In-situ mechanical properties model construction system based on CT scanning data

Abstract

The invention discloses a material in-situ mechanical property model construction system based on CT scanning data drive, which relates to the technical field of CT scanning data drive equipment. The system comprises a sliding platform, wherein the top of the sliding platform is slidably connected with a mobile experimental platform. Through the cooperation of a particle emission body, a homogeneous particle emission channel, a heterogeneous particle emission channel, an infrasonic wave generator and an infrasonic wave frequency modulator, it is convenient to utilize the different characteristics of charged homogeneous particles and heterogeneous charged particles to further perform mechanical experimental detection under different stress conditions on four groups of printed objects, thereby improving the overall use effect and facilitating operators to intuitively understand the structural characteristics of relevant mechanical properties. Moreover, in the cooperation of the infrasonic wave frequency modulator, it is convenient to perform different frequency modulation on the emitted sound waves, and then, in the cooperation of a resonance plate, resonate the four groups of printed objects, thereby facilitating the detection of different peak values ​​of the mechanical property construction of the four groups of printed objects.

Description

Technical Field

[0001] The present invention relates to the technical field of CT scanning data driven equipment, and in particular to a material in-situ mechanical property model construction system based on CT scanning data driven. Background Art

[0002] CT uses X-ray beams to scan a layer of a certain thickness in a certain part of the human body. The detector receives the X-rays that pass through the layer, converts them into visible light, and then converts them into electrical signals through photoelectric conversion. The signals are then converted into digital signals through an analog / digital converter and input into a computer for processing.

[0003] However, in the existing technology, the process of using CT scanning data analysis to construct a mechanical property model cannot guarantee the mechanical test results of the same sample under different stress conditions. Therefore, it is impossible for operators to intuitively understand the structural characteristics of the relevant mechanical properties. The overall use effect is low and insufficient to meet existing needs. Therefore, it is necessary to propose a new material in-situ mechanical property model construction system based on CT scanning data drive. Summary of the invention

[0004] The purpose of the present invention is to provide a material in-situ mechanical property model construction system driven by CT scanning data, so as to solve the problem proposed in the above background technology that when using CT scanning data analysis to construct a mechanical property model, the mechanical experimental results of the same sample under different stress conditions cannot be guaranteed, so the operator cannot intuitively understand the structural characteristics of the relevant mechanical properties, the overall use effect is low, and it is insufficient to meet existing needs.

[0005] To achieve the above-mentioned purpose, the present invention provides the following technical solutions: a material in-situ mechanical property model construction system driven by CT scanning data, comprising a sliding platform, a mobile experimental platform is slidably connected to the top of the sliding platform, a CT scanning component is installed on the top side of the mobile experimental platform, a mounting groove is provided at the top center end of the mobile experimental platform, an adjustment component is fastened and installed inside the mounting groove, and an adjustment guide rail is installed at the left inner center end of the sliding platform, the adjustment guide rail drives the mobile experimental platform to slide and adjust on the top surface of the sliding platform, a mechanical laboratory is installed on the top of the left end of the mobile experimental platform, a driver is installed on the top of the mechanical laboratory, a uniaxial compressor is connected to the bottom of the driver through the mechanical laboratory, resonance components are installed at the inner two ends of the mechanical laboratory, and the side ends of the mechanical laboratory are closed and connected with an operating body, microwave generators are symmetrically installed on the left and right ends of the operating body, and a splitter is installed on the side of the operating body. A distributed array processor, wherein a processing display is connected to the interior of the distributed array processor through an installed converter, and an operation slide is provided on the bottom wall surface of the central end of the mechanics laboratory, and a plurality of groups of optical fiber position sensors are equally installed on the sides of the operation slide, and a control and adjustment component is slidably connected to the interior of the operation slide, and a particle emitter body is installed on the side surface of the operation body, a particle detection end is provided on the side end surface of the particle emitter body, and a homogeneous particle emission channel and a heterogeneous particle emission channel are respectively connected on the surface of the particle emitter body, and particle accelerators are installed on the outside of the homogeneous particle emission channel and the heterogeneous particle emission channel, and a 3D printer body is connected to the side ends of the homogeneous particle emission channel and the heterogeneous particle emission channel, and a laser printing end is installed on the top of the interior of the 3D printer body, a powder feeding structure is installed below the 3D printer body, a molding cylinder is installed at the bottom of the powder feeding structure, and a feeding end is connected to the outside of the 3D printer body.

[0006] Preferably, the control and adjustment component includes a single-axis rod, an external fixed sleeve of the single-axis rod is installed with a mounting adapter, a servo control motor is installed on the front bottom wall surface of the mounting adapter, and a driving gear is installed inside the front side groove end of the mounting adapter, the left and right ends of the driving gear are respectively meshed with a first forward gear and a second forward gear, the side tooth angle ends of the first forward gear and the second forward gear are meshed with two sets of racks, and the two sets of racks are fastened on the inner wall surface of the operating slide, and the servo control motor cooperates to drive the driving gear to rotate, thereby making the first forward gear and the second forward gear rotate synchronously, so that the first forward gear and the second forward gear, with the cooperation of the two sets of racks, drive the mounting adapter, the single-axis rod and the single-axis compressor to adjust their positions, which is convenient for subsequent mechanical performance testing.

