Quantum lamp and processing method thereof

Abstract

The quantum lamp is provided with an outer shell, a limiting support assembly, a lamp wick assembly, a lamp holder assembly and a discharge tube assembly, the lamp wick assembly comprises a lamp wick body, the lamp wick body is provided with a negative electrode wire leading-out guide rod and a positive electrode wire leading-out guide rod, and one end of the negative electrode wire leading-out guide rod and one end of the positive electrode wire leading-out guide rod are fixed into the lamp wick body; the discharge tube assembly comprises a gas discharge tube, a positive electrode guide rod and a negative electrode guide rod are arranged on the two sides of the gas discharge tube, and an electrified loop is formed among the positive electrode guide rod, the limiting support assembly, the positive electrode wire leading-out guide rod, the lamp holder assembly, the negative electrode wire leading-out guide rod and the negative electrode guide rod. The negative electrode wire leading-out guide rod, the positive electrode wire leading-out guide rod and the limiting support assembly jointly form fixed support on the discharge tube assembly, and the discharge tube assembly is fixed to the middle position of the outer shell. The quantum lamp is small in light decay and long in service life, ionization is easy to achieve during discharging, and the effect that the quantum lamp is turned on and turned on can be achieved. The LED lamp can be widely applied to lamp illumination.

Description

Technical Field

[0001] The present invention relates to a lighting device, and particularly to a quantum lamp and a processing method thereof. Background Art

[0003] Illumination light sources are divided into two types: solid light sources and gas light sources. Common solid light sources include incandescent lamps, LED light sources, etc. However, incandescent lamps have low luminous efficiency and short service life. Although LED light sources have high luminous efficiency and long service life, when used as power lighting, LED light sources have a serious problem of light decay.

[0004] Common gas light sources are divided into low-pressure gas discharge lamps and high-pressure gas discharge lamps. Among them, low-pressure gas discharge lamps include straight tube fluorescent lamps, spiral tube energy-saving lamps, etc. However, straight tube fluorescent lamps and spiral tube energy-saving lamps have short service lives.

[0005] High-pressure gas discharge lamps include high-pressure sodium lamps, metal halide lamps, etc. However, high-pressure sodium lamps have poor light quality, and the color rendering index is only 30%. When applied to road lighting, the recognition of objects is low, and there are potential safety hazards. Although metal halide lamps have good light quality, a color rendering index greater than 80%, and a long service life, because metal halide lamps are high-pressure gas discharge lamps, it is difficult to achieve ionization, and there is a problem of inability to turn on and light up immediately. Summary of the Invention

[0007] In view of the above technical problems, the present invention provides a quantum lamp and a processing method thereof. The quantum lamp has small light decay, long service life, and is easy to achieve ionization during discharge, and can achieve the effect of turning on and lighting up immediately.

[0008] To this end, the technical solution of the present invention is that a quantum lamp is provided with a housing, a limit bracket assembly, a lamp core assembly, a lamp head assembly, and a discharge tube assembly; The limit bracket assembly, the lamp core assembly, and the discharge tube assembly are all located inside the housing, and the lamp head assembly is fixedly connected to the bottom end of the housing; The lamp core assembly includes a lamp core body. The upper end of the lamp core body is respectively provided with a negative electrode wire lead-out rod and a positive electrode wire lead-out rod, and one ends of the negative electrode wire lead-out rod and the positive electrode wire lead-out rod are respectively fixedly arranged inside the lamp core body; The discharge tube assembly includes a gas discharge tube. The two sides of the gas discharge tube are respectively provided with a positive electrode rod and a negative electrode rod, and one ends of the positive electrode rod and the negative electrode rod are respectively communicated with both ends inside the gas discharge tube; The lamp head assembly includes a positive terminal, a negative terminal, and an insulating terminal. Insulation is achieved between the positive terminal and the negative terminal through the insulating terminal; One end of the negative electrode lead-out rod located inside the wick body is connected to the positive extreme of the lamp head assembly, the other end of the negative electrode lead-out rod is connected to the other end of the negative electrode rod, one end of the positive electrode lead-out rod located inside the wick body is connected to the negative extreme of the lamp head assembly, and the other end of the positive electrode lead-out rod is connected to the other end of the limit support assembly; An energized circuit is formed among the positive electrode rod, the limit support assembly, the positive electrode lead-out rod, the lamp head assembly, the negative electrode lead-out rod, and the negative electrode rod; The negative electrode lead-out rod, the positive electrode lead-out rod, and the limit support assembly jointly form a fixed support for the discharge tube assembly and fix the discharge tube assembly at the middle position of the outer casing.

[0009] Preferably, the interior of the gas discharge tube is a vacuum-sealed structure, and a mixed gas of hydrogen and xenon is provided inside the gas discharge tube.

[0010] Preferably, the outer casing consists of an upper part of the outer casing and a lower part of the outer casing. The upper part of the outer casing is a semi-circular structure, and the lower part of the outer casing is a cylindrical structure; The limit support assembly includes a limit ring and a support rod. The limit ring is located at the upper position of the limit support assembly, and the support rod is located at the lower position of the limit support assembly. The limit ring is horizontally arranged inside the upper part of the outer casing, and the support rod is longitudinally arranged at one side position inside the lower part of the outer casing; The discharge tube assembly further includes connecting columns. The number of connecting columns is two. The two connecting columns are respectively fixedly connected to the upper and lower sides of the gas discharge tube. The discharge tube assembly is longitudinally arranged at the middle position inside the lower part of the outer casing; The positive electrode rod and the negative electrode rod are respectively located inside the two connecting columns. One end of the positive electrode rod far from the gas discharge tube is fixedly connected to the upper end position of the support rod, and the lower end position of the support rod is fixedly connected to the positive electrode lead-out rod.

[0011] Preferably, the limit ring fits with the inner circumference of the upper part of the outer casing.

[0012] Preferably, an insulating sleeve is provided at the middle position of the support rod, and a getter is provided at the upper end position of the support rod where the insulating sleeve is located. The getter, the insulating sleeve, and the position where the support rod is connected to the positive electrode lead-out rod are sequentially arranged in a fitting manner.

[0013] Preferably, a first electrode connecting rod is provided between one end of the positive electrode rod far from the gas discharge tube and the upper end position of the support rod. The shape of the first electrode connecting rod is U-shaped. One end of the U-shaped first electrode connecting rod is fixedly connected to one end of the positive electrode rod far from the gas discharge tube, and the other end of the U-shaped first electrode connecting rod is fixedly connected to the upper end position of the support rod.

[0014] Preferably, a first extension rod is provided between the positive electrode guide rod and the first electrode connection guide rod. The first extension rod is longitudinally arranged inside the lower part of the outer casing. The two ends of the first extension rod are respectively fixedly connected to the positive electrode guide rod and the first electrode connection guide rod; A second extension rod and a second electrode connection guide rod are respectively provided between the negative electrode lead-out guide rod and the negative electrode guide rod. The second extension rod is longitudinally arranged inside the lower part of the outer casing. The second electrode connection guide rod is horizontally arranged inside the lower part of the outer casing. One end of the second extension rod is fixedly connected to the negative electrode guide rod. The other end of the second extension rod is fixedly connected to one end of the second electrode connection guide rod. The other end of the second electrode connection guide rod is fixedly connected to the negative electrode lead-out guide rod; The negative electrode lead-out guide rod is longitudinally arranged inside the lower part of the outer casing. The positive electrode lead-out guide rod is horizontally arranged inside the lower part of the outer casing.

