Quartz sand quartz glass purification equipment based on quantum heating purification

Abstract

The invention discloses quartz sand-quartz glass purification equipment based on quantum heating purification, and relates to the technical field of quartz sand-quartz glass purification, the quartz sand-quartz glass purification equipment comprises a mounting frame main body, the top of the mounting frame main body is provided with a laser generator, and the top of the mounting frame main body is provided with a reaction chamber on one side of the laser generator; an operation cabinet is mounted on one side of the reaction chamber at the top of the mounting frame main body; according to the quartz sand and quartz glass purification equipment based on quantum heating purification, by arranging an emitter, a universal ball, a circular electric guide rail and a linear electric guide rail, a multi-degree-of-freedom precisely-regulated laser irradiation system is constructed, so that the emitter can flexibly adjust the position and the irradiation angle in a three-dimensional space; all-directional and dead-corner-free uniform irradiation on the surface of the material is realized, so that the utilization efficiency of laser energy and the uniformity of purification treatment are improved, and the problems of irradiation blind areas, non-uniform energy distribution and the like in a traditional treatment mode are effectively solved.

Description

Technical Field

[0001] This invention relates to the field of quartz sand and quartz glass purification technology, specifically to a quartz sand and quartz glass purification device based on quantum heating purification. Background Technology

[0002] With the rapid development of semiconductors, optical communications, and high-end manufacturing, the performance requirements for quartz sand and its products, such as quartz glass, are becoming increasingly stringent, especially in terms of purity, light transmittance, and thermal stability. Traditional purification techniques, such as high-temperature melting and chemical acid washing, can improve the purity of quartz sand, but they generally face problems such as high energy consumption, significant pollution, and uneven purification efficiency. In particular, traditional methods have limited effectiveness in removing trace metal impurities and hydroxyl groups from quartz sand, making it difficult to meet the extremely high purity requirements of advanced processes.

[0003] However, existing quartz sand purification equipment has significant shortcomings in the design of its laser irradiation system. Traditional equipment, due to the fixed position and angle of the laser emitter, cannot achieve uniform irradiation of the material surface from all directions without dead angles. This defect leads to uneven distribution of laser energy on the material surface and the existence of irradiation blind spots, which in turn causes inconsistency in purification effect and a reduction in overall efficiency. Especially when processing quartz sand materials with complex shapes or large sizes, traditional equipment cannot ensure that each area receives uniform and appropriate laser irradiation, affecting the further improvement of the purity and performance stability of quartz glass products. Therefore, it is necessary to improve it. Summary of the Invention

[0004] The purpose of this invention is to provide a quartz sand and quartz glass purification device based on quantum heating purification, so as to solve the problem that the existing laser irradiation system cannot achieve all-round, dead-angle-free uniform irradiation of the material surface, resulting in uneven purification effect and low efficiency.

[0005] To achieve the above objectives, the present invention provides the following technical solution: a quartz sand and quartz glass purification device based on quantum heating purification, comprising a mounting frame body, a laser generator mounted on the top of the mounting frame body, a reaction chamber mounted on one side of the top of the mounting frame body located from the laser generator, and an operation cabinet mounted on one side of the top of the mounting frame body located from the reaction chamber.

[0006] The laser generator is electrically connected to a wire on its surface, with the bottom end of the wire inserted into the inner wall of the reaction chamber. An emitter is mounted on the bottom end of the wire. A positioning post is mounted on the inner top wall of the reaction chamber. A universal ball is connected to the bottom of the positioning post, and the bottom of the universal ball is mounted on the top of the emitter. A circular electric guide rail is mounted on the bottom of the positioning post. A sliding block is slidably connected to the inner wall of the circular electric guide rail. An installation rod is mounted on one side of the sliding block. A linear electric guide rail is mounted on the bottom end of the installation rod. A moving block is slidably connected to the inner wall of the linear electric guide rail. A connecting rod is rotatably connected to the back of the moving block, and the bottom end of the connecting rod is rotatably connected to the surface of the emitter.