[0007] Preferably, the resonance component includes a wiring tube, a subsonic wave generator is installed on the side end of the wiring tube, and a dual-axis pneumatic cylinder is installed on the side end of the subsonic wave generator. With the cooperation of the dual-axis pneumatic cylinder, it is convenient to drive the rotating shaft seat to adjust the position, and the wiring tube and the built-in power supply of the operating body are electrically connected to facilitate the operation of the subsonic wave generator.

[0008] Preferably, the side end of the dual-axis pneumatic cylinder is fastened with a rotating shaft seat, a rotating arm is installed on the side end surface of the rotating shaft seat, a subsonic frequency modulator is connected to the side end of the rotating arm, a sound source end is installed on the surface of the subsonic frequency modulator, and the sound source end is connected to the subsonic wave generator through a line. When the rotating shaft seat is adjusted in position, the rotating arm drives the subsonic frequency modulator and the sound source end to adjust their azimuths under the rotation adjustment of the rotating arm, and under the action of the subsonic frequency modulator, it is convenient to adjust the frequency of the emitted sound waves, so as to facilitate the detection of different peak values ​​of the mechanical properties of the four groups of printed objects.

[0009] Preferably, a transverse groove is provided through the surface of the operating body, the interior of the transverse groove is fixedly installed with an adjustment rail, and the transverse groove is slidably connected to the mobile laboratory table. Under the action of the adjustment rail, the mobile laboratory table can be driven to slide on the surface of the sliding base, so that adjustment operations can be performed through the transverse groove during subsequent displacement.

[0010] Preferably, the CT scanning assembly includes a scanning body, and a semi-annular guide rail slide is installed on the inner wall surface of the scanning body. The interior of the semi-annular guide rail slide is slidably connected to a scanning end. With the cooperation of the semi-annular guide rail slide and the scanning end, azimuth scanning of objects is facilitated.

[0011] Preferably, the adjustment component includes a resonance plate, the bottom of the resonance plate is hinged with an insulating shaft, and the insulating shaft and the side end of the mounting groove are hingedly mounted, two groups of connecting rotating parts are symmetrically fastened on the side wall surface of the resonance plate, and small hydraulic rods are arranged inside the two groups of connecting rotating parts. When the mobile experimental table is slid and adjusted to the side of the mechanics laboratory, the small hydraulic rod drives the resonance plate to rotate in cooperation with the insulating shaft, and performs a closed operation with the mechanics laboratory.

[0012] Preferably, a rotating seat is hingedly installed at the bottom of the small hydraulic rod, a rotating motor is mounted on the side end of the rotating seat, and a sliding plate frame is fastened to the bottom of the rotating seat. Before the small hydraulic rod operates, the rotating motor drives the small hydraulic rod to rotate at an angle inside the rotating seat, so that the small hydraulic rod can lift the resonance plate.

[0013] Preferably, an interlocking groove is provided on the surface of the sliding plate frame, a return spring is installed inside the interlocking groove, the return spring is tightly connected to the side end surface of the rotating seat, and a plurality of sets of rolling wheels are installed at the bottom of the operating body, a support frame is installed at the bottom of the sliding platform, and a protective cover is installed on the side bottom wall of the sliding platform. When the small hydraulic rod is working, the rotating seat is displaced inside the interlocking groove with the cooperation of the return spring, so as to avoid the different heights of the resonance plate and the installation groove during subsequent rotation and closing, which will hinder the displacement of the mobile laboratory table.

[0014] The system for constructing an in-situ mechanical property model of materials driven by CT scanning data includes the following steps:

[0015] S1. When CT scanning is needed to construct a data-driven in-situ mechanical property model of materials, the operator can place the object to be scanned by CT inside the scanning body, perform azimuth scanning of the object through the semi-circular guide rail slide and the scanning end, and then convert the scanned data into numerical signals with the cooperation of the converter and transmit them to the distributed array processor. Then, the distributed array processor forms a three-dimensional object numerical signal with the cooperation of the three-dimensional modeling software and transmits it to the D-printed body for printing. Then, the printing is divided into four groups of comparative cases, namely a1, a2, a3 and a4. First, a1 is used as an ordinary sample, gypsum powder is used, and the gypsum powder is selectively sintered by the laser printing end. After each layer is sintered and formed, the layers are stacked to form a three-dimensional entity. Then, the printed 3D object is placed in the mechanics laboratory under the transportation of the operator;

[0016] S2, then, use a2 to print the comparative case operation. a2 uses photosensitive resin powder. After the photosensitive resin powder is transported to the 3D printing body by the feeding end, the photosensitive resin powder is sintered by the laser printing end in the presence of an adhesive to form a single layer printing operation, that is, the 3D printing body sprays the adhesive on the photosensitive resin powder according to the predetermined cross-sectional shape of the processing display to bond it, completing the first layer printing, and then the molding cylinder is lowered by one layer thickness, and the powder spreading roller inside the powder feeding structure spreads powder again, and then bonding is performed, and the above process is repeated until the entire comparative case sample is printed;