[0015] Preferably, the connection methods between the U-shaped first electrode connection guide rod and the first electrode connection guide rod, the U-shaped first electrode connection guide rod and the first extension rod, the first extension rod and the positive electrode guide rod, the negative electrode guide rod and the second extension rod, the second extension rod and the second electrode connection guide rod, the second electrode connection guide rod and the negative electrode lead-out guide rod, the negative electrode lead-out guide rod and the negative electrode wire, the positive electrode wire and the positive electrode lead-out guide rod, and the positive electrode lead-out guide rod and the first electrode connection guide rod are all fixed by welding.

[0016] Preferably, the material of the outer casing is high borosilicate glass; The materials of the limiting ring, the first electrode connection guide rod, the support guide rod, the negative electrode lead-out guide rod, the positive electrode lead-out guide rod, the first extension rod, the second extension rod, and the second electrode connection guide rod are all nickel. The material of the wick body is glass.

[0017] The processing method for processing the above quantum lamp includes the following steps: Step (1): Select a high borosilicate glass tube with a suitable outer diameter and cut it into a set length; Step (2): Use a sealing machine to seal one end of the cut high borosilicate glass tube to form the upper part of the outer casing; Step (3): Select a wick body with a matching specification. Weld one end of the negative electrode lead-out guide rod and the positive electrode lead-out guide rod to one end of the negative electrode wire and the positive electrode wire inside the wick body respectively. At the same time, fix the ends of the negative electrode lead-out guide rod and the positive electrode lead-out guide rod welded to the wires inside the glass core column through a sintering process. After fixing, the negative electrode lead-out guide rod is longitudinally arranged on one side of the upper end of the wick body, and the positive electrode lead-out guide rod is horizontally arranged on the other side of the upper end of the wick body; Step (4): Weld and fix the other end of the negative electrode lead-out rod to one end of the second electrode connection rod. Step (5): Select high-purity alumina powder and form the structural shape of the discharge tube assembly composed of a gas discharge tube and two connection columns through one-time die pressing and high-temperature sintering. Then, use a glove box to evacuate the inside of the gas discharge tube. Next, according to the actual color temperature requirements, add halogen pills of corresponding specifications, and then fill hydrogen and xenon gas into the gas discharge tube to obtain a mixed gas of the two. The filling ratio of hydrogen and xenon gas is 1:1. Finally, use a plasma sealer to seal the positive electrode rod and the negative electrode rod inside the two connection columns respectively, and set the gas pressure inside the gas discharge tube to a standard less than five atmospheres. Step (6): Bend the upper part of the limit bracket assembly into a circular shape to form a limit bracket assembly with a circular limit ring shape. The limit bracket assembly is arranged longitudinally. Bend the first electrode connection rod into a U shape. The U-shaped first electrode connection rod is arranged horizontally, and one end of the U-shaped first electrode connection rod is welded and fixed to a position near the upper end of the support rod. Step (7): Weld a connection seat with a getter on the lower end of the support rod at the welding position of the first electrode connection rod and the support rod. Then, put an insulating sleeve on the lower end position of the support rod where the getter is located. Then, weld and fix the other end of the positive electrode lead-out rod to an adjacent position below the insulating sleeve on the support rod. After fixing, this welding position is in contact with the insulating sleeve and the getter in sequence. Step (8): Weld a first extension rod and a second extension rod to the outer sides of the positive electrode rod and the negative electrode rod respectively. Then, weld and fix the other end of the first extension rod to the other end of the first electrode connection rod, and weld and fix the other end of the second extension rod to the other end of the second electrode connection rod. Step (9): Select a lamp head assembly of matching specifications, weld and fix the other ends of the positive electrode wire and the negative electrode wire to the inner surface of the positive terminal and the negative terminal conductive column on the negative terminal of the lamp head assembly respectively. Then, fixedly connect the lamp core body to the upper end position of the lamp head assembly. After fixing, the limit bracket assembly, the lamp core assembly, the lamp head assembly, and the discharge tube assembly together constitute a complete gas discharge circuit light source system. And the discharge tube assembly and the lamp core assembly are both located at the center position of the lamp head assembly. Step (10): Conduct a power-on test on the brightening effect of the light source. After passing the test, put the outer shell on the outside of the overall structure including the lamp core assembly, the limit bracket assembly, and the discharge tube assembly. Finally, seal and fix the outer shell to the lamp head assembly. After the sealing and fixing, the discharge tube assembly is located at the longitudinal middle position and the radial middle position of the outer housing. The support guide rod is close to one side inside the lower section of the outer housing. The insulating sleeve is radially symmetrically arranged with the gas discharge tube. The limiting ring is transversely arranged inside the upper section of the outer housing and fits with the inner circumference of the upper section of the outer housing.

[0018] The beneficial effects of the present invention are as follows: 1. By adding hydrogen and xenon in equal proportions inside the discharge tube of the quantum lamp to form a mixed gas of hydrogen and xenon. Since the ionization energy level of hydrogen is relatively low, it is easy to achieve ionization, enabling it to turn on and light up immediately and having a relatively long service life.

[0019] 2. To increase the stability of the insulating sleeve during application, the getter, the insulating sleeve, and the positions where the support guide rod is connected to the positive electrode wire are sequentially and fittingly arranged. This can prevent the relevant components from being damaged by knocking when the lamp shakes due to the up and down sliding of the insulating sleeve. Moreover, the insulating sleeve is located at the radially symmetric position of the gas discharge tube, which can avoid the problem of current interference and eliminate the corona during discharge.

[0020] 3. To further increase the overall structural stability of the limiting bracket assembly, the limiting ring fits with the inner circumference of the upper section of the outer housing. By directly fixing the limiting ring in contact with the inner circumference of the upper section of the outer housing, the problem of the position of the limiting ring shaking can be avoided, thereby preventing the overall shaking of the lamp caused by external factors and the mutual knocking between the limiting ring and the outer housing.

[0021] 4. To increase the position and application stability of the discharge tube assembly, a first electrode connecting rod is provided between the end of the positive electrode rod far from the gas discharge tube and the upper end position of the support guide rod. The shape of the first electrode connecting rod is U-shaped. One end of the U-shaped first electrode connecting rod is connected to the end of the positive electrode rod far from the gas discharge tube, and the other end of the U-shaped first electrode connecting rod is connected to the upper end position of the support guide rod. By bending the first electrode connecting rod into a U-shaped structure, the stress of the first electrode connecting rod can be eliminated to the greatest extent, increasing the structural stability of the first electrode connecting rod. After bending, the first electrode connecting rod will not show obvious stress deformation during the long-term use of the lamp. On the one hand, it ensures that the discharge tube assembly will not have obvious displacement. On the other hand, it can avoid the problem of loose connection between the first electrode connecting rod and the support guide rod and the positive electrode rod due to the stress deformation of the first electrode connecting rod.

