Multi-demand fetus development fluency type ultrasonic identification detection system

Abstract

The invention discloses a multi-demand fetus development fluency type ultrasonic identification detection system, and relates to the technical field of ultrasonic identification detection, the system comprises a support moving underframe, the top of the support moving underframe is provided with an ultrasonic detection host, and the top of the ultrasonic detection host is provided with a control button panel; a display screen is mounted at the top of the ultrasonic detection host, an arc-shaped mounting base is arranged on one side of the ultrasonic detection host, and it is ensured that the ultrasonic probes can be continuously located at the same position in the detection process so as to sufficiently perform ultrasonic sampling on physical signs of a fetus; therefore, the ultrasonic detection equipment can meet the requirement for long-time continuous sampling in the fetal examination process, the handheld time and the operation intensity of medical staff in the detection process are shortened, the ultrasonic recognition detection precision is effectively improved, meanwhile, continuous irradiation sampling is conducted at a fixed point, the difficulty of detection data analysis is reduced, and the detection efficiency is improved. And the intelligent degree of the ultrasonic identification detection system is effectively improved.

Description

Technical Field

[0001] The present invention relates to the technical field of ultrasonic identification and detection, and in particular to a multi-demand smooth fetal development ultrasonic identification and detection system. Background Art

[0002] Ultrasound identification and detection of fetal developmental abnormalities is a non-invasive prenatal examination method that uses ultrasound technology to systematically evaluate fetal structure, growth parameters, and physiological functions at different stages of pregnancy to detect congenital malformations, growth restriction, or other abnormalities at an early stage. The detection of fetal developmental abnormalities requires the use of a corresponding ultrasound detection device. For this purpose, a Chinese patent discloses a medical ultrasound detection device with application number CN202121319465.5. This patent meets clinical sterility requirements, is simple to operate, is less prone to errors, and can greatly improve the doctor's work efficiency.

[0003] However, the current ultrasound recognition and detection system lacks corresponding auxiliary structures during use, and the fetal detection process requires a long time to scan, and the entire scanning process requires the doctor to hold the device in hand, thereby reducing the overall convenience of use of the ultrasound recognition and detection system. Summary of the Invention

[0004] The present invention provides a multi-demand smooth-type ultrasound recognition and detection system for fetal development, which can effectively solve the problem that the ultrasound recognition and detection system proposed in the above background technology lacks corresponding auxiliary structures during use, and the fetus detection process requires a long time to scan, and the entire scanning process requires the doctor to hold the hand, thereby reducing the overall convenience of use of the ultrasound recognition and detection system.

[0005] To achieve the above-mentioned object, the present invention provides the following technical solutions: a multi-demand smooth fetal development ultrasound recognition and detection system, comprising a supporting mobile chassis, wherein an ultrasound detection host is provided on the top of the supporting mobile chassis;

[0006] A side cantilever feedback adjustment mechanism is provided on one side of the ultrasonic detection host, which is used to move and adjust the probe required for use during the detection process, and to support and limit the probe during the adjustment process;

[0007] The side cantilever feedback adjustment mechanism includes an arc-shaped mounting base;

[0008] A curved mounting base is provided on one side of the ultrasonic detection host, a lifting and adjusting square tube is connected to the top of the curved mounting base, a lifting and adjusting inner tube is clamped inside the lifting and adjusting square tube, and a fixing clamping bolt is installed on one side of the lifting and adjusting inner tube;

[0009] The top of the fixed clamping bolt is connected to an adjustment turntable. The middle of the top of the adjustment turntable is connected to a lifting adjustment sliding box. A sliding rectangular guide block is slidably clamped inside the lifting adjustment sliding box. One side of the sliding rectangular guide block is connected to a translation guide sliding box. A telescopic translation guide rod is clamped inside the translation guide sliding box. A pressing adjustment bolt is installed on the top surface of the telescopic translation guide rod.