[0017] S3, then use a3 to perform a printing comparison operation, a3 uses polyimide and fluororesin combined powder, and uses the feeding end again to transport the polyimide and fluororesin combined powder to the 3D printing body, and uses the powder feeding structure to feed and spread the polyimide and fluororesin combined powder in advance, forming a printing matrix at the laser printing end, and then, with the cooperation of the particle emission body, use the same particle emission channel to transport charged same-sex particles to the printing matrix, and synchronously perform 3D object printing operations, and then use a4, a4 ​​synchronously uses polyimide and fluororesin combined powder, and after the same printing operation process as above, with the cooperation of the particle emission body, use the opposite-sex particle emission channel to transport opposite-sex charged particles to the printing matrix;

[0018] S4. Afterwards, the operator puts the four groups of printed objects into the mechanics laboratory, and drives the mobile test table to slide and adjust to the side of the mechanics laboratory on the top surface of the sliding platform with the help of the adjusting guide rail. When it reaches the preset position, the small hydraulic rod drives the resonance plate to rotate with the help of the insulating shaft, and closes the mechanics laboratory. With the help of the servo control motor start-up, the driving gear, the first forward gear, the second forward gear and the two sets of racks are used to drive the driver and the uniaxial compressor to construct the mechanical property model of the four groups of printed objects. After that, with the help of the infrasonic generator, the sound waves emitted by the infrasonic frequency modulator and the sound source end are modulated at different frequencies, and then the resonance plate is used to resonate the four groups of printed objects to construct the mechanical property model.

[0019] Compared with the prior art, the present invention has the following beneficial effects:

[0020] 1. In the present invention, by cooperating with a particle emission body, a homogeneous particle emission channel, a heterogeneous particle emission channel, an infrasonic generator and an infrasonic frequency modulator, it is convenient to drive the rotating shaft seat to adjust its position under the cooperation of a double-axis pneumatic cylinder, and it is convenient for the rotating arm to adjust the position of the infrasonic frequency modulator and the sound source end under the rotation adjustment of the rotating shaft seat, and under the cooperation of the infrasonic frequency modulator, it is convenient to modulate the emitted sound waves at different frequencies, and then, under the cooperation of a resonance plate, resonate four groups of printed objects, so as to detect different peak values ​​of the mechanical properties of the four groups of printed objects, and then construct a mechanical property model, and in the different conveying printing operation detection processes of the homogeneous particle emission channel and the heterogeneous particle emission channel, it is convenient to use the different characteristics of charged homogeneous particles and heterogeneous charged particles to further perform mechanical experimental detection on the four groups of printed objects under different stress conditions, thereby improving the overall use effectiveness and facilitating operators to intuitively understand the structural characteristics of relevant mechanical properties.

[0021] 2. In the present invention, by cooperating with the control and adjustment component and the optical fiber position sensor, it is convenient to drive the active gear to rotate under the cooperation of the servo control motor, so that the first forward gear and the second forward gear rotate synchronously, so that the first forward gear and the second forward gear, under the cooperation of two sets of racks, drive the installation connection seat, the single-axis rod and the single-axis compressor to adjust the position and then limit the position adjustment, so as to facilitate the subsequent mechanical property detection operation. After constructing different mechanical models, the formed data dynamic model is transmitted to the distributed array processor and the processing display for observation by the operator.

[0022] 3. In the present invention, with the cooperation of the adjustment component, it is convenient to drive the mobile experimental table to slide and adjust on the top surface of the sliding table to the side of the mechanical laboratory with the cooperation of the adjustment guide rail. When it reaches the preset position, the rotating motor drives the small hydraulic rod to rotate the angle inside the rotating seat. The small hydraulic rod drives the resonance plate to rotate with the cooperation of the insulating rotating shaft. When the small hydraulic rod is working, the rotating seat is displaced inside the engaging slide groove with the cooperation of the return spring to avoid the different heights of the resonance plate and the installation groove during the subsequent rotation and covering, which causes obstruction to the displacement of the mobile experimental table. At the same time, the small hydraulic rod drives the resonance plate to rotate with the cooperation of the insulating rotating shaft, and performs a closed operation with the mechanical laboratory, and further cooperates with the infrasonic generator and the infrasonic frequency modulator to construct mechanical property models for four groups of printed objects. BRIEF DESCRIPTION OF THE DRAWINGS

[0023] Figure 1 This is a schematic diagram of the main structure of the system for constructing an in-situ mechanical property model of materials driven by CT scanning data according to the present invention;

[0024] Figure 2It is a schematic diagram of the structure of the side view of the system for constructing the material in-situ mechanical property model driven by CT scanning data according to the present invention;

[0025] Figure 3 It is a schematic diagram of the installation position structure of the CT scanning component in the system for building a material in-situ mechanical property model driven by CT scanning data according to the present invention;

[0026] Figure 4 A schematic diagram of the structure of the top view of the system for constructing the material in-situ mechanical property model driven by CT scanning data according to the present invention;