[0022] 5. By respectively using a second electrode connecting rod and a negative electrode lead-out rod to be welded and fixed at both ends of the gas discharge tube, and welding and fixing the first extension rod and the first electrode connecting rod, in actual operation, by adjusting the radial welding positions of the negative electrode lead-out rod and the second electrode connecting rod and the radial welding of the first extension rod and the first electrode connecting rod, the radial position of the gas discharge tube can be adjusted, enabling fine adjustment of the radial position of the gas discharge tube, improving the assembly accuracy of the gas discharge tube. At the same time, the parallelism of the discharge tube assembly relative to the outer housing can be adjusted to ensure that the quantum lamp can achieve the best lighting effect.

[0023] 6. To meet the assembly standard requirements of lamps with different heights and widths, a negative electrode lead-out rod and a positive electrode lead-out rod are respectively provided at the ends of the positive electrode wire and the negative electrode wire far from the lamp head assembly. The negative electrode lead-out rod is longitudinally arranged on one side inside the lower section of the outer housing, and the positive electrode lead-out rod is transversely arranged on the other side inside the lower section of the outer housing, forming a forward arrangement. On the one hand, the installation is relatively convenient. On the other hand, it can prevent the problem of tip discharge caused by reverse arrangement. In this solution, according to the actual height and diameter dimensions of the outer housing, for example, when the outer housing is relatively tall, the length of the negative electrode lead-out rod needs to be lengthened to ensure that the gas discharge tube is located at the longitudinal middle position inside the outer housing, thereby ensuring the uniformity of light source distribution and an efficient lighting effect. Another example is that when the outer diameter dimension of the outer housing is relatively large, usually the size of the corresponding gas discharge tube will increase accordingly. At this time, the length of the positive electrode lead-out rod needs to be lengthened to ensure that there is a sufficient safety distance between the gas discharge tube and the support rod, maximizing the avoidance of the problem of current interference and ensuring the normal operation of gas discharge. At the same time, to better meet the assembly standard requirements of lamps with different heights, a first extension rod is provided between the positive electrode rod and the first electrode connecting rod. The first extension rod is longitudinally arranged inside the lower section of the outer housing. Both ends of the first extension rod are respectively connected to the positive electrode rod and the first electrode connecting rod. Between the negative electrode lead-out rod and the negative electrode rod, a second extension rod and a second electrode connecting rod are respectively provided. The second extension rod is longitudinally arranged inside the lower section of the outer housing, and the second electrode connecting rod is transversely arranged inside the lower section of the outer housing. One end of the second extension rod is connected to the negative electrode rod, the other end of the second extension rod is connected to one end of the second electrode connecting rod, and the other end of the second electrode connecting rod is connected to the negative electrode lead-out rod. The appropriate lengths of the first extension rod and the second extension rod can be selected according to the actual height and diameter dimensions of the outer housing. This technical solution is also for achieving the longitudinal centering fixation of the gas discharge tube and increasing the assembly accuracy.

[0024] 7. Extend the total height dimension of the middle section of the inverted trapezoidal insulating end and the lower section of the insulating end to 9 mm ± 1 mm, which can increase the creepage distance during discharge. The main benefits of increasing the creepage distance include: (1) Enhance the insulation strength. A longer creepage distance can effectively block the conductive path formed by pollutants (such as dust and water stains), reducing the risk of tracking and surface discharge; (2) Adapt to complex environments. In scenarios with a higher pollution level such as humidity and dust, extending the creepage distance can reduce the negative impact of environmental factors on the insulation performance; (3) Increase the overall structural safety. First, according to relevant standards, discharge equipment needs to meet the withstand voltage requirements by increasing the creepage distance to prevent safety accidents caused by arc breakdown; Second, after lengthening the lamp post at the negative electrode end, the discharge path along the insulating surface is significantly lengthened, and a higher voltage is required to break through the insulating layer (according to the formula U = E⋅d, where d is the creepage distance), thus suppressing the generation of high-frequency arcs and avoiding electrode ablation or glass tube rupture; Moreover, the extended creepage path can reduce the leakage current density (I = J⋅S, where S is the effective area), reducing the risk of partial discharge caused by moisture bridging or dirt conduction and extending the lamp life; Furthermore, the long creepage path can disperse the high-frequency charge distribution, reducing the electric field concentration effect and avoiding the breakdown of insulating materials due to electrical stress; At the same time, by lengthening the lamp post and adopting a spiral or multi-section insulating structure, the effective creepage path can be extended without increasing the overall size, while reserving space for optical components and heat dissipation structures. BRIEF DESCRIPTION OF THE DRAWINGS

[0026] Figure 1 is a schematic structural diagram of the present invention; Figure 2 is a top view of the present invention; Figure 3 is a schematic structural diagram of the outer housing in the present invention; Figure 4 is a schematic structural diagram of the positioning bracket assembly in the present invention; Figure 5 is a schematic structural diagram of the lamp core assembly in the present invention; Figure 6 is a schematic structural diagram of the discharge tube assembly in the present invention; Figure 7 is a schematic structural diagram of the lamp head assembly in the present invention; Figure 8 is the present invention Figure 7 A - A cross-sectional view in.

[0027] Symbol description in the figure: 1. Outer housing; 101. Upper part of the outer housing; 102. Lower part of the outer housing; 2. Limit support assembly; 201. Limit ring; 202. First electrode connection rod; 203. Support rod; 204. Insulating sleeve; 205. Getter; 3. Wick assembly; 301. Wick body; 302. Positive wire; 303. Negative wire; 304. Negative wire lead-out rod; 305. Positive wire lead-out rod; 4. Lamp cap assembly; 401. Positive terminal; 40101. Accommodation chamber; 402. Negative terminal; 40201. Negative terminal conductive cover; 40202. Negative terminal conductive column; 403. Insulating end; 40301. Upper part of the insulating end; 40302. Middle part of the insulating end; 40303. Lower part of the insulating end; 5. Discharge tube assembly; 501. Gas discharge tube; 502. Positive electrode rod; 503. Negative electrode rod; 504. Connecting column; 6. First extension rod; 7. Second extension rod; 8. Second electrode connection rod. Detailed implementation

[0029] The present invention will be further described below in conjunction with embodiments.

[0030] Through Figures 1 - 8 It can be seen that this quantum lamp is provided with an outer housing 1, a limit support assembly 2, a wick assembly 3, a lamp cap assembly 4, and a discharge tube assembly 5. The limit support assembly 2, the wick assembly 3, and the discharge tube assembly 5 are all located inside the outer housing 1, and the lamp cap assembly 4 is fixedly connected to the bottom end of the outer housing 1.

[0031] The wick assembly 3 includes a wick body 301. The upper end of the wick body 301 is respectively provided with a negative wire lead-out rod 304 and a positive wire lead-out rod 305. One ends of the negative wire lead-out rod 304 and the positive wire lead-out rod 305 are respectively fixed inside the wick body 301, and the negative wire lead-out rod 304 and the positive wire lead-out rod 305 can realize the transmission of electricity.

[0032] The discharge tube assembly 5 includes a gas discharge tube 501. The gas discharge tube 501 is an olive-shaped unit structure, and its material is selected as high-purity alumina powder. It is made by a one-time molding process without secondary machining, has high mechanical strength, and strong anti-acoustic resonance performance.

[0033] Positive electrode rods 502 and negative electrode rods 503 are respectively arranged on both sides of the gas discharge tube 501. One ends of the positive electrode rods 502 and the negative electrode rods 503 are respectively communicated with both ends inside the gas discharge tube 501. After being energized, arc discharge is realized.

