time.

[0039] Reference Figure 1The front panel of the chassis 1 is detachably provided with a front panel cover 19, which is detachably fixed by screws. The position of the front panel cover 19 is set to face the filter wheel 42 and the photoelectric sensor. The filter wheel 42 and the photoelectric sensor can be corrected and adjusted by removing the front panel cover 19, which is convenient for error correction and maintenance. The control module includes a display screen 22, an operation button 21, a data transmission interface 23 and a network port 24 arranged on the front panel of the chassis 1, which is convenient for operators to use and adjust.

[0040] Reference Figure 3 A power module 7 and a capacitor module 8 are also provided in the chassis 1. 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 through the capacitor module 8 when flashing is required, thereby achieving the technical effect of making the xenon lamp 521 flash quickly, while maintaining the service life of the power module 7.

[0041] The implementation principle of the embodiment of the present application is: when the 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 lenses 44 to output light as needed. The heat dissipation module is started when the xenon lamp 521 is turned on to cool the device and extend the use time of the device. When the xenon lamp 521 needs to be replaced, the operator can replace it through the reserved box door 171.

[0042] The above are all preferred embodiments of the present application, and the protection scope of the present application is not limited thereto. Therefore, any equivalent changes made according to the structure, shape, and principle of the present application should be included in the protection scope of the present application.

Claims

1. A multifunctional xenon lamp device that is easy to use, characterized in that: The invention comprises a chassis (1), a control module, a heat dissipation module, a filter module and a xenon lamp module. The chassis (1) is provided with a light guide fiber element (11) on the front panel. The xenon lamp module and the light guide fiber element (11) are spaced apart from each other. The xenon lamp module comprises a cylindrical heat dissipation sleeve (51). The chassis (1) is provided with a fixed module inside. The fixed module comprises 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 combined to form a circular installation opening (14). The heat dissipation sleeve (51) is slidably mounted on the installation opening (14). 4), the mounting opening (14) is provided with an annular groove having a diameter larger than that of the mounting opening (14) to form a snap-in groove (15), a cylindrical cluster shell (16) is snap-in arranged in the snap-in groove (15), the heat dissipation sleeve (51) is slidably inserted in the cluster shell (16), the optical fiber element (11), the xenon lamp module and the cluster shell (16) are arranged in a straight line, a through opening connected to the interior of the chassis (1) is provided on the rear panel of the chassis (1), a door (171) is installed at the through opening to be opened and closed by a hinge (17), and the position of the door (171) is exactly opposite to the cluster shell (16).

2. The multifunctional 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 disposed in the heat dissipation sleeve (51); the xenon lamp assembly (52) includes a xenon lamp (521) and an electrical socket (522); the electrical socket (522) is fixedly disposed in the heat dissipation sleeve (51); and the xenon lamp (521) is mounted on the electrical socket (522).

3. The multifunctional xenon lamp device according to claim 2, characterized in that: The coupling mirror assembly comprises a lens fixing part (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 arranged inside the lens fixing part (53). The end of the lens fixing part (53) extends out of the heat dissipation sleeve (51) in the direction of the optical fiber element (11). The extended end of the lens fixing part (53) is clamped and limited with the heat dissipation sleeve (51) through a provided boss. 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 arranged inside the lens fixing part (53). The pressure ring (531) is clamped in the mirror fixing part through the boss.

4. The multifunctional xenon lamp device according to claim 1, characterized in that: The filter module comprises a drive motor (41) and a filter wheel (42); one drive motor (41) is provided on each of the left and right sides of the heat dissipation sleeve (51); the two drive motors (41) are supported and fixed by a fixing plate (18) fixedly provided at the bottom of the chassis (1); and two filter wheels (42) are provided and are respectively fixedly provided on the output shafts of the drive motors (41).

5. The multifunctional xenon lamp device according to claim 4, characterized in that: The filter wheel (42) is provided with a plurality of circular holes in an annular shape to form a filter port (43), a lens (44) is fixedly arranged in the filter port (43), two filter wheels (42) are staggered front and back and arranged at a certain distance, the two filter ports (43) overlap in space and the centers of the two filter ports (43) are located on a horizontal straight line.

6. The multifunctional xenon lamp device according to claim 4, characterized in that: The outer edges of the two filter wheels (42) are each provided with a light blocking block (45); a photoelectric sensor is fixedly provided at each position of the bottom of the chassis (1) corresponding to the two filter wheels (42); the photoelectric sensor comprises a U-shaped block (61) having a U-shaped cross section and a light sensing element (62) embedded in the U-shaped block (61); a through opening (63) is formed at the top of the U-shaped block (61); and two side surfaces of the U-shaped block (61) are aligned with each other to form a light emitting hole (64).

7. The multifunctional xenon lamp device according to claim 1, characterized in that: The heat dissipation module comprises a radiator (31) fixedly arranged on two side walls of the lower positioning support block (13), and the heat dissipation module also comprises a heat dissipation fan (32) fixedly arranged on the rear panel of the chassis (1), and heat dissipation holes (33) are provided on the rear panel and left and right side panels of the chassis (1).

8. The multifunctional xenon lamp device according to claim 1, characterized in that: A front panel cover (19) is detachably provided on the front panel of the chassis (1).

9. The multifunctional xenon lamp device according to claim 1, characterized in that: A power module (7) and a capacitor module (8) are also provided in the chassis (1).

10. The multifunctional xenon lamp device that is easy to use according to claim 1, characterized in that: The control module comprises a display screen (22), operation buttons (21), a data transmission interface (23) and a network port (24) arranged on the front panel of the chassis (1).

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