[0027] Figure 5 This is a schematic diagram of the installation position structure of the control and adjustment components in the material in-situ mechanical property model construction system driven by CT scanning data of the present invention;

[0028] Figure 6 A schematic diagram of the structure of a resonance component in a system for constructing an in-situ mechanical property model of a material driven by CT scanning data according to the present invention;

[0029] Figure 7 It is a schematic diagram of the installation position structure of the adjusting guide rail in the material in-situ mechanical property model construction system driven by CT scanning data of the present invention;

[0030] Figure 8 A schematic diagram of the structure of the regulating component in the material in-situ mechanical property model construction system driven by CT scanning data according to the present invention;

[0031] Fig. 9 This is a schematic diagram of the structure of the control and adjustment components in the material in-situ mechanical property model construction system driven by CT scanning data in the present invention.

[0032] In the figure: 1. sliding platform; 2. mobile experimental platform; 3. CT scanning component; 31. scanning body; 32. semi-circular guide rail slide; 33. scanning end; 4. protective cover; 5. support frame; 6. feeding end; 7. adjustment component; 71. resonance plate; 72. insulating shaft; 73. connecting rotating part; 74. small hydraulic rod; 75. rotating seat; 76. rotating motor; 77. sliding plate frame; 78. return spring; 8. operating body; 9. particle detection end; 10. homogeneous particle emission channel; 11. rolling wheel; 12. microwave generator; 13. driver; 14. single-axis compressor; 15. resonance component; 151. wiring tube; 152. infrasound generator; 153. double-axis gas Dynamic cylinder; 154, rotating shaft seat; 155, rotating support arm; 156, infrasonic frequency modulator; 157, sound source end; 16, particle emission body; 17, powder feeding structure; 18, forming cylinder; 19, 3D printing body; 20, distributed array processor; 21, processing display; 22, mechanics laboratory; 23, adjustment guide rail; 24, laser printing end; 25, heterogeneous particle emission channel; 26, particle accelerator; 27, operation slide; 28, control and adjustment component; 281, single-axis rod; 282, mounting adapter; 283, servo control motor; 284, driving gear; 285, first forward gear; 286, second forward gear; 287, rack; 29, transverse groove. DETAILED DESCRIPTION

[0033] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the implementation regulations described are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0034] Reference Figure 1-Figure 9As shown: a material in-situ mechanical property model construction system driven by CT scanning data, comprising a sliding platform 1, a mobile experimental platform 2 is slidably connected to the top of the sliding platform 1, a CT scanning component 3 is installed on the top side of the mobile experimental platform 2, a mounting groove is opened at the top center end of the mobile experimental platform 2, an adjustment component 7 is fastened and installed inside the mounting groove, and an adjustment guide rail 23 is installed at the left inner center end of the sliding platform 1, the adjustment guide rail 23 drives the mobile experimental platform 2 to slide and adjust on the top surface of the sliding platform 1, a mechanical laboratory 22 is installed on the top of the left end of the mobile experimental platform 2, a driver 13 is installed on the top of the mechanical laboratory 22, the bottom of the driver 13 passes through the mechanical laboratory 22 and is connected to a single-axis compressor 14, resonance components 15 are installed at both ends of the inner side of the mechanical laboratory 22, and the side end of the mechanical laboratory 22 is closed and connected to an operating body 8, microwave generators 12 are symmetrically installed on the left and right ends of the operating body 8, and a distributed array processor 20 is installed on the side of the operating body 8. The processing display 21 is connected to the inside of the mechanical laboratory 22 through the installed converter, and the bottom wall surface of the central end of the mechanical laboratory 22 is provided with an operation slide 27, and the side of the operation slide 27 is evenly installed with a plurality of groups of optical fiber position sensors. The inside of the operation slide 27 is slidably connected with a control and adjustment component 28, and the side surface of the operating body 8 is installed with a particle emitter body 16, and the side end surface of the particle emitter body 16 is provided with a particle detection end 9, and the surface of the particle emitter body 16 is respectively connected with the same-sex particle emission channel 10 and A heterogeneous particle emission channel 25 is provided, and particle accelerators 26 are installed outside the homogeneous particle emission channel 10 and the heterogeneous particle emission channel 25. The side ends of the homogeneous particle emission channel 10 and the heterogeneous particle emission channel 25 are connected to a 3D printer body 19, a laser printing end 24 is installed at the top of the inner part of the 3D printer body 19, a powder feeding structure 17 is installed below the 3D printer body 19, a molding cylinder 18 is installed at the bottom of the powder feeding structure 17, and a feeding end 6 is connected to the outside of the 3D printer body 19.