[0034] The lamp cap assembly 4 includes a positive terminal 401, a negative terminal 402, and an insulating end 403. Insulation between the positive terminal 401 and the negative terminal 402 is achieved through the insulating end 403.

[0035] One end of the negative electrode wire leading rod 304 inside the wick body 301 is connected to the positive electrode end 401 of the lamp head assembly 4, the other end of the negative electrode wire leading rod 304 is connected to the other end of the negative electrode rod 503, one end of the positive electrode wire leading rod 305 inside the wick body 301 is connected to the negative electrode end 402 of the lamp head assembly 4, and the other end of the positive electrode wire leading rod 305 is connected to the other end of the limit bracket assembly 2.

[0036] A complete power-on loop is formed among the positive electrode rod 502, the limit bracket assembly 2, the positive electrode wire leading rod 305, the lamp head assembly 4, the negative electrode wire leading rod 304, and the negative electrode rod 503.

[0037] The negative electrode wire leading rod 304, the positive electrode wire leading rod 305, and the limit bracket assembly 2 jointly form a fixed support for the discharge tube assembly 5, and fix the discharge tube assembly 5 at the middle position of the outer housing 1.

[0038] Regarding the specific discharge principle of the gas discharge tube 501, the inside of the gas discharge tube 501 is a vacuum-sealed structure. A mixed gas of hydrogen and xenon is provided inside the gas discharge tube 501. After being electrified, since the ionization energy level of hydrogen is relatively low and it is easy to be ionized, the principle of instant-on and instant-brightness is that when a special gas (hydrogen) reaches a very low air pressure, it is easily broken down and generates an arc at this voltage, achieving the instant-on and instant-brightness effect.

[0039] When the quantum lamp is in arc discharge, the gas pressure inside the gas discharge tube 501 is medium air pressure, that is, less than 0.5 Mpa. The working air pressure value of the gas discharge tube 501 and the purpose of adding hydrogen to the gas discharge tube 501 are both to achieve instant-on and instant-brightness of the light source, which belong to the main technical points of the present invention.

[0040] More importantly, mixing hydrogen and xenon can reduce the starting voltage of the lamp. Since the ionization energy of hydrogen is relatively low (about 13.6 eV) and it is easy to be ionized, it can be used as an "igniter" to promote discharge start. Although the ionization energy of xenon is relatively high (about 121.3 eV), in the mixed gas, hydrogen generates free electrons through collision ionization, providing ionization seeds for xenon, thereby reducing the starting voltage requirement of the overall system.

[0041] Moreover, it can improve discharge stability. Since xenon has a large atomic weight and a long excited state lifetime, it can maintain a stable plasma channel, reducing the risk of arc oscillation or extinction. The high thermal conductivity and diffusivity of hydrogen can quickly dissipate heat and inhibit plasma contraction caused by local overheating, further stabilizing the discharge.

[0042] Meanwhile, it can optimize the spectral output. Since hydrogen generates strong ultraviolet light (Lyman series) and visible light (such as Balmer lines) during discharge, and xenon emits strong ultraviolet light (about 170 - 200 nm) and visible light (such as the excited state transition of Xe⁺) under high - voltage discharge, after the two are mixed, the spectral range can be expanded, making it more suitable for scenarios that require a wide - wavelength light source (such as ultraviolet curing, fluorescence detection, or laser pump sources, etc.).

[0043] Moreover, xenon itself is non - toxic and chemically stable. After mixing, it can reduce the risk of single - gas leakage and has high safety. Therefore, the mixed gas of hydrogen and xenon realizes lower energy consumption, higher stability, and more flexible spectral regulation through synergistic effects, and even becomes an ideal choice for special discharge technologies.

[0044] To achieve better structural stability, the outer housing 1 is composed of an upper part 101 of the outer housing and a lower part 102 of the outer housing. The upper part 101 of the outer housing is a semi - circular structure, and the lower part 102 of the outer housing is a cylindrical structure.

[0045] The limit support assembly 2 includes a limit ring 201 and a support guide rod 203. The limit ring 201 is located at the upper part of the limit support assembly 2, and the support guide rod 203 is located at the lower part of the limit support assembly 2. The limit ring 201 is horizontally arranged inside the upper part 101 of the outer housing, and the support guide rod 203 is longitudinally arranged at one side inside the lower part 102 of the outer housing.

[0046] Since the shape of the upper part 101 of the outer housing is a semi - circle that is narrower at the top and wider at the bottom, the limit ring 201 can play a limiting role inside the upper part 101 of the outer housing, reducing the swaying amplitude of the limit support assembly 2 inside the outer housing 1. The shape of the upper part 101 of the outer housing can also be designed as other shape structures that can play a limiting role for the upper part 101 of the outer housing.

[0047] The discharge tube assembly 5 further includes two connecting columns 504. The two connecting columns 504 are respectively fixedly connected to the upper and lower sides of the gas discharge tube 501. The discharge tube assembly 5 is longitudinally arranged at the middle position inside the lower part 102 of the outer housing.

[0048] The positive - pole guide rod 502 and the negative - pole guide rod 503 are respectively located inside the two connecting columns 504. One end of the positive - pole guide rod 502 far from the gas discharge tube 501 is fixedly connected to the upper end position on the support guide rod 203, and the lower end position on the support guide rod 203 is fixedly connected to the positive - pole wire lead - out guide rod 305.

[0049] To further increase the stability of the overall structure of the limit bracket assembly 2, the limit ring 201 is in mutual contact with the inner circumference of the upper section 101 of the outer casing. By directly fixing the limit ring 201 in contact with the inner circumference of the upper section 101 of the outer casing, the problem of the position of the limit ring 201 shaking can be avoided, thereby preventing the overall shaking of the lamp caused by external factors and preventing mutual collision between the limit ring 201 and the outer casing 1.

[0050] To eliminate the corona discharge during discharge and the tip discharge at the corresponding opposite end, an insulating sleeve 204 is provided at the middle position on the support guide rod 203. The insulating sleeve 204 can be made of insulating materials such as ceramics and glass fiber.

[0051] At the upper end position of the insulating sleeve 204 on the support guide rod 203, a getter 205 is provided. The getter 205 is mainly used to remove or reduce the residual impurity gases such as oxygen and water vapor inside the outer casing 1 after sealing, thereby protecting the sensitive components inside and extending the service life of the lamp.

[0052] To increase the stability of the insulating sleeve 204 during application, the getter 205, the insulating sleeve 204, and the positions where the support guide rod 203 is connected to the positive electrode wire lead-out rod 305 are sequentially arranged in contact with each other, which can prevent the relevant components from being damaged by collision due to the up and down sliding of the insulating sleeve 204 when the lamp shakes. And, Figure 1 it can be seen that the insulating sleeve 204 is located at the radially symmetric position of the gas discharge tube 501, which can avoid the problem of current interference and eliminate the corona discharge during discharge.

[0053] To increase the position and application stability of the discharge tube assembly 5, a first electrode connection rod 202 is provided between one end of the positive electrode rod 502 far from the gas discharge tube 501 and the upper end position on the support guide rod 203. The shape of the first electrode connection rod 202 is U-shaped. One end of the U-shaped first electrode connection rod 202 is fixedly connected to one end of the positive electrode rod 502 far from the gas discharge tube 501, and the other end of the U-shaped first electrode connection rod 202 is fixedly connected to the upper end position on the support guide rod 203.