[0010] According to the above technical solution, a control button panel is arranged on the top of the ultrasonic detection host, and a display screen is installed on the top of the ultrasonic detection host;

[0011] A deflection guide bolt is installed at the end of the telescopic translation guide rod. An arc-shaped protective guide rail is sleeved outside the deflection guide bolt. A magnetic adsorption restraint clamping plate is adsorbed on the outside of the arc-shaped protective guide rail;

[0012] The outer bottom of the inner lifting adjustment tube is in close sliding fit with the inner wall of the lifting adjustment square tube. The upper and lower parts of the adjustment turntable can rotate relative to each other. The middle of the bottom surface of the sliding rectangular guide block is fixedly clamped with a support spring.

[0013] According to the above technical solution, storage grooves are arranged at the bottoms of both the translation guide sliding box and the telescopic translation guide rod. The outer side of the telescopic translation guide rod is in close sliding fit with the inner wall of the translation guide sliding box. The bottom of the pressing adjustment bolt is in close fit with the top surface of the translation guide sliding box.

[0014] According to the above technical solution, an arc-shaped sliding cover is slidably sleeved in the middle of the outer side of the arc-shaped protective guide rail. A driving side handle is fixedly connected to the middle of one side of the arc-shaped sliding cover. A limiting circular plate is embedded and installed in the middle of the bottom surface of the arc-shaped sliding cover. A connecting arc plate is movably inserted through the middle of one side of the limiting circular plate. The bottom end of the connecting arc plate is fixedly connected to an installation arc-shaped clamping seat. Limiting clamping blocks are evenly clamped at equal intervals in the middle of the outer side of the installation arc-shaped clamping seat. An ultrasonic probe is clamped inside the installation arc-shaped clamping seat;

[0015] A limiting arc-shaped circular plate is fixedly connected to the top of the connecting arc plate corresponding to the position inside the arc-shaped sliding cover. An extrusion driving air bag is filled at the top corresponding to the position inside the arc-shaped sliding cover of the limiting arc-shaped circular plate. An inner wall support hard plate is bonded to the top cavity of the extrusion driving air bag. Support limiting springs are fixedly connected to both ends of the bottom surface of the inner wall support hard plate. One end of the bottom of the extrusion driving air bag is fixedly connected to an isolation limiting air valve through a pipeline;

[0016] Protective patterns are evenly arranged on the outer arc surface of the arc-shaped protective guide rail. An arc-shaped guide groove is opened in the inner circle of the arc-shaped protective guide rail. Control buttons are arranged on the side of the driving side handle, and the signal output end of the control button is connected to the signal input end of the isolation limiting air valve. The ultrasonic probe is connected to the ultrasonic detection host through a cable.

[0017] According to the above technical solution, a gas guiding connection hose is fixedly connected to the middle of one end of the isolation and limit air valve. The end of the gas guiding connection hose is fixedly connected to an expansion flat air bag at a position corresponding to one side inside the lifting and adjusting sliding box. A limit extrusion sheet is adhered to one side of the expansion flat air bag, and a damping limit thin sheet is adhered to the side of the sliding rectangular guide block close to the limit extrusion sheet;

[0018] A guiding angle wheel is rotatably installed at a corner of the top of the lifting and adjusting sliding box through a mounting frame. A traction thin cable is fixedly connected to the middle of the top surface of the arc-shaped sliding cover. The end of the traction thin cable is fixedly connected to a counterweight guiding box at a position corresponding to one side of the lifting and adjusting square pipe. A counterweight small block is tightly clamped inside the counterweight guiding box.

[0019] According to the above technical solution, the extrusion driving air bag and the expansion flat air bag are communicated with each other. The positions of the limit extrusion sheet and the damping limit thin sheet correspond to each other, and the side surface of the counterweight guiding box is closely attached to the outer side of the lifting and adjusting square pipe.