[0035] according to Figure 5 , Figure 7 and Fig. 9As shown, the control and adjustment component 28 includes a single shaft rod 281, an external fixed sleeve of the single shaft rod 281 is installed with a mounting adapter 282, a servo control motor 283 is installed on the front bottom wall surface of the mounting adapter 282, and a driving gear 284 is installed inside the front side groove end of the mounting adapter 282, and the left and right ends of the driving gear 284 are respectively meshed with a first forward gear 285 and a second forward gear 286, and the side tooth angle ends of the first forward gear 285 and the second forward gear 286 are meshed with each other. There are two sets of racks 287, and the two sets of racks 287 are fastened on the inner wall surface of the operating slide 27. With the cooperation of the servo control motor 283, the driving gear 284 is driven to rotate, so that the first forward gear 285 and the second forward gear 286 rotate synchronously. With the cooperation of the two sets of racks 287, the first forward gear 285 and the second forward gear 286 drive the installation connection seat 282, the single-axis rod 281 and the single-axis compressor 14 to adjust their positions, which is convenient for subsequent mechanical performance testing.

[0036] according to Figure 1 , Figure 2 , Figure 5 , Figure 6 and Figure 7 As shown, the resonance component 15 includes a wiring tube 151, and a subsonic wave generator 152 is installed on the side end of the wiring tube 151. A double-axis pneumatic cylinder 153 is installed on the side end of the subsonic wave generator 152. With the cooperation of the double-axis pneumatic cylinder 153, it is convenient to drive the rotating shaft seat 154 to adjust the position, and the wiring tube 151 is electrically connected to the built-in power supply of the operating body 8, so as to facilitate the operation of the subsonic wave generator 152.

[0037] according to Figure 1 , Figure 2 , Figure 5 , Figure 6 and Figure 7 As shown, the side end of the double-axis pneumatic cylinder 153 is fastened with a rotating shaft seat 154, and a rotating arm 155 is installed on the side end surface of the rotating shaft seat 154. The side end of the rotating arm 155 is connected with an infrasonic frequency modulator 156, and a sound source end 157 is installed on the surface of the infrasonic frequency modulator 156. The sound source end 157 is connected to the infrasonic generator 152 through a line. When the rotating shaft seat 154 is adjusted in position, the rotating arm 155 drives the infrasonic frequency modulator 156 and the sound source end 157 to adjust their azimuths under the rotation adjustment of the rotating shaft seat 154, and under the action of the infrasonic frequency modulator 156, it is convenient to adjust the frequency of the emitted sound waves, so as to facilitate the detection of different peak values ​​of the mechanical properties of the four groups of printed objects.

[0038] according to Figure 4 and Figure 7As shown, a transverse groove 29 is provided on the surface of the operating body 8, the interior of the transverse groove 29 is fixed to the adjustment guide rail 23, and the transverse groove 29 is slidably connected to the mobile laboratory table 2. Under the action of the adjustment guide rail 23, the mobile laboratory table 2 can be driven to slide on the surface of the sliding base 1, so that the adjustment operation can be performed through the transverse groove 29 during subsequent displacement.

[0039] according to Figure 1-Figure 4 As shown, the CT scanning assembly 3 includes a scanning body 31, and a semi-annular guide rail slide 32 is installed on the inner wall surface of the scanning body 31. The interior of the semi-annular guide rail slide 32 is slidably connected to a scanning end 33. With the cooperation of the semi-annular guide rail slide 32 and the scanning end 33, it is convenient to perform azimuth scanning operations on objects.

[0040] according to Figure 1 , Figure 2 , Figure 4 and Figure 8 As shown, the adjustment component 7 includes a resonance plate 71, the bottom of the resonance plate 71 is hinged with an insulating shaft 72, and the insulating shaft 72 and the side end of the mounting groove are hingedly mounted, and two sets of connecting rotating parts 73 are symmetrically fastened on the side wall surface of the resonance plate 71, and small hydraulic rods 74 are arranged inside the two sets of connecting rotating parts 73. When the mobile experimental platform 2 is slid and adjusted to the side of the mechanical laboratory 22, the small hydraulic rod 74 drives the resonance plate 71 to rotate in cooperation with the insulating shaft 72, and performs a closed operation with the mechanical laboratory 22.

[0041] according to Figure 1 , Figure 2 , Figure 4 and Figure 8 As shown, a rotating seat 75 is hingedly installed at the bottom of the small hydraulic rod 74, a rotating motor 76 is mounted on the side end of the rotating seat 75, and a sliding plate frame 77 is fastened to the bottom of the rotating seat 75. Before the small hydraulic rod 74 operates, the rotating motor 76 drives the small hydraulic rod 74 to rotate inside the rotating seat 75, so as to facilitate the small hydraulic rod 74 to lift the resonance plate 71.

[0042] according to Figure 1 , Figure 2 , Figure 4 , Figure 7 and Figure 8As shown, an interlocking groove is provided on the surface of the sliding plate frame 77, and a return spring 78 is installed inside the interlocking groove. The return spring 78 is tightly connected to the side end surface of the rotating seat 75, and a plurality of sets of rolling wheels 11 are installed at the bottom of the operating body 8, a support frame 5 is installed at the bottom of the sliding platform 1, and a protective cover 4 is installed on the side bottom wall of the sliding platform 1. When the small hydraulic rod 74 is working, the rotating seat 75 is displaced inside the interlocking groove with the cooperation of the return spring 78, so as to avoid the different heights of the resonance plate 71 and the installation groove during the subsequent rotation and closing, which will cause obstacles to the displacement of the mobile test bench 2.