[0054] By bending the first electrode connection rod 202 into a U-shaped structure, the stress of the first electrode connection rod 202 can be eliminated to the greatest extent, and the stability of the structure of the first electrode connection rod 202 can be increased. After bending, the first electrode connection rod 202 will not show obvious stress deformation during the long-term use of the lamp. On the one hand, it ensures that the discharge tube assembly 5 will not show obvious displacement. On the other hand, it can prevent the problem of loose connection between the first electrode connection rod 202 and the support guide rod 203 and the positive electrode rod 502 due to the stress deformation of the first electrode connection rod 202.

[0055] To meet the assembly standard requirements of lamps with different heights and widths, the negative electrode wire lead-out rod 304 is longitudinally arranged inside the lower part 102 of the outer housing, and the positive electrode wire lead-out rod 305 is transversely arranged inside the lower part 102 of the outer housing. The two are arranged in the same direction. On the one hand, it enables quick installation and convenient operation. On the other hand, it can prevent the problem of tip discharge caused by reverse arrangement.

[0056] More importantly, according to the actual height and diameter dimensions of the outer housing 1. For example, when the outer housing 1 is relatively tall, the length of the negative electrode wire lead-out rod 304 needs to be increased to ensure that the gas discharge tube 501 is located at the longitudinal middle position inside the outer housing 1, thereby ensuring the uniformity of light source distribution and efficient lighting effect. Another example is that when the outer diameter of the outer housing 1 is relatively large, the size of the corresponding gas discharge tube 501 usually increases accordingly. At this time, the length of the positive electrode wire lead-out rod 305 needs to be increased to ensure that there is a sufficient safety distance between the gas discharge tube 501 and the support rod 203, maximizing the avoidance of current interference problems and ensuring the normal operation of gas discharge.

[0057] To better meet the assembly standard requirements of lamps with different heights, the following embodiments are adopted: A first extension rod 6 is provided between the positive electrode rod 502 and the first electrode connection rod 202. The first extension rod 6 is longitudinally arranged inside the lower part 102 of the outer housing. The two ends of the first extension rod 6 are respectively fixedly connected to the positive electrode rod 502 and the first electrode connection rod 202. Between the negative electrode wire lead-out rod 304 and the negative electrode rod 503, a second extension rod 7 and a second electrode connection rod 8 are respectively provided. The second extension rod 7 is longitudinally arranged inside the lower part 102 of the outer housing, and the second electrode connection rod 8 is transversely arranged inside the lower part 102 of the outer housing. One end of the second extension rod 7 is fixedly connected to the negative electrode rod 503, the other end of the second extension rod 7 is fixedly connected to one end of the second electrode connection rod 8, and the other end of the second electrode connection rod 8 is fixedly connected to the negative electrode wire lead-out rod 304.

[0058] In this embodiment, by respectively connecting the first extension rod 6 and the second extension rod 7 to the two ends of the positive electrode rod 502 and the negative electrode rod 503, according to the actual height and diameter dimensions of the outer housing 1, the first extension rod 6 and the second extension rod 7 with appropriate lengths are selected. Similarly, it is to achieve the longitudinal centering and fixation of the gas discharge tube 501.

[0059] More importantly, the two ends of the gas discharge tube 501 are respectively fixed by welding the second electrode connecting rod 8 to the negative electrode wire leading-out rod 304 and the first extension rod 6 to the first electrode connecting rod 202. In actual operation, by adjusting the radial welding positions of the negative electrode wire leading-out rod 304 and the second electrode connecting rod 8, and the radial welding of the first extension rod 6 and the first electrode connecting rod 202, the radial position of the gas discharge tube 501 can be adjusted, enabling fine adjustment of the radial position of the gas discharge tube 501, improving the assembly accuracy of the gas discharge tube 501. At the same time, the parallelism of the discharge tube assembly 5 relative to the outer housing 1 can be adjusted to ensure that the quantum lamp can achieve the best lighting effect.

[0060] The connection methods between the U-shaped first electrode connecting rod 202 and the first electrode connecting rod 202, the U-shaped first electrode connecting rod 202 and the first extension rod 6, the first extension rod 6 and the positive electrode rod 502, the negative electrode rod 503 and the second extension rod 7, the second extension rod 7 and the second electrode connecting rod 8, the second electrode connecting rod 8 and the negative electrode wire leading-out rod 304, the negative electrode wire leading-out rod 304 and the negative electrode wire 303, the positive electrode wire 302 and the positive electrode wire leading-out rod 305, and the positive electrode wire leading-out rod 305 and the first electrode connecting rod 202 are all fixed by welding, which can effectively improve the reliability of the connection between related components and the stability of conductivity between related components, and maximize the avoidance of problems such as arc interference and current breakdown.

[0061] The material of the outer housing 1 is high borosilicate glass, or other materials with high transparency, high temperature resistance, and explosion protection can also be used.

[0062] To further ensure that the lamp has high-efficiency lighting performance, the materials of the limit ring 201, the first electrode connecting rod 202, the support rod 203, the negative electrode wire leading-out rod 304, the positive electrode wire leading-out rod 305, the first extension rod 6, the second extension rod 7, and the second electrode connecting rod 8 are all made of metallic nickel. Metallic nickel has excellent electrical conductivity. Nickel itself has good electrical conductivity, which can effectively reduce resistance, reduce power loss and heat generation, and improve the energy efficiency of the bulb. If nano-nickel materials are used, their electrical conductivity is even better and the free electron density is higher, which can further optimize the current transmission efficiency.

[0063] Moreover, metallic nickel has good corrosion resistance. Nickel has strong stability in humid or corrosive environments. A protective layer can be formed through electroplating nickel processing to prevent oxidation and chemical corrosion, and extend the service life of the bulb.

[0064] At the same time, metallic nickel also has outstanding high-temperature stability. Because the melting point of nickel is relatively high (about 1453 °C), it can maintain stable performance even in the high-temperature environment during the operation of the bulb, avoiding poor contact caused by material softening.

[0065] The material of the wick body 301 is glass.

[0066] Regarding the specific structure of the wick body 301, a positive electrode wire 302 and a negative electrode wire 303 are provided on the wick body 301. The upper parts of the positive electrode wire 302 and the negative electrode wire 303 are located inside the wick body 301, and the lower parts of the positive electrode wire 302 and the negative electrode wire 303 are located outside the bottom end of the wick body 301. One end of the positive electrode wire 302 is fixedly welded to the positive electrode wire lead-out rod 305, and the other end of the positive electrode wire 302 is fixedly welded to the negative terminal 402 of the lamp head assembly 4. One end of the negative electrode wire 303 is fixedly welded to the negative electrode wire lead-out rod 304, and the other end of the negative electrode wire 303 is fixedly welded to the positive terminal 401 of the lamp head assembly 4, thus completing a complete power-on circuit.

[0067] Regarding the dimensional ratio standards among the components of the quantum lamp, in this patent, the outer diameter dimension of the outer shell 1 is 46mm ± 2mm, the length dimension of the outer shell 1 is 140mm ± 2mm, the outer diameter dimension of the limiting ring 201 is 40mm ± 1mm, the maximum length dimension from the limiting ring 201 to the wick body 301 is 125mm ± 2mm, and the total length dimension of the gas discharge tube 501 and the two connecting posts 504 in the discharge tube assembly 5 is 50mm ± 2mm.