[0007] Furthermore, a transformer is installed on the inner wall of the mounting frame body, and a fixing sleeve is installed on the inner wall of the mounting frame body on one side of the transformer.

[0008] Furthermore, a drive mechanism is installed on the inner bottom wall of the fixed sleeve rod, a drive rod is installed at the output end of the drive mechanism, and a threaded rod is installed at the top end of the drive rod.

[0009] Furthermore, the surface of the threaded rod is threadedly connected to a threaded collar, and a support frame is mounted on the surface of the threaded collar.

[0010] Furthermore, a connecting rod is installed on the top of the support frame, and the top end of the connecting rod is inserted through and into the inner wall of the reaction chamber. A positioning sleeve is installed on the top end of the connecting rod.

[0011] Furthermore, a placement plate is attached to the top of the positioning sleeve, and the surface of the placement plate is inserted into the inner wall of the reaction chamber, with the emitter located above the placement plate.

[0012] Furthermore, a positioning block is installed at the bottom of the placement tray, and the surface of the positioning block is inserted into the inner wall of the positioning sleeve.

[0013] Furthermore, a protective door is rotatably connected to the surface of the reaction chamber, and a handle is installed on the surface of the protective door.

[0014] Compared with existing technologies, the present invention provides a quartz sand and quartz glass purification device based on quantum heating purification. By setting up a laser generator, reaction chamber, emitter, positioning column, universal ball, circular electric guide rail and linear electric guide rail, a multi-degree-of-freedom precisely controllable laser irradiation system is constructed. This allows the emitter to flexibly adjust its position and irradiation angle in three-dimensional space, achieving uniform irradiation of the material surface from all directions without dead angles. This improves the utilization efficiency of laser energy and the uniformity of purification processing, effectively solving the problems of irradiation blind spots and uneven energy distribution in traditional processing methods.

[0015] By incorporating a transformer, drive mechanism, support frame, placement tray, and protective door, a height-adjustable material carrying and rapid positioning system is constructed. This system enables precise and stable lifting and rapid assembly and disassembly of the placement tray and the materials it carries. Combined with the airtight protection of the reaction chamber, the equipment can flexibly adapt to the process requirements of different materials and maintain a clean processing environment. This effectively improves the ease of operation, process adaptability, and overall stability and reliability of the purification process. Attached Figure Description

[0016] To more clearly illustrate the technical solutions in the embodiments of this application or the prior art, the drawings used in the embodiments will be briefly introduced below. Obviously, the drawings described below are only some embodiments recorded in this invention. For those skilled in the art, other drawings can be obtained based on these drawings.

[0017] Figure 1 This is one of the overall structural schematic diagrams provided in the embodiments of the present invention;

[0018] Figure 2 This is the second overall structural schematic diagram provided for an embodiment of the present invention;

[0019] Figure 3 This is a schematic diagram of the transmitter structure provided in an embodiment of the present invention;

[0020] Figure 4 This is a schematic diagram of the positioning column structure provided in an embodiment of the present invention;

[0021] Figure 5 This is a schematic diagram of the omnidirectional ball structure provided in an embodiment of the present invention;

[0022] Figure 6 This is a schematic diagram of a transformer structure provided in an embodiment of the present invention;

[0023] Figure 7 This is a schematic diagram of a threaded rod structure provided in an embodiment of the present invention.

[0024] Explanation of reference numerals in the attached figures:

[0025] 1. Mounting frame main body; 2. Laser generator; 3. Reaction chamber; 4. Control cabinet; 5. Wires; 6. Emitter; 7. Positioning column; 8. Universal ball; 9. Circular electric guide rail; 10. Sliding block; 11. Mounting rod; 12. Linear electric guide rail; 13. Moving block; 14. Connecting rod; 15. Transformer; 16. Fixed sleeve rod; 17. Drive mechanism; 18. Drive rod; 19. Threaded rod; 20. Threaded collar; 21. Support frame; 22. Connecting rod; 23. Positioning sleeve; 24. Placement tray; 25. Protective door. Detailed Implementation

[0026] To enable those skilled in the art to better understand the technical solution of the present invention, the present invention will be further described in detail below with reference to the accompanying drawings.