[0043] The wiring diagram of the optical fiber position sensor, particle detection end 9, homogeneous particle emission channel 10, microwave generator 12, infrasound generator 152, particle emission body 16, distributed array processor 20, heterogeneous particle emission channel 25 and particle accelerator 26 in the present invention belongs to the common knowledge in the field, and its working principle is a well-known technology. The model is selected according to the actual use. Therefore, the control method and wiring arrangement of the optical fiber position sensor, particle detection end 9, homogeneous particle emission channel 10, microwave generator 12, infrasound generator 152, particle emission body 16, distributed array processor 20, heterogeneous particle emission channel 25 and particle accelerator 26 will not be explained in detail.

[0044] The method of using the device and the working principle are as follows: first, when CT scanning is needed to construct a data-driven in-situ mechanical property model of a material, the operator can place the object to be CT scanned inside the scanning body 31, and perform an azimuth scanning operation on the object through the semi-circular guide rail slide 32 and the scanning end 33. Then, the scanned data is converted into a numerical signal with the cooperation of a converter and transmitted to the distributed array processor 20. Then, the distributed array processor 20 converts the received converted numerical signal into a three-dimensional object numerical signal with the cooperation of a three-dimensional modeling software (such as Rhino and AutoCAD) and transmits it to the 3D printer body 19 for printing. Then, the printing is divided into four groups of comparison cases, namely a1, a2, a3 and a4, first use a1 as a common sample, use gypsum powder, use the laser printing end 24 to selectively sinter the gypsum powder, after each layer is sintered and formed, stack the layers to form a three-dimensional entity, and then put the printed 3D object into the mechanics laboratory 22 under the operator's transportation. Then, use a2 to print a comparative case operation. a2 uses photosensitive resin powder. After the photosensitive resin powder is transported to the 3D printer body 19 by the feeding end 6, the photosensitive resin powder is sintered by the laser printing end 24 with the help of the adhesive to form a single layer printing operation, that is, the powder feeding structure 17 and the molding cylinder 18 are used to make the 3D printer body 19 spray the adhesive on the photosensitive resin powder according to the predetermined cross-sectional shape of the processing display 21. Bonding, complete the first layer of printing, then make the forming cylinder 18 drop one layer thickness, the powder spreading roller inside the powder feeding structure 17 spreads powder again, and then bonding is performed, and the above process is repeated until the entire comparison case sample is printed. Then, a3 is used for printing comparison operation. a3 uses polyimide and fluororesin combined powder, and the feeding end 6 is used again to transport the polyimide and fluororesin combined powder to the 3D printing body 19. The powder feeding structure 17 is used in advance to feed and spread the polyimide and fluororesin combined powder. A printing matrix is ​​formed at the laser printing end 24, and then, with the cooperation of the particle emission body 16, the charged isotropic particles are transported to the printing matrix using the isotropic particle emission channel 10, and the 3D object printing operation is performed simultaneously, and then the particle emission body 16 is used. a4, a4 ​​synchronously uses polyimide and fluororesin combined powder. After the same printing operation process as above, with the cooperation of the particle emission body 16, the oppositely charged particles are transported to the printing matrix by using the oppositely charged particle emission channel 25. Then, with the cooperation of the adjustment guide rail 23, the mobile experimental table 2 is driven to slide and adjust on the top surface of the sliding platform 1 to the side of the mechanical laboratory 22. When it reaches the preset position, the rotating motor 76 drives the small hydraulic rod 74 to rotate the angle inside the rotating seat 75. The small hydraulic rod 74 drives the resonance plate 71 to rotate with the cooperation of the insulating shaft 72. When the small hydraulic rod 74 is operating, the rotating seat 75 is displaced inside the engaging slide groove with the cooperation of the return spring 78 to avoid subsequent rotation and covering.The resonance plate 71 and the mounting groove have different heights, which hinders the displacement of the mobile test bench 2. At the same time, the small hydraulic rod 74 drives the resonance plate 71 to rotate in cooperation with the insulating shaft 72, and performs a closed operation with the mechanical laboratory 22. In cooperation with the servo control motor 283, the driving gear 284 is driven to rotate, so that the first forward gear 285 and the second forward gear 286 rotate synchronously, so that the first forward gear 285 and the second forward gear 286 drive the mounting adapter 282, the single-axis rod 281 and the single-axis compressor 14 to adjust the position in cooperation with two sets of racks 287. At the same time, in cooperation with multiple sets of optical fiber position sensors, it is convenient to adjust and limit the position, so as to facilitate subsequent mechanical performance testing operations. After constructing different mechanical models, the formed data dynamic model is transmitted to the distributed array processor 20 and the processing display 21 for observation by the operator, and then in the next With the cooperation of the sound wave generator 152, and then with the cooperation of the double-axis pneumatic cylinder 153, it is convenient to drive the rotating shaft seat 154 to adjust the position, and it is convenient for the rotating arm 155 to adjust the position of the subsonic frequency modulator 156 and the sound source end 157 under the rotation adjustment of the rotating shaft seat 154. With the cooperation of the subsonic frequency modulator 156, it is convenient to modulate the emitted sound waves at different frequencies, and then with the cooperation of the resonance plate 71, the four groups of printed objects are resonated, so that the mechanical properties of the four groups of printed objects are constructed to detect different peak values, and then to construct a mechanical property model. In the different conveying printing operation detection process of the homogeneous particle emission channel 10 and the heterogeneous particle emission channel 25, it is convenient to use the different characteristics of the charged homogeneous particles and the heterogeneous charged particles to further perform mechanical experimental detection on the four groups of printed objects under different stress conditions, so as to improve the overall use effect and facilitate the operator to intuitively understand the structural characteristics of the relevant mechanical properties.