[0068] The positive terminal 401 on the lamp head assembly 4 is located at the upper position of the lamp head assembly 4, the insulating end 403 is located at the middle position of the lamp head assembly 4, the negative terminal 402 is located at the lower position of the lamp head assembly 4, and the positive terminal 401, the insulating end 403, and the negative terminal 402 are fixedly connected in sequence.

[0069] The positive terminal 401 has a hollow structure. An accommodation chamber 40101 is provided inside the positive terminal 401, and an external thread is provided on the outer surface of the positive terminal 401.

[0070] Among them, the accommodation chamber 40101 is used to accommodate the positive and negative electrode wires, and the external thread on the outer surface of the positive terminal 401 is used for conductive assembly with the lamp socket.

[0071] The insulating end 403 on the lamp head assembly 4 is made of high-frequency ceramic material, which has obvious technical effects: First of all, the high-frequency ceramic material has an extremely low dielectric constant, which can effectively suppress high-frequency electromagnetic interference (EMI), avoid the problem of circuit-coupled parasitic capacitance, simplify the filter design and improve electromagnetic compatibility.

[0072] Secondly, the high-frequency ceramic material can still maintain structural stability in a high-temperature environment, has a low thermal expansion coefficient, and can withstand rapid temperature changes without cracking. For example, silicon nitride ceramics can still be used for a long time at a high temperature of 1600°C, and are suitable for high-temperature scenarios such as tunnel lights.

[0073] Furthermore, the ceramic material itself is non-conductive, with a breakdown field strength as high as 10 - 30 kV / mm (such as alumina ceramics), and a comparative tracking index (CTI) ≥ 600V, far exceeding the insulation ability of metal materials. Combined with the lengthened creepage distance, the high insulation strength of ceramics can reduce the risk of arc discharge.

[0074] Moreover, high-frequency ceramic materials have strong corrosion resistance to chemical media such as acids, alkalis, and salts, and their surfaces are dense and pore-free, with excellent dust and waterproof performance.

[0075] At the same time, ceramic materials have a high thermal conductivity, which can quickly conduct out the heat generated by the lamp cap, avoiding performance attenuation caused by heat accumulation. The microporous structure of ceramics can increase the heat dissipation area.

[0076] The insulating end 403 includes an upper insulating end portion 40301, a middle insulating end portion 40302, and a lower insulating end portion 40303. The upper insulating end portion 40301, the middle insulating end portion 40302, and the lower insulating end portion 40303 are arranged in sequence from top to bottom. The upper end position of the upper insulating end portion 40301 is fixedly connected to the lower end position of the positive electrode end 401.

[0077] The upper insulating end portion 40301, the middle insulating end portion 40302, and the lower insulating end portion 40303 together form the insulating end 403 with a cylindrical structure having a T-shaped cross-section.

[0078] Adopting the T-shaped structure, after being assembled and used with the lamp socket, it can reduce the diffusion range of the discharge arc. Under the combined action with the lamp socket, it can isolate the arc impact and prevent the phenomenon of arc backflow, thereby suppressing the generation of high-frequency arcs, avoiding electrode ablation or glass tube rupture, and further improving the service life of the lamp.

[0079] The negative electrode end 402 on the lamp cap assembly 4 includes a negative electrode conductive cover 40201 and a negative electrode conductive column 40202. The negative electrode conductive cover 40201 is located at the lower section position of the negative electrode end 402. The negative electrode conductive column 40202 is located at the radial middle position of the negative electrode conductive cover 40201. The negative electrode conductive cover 40201 is located outside the lower insulating end portion 40303 and is fixedly connected to the lower insulating end portion 40303. The negative electrode conductive column 40202 is located inside the insulating end 403. One end of the negative electrode conductive column 40202 is fixedly connected to the negative electrode conductive cover 40201, and the other end of the negative electrode conductive column 40202 communicates with the accommodation chamber 40101 inside the positive electrode end 401.

[0080] In actual assembly, the positive electrode wire 302 on the lamp core assembly 3 is welded and fixed to the positive electrode end 401, and the negative electrode wire 303 is inserted into the accommodation chamber 40101 inside the positive electrode end 401 and welded and fixed to the negative electrode conductive column 40202 to complete the welding and fixing of the positive and negative electrode wires of the lamp.

[0081] To increase the stability of the structure of the insulating end 403 itself, the following embodiments are adopted: In this embodiment, the shape of the middle section 40302 of the insulating end is an inverted trapezoid. The inverted trapezoidal middle section 40302 of the insulating end forms a reliable support at the middle position of the insulating end 403, which can increase the overall rigidity of the insulating end 403 and the impact resistance of the insulating end 403.

[0082] According to the dimensional proportion standard of the lamp head assembly 4, the outer diameter dimension of the positive electrode end 401 is 40mm ± 2mm, the height dimension of the positive electrode end 401 is 30mm ± 2mm, the outer diameter dimension of the upper section 40301 of the insulating end is 40mm ± 2mm, the height dimension of the upper section 40301 of the insulating end is 5mm ± 1mm, the maximum outer diameter dimension of the inverted trapezoidal middle section 40302 of the insulating end is 14mm ± 1mm, the minimum outer diameter dimension of the inverted trapezoidal middle section 40302 of the insulating end is 10mm ± 1mm, the outer diameter dimension of the lower section 40303 of the insulating end is 10mm ± 1mm, and the total height dimension of the inverted trapezoidal middle section 40302 and the lower section 40303 of the insulating end is 9mm ± 1mm.

[0083] Among them, lengthening the total height dimension of the inverted trapezoidal middle section 40302 and the lower section 40303 of the insulating end to 9mm ± 1mm can increase the creepage distance during discharge. The main benefits of increasing the creepage distance include: 1. Enhance the insulation strength. A longer creepage distance can effectively block the conductive path formed by pollutants (such as dust and water stains), reducing the risk of leakage tracking and surface discharge.

[0084] 2. Adapt to complex environments. In scenarios with higher pollution levels such as humidity and dustiness, extending the creepage distance can reduce the negative impact of environmental factors on the insulation performance.

[0085] 3. Increase the overall structural safety. First of all, according to relevant standards, discharge equipment needs to meet the withstand voltage requirements by increasing the creepage distance to prevent safety accidents caused by arc breakdown.

[0086] Secondly, after lengthening the length of the negative electrode lamp post, the discharge path along the insulating surface is significantly lengthened, and a higher voltage is required to break down the insulating layer (according to the formula U = E⋅d, where d is the creepage distance), thereby suppressing the generation of high-frequency arcs and avoiding electrode ablation or glass tube rupture.

[0087] Moreover, the extended creepage path can reduce the leakage current density (I = J⋅S, where S is the effective area), reducing the risk of partial discharge caused by moisture bridging or dirt conduction and extending the service life of the lamp.

[0088] Furthermore, the long creepage circuit path can disperse the high-frequency charge distribution, reduce the electric field concentration effect, and prevent the insulating material from being broken down due to electrical stress.

[0089] Meanwhile, by lengthening the lamp post and adopting a spiral or multi-segment insulating structure, the effective creepage circuit path is extended without increasing the overall size, while reserving space for the optical component and the heat dissipation structure.

[0090] The processing method for processing the above-mentioned quantum lamp includes the following steps: Step (1): Select a high-borosilicate glass tube with a suitable outer diameter and cut it into a set length.