[0027] As attached Figure 1 To be continued Figure 7 As shown:

[0028] Example 1:

[0029] The present invention provides a quartz sand and quartz glass purification device based on quantum heating purification, including a mounting frame body 1, a laser generator 2 mounted on the top of the mounting frame body 1, a reaction chamber 3 mounted on the top of the mounting frame body 1 on one side of the laser generator 2, and an operation cabinet 4 mounted on the top of the mounting frame body 1 on one side of the reaction chamber 3.

[0030] A wire 5 is electrically connected to the surface of the laser generator 2, and the bottom end of the wire 5 is inserted into the inner wall of the reaction chamber 3. An emitter 6 is installed at the bottom end of the wire 5. A positioning post 7 is installed on the inner top wall of the reaction chamber 3. A universal ball 8 is connected to the bottom of the positioning post 7, and the bottom of the universal ball 8 is installed on the top of the emitter 6. A circular electric guide rail 9 is installed at the bottom of the positioning post 7. A sliding block 10 is slidably connected to the inner wall of the circular electric guide rail 9. An installation rod 11 is installed on one side of the sliding block 10. A linear electric guide rail 12 is installed at the bottom end of the installation rod 11. A moving block 13 is slidably connected to the inner wall of the linear electric guide rail 12. A connecting rod 14 is rotatably connected to the back of the moving block 13, and the bottom end of the connecting rod 14 is rotatably connected to the surface of the emitter 6.

[0031] In use, the main body 1 of the mounting frame serves as the overall support and mounting base, bearing and fixing each functional module; the laser generator 2 acts as the energy source, producing laser light for purification; the reaction chamber 3 is a sealed space used to contain quartz sand or quartz glass for purification reactions; the control cabinet 4 integrates the control unit for setting and adjusting equipment operating parameters; the wire 5 transmits the energy generated by the laser generator 2 to the transmitter 6; the transmitter 6 acts as the laser output terminal, precisely irradiating the surface of the material to be treated; the positioning column 7 is fixed to the inner top wall of the reaction chamber 3, providing stable suspension and positioning support for the transmitter 6; the omnidirectional ball 8 connects the bottom of the positioning column 7 and the top of the transmitter 6, enabling the transmitter 6 to have multi-angle flexible deflection capability; the circular electric guide rail 9 is installed at the bottom of the positioning column 7, and the sliding block 10 slidably connected to its inner wall drives the mounting rod 11 to perform circular motion, thereby driving the transmitter 6 to rotate. The vertical axis rotates to achieve full coverage of the irradiation direction; the mounting rod 11 connects the sliding block 10 and the linear electric guide rail 12, transmitting circumferential motion and maintaining structural stability; the linear electric guide rail 12 is installed at the bottom of the mounting rod 11, and the moving block 13, which is slidably connected to its inner wall, drives another connecting rod 14 to perform linear motion; the moving block 13 slides on the linear electric guide rail 12, and pushes or pulls the emitter 6 through the connecting rod 14, causing it to tilt around the center of the universal ball 8, thereby achieving precise adjustment of the emission angle; the two ends of the connecting rod 14 are respectively rotatably connected to the surfaces of the moving block 13 and the emitter 6, converting the linear displacement of the moving block 13 into the pitch motion of the emitter 6, which, together with the rotation drive of the circular electric guide rail 9, achieves precise control of the spatial position and irradiation direction of the emitter 6 with multiple degrees of freedom, ensuring that the laser can act uniformly and efficiently on the material surface, improving the purification effect and processing consistency.

[0032] The above mechanical structure ensures the laser emitter 6's omnidirectional coverage and precise positioning in space. The core of "quantum heating purification" in this device lies in the fact that laser irradiation is not simply the application of energy, but rather a combination with quantum sensing technology to form a real-time, precise control closed loop based on physical constant feedback.