[0020] According to the above technical solution, a humidity and heat auxiliary maintaining mechanism is arranged on the top of the supporting moving bottom frame. The humidity and heat auxiliary maintaining mechanism is used to optimize the ultrasonic detection process to ensure the normal progress of the entire ultrasonic detection process;

[0021] The humidity and heat auxiliary maintaining mechanism includes a comprehensive installation back box;

[0022] A comprehensive installation back box is fixedly installed at a position on the top surface of the supporting moving bottom frame corresponding to the back of the ultrasonic detection host. A central liquid storage tank is installed in the middle of the inner side of the comprehensive installation back box. Liquid storage side boxes are clamped at positions on both sides of the central liquid storage tank inside the comprehensive installation back box. Drainage bottom valves are fixedly connected to the bottom of the side surfaces of the central liquid storage tank and the liquid storage side boxes through pipelines;

[0023] Suction ducts are fixedly installed inside the central liquid storage tank and the liquid storage side boxes. A suction small pump is fixedly connected to the bottom of the end of the suction duct. Sealing small valves are fixedly connected to the outer sides of multiple suction ducts at a position corresponding to the top of the central liquid storage tank. A connecting liquid guiding valve is fixedly connected to the tops of multiple sealing small valves. A transportation hose is fixedly connected to the middle of the top of the connecting liquid guiding valve.

[0024] According to the above technical solution, a spray arc-shaped box is fixedly connected to the end of the transportation hose at a position corresponding to one side of the arc-shaped protection guide rail. Adjusting corrugated pipes are equidistantly and uniformly fixedly installed on the inner arc surface of the spray arc-shaped box. An inclined atomizing nozzle is fixedly connected to the end of the adjusting corrugated pipe. A connecting arc-shaped seat is clamped on the outer side of the spray arc-shaped box. Arc-shaped auxiliary heating sheets are clamped on both sides inside the connecting arc-shaped seat. A connecting arc-shaped plate is fixedly connected to one side of the connecting arc-shaped seat. Isolation connecting angle blocks are fixedly connected to the bottoms of both sides of the connecting arc-shaped plate;

[0025] The central liquid storage tank and the liquid storage side box can hold different solutions according to requirements. A plurality of the suction small pumps and the arc-shaped auxiliary heating fins are all powered by an external power supply. A gap is left between the side surface of the connecting arc plate and the side surface of the arc-shaped protection guide rail. The isolation connecting corner block is fixedly connected with the arc-shaped protection guide rail through a connecting bolt.

[0026] According to the above technical solution, the ultrasonic detection host includes an ultrasonic image acquisition module and an intelligent analysis module;

[0027] The ultrasonic image acquisition module uses a high-precision ultrasonic probe to collect image data of the fetus in real time by the system;

[0028] The intelligent analysis module automatically analyzes and processes the image data obtained from the image acquisition module by combining artificial intelligence algorithms.

[0029] According to the above technical solution, in the image collected by the ultrasonic image acquisition module, the intensity and clarity of the signal are interfered by noise. The ultrasonic image acquisition module improves the image quality through digital filtering and enhancement algorithm technology;

[0030] The intelligent analysis module enhances the image details through a deep learning algorithm, improves the image quality in low-contrast or blurred images, and simultaneously performs three-dimensional reconstruction to convert two-dimensional image data into a three-dimensional view.

[0031] Compared with the prior art, the beneficial effects of the present invention are as follows: The structure of the present invention is scientific and reasonable, and it is safe and convenient to use:

[0032] 1. A side cantilever type feedback adjustment mechanism is provided. Through the mutual cooperation among the components inside the side cantilever type feedback adjustment mechanism, the use process of the ultrasonic identification detection device is optimized. Through the mutual cooperation among the movable components, the ultrasonic probe can be adjusted in multiple dimensions of height, position, and tilt angle during use, and it is fixed after the ultrasonic probe is adjusted to a suitable position, ensuring that the ultrasonic probe can continuously be located at the same position during the detection process to fully perform ultrasonic sampling on the signs of the fetus, so that the ultrasonic detection equipment can meet the requirements of long-term continuous sampling during the fetal examination process, reduce the holding time and operation intensity of medical staff during the detection process, and effectively improve the accuracy of ultrasonic identification detection. At the same time, the fixed point continuously irradiates and samples, reducing the difficulty of detecting data analysis, and effectively improving the intelligent level of the ultrasonic identification detection system;

[0033] Meanwhile, through the flexible linkage between the extrusion-driven airbag and the inflated flat airbag, the movement state of the sliding rectangular guide block is feedback-regulated by the reaction force between the ultrasonic probe and the pregnant woman's skin during use, so as to ensure that the ultrasonic probe will not strongly squeeze the abdomen of the pregnant woman during use. Thus, while ensuring the smooth progress of ultrasonic detection, the use experience of the ultrasonic detection device is improved. And through the snap-fit structure design of the components connected to the arc-shaped card seat and the limit block, the installation and disassembly process of the ultrasonic probe is made faster and more convenient, thereby effectively improving the usability of the ultrasonic detection device. At the same time, through the traction structure design between the guiding angle wheel and the traction cord, the adjustment process of the arc-shaped sliding cover is made more labor-saving, further improving the use process of the ultrasonic identification and detection device and enhancing the smoothness and safety of the ultrasonic identification and detection device during use.

[0034] 2. A humid heat-assisted maintaining mechanism is provided. Through the mutual cooperation among the components inside the humid heat-assisted maintaining mechanism, the humidification and disinfection process during the use of the ultrasonic identification and detection device is optimized. The suction small pump can alternately suck the humidifying liquid and the disinfecting liquid inside the central liquid storage tank and the liquid storage side box to ensure that the coupling agent on the abdomen of the pregnant woman can be continuously kept moist during the ultrasonic identification and detection process, effectively avoiding the influence on the detection effect due to the evaporation of the coupling agent during the long-term ultrasonic identification and detection process, and also preventing the phenomenon of repeatedly adding the coupling agent during the detection process. Thus, the usability of the ultrasonic identification and detection device is effectively improved. And by periodically disinfecting the abdomen of the pregnant woman, it is ensured that the abdomen of the pregnant woman can be continuously kept in a sterile state, further enhancing the safety of the ultrasonic identification and detection device during use;

[0035] Meanwhile, the arc-shaped auxiliary heating sheet can also heat the solution flowing through the spray arc-shaped box, preventing discomfort caused by the large temperature difference between the sprayed cooling liquid and the disinfection solution and the body of the pregnant woman, further enhancing the use experience of the ultrasonic identification and detection device and improving the degree of intelligence during the use of the ultrasonic identification and detection device.

[0036] In summary, through the mutual cooperation among the components inside the side cantilever feedback regulation mechanism and the humid heat-assisted maintaining mechanism, the use adjustment process and the humidification and disinfection process of the ultrasonic identification and detection device are optimized. Through the three-dimensional multi-angle adjustment mechanism, it is ensured that the position of the ultrasonic probe can remain unchanged during the continuous detection process, and the abdomen of the pregnant woman is continuously humidified during the operation of the ultrasonic probe to ensure that the coupling agent on the abdomen of the pregnant woman can be continuously kept moist, further ensuring the smoothness of the detection and the usability of the detection device. At the same time, through the intermittent disinfection of the abdomen of the pregnant woman, it is ensured that the part of the pregnant woman during the detection process can be continuously kept clean, further enhancing the safety of the ultrasonic identification and detection device during use, and effectively improving the degree of intelligence of the ultrasonic identification and detection device. BRIEF DESCRIPTION OF THE DRAWINGS

[0037] The accompanying drawings are used to provide a further understanding of the present invention and constitute a part of the specification. They are used together with the embodiments of the present invention to explain the present invention and do not constitute a limitation to the present invention. In the accompanying drawings:

[0038] Figure 1 is a schematic structural view of the present invention;

[0039] Figure 2 is a schematic structural view of the installation of the liquid discharge bottom valve of the present invention;

[0040] Figure 3 is a schematic structural view of the installation of the lifting and adjusting square tube of the present invention;

[0041] Figure 4 is a schematic structural view of the side cantilever type feedback adjusting mechanism of the present invention;

[0042] Figure 5 is a schematic structural view of the installation of the ultrasonic probe of the present invention;

[0043] Figure 6 is a schematic structural view of the installation of the expansion flat airbag of the present invention;

[0044] Figure 7 is a schematic structural view of the installation of the extrusion driving airbag of the present invention;

[0045] Figure 8 is a schematic structural view of the installation of the limit extrusion sheet of the present invention;

[0046] Figure 9 is a schematic structural view of the humid heat assisted holding mechanism of the present invention;

[0047] Figure 10 is a schematic structural view of the installation of the liquid storage side box of the present invention;

[0048] Figure 11 is a schematic structural view of the installation of the inclined atomizing nozzle of the present invention;

[0049] Reference numerals in the figure: 1, support moving chassis; 2, ultrasonic detection host; 3, control button panel; 4, display screen;

[0050] 5. Side cantilever feedback adjustment mechanism; 501. Installation arc base; 502. Lifting adjustment square tube; 503. Lifting adjustment inner tube; 504. Fixed clamping bolt; 505. Adjustment turntable; 506. Lifting adjustment sliding box; 507. Sliding rectangular guide block; 508. Translational guiding sliding box; 509. Telescopic translational guide rod; 510. Compression adjustment bolt; 511. Deflection guide bolt; 512. Arc protection guide rail; 513. Magnetic attraction restraint card plate; 514. Arc sliding cover; 515. Driving side handle; 516. Limit circular plate; 517. Connecting arc plate; 518. Installation arc seat; 519. Limit block; 520. Ultrasonic probe; 521. Limit arc circular plate; 522. Extrusion driving airbag; 523. Inner wall support hard plate; 524. Support limit spring; 525. Isolation limit air valve; 526. Air guide connecting hose; 527. Inflatable flat airbag; 528. Limit extrusion piece; 529. Damping limit thin plate; 530. Guide angle wheel; 531. Tractive thin cable; 532. Counterweight guide box; 533. Counterweight small block.

[0051] 6. Humid and hot auxiliary maintaining mechanism; 601. Comprehensive installation back box; 602. Central liquid storage tank; 603. Liquid storage side box; 604. Drainage bottom valve; 605. Suction catheter; 606. Suction small pump; 607. Sealing small valve; 608. Connecting liquid guiding valve; 609. Transportation hose; 610. Spraying arc box; 611. Adjustment corrugated pipe; 612. Inclined atomizing nozzle; 613. Connecting arc seat; 614. Arc auxiliary heating fin; 615. Connecting arc plate; 616. Isolation connecting angle block. Detailed implementation manners

[0052] The preferred embodiments of the present invention will be described below with reference to the accompanying drawings. It should be understood that the preferred embodiments described herein are only for the purpose of illustrating and explaining the present invention, and are not used to limit the present invention.

[0053] Embodiment: As Figures 1-11 shown, the present invention provides a technical solution, a multi - requirement fetal development smooth - type ultrasonic recognition detection system, including a support moving chassis 1. A top of the support moving chassis 1 is provided with an ultrasonic detection host 2. A top of the ultrasonic detection host 2 is provided with a control button panel 3. A display screen 4 is installed on the top of the ultrasonic detection host 2 through a bracket;

[0054] On one side of the ultrasonic detection host 2, there is a side cantilever feedback adjustment mechanism 5. The side cantilever feedback adjustment mechanism 5 is used for moving and adjusting a probe required in the detection process, and supporting and limiting it during the probe adjustment process;