[0091] Step (2): Use a sealing machine to seal one end of the cut high-borosilicate glass tube to form the upper part 101 of the outer shell.

[0092] Step (3): Select a lamp core body 301 with a matching specification, and weld and fix one end of the negative lead-out rod 304 and the positive lead-out rod 305 to one end of the negative lead 303 and the positive lead 302 inside the lamp core body 301 respectively. At the same time, fix the ends of the negative lead-out rod 304 and the positive lead-out rod 305 that are welded to the wires inside the glass core column through a sintering process. After fixing, the negative lead-out rod 304 is longitudinally arranged on one side of the upper end of the lamp core body 301, and the positive lead-out rod 305 is horizontally arranged on the other side of the upper end of the lamp core body 301.

[0093] Step (4): Weld and fix the other end of the negative lead-out rod 304 to one end of the second electrode connection rod 8.

[0094] Step (5): Select high-purity alumina powder and form the structural shape of the discharge tube assembly 5 composed of the gas discharge tube 501 and two connecting columns 504 through one-time die pressing and high-temperature sintering.

[0095] Then, use a glove box to evacuate the inside of the gas discharge tube 501, and then, according to the actual color temperature requirement, add halogen pills of corresponding specifications, and then fill hydrogen and xenon into the gas discharge tube 501 to obtain a mixed gas of the two. The filling ratio of hydrogen and xenon is 1:1.

[0096] Finally, use a plasma sealing machine to seal the positive lead rod 502 and the negative lead rod 503 inside the two connecting columns 504 respectively, and set the gas pressure inside the gas discharge tube 501 to a standard less than 5 atmospheres.

[0097] Step (6): Bend the upper part of the limit bracket assembly 2 into a circular shape to form the limit bracket assembly 2 with the shape of a circular limit ring 201. The limit bracket assembly 2 is longitudinally arranged.

[0098] The first electrode connecting rod 202 is bent into a U-shaped form. The U-shaped first electrode connecting rod 202 is horizontally arranged, and one end of the U-shaped first electrode connecting rod 202 is fixedly welded to a position on the support rod 203 near the upper end.

[0099] Step (7): Weld a connecting seat with a getter 205 to the lower end of the support rod 203 at the welding position of the first electrode connecting rod 202 and the support rod 203. Then, slip an insulating sleeve 204 onto the support rod 203 at a position below the getter 205.

[0100] Then, fixedly weld the other end of the positive electrode lead-out rod 305 to a position adjacent to the lower end of the insulating sleeve 204 on the support rod 203. After fixation, this welding position is successively in contact with the insulating sleeve 204 and the getter 205.

[0101] Step (8): Weld a first extension rod 6 and a second extension rod 7 to the outer sides of the positive electrode rod 502 and the negative electrode rod 503 respectively. Then, fixedly weld the other end of the first extension rod 6 to the other end of the first electrode connecting rod 202, and fixedly weld the other end of the second extension rod 7 to the other end of the second electrode connecting rod 8.

[0102] Step (9): Select a lamp cap assembly 4 with a matching specification, and fixedly weld the other ends of the positive electrode wire 302 and the negative electrode wire 303 to the inner surface of the positive terminal 401 and the negative terminal conductive post 40202 on the negative terminal 402 of the lamp cap assembly 4 respectively. Then, fixedly connect the lamp core body 301 to the upper end position of the lamp cap assembly 4.

[0103] After fixation, the limit bracket assembly 2, the lamp core assembly 3, the lamp cap assembly 4, and the discharge tube assembly 5 together form a complete gas discharge circuit light source system. Moreover, the discharge tube assembly 5 and the lamp core assembly 3 are both located at the central position of the lamp cap assembly 4.

[0104] Step (10): Conduct a power-on test on the lighting effect of the light source. After passing the test, slip the outer housing 1 onto the outside of the overall structure including the lamp core assembly 3, the limit bracket assembly 2, and the discharge tube assembly 5. Finally, fixedly seal-weld the outer housing 1 to the lamp cap assembly 4.

[0105] After seal-welding and fixation, the discharge tube assembly 5 is located at the longitudinal middle position and the radial middle position of the outer housing 1, at a position on the side of the support rod 203 close to the inside of the lower section 102 of the outer housing. The insulating sleeve 204 is radially symmetrically arranged with the gas discharge tube 501. The limit ring 201 is horizontally arranged inside the upper section 101 of the outer housing and is in contact with the inner circumference of the upper section 101 of the outer housing.

[0106] However, the above are only specific embodiments of the present invention, and the scope of implementation of the present invention cannot be limited thereby. Therefore, the replacement of equivalent components or equivalent changes and modifications made according to the scope of protection of the present invention shall still fall within the scope covered by the claims of the present invention.

Claims

1. A quantum lamp, characterized in that: It is provided with an outer shell, a limit bracket assembly, a wick assembly, a lamp holder assembly, and a discharge tube assembly; The position limiting bracket assembly, the wick assembly, and the discharge tube assembly are all located inside the outer shell, and the lamp cap assembly is fixedly connected to the bottom end of the outer shell; The wick assembly comprises a wick body, wherein the upper end of the wick body is respectively provided with a negative lead lead rod and a positive lead lead rod, and one end of the negative lead lead rod and the positive lead lead rod are respectively fixedly arranged inside the wick body; The discharge tube assembly comprises a gas discharge tube, and a positive electrode guide rod and a negative electrode guide rod are respectively provided on both sides of the gas discharge tube, and one end of the positive electrode guide rod and the negative electrode guide rod are respectively connected to the two ends inside the gas discharge tube; The lamp holder assembly comprises a positive terminal, a negative terminal and an insulating terminal, and the positive terminal and the negative terminal are insulated by the insulating terminal; One end of the negative lead lead rod located inside the wick body is connected to the positive end of the lamp holder assembly, the other end of the negative lead lead rod is connected to the other end of the negative lead rod, one end of the positive lead lead rod located inside the wick body is connected to the negative end of the lamp holder assembly, and the other end of the positive lead lead rod is connected to the other end of the limit bracket assembly; A power circuit is formed between the positive electrode guide rod, the limit bracket assembly, the positive electrode wire lead-out guide rod, the lamp holder assembly, the negative electrode wire lead-out guide rod, and the negative electrode guide rod; The negative electrode wire lead-out guide rod, the positive electrode wire lead-out guide rod and the limit bracket assembly jointly form a fixed support for the discharge tube assembly, and fix the discharge tube assembly at the middle position of the outer shell.

2. The quantum lamp according to claim 1, characterized in that: The interior of the gas discharge tube is a vacuum sealed structure, and a mixed gas of hydrogen and xenon is arranged inside the gas discharge tube.

3. The quantum lamp according to claim 1, characterized in that: The outer shell is composed of an upper shell section and a lower shell section, wherein the upper shell section is a semicircular structure and the lower shell section is a columnar structure; The limit bracket assembly includes a limit ring and a support guide rod, the limit ring is located at the upper section of the limit bracket assembly, the support guide rod is located at the lower section of the limit bracket assembly, the limit ring is transversely arranged inside the upper section of the outer shell, and the support guide rod is longitudinally arranged at a side position inside the lower section of the outer shell; The discharge tube assembly further includes two connecting posts, the two connecting posts are fixedly connected to the upper and lower sides of the gas discharge tube respectively, and the discharge tube assembly is longitudinally arranged at the middle position inside the lower section of the outer shell; The positive electrode guide rod and the negative electrode guide rod are respectively located inside the two connecting columns. The end of the positive electrode guide rod away from the gas discharge tube is fixedly connected to the upper end position of the support guide rod, and the lower end position of the support guide rod is fixedly connected to the positive electrode wire lead-out guide rod.