[0033] Its collaborative working principle is as follows:

[0034] Quantum sensing probe integration: Within the reaction chamber 3, at a specific location near the material area of ​​the placement tray 24, a quantum magnetic field sensor probe based on diamond nitrogen-vacancy color centers is integrated. This probe is similar to the NV color center sensor used in quantum current transformers, exhibiting extremely high sensitivity to extremely weak electromagnetic field changes caused by microscopic thermal effects or plasma effects resulting from the interaction between laser and materials.

[0035] Signal Conversion and Reading: When the laser generator 2 irradiates the quartz sand material through the emitter 6, impurities in the material (such as metal ions) undergo selective excitation, vibration, or ionization under the action of laser light of a specific wavelength and power. This process is accompanied by the release of characteristic micro-magnetic fields or electromagnetic signals. A quantum sensor probe integrated within the reaction chamber detects these signals in real time using its continuous-wave optical magnetic resonance detection technology. This technology converts the detected magnetic field strength information into a precisely corresponding optical signal frequency difference.

[0036] The measurement is traced back to physical constants: According to the physical formula (magnetic field strength ∝ frequency difference / electron gyromagnetic ratio), where the electron gyromagnetic ratio is a constant. Therefore, the measurement of characteristic signals generated during material purification is essentially transformed into the measurement of frequency (time), which is a highly accurate and stable measurement method traceable to the International System of Units (SI).

[0037] Real-time feedback and closed-loop control: The control system (integrated in control cabinet 4) receives and analyzes frequency (i.e., signal strength) data from the quantum sensor in real time. The system compares the data with a preset "high-purity material standard signal model".

[0038] If the signal strength is higher than the threshold, it indicates that the impurity content or reaction intensity of the current irradiation area is not as expected. The control system can dynamically adjust the circular electric guide rail 9 and the linear electric guide rail 12 to control the transmitter 6 to slow down its movement speed, increase the irradiation energy, or adjust the irradiation angle to "enhance" the area.

[0039] If the signal strength is below or meets the threshold, it indicates that the purification effect in that area is good. The control system then instructs transmitter 6 to move to the next area or switch to low-power sustaining mode.

[0040] Meanwhile, the system can also optimize the laser action distance by finely adjusting the height of the placement disk 24 through the drive mechanism 17 based on the overall signal trend monitored by the quantum sensor, or trigger the temperature compensation mechanism to ensure a stable reaction environment.

[0041] Achieving uniform purification: Through the closed loop of "real-time monitoring by quantum sensing, data traceability analysis, and precise feedback control by multi-degree-of-freedom laser actuators," this equipment achieves "on-demand" laser energy delivery to every microscopic area of ​​the material surface. This completely solves the problems of "irradiation blind zone and uneven energy distribution" mentioned in the background technology, ensuring the consistency of purification effect at both the macroscopic and microscopic levels, thereby raising the purity of quartz sand to a level that is difficult to achieve with traditional methods.

[0042] Example 2:

[0043] This embodiment is basically the same as the previous embodiment, except that a transformer 15 is installed on the inner wall of the mounting frame body 1, a fixing sleeve 16 is installed on the inner wall of the mounting frame body 1 on one side of the transformer 15, a drive mechanism 17 is installed on the inner bottom wall of the fixing sleeve 16, a drive rod 18 is installed at the output end of the drive mechanism 17, a threaded rod 19 is installed at the top end of the drive rod 18, a threaded collar 20 is threadedly connected to the surface of the threaded rod 19, a support frame 21 is installed on the surface of the threaded collar 20, and the top of the support frame 21... A connecting rod 22 is installed on the part, and the top end of the connecting rod 22 is inserted through and into the inner wall of the reaction chamber 3. A positioning sleeve 23 is installed on the top end of the connecting rod 22. A placement plate 24 is attached to the top of the positioning sleeve 23, and the surface of the placement plate 24 is inserted into the inner wall of the reaction chamber 3. The transmitter 6 is located above the placement plate 24. A positioning block is installed at the bottom of the placement plate 24, and the surface of the positioning block is inserted into the inner wall of the positioning sleeve 23. A protective door 25 is rotatably connected to the surface of the reaction chamber 3, and a handle is installed on the surface of the protective door 25.