[0055] The side cantilever feedback adjustment mechanism 5 includes a mounting arc base 501, a lifting adjustment square tube 502, a lifting adjustment inner tube 503, a fixed clamping bolt 504, an adjustment turntable 505, a lifting adjustment sliding box 506, a sliding rectangular guide block 507, a translation guide sliding box 508, a telescopic translation guide rod 509, a pressing adjustment bolt 510, a deflection guide bolt 511, an arc protection guide rail 512, a magnetic adsorption restraint card plate 513, an arc sliding cover 514, a driving side handle 515, a limiting circular plate 516, a connecting arc plate 517, a mounting arc seat 518, a limiting block 519, an ultrasonic probe 520, a limiting arc circular plate 521, an extrusion driving airbag 522, an inner wall support hard plate 523, a support limiting spring 524, an isolation limiting air valve 525, an air guide connecting hose 526, an expansion flat airbag 527, a limiting extrusion piece 528, a damping limiting thin plate 529, a guiding angle wheel 530, a traction thin cable 531, a counterweight guide box 532 and a counterweight small block 533;

[0056] At the bottom of one side of the ultrasonic detection host 2, there is a mounting arc base 501. In the middle of the top end of the mounting arc base 501, there is a fixed connection with a lifting adjustment square tube 502. Inside the lifting adjustment square tube 502, there is a sliding clamping connection with a lifting adjustment inner tube 503. In the middle of one side of the lifting adjustment inner tube 503, there is a fixed clamping bolt 504 installed by threading. At the top of the fixed clamping bolt 504, there is a fixed connection with an adjustment turntable 505. In the middle of the top end of the adjustment turntable 505, there is a fixed connection with a lifting adjustment sliding box 506. Inside the lifting adjustment sliding box 506, there is a sliding clamping connection with a sliding rectangular guide block 507. The outer side of the bottom of the lifting adjustment inner tube 503 is in close sliding fit with the inner wall of the lifting adjustment square tube 502. The upper and lower parts of the adjustment turntable 505 can rotate relatively. In the middle of the bottom surface of the sliding rectangular guide block 507, there is a fixed clamping connection with a support spring;

[0057] One side of the sliding rectangular guide block 507 is movably connected with a translation guide sliding box 508 through a connecting bolt. At the bottom of the inner side of the translation guide sliding box 508, there is a sliding clamping connection with a telescopic translation guide rod 509. In the middle of one end of the top surface of the telescopic translation guide rod 509, there is a pressing adjustment bolt 510 installed by threading. Storage grooves are provided at the bottoms of both the translation guide sliding box 508 and the telescopic translation guide rod 509. The outer side of the telescopic translation guide rod 509 is in close sliding fit with the inner wall of the translation guide sliding box 508. The bottom of the pressing adjustment bolt 510 is in close fit with the top surface of the translation guide sliding box 508;

[0058] The end of the telescopic translation guide rod 509 is movably installed with a deflection guide bolt 511 through an arc plate. The outer side of the deflection guide bolt 511 is movably sleeved with an arc protection guide rail 512. At the bottom of the outer side of the arc protection guide rail 512, there is a magnetic adsorption with a magnetic adsorption restraint card plate 513;

[0059] A curved sliding sleeve 514 is sleeved in the middle of the outer side of the arc-shaped protective guide rail 512. A driving side handle 515 is fixedly connected to the middle of one side of the arc-shaped sliding sleeve 514. A limiting circular plate 516 is embedded and installed in the middle of the bottom surface of the arc-shaped sliding sleeve 514. A connecting arc plate 517 is movably inserted and installed in the middle of one side of the limiting circular plate 516. An installation arc-shaped clamping seat 518 is fixedly connected to the bottom end of the connecting arc plate 517. Limiting blocks 519 are evenly clamped at equal intervals in the middle of the outer side of the installation arc-shaped clamping seat 518. An ultrasonic probe 520 is clamped inside the installation arc-shaped clamping seat 518;