4. The quantum lamp according to claim 3, characterized in that: The limiting ring is in contact with the inner circumference of the upper section of the outer shell.

5. The quantum lamp according to claim 3, characterized in that: An insulating sleeve is provided in the middle position of the support guide rod, and a getter is provided at the upper end of the insulating sleeve on the support guide rod. The getter, the insulating sleeve and the position where the support guide rod is connected to the positive electrode wire lead-out guide rod are sequentially fitted together.

6. The quantum lamp according to claim 3, characterized in that: A first electrode connecting guide rod is provided between the end of the positive electrode guide rod away from the gas discharge tube and the upper end position on the supporting guide rod. The first electrode connecting guide rod is U-shaped, and one end of the U-shaped first electrode connecting guide rod is fixedly connected to the end of the positive electrode guide rod away from the gas discharge tube, and the other end of the U-shaped first electrode connecting guide rod is fixedly connected to the upper end position on the supporting guide rod.

7. The quantum lamp according to claim 6, characterized in that: A first extension guide rod is provided between the positive electrode guide rod and the first electrode connecting guide rod, the first extension guide rod is longitudinally arranged inside the lower section of the outer shell, and two ends of the first extension guide rod are fixedly connected to the positive electrode guide rod and the first electrode connecting guide rod respectively; A second extension guide rod and a second electrode connecting guide rod are respectively provided between the negative electrode lead-out guide rod and the negative electrode guide rod, the second extension guide rod is longitudinally arranged inside the lower section of the outer shell, the second electrode connecting guide rod is transversely arranged inside the lower section of the outer shell, one end of the second extension guide rod is fixedly connected to the negative electrode guide rod, the other end of the second extension guide rod is fixedly connected to one end of the second electrode connecting guide rod, and the other end of the second electrode connecting guide rod is fixedly connected to the negative electrode lead-out guide rod; The negative electrode wire lead-out guide rod is longitudinally arranged inside the lower section of the outer shell, and the positive electrode wire lead-out guide rod is transversely arranged inside the lower section of the outer shell.

8. The quantum lamp according to claim 7, characterized in that: The connection between the U-shaped first electrode connecting guide rod and the first electrode connecting guide rod, the U-shaped first electrode connecting guide rod and the first extension guide rod, the first extension guide rod and the positive guide rod, the negative guide rod and the second extension guide rod, the second extension guide rod and the second electrode connecting guide rod, the second electrode connecting guide rod and the negative electrode wire lead-out guide rod, the negative electrode wire lead-out guide rod and the negative electrode wire, the positive electrode wire and the positive electrode wire lead-out guide rod, and the positive electrode wire lead-out guide rod and the first electrode connecting guide rod are all welded and fixed.

9. The quantum lamp according to claim 8, characterized in that: The outer shell is made of high boron glass; The materials of the limiting ring, the first electrode connecting guide rod, the supporting guide rod, the negative electrode wire leading guide rod, the positive electrode wire leading guide rod, the first extension guide rod, the second extension guide rod and the second electrode connecting guide rod are all nickel; The material of the wick body is glass.

10. A method for processing a quantum lamp as claimed in any one of claims 1 to 9, characterized in that: The steps include: Step (1): Select a high-boron glass tube with a suitable outer diameter and cut it into a set length; Step (2): using a sealing machine to seal one end of the cut high-boron glass tube to form an upper section of the outer shell; Step (3): Select a wick body of matching specifications, weld one end of the negative wire lead-out guide rod and the positive wire lead-out guide rod to one end of the negative wire and the positive wire in the wick body respectively, and at the same time, fix the ends of the negative wire lead-out guide rod and the positive wire lead-out guide rod welded to the inside of the glass core column through a sintering process, after which the negative wire lead-out guide rod is longitudinally arranged on one side of the upper end of the wick body, and the positive wire lead-out guide rod is transversely arranged on the other side of the upper end of the wick body; Step (4): welding the other end of the negative electrode lead lead rod to one end of the second electrode connecting rod; Step (5): selecting high-purity alumina powder, and forming the structure of a discharge tube assembly consisting of a gas discharge tube and two connecting columns by one-step compression molding and high-temperature sintering; Then, the inside of the gas discharge tube is evacuated using a glove box. Then, according to the actual color temperature requirements, halogen pills of corresponding specifications are added, and hydrogen and xenon are filled into the gas discharge tube to obtain a mixed gas of the two. The filling ratio of hydrogen and xenon is 1:

1. Finally, a plasma sealer is used to seal the positive electrode guide rod and the negative electrode guide rod inside the two connecting columns respectively, and the gas pressure inside the gas discharge tube is set to a standard of less than five atmospheres; Step (6): bending the upper section of the limiting bracket assembly into a circle to form a limiting bracket assembly with a circular limiting ring shape, wherein the limiting bracket assembly is arranged longitudinally; The first electrode connecting guide rod is bent into a U-shape, the U-shaped first electrode connecting guide rod is arranged horizontally, and one end of the U-shaped first electrode connecting guide rod is welded and fixed to a position close to the upper end of the supporting guide rod; Step (7): welding a connection seat with a getter at the lower end of the support guide rod at the welding position between the first electrode connection guide rod and the support guide rod, and then inserting an insulating sleeve into the position of the support guide rod at the lower end of the getter; Then, the other end of the positive lead lead rod is welded to a position on the support rod adjacent to the lower end of the insulating sleeve, and after being fixed, the welding position is sequentially fitted with the insulating sleeve and the getter; Step (8): Welding a first extension guide rod and a second extension guide rod at outer positions of the positive electrode guide rod and the negative electrode guide rod, respectively, and then welding the other end of the first extension guide rod to the other end of the first electrode connecting guide rod, and welding the other end of the second extension guide rod to the other end of the second electrode connecting guide rod; Step (9): Select a lamp holder assembly of matching specifications, weld the other ends of the positive wire and the negative wire to the inner surface of the positive terminal of the lamp holder assembly and the negative terminal conductive column on the negative terminal, respectively, and then fix the wick body to the upper end of the lamp holder assembly; After the fixing is completed, the limit bracket assembly, the wick assembly, the lamp holder assembly, and the discharge tube assembly together constitute a complete gas discharge circuit light source system, and the discharge tube assembly and the wick assembly are both located at the center of the lamp holder assembly; Step (10): Turn on the power to test the brightness of the light source. If the test is passed, insert the outer shell into the outside of the overall structure including the wick assembly, the limit bracket assembly, and the discharge tube assembly. Finally, seal and weld the outer shell and the lamp holder assembly. After sealing and welding, the discharge tube assembly is located in the longitudinal middle position and radial middle position of the outer shell, the support guide rod is close to one side of the inner part of the lower section of the outer shell, the insulating sleeve and the gas discharge tube are radially symmetrically arranged, and the limit ring is transversely arranged inside the upper section of the outer shell and fits with the inner circumference of the upper section of the outer shell.

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