[0045] Although the present invention has been described in detail with reference to the aforementioned embodiments, it is still possible for those skilled in the art to modify the technical solutions described in the aforementioned embodiments, or to make equivalent substitutions for some of the technical features therein. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present invention should be included in the protection scope of the present invention.

Claims

1. A material in-situ mechanical properties model construction system driven by CT scanning data, characterized by: The invention comprises a sliding platform (1), wherein a mobile laboratory table (2) is slidably connected to the top of the sliding platform (1), a CT scanning component (3) is installed on the top side of the mobile laboratory table (2), a mounting groove is provided at the top center end of the mobile laboratory table (2), an adjustment component (7) is fastened and installed inside the mounting groove, and an adjustment guide rail (23) is installed at the left inner center end of the sliding platform (1), the adjustment guide rail (23) drives the mobile laboratory table (2) to slide and adjust on the top surface of the sliding platform (1), and a mechanical laboratory is installed on the top of the left end of the mobile laboratory table (2). (22), a driver (13) is installed on the top of the mechanical laboratory (22), the bottom of the driver (13) penetrates the mechanical laboratory (22) and is connected to a single-axis compressor (14), resonance components (15) are installed at both ends of the inner side of the mechanical laboratory (22), and the side ends of the mechanical laboratory (22) are closed and connected to an operating body (8), microwave generators (12) are symmetrically installed on the left and right ends of the operating body (8), and a distributed array processor (20) is installed on the side of the operating body (8), and the interior of the distributed array processor (20) is installed by installing a The converter is connected to a processing display (21), and the bottom wall surface of the central end of the mechanics laboratory (22) is provided with an operation slide groove (27), and the side of the operation slide groove (27) is evenly installed with a plurality of groups of optical fiber position sensors. The inside of the operation slide groove (27) is slidably connected with a control adjustment component (28), and the side surface of the operating body (8) is installed with a particle emission body (16), and the side end surface of the particle emission body (16) is provided with a particle detection end (9), and the surface of the particle emission body (16) is respectively connected with a homogeneous particle emission channel (10) and a heterogeneous particle emission channel (11). A particle accelerator (26) is installed outside the homogeneous particle emission channel (10) and the heterogeneous particle emission channel (25); the side ends of the homogeneous particle emission channel (10) and the heterogeneous particle emission channel (25) are connected to a 3D printer body (19); a laser printing end (24) is installed at the top of the interior of the 3D printer body (19); a powder feeding structure (17) is installed below the 3D printer body (19); a molding cylinder (18) is installed at the bottom of the powder feeding structure (17); and a feeding end (6) is connected to the outside of the 3D printer body (19); The control and adjustment component (28) comprises a single-axis rod (281), an external fixed sleeve of the single-axis rod (281) is installed with a mounting adapter (282), a servo control motor (283) is installed on the front bottom wall surface of the mounting adapter (282), and a driving gear (284) is installed inside the front groove end of the mounting adapter (282), the left and right ends of the driving gear (284) are respectively meshed with a first forward gear (285) and a second forward gear (286), the side tooth angle ends of the first forward gear (285) and the second forward gear (286) are meshed with two sets of racks (287), and the two sets of racks (287) are fixedly installed on the inner wall surface of the operating slide groove (27).

2. The material in-situ mechanical properties model construction system based on CT scanning data drive according to claim 1, characterized in that: The resonance component (15) comprises a wiring tube (151), a subsonic wave generator (152) is installed on a side end of the wiring tube (151), and a double-axis pneumatic cylinder (153) is installed on a side end of the subsonic wave generator (152).

3. The material in-situ mechanical properties model construction system based on CT scanning data drive according to claim 2, characterized in that: The side end of the dual-axis pneumatic cylinder (153) is fastened to a rotating shaft seat (154), the side end surface of the rotating shaft seat (154) is provided with a rotating support arm (155), the side end of the rotating support arm (155) is connected to an infrasonic frequency modulator (156), the surface of the infrasonic frequency modulator (156) is provided with a sound source end (157), and the sound source end (157) is connected to the infrasonic generator (152) via a line.

4. The material in-situ mechanical properties model construction system based on CT scanning data drive according to claim 3, characterized in that: A transverse groove (29) is provided through the surface of the operating body (8), the interior of the transverse groove (29) and the adjustment guide rail (23) are fixedly mounted, and the transverse groove (29) and the movable experimental table (2) are slidably connected.