[0044] During use, the external input electrical energy is converted into the working voltage required by the equipment through the transformer 15, ensuring the stable operation of the laser generator 2 and other electrical components; the fixed sleeve 16 is installed inside the mounting frame body 1, providing a stable support and mounting foundation for the drive mechanism 17; the drive mechanism 17 serves as a power source, and its output end is connected to the drive rod 18, with a threaded rod 19 installed at the top of the drive rod 18; the surface of the threaded rod 19 and the threaded collar 20 form a threaded transmission pair, and when the drive mechanism 17 drives the threaded rod 19 to rotate through the drive rod 18, the threaded collar 20 moves axially along the threaded rod 19; a support frame 21 is installed on the surface of the threaded collar 20, and the top of the support frame 21 extends upward through the connecting rod 22 and penetrates into the interior of the reaction chamber 3, with a positioning sleeve 23 installed at the top of the connecting rod 22; a placement plate 24 overlaps the top of the positioning sleeve 23, for use The placement tray 24, which holds the quartz sand or quartz glass material to be processed, has a positioning block at its bottom. This positioning block is inserted into the inner wall of the positioning sleeve 23 to achieve precise positioning and quick installation of the placement tray 24, while ensuring its stability during operation. The emitter 6 is located above the placement tray 24 for easy irradiation of the material. The protective door 25 is rotatably connected to the surface of the reaction chamber 3 and can be opened and closed by a handle, facilitating the loading and unloading of materials and sealing of the reaction chamber 3. During operation, the drive mechanism 17 drives the threaded rod 19 to rotate through the drive rod 18, causing the threaded collar 20 to drive the support frame 21, connecting rod 22, and positioning sleeve 23 to rise and fall along the axial direction of the threaded rod 19, thereby adjusting the height of the placement tray 24 and the material on it in the reaction chamber 3 to adapt to different process requirements, ensure that the material is at the optimal irradiation distance, and improve purification efficiency and uniformity.

[0045] Application example:

[0046] In the fields of high-end optical devices and semiconductor manufacturing, high-purity quartz glass is a core material for fabricating key components such as photolithography lenses, ultraviolet lenses, and wafer carriers. Its purity directly affects the performance and yield of the devices. Traditional purification methods such as high-temperature melting and chemical acid washing suffer from problems such as high energy consumption, significant pollution, and uneven processing, and are particularly difficult to completely remove trace amounts of metallic impurities and hydroxyl content from quartz sand. To meet the stringent requirements of advanced processes for material purity and structural integrity, a new process and equipment capable of achieving precise, efficient, and pollution-free purification is urgently needed.

[0047] In practical applications, the operator first sets process parameters such as laser power, irradiation mode, and processing time through the control cabinet 4. Then, the protective door 25 is opened, and the placement tray 24, carrying the quartz sand material to be processed, is pushed in along the inner wall of the reaction chamber 3, ensuring that the positioning block at the bottom of the placement tray 24 is accurately inserted into the inner wall of the positioning sleeve 23, achieving rapid positioning and stable installation. After closing the protective door 25, the transformer 15 starts working, converting external electrical energy into the operating voltage required by the laser generator 2, ensuring its stable operation.

[0048] After the laser generator 2 is started, the generated laser energy is transmitted to the emitter 6 through the wire 5. Under the command of the control system, the circular electric guide rail 9 drives the sliding block 10 on its inner wall to move along a circular trajectory. The sliding block 10 drives the linear electric guide rail 12 and the moving block 13 mounted on it to rotate synchronously around the axis of the positioning column 7 through the mounting rod 11, so that the emitter 6 can perform a 360-degree scan in the horizontal plane, ensuring that the laser beam can cover the entire material area on the placement plate 24. At the same time, the linear electric guide rail 12 drives the moving block 13 to reciprocate in a straight line. The moving block 13 pushes or pulls the emitter 6 through another connecting rod 14, so that it can tilt and deflect around the center of the universal ball 8 within a certain angle range, realizing precise adjustment of the laser irradiation angle. Through the coordinated control of the circular electric guide rail 9 and the linear electric guide rail 12, the emitter 6 can flexibly adjust its position and direction in three-dimensional space, thereby achieving uniform and precise irradiation of every area of ​​the material surface, effectively stimulating the quantum heating effect, and promoting the selective separation and volatilization of impurities in a non-thermal equilibrium state.