[0060] A limiting arc-shaped circular plate 521 is fixedly connected to the top end of the connecting arc plate 517 corresponding to the position inside the arc-shaped sliding sleeve 514. An extrusion driving airbag 522 is filled at the top corresponding to the position inside the arc-shaped sliding sleeve 514 of the limiting arc-shaped circular plate 521. An inner wall supporting hard plate 523 is bonded to the top cavity of the extrusion driving airbag 522. Support limiting springs 524 are fixedly connected to both ends of the bottom surface of the inner wall supporting hard plate 523. One end of the bottom of the extrusion driving airbag 522 is fixedly connected to an isolation limiting air valve 525 through a pipeline. Protective patterns are evenly arranged on the outer arc surface of the arc-shaped protective guide rail 512. An arc-shaped guide groove is opened in the inner circle of the arc-shaped protective guide rail 512. Control buttons are arranged on the side of the driving side handle 515, and the signal output end of the control button is connected to the signal input end of the isolation limiting air valve 525. The ultrasonic probe 520 is connected to the ultrasonic detection host 2 through a cable;

[0061] A gas guiding connecting hose 526 is fixedly connected to the middle of one end of the isolation limiting air valve 525. An expansion flat airbag 527 is fixedly connected to the end of the gas guiding connecting hose 526 corresponding to the position of one side inside the lifting and adjusting sliding box 506. A limiting extrusion sheet 528 is bonded to one side of the expansion flat airbag 527. A damping limiting sheet 529 is bonded to the side of the sliding rectangular guide block 507 close to the limiting extrusion sheet 528;

[0062] At one corner of the top of the lifting and adjusting sliding box 506, a guiding angle wheel 530 is rotatably installed through a mounting bracket. In the middle of the top surface of the arc-shaped sliding cover 514, a traction cable 531 is fixedly connected. At a position corresponding to one side of the lifting and adjusting square tube 502 at the end of the traction cable 531, a counterweight guiding box 532 is fixedly connected. Inside the counterweight guiding box 532, a counterweight block 533 is tightly clamped. The extrusion driving airbag 522 and the inflated flat airbag 527 are interconnected. The position between the limiting extrusion piece 528 and the damping limiting thin sheet 529 corresponds to each other. The side surface of the counterweight guiding box 532 is in close contact with the outer side of the lifting and adjusting square tube 502. Through the mutual cooperation of the components inside the side cantilever feedback adjustment mechanism 5, the use process of the ultrasonic identification detection device is optimized. Through the mutual cooperation of the movable components, the ultrasonic probe 520 can be adjusted in multiple dimensions of height, position, and tilt angle during use, and it is fixed after the ultrasonic probe 520 is adjusted to a suitable position, ensuring that the ultrasonic probe 520 can continuously stay in the same position during the detection process to fully perform ultrasonic sampling on the fetal signs, so that the ultrasonic detection device can meet the requirements of long-term continuous sampling during the fetal examination, reducing the holding time and operation intensity of medical staff during the detection process, and effectively improving the accuracy of ultrasonic identification detection. At the same time, the fixed point continuously irradiates and samples, reducing the difficulty of detecting data analysis and effectively improving the intelligence level of the ultrasonic identification detection system;

[0063] At the same time, through the flexible linkage cooperation between the extrusion driving airbag 522 and the inflated flat airbag 527, the movement state of the sliding rectangular guide block 507 is feedback-adjusted by using the reaction force between the ultrasonic probe 520 and the pregnant woman's skin during use, so as to ensure that the ultrasonic probe 520 will not strongly squeeze the abdomen of the pregnant woman during use. Furthermore, while ensuring the smooth progress of ultrasonic detection, the use experience of the ultrasonic detection device is improved. And through the snap-fit structure design of the components connected to the arc-shaped clamping seat 518 and the limiting block 519, the installation and disassembly process of the ultrasonic probe 520 is made faster and more convenient, thereby effectively improving the use convenience of the ultrasonic detection device. At the same time, through the traction structure design between the guiding angle wheel 530 and the traction cable 531, the adjustment process of the arc-shaped sliding cover 514 is made more labor-saving, further improving the use process of the ultrasonic identification detection device and enhancing the use fluency and safety of the ultrasonic identification detection device;