5. The material in-situ mechanical property model construction system based on CT scanning data drive according to claim 4, characterized in that: The CT scanning assembly (3) comprises a scanning body (31), the inner wall surface of the scanning body (31) being provided with a semi-annular guide rail slide (32) mounted thereon, and the interior of the semi-annular guide rail slide (32) being slidably connected with a scanning end (33).

6. The material in-situ mechanical property model construction system based on CT scanning data drive according to claim 5, characterized in that: The adjustment assembly (7) comprises a resonance plate (71), the bottom of the resonance plate (71) is hingedly connected to an insulating shaft (72), and the insulating shaft (72) and the side end of the mounting groove are hingedly mounted, and two groups of connecting rotating parts (73) are symmetrically fastened to the side wall surface of the resonance plate (71), and small hydraulic rods (74) are arranged inside the two groups of connecting rotating parts (73).

7. The material in-situ mechanical property model construction system based on CT scanning data drive according to claim 6, characterized in that: A rotating seat (75) is hingedly mounted on the bottom of the small hydraulic rod (74), a rotating motor (76) is mounted on the side end of the rotating seat (75), and a sliding plate frame (77) is fastened to the bottom of the rotating seat (75).

8. The material in-situ mechanical property model construction system based on CT scanning data drive according to claim 7, characterized in that: An engaging groove is provided on the surface of the sliding plate frame (77), a return spring (78) is installed inside the engaging groove, the return spring (78) is tightly connected to the side surface of the rotating seat (75), and a plurality of groups of rolling wheels (11) are installed at the bottom of the operating body (8), a support frame (5) is installed at the bottom of the sliding platform (1), and a protective cover (4) is installed on the side bottom wall of the sliding platform (1).

9. The material in-situ mechanical property model construction system based on CT scanning data drive according to claim 8, characterized in that: The following steps are also included: S1. When CT scanning is required to construct a data-driven in-situ mechanical property model of a material, an operator can place the object to be CT scanned inside the scanning body (31), and perform an azimuth scanning operation on the object through the semi-circular guide rail slide (32) and the scanning end (33). Then, the scanned data is converted into a numerical signal with the cooperation of a converter and transmitted to the distributed array processor (20). Then, the distributed array processor (20) uses the received converted numerical signal with the cooperation of a three-dimensional modeling software to form a three-dimensional object numerical signal and transmits it to the 3D printing body (19) for printing. Then, the printing is divided into four groups of comparative cases, namely a1, a2, a3 and a4. First, a1 is used as a common sample, and gypsum powder is used. The gypsum powder is selectively sintered by the laser printing end (24). After each layer is sintered and formed, the layers are stacked to form a three-dimensional entity. Then, the printed 3D object is placed in the mechanical laboratory (22) under the transportation of the operator; S2, then, using a2 to print the comparative case operation, a2 uses photosensitive resin powder, and after using the feeding end (6) to transport the photosensitive resin powder to the 3D printing body (19), the photosensitive resin powder is sintered by the laser printing end (24) in the presence of an adhesive to form a single layer printing operation, that is, using the powder feeding structure (17) and the forming cylinder (18), the 3D printing body (19) sprays the adhesive on the photosensitive resin powder according to the predetermined cross-sectional shape of the processing display (21) for bonding, completing the first layer printing, and then the forming cylinder (18) is lowered by a layer thickness, and the powder spreading roller inside the powder feeding structure (17) spreads powder again, and then bonding is performed, and the above process is repeated until the entire comparative case sample is printed; S3, then using a3 to perform a printing comparison operation, a3 uses a combination of polyimide and fluororesin powder, and again uses the feeding end (6) to transport the polyimide and fluororesin powder to the 3D printing body (19), and uses the powder feeding structure (17) to feed and spread the polyimide and fluororesin powder in advance, forming a printing matrix at the laser printing end (24), and then in cooperation with the particle emission body (16), using the same particle emission channel (10) to transport charged same particles into the printing matrix, and synchronously perform a 3D object printing operation, and then using a4, a4 ​​synchronously uses polyimide and fluororesin powder, and after the same printing operation process as above, in cooperation with the particle emission body (16), using the opposite particle emission channel (25) to transport opposite charged particles into the printing matrix; S4. After that, the operator places the four sets of printed objects into the mechanical laboratory (22), and drives the mobile laboratory table (2) to slide and adjust on the top surface of the sliding platform (1) to the side of the mechanical laboratory (22) in cooperation with the adjusting guide rail (23). When reaching the preset position, the small hydraulic rod (74) drives the resonance plate (71) to rotate in cooperation with the insulating shaft (72), and closes the mechanical laboratory (22). In cooperation with the start of the servo control motor (283), the driving gear ( 284), a first forward gear (285), a second forward gear (286) and two sets of racks (287) cooperate to drive the driver (13) and the uniaxial compressor (14) to construct the mechanical property model of the four sets of printed objects. Then, in cooperation with the infrasonic generator (152), the sound waves emitted by the infrasonic frequency modulator (156) and the sound source end (157) are modulated at different frequencies, and then, in cooperation with the resonance plate (71), the four sets of printed objects are resonated to construct the mechanical property model.

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