[0049] During the purification process, the drive mechanism 17 drives the threaded rod 19 to rotate via the drive rod 18, causing the threaded collar 20 to rise and fall axially along the threaded rod 19. This, in turn, drives the positioning sleeve 23 and the placement plate 24 to move up and down as a whole via the support frame 21 and connecting rod 22. This height adjustment mechanism allows the material to flexibly adjust the irradiation distance with the emitter 6 according to process requirements, further optimizing energy absorption efficiency and processing uniformity. The entire process is completed within a sealed reaction chamber 3, effectively preventing external contamination and ensuring a clean and stable purification environment. After processing, the system automatically stops laser output, and the operator opens the protective door 25 to remove the purified quartz sand material for the next processing step. Through the comprehensive application of the above structure and control methods, this equipment achieves efficient, precise, and clean purification of quartz sand materials, significantly improving the purity and performance consistency of quartz glass products.

[0050] Working Principle: The main frame 1 serves as the supporting foundation for the entire equipment, bearing and integrating all functional modules; the laser generator 2 generates high-energy laser light after being powered on, serving as the energy source for the purification process; the reaction chamber 3 provides a sealed and controllable environment for the purification reaction of quartz sand; the control cabinet 4 is used to set and monitor various parameters of the entire purification process; the wire 5 stably transmits the energy generated by the laser generator 2 to the transmitter 6; the transmitter 6, as the energy output terminal, precisely focuses the laser light onto the surface of the quartz sand material to be treated; the positioning column 7 is fixed to the top of the reaction chamber 3, providing support for the transmitter 6. Provides stable suspension support; the omnidirectional ball 8 connects the bottom of the positioning post 7 and the top of the transmitter 6, enabling the transmitter 6 to deflect in multiple directions; the circular electric guide rail 9 is installed at the bottom of the positioning post 7, and through the circumferential movement of its internal sliding block 10, it drives the mounting rod 11 and the linear electric guide rail 12 to rotate around the axis, thereby enabling the transmitter 6 to achieve horizontal scanning coverage; the mounting rod 11, as a transmission component, transmits the movement of the sliding block 10 to the linear electric guide rail 12; the linear electric guide rail 12, through the linear displacement of its internal moving block 13, drives another connecting rod 14 to perform a push-pull movement; the moving block 13 The transmitter 6 slides on the linear electric guide rail 12, and is driven by the connecting rod 14 to adjust the pitch angle around the center of the universal ball 8; the connecting rod 14 converts the linear motion of the moving block 13 into the tilting motion of the transmitter 6, realizing precise control of the irradiation angle; the transformer 15 converts the external input power into the working voltage required by the equipment, ensuring stable operation of the system; the fixed sleeve rod 16 provides the mounting base for the drive mechanism 17; the drive mechanism 17, as the power source of the lifting system, drives the threaded rod 19 to rotate through the drive rod 18; the threaded rod 19 converts the rotational motion into vertical motion through the threaded engagement with the threaded collar 20. The device performs linear motion in the straight direction; the threaded collar 20 is fixedly connected to the support frame 21, driving the support frame 21 to rise and fall as a whole; the support frame 21 transmits the motion to the inside of the reaction chamber 3 through the connecting rod 22; a positioning sleeve 23 is installed at the top of the connecting rod 22; the top of the positioning sleeve 23 overlaps with the placement plate 24, and cooperates with the positioning block at the bottom of the placement plate 24 through its internal positioning groove, realizing the precise positioning and quick assembly and disassembly of the placement plate 24; the placement plate 24 is used to carry quartz sand material, and its height position can be adjusted by the lifting system; the protective door 25 is used for sealing and opening the reaction chamber 3, facilitating the loading, unloading and maintenance of materials. Through the coordinated work of the above components, this equipment realizes multi-dimensional and controllable laser irradiation treatment of quartz sand material, effectively removing impurities through quantum heating effect, and significantly improving the purity and quality of quartz glass.

[0051] The foregoing has only described certain exemplary embodiments of the present invention by way of illustration. Undoubtedly, those skilled in the art can modify the described embodiments in various ways without departing from the spirit and scope of the present invention. Therefore, the foregoing drawings and descriptions are illustrative in nature and should not be construed as limiting the scope of protection of the claims of the present invention.

Claims

1. A quartz sand quartz glass purification apparatus based on quantum heating purification, comprising a mounting frame body (1), characterized in that, The top of the mounting frame body (1) is provided with a laser generator (2), one side of the top of the mounting frame body (1) is provided with a reaction chamber (3) beside the laser generator (2), and one side of the top of the mounting frame body (1) is provided with an operation cabinet (4) beside the reaction chamber (3); The surface of the laser generator (2) is electrically connected with a wire (5), the bottom end of the wire (5) is inserted into the inner wall of the reaction chamber (3), the bottom end of the wire (5) is provided with an emitter (6), the inner top wall of the reaction chamber (3) is provided with a positioning column (7), the bottom of the positioning column (7) is connected with a universal ball (8), the bottom of the universal ball (8) is mounted on the top of the emitter (6), the bottom of the positioning column (7) is provided with a circular electric guide rail (9), the inner wall of the circular electric guide rail (9) is slidably connected with a sliding block (10), one side of the sliding block (10) is provided with a mounting rod (11), the bottom end of the mounting rod (11) is provided with a linear electric guide rail (12), the inner wall of the linear electric guide rail (12) is slidably connected with a moving block (13), the back surface of the moving block (13) is rotatably connected with a connecting rod (14), and the bottom end of the connecting rod (14) is rotatably connected with the surface of the emitter (6).

2. A quartz sand quartz glass purification apparatus based on quantum heating purification according to claim 1, characterized in that, The inner wall of the mounting frame body (1) is provided with a transformer (15), and one side of the inner wall of the mounting frame body (1) is provided with a fixed sleeve rod (16) beside the transformer (15).

3. A quartz sand quartz glass purification apparatus based on quantum heating purification according to claim 2, characterized in that, The inner bottom wall of the fixed sleeve rod (16) is provided with a driving mechanism (17), the output end of the driving mechanism (17) is provided with a driving rod (18), and the top end of the driving rod (18) is provided with a threaded rod (19).

4. The quartz sand quartz glass purification apparatus based on quantum heating purification according to claim 3, characterized in that, The surface of the threaded rod (19) is threadedly connected with a threaded sleeve ring (20), and the surface of the threaded sleeve ring (20) is provided with a support frame (21).

5. A quartz sand quartz glass purification apparatus based on quantum heating purification according to claim 4, characterized in that, The top of the support frame (21) is provided with a connecting rod (22), and the top end of the connecting rod (22) penetrates and is inserted into the inner wall of the reaction chamber (3), and the top end of the connecting rod (22) is provided with a positioning sleeve (23).

6. A quartz sand quartz glass purification apparatus based on quantum heating purification according to claim 5, characterized in that, The top of the positioning sleeve (23) is overlapped with a placing disc (24), and the surface of the placing disc (24) is inserted into the inner wall of the reaction chamber (3), and the emitter (6) is above the placing disc (24).

7. A quartz sand quartz glass purification apparatus based on quantum heating purification according to claim 6, characterized in that, The bottom of the placing disc (24) is provided with a positioning block, and the surface of the positioning block is inserted into the inner wall of the positioning sleeve (23).

8. The quartz sand quartz glass purification apparatus based on quantum heating purification according to claim 1, characterized in that, The surface of the reaction chamber (3) is rotatably connected with a protective door (25), and the surface of the protective door (25) is provided with a handle.

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