[0064] On the top of the support moving chassis ①, a humidity and heat auxiliary maintaining mechanism 6 is provided. The humidity and heat auxiliary maintaining mechanism 6 is used to optimize the ultrasonic detection process to ensure the normal progress of the entire ultrasonic detection process;

[0065] The wet-heat auxiliary holding mechanism 6 includes a comprehensive installation back box 601, a central liquid storage tank 602, a liquid storage side box 603, a liquid discharge bottom valve 604, a suction catheter 605, a suction small pump 606, a sealing small valve 607, a connecting liquid guiding valve 608, a transportation hose 609, a spraying arc box 610, an adjusting corrugated pipe 611, an inclined atomizing nozzle 612, a connecting arc seat 613, an arc-shaped auxiliary heating fin 614, a connecting arc plate 615, and an isolation connecting angle block 616;

[0066] The comprehensive installation back box 601 is fixedly installed at a position corresponding to the back surface of the ultrasonic detection host 2 on the top surface of the support moving bottom frame 1. The central liquid storage tank 602 is installed in the middle of the inner side of the comprehensive installation back box 601. The liquid storage side boxes 603 are clamped at positions on both sides of the central liquid storage tank 602 inside the comprehensive installation back box 601. The liquid discharge bottom valves 604 are fixedly connected to the bottom sides of the central liquid storage tank 602 and the liquid storage side boxes 603 through pipelines;

[0067] The suction catheters 605 are fixedly installed inside the central liquid storage tank 602 and the liquid storage side boxes 603. The suction small pumps 606 are fixedly connected to the bottom ends of the suction catheters 605. The sealing small valves 607 are fixedly connected to the outer sides of multiple suction catheters 605 at positions corresponding to the top of the central liquid storage tank 602. The connecting liquid guiding valve 608 is fixedly connected to the tops of multiple sealing small valves 607. The transportation hose 609 is fixedly connected to the middle of the top end of the connecting liquid guiding valve 608;

[0068] At the position corresponding to one side of the arc-shaped protective guide rail 512 at the end of the transport hose 609, a spray arc-shaped box 610 is fixedly connected. On the inner arc surface of the spray arc-shaped box 610, adjusting bellows 611 are evenly and fixedly installed at equal intervals. At the end of the adjusting bellows 611, an inclined atomizing nozzle 612 is fixedly connected. A connecting arc-shaped seat 613 is clamped outside the spray arc-shaped box 610. Arc-shaped auxiliary heating fins 614 are clamped on both sides inside the connecting arc-shaped seat 613. A connecting arc-shaped plate 615 is fixedly connected to one side of the connecting arc-shaped seat 613. Isolation connecting angle blocks 616 are fixedly connected to the bottom ends on both sides of the connecting arc-shaped plate 615. Different solutions can be placed in the central liquid storage tank 602 and the liquid storage side box 603 according to requirements. A plurality of suction small pumps 606 and the arc-shaped auxiliary heating fins 614 are both powered by an external power supply. There is a gap between the side surface of the connecting arc-shaped plate 615 and the side surface of the arc-shaped protective guide rail 512. The isolation connecting angle blocks 616 are fixedly connected to the arc-shaped protective guide rail 512 through connecting bolts. Through the mutual cooperation of the components inside the humid heat auxiliary maintaining mechanism 6, the humidification and disinfection process during the use of the ultrasonic identification detection device is optimized. Through the suction small pump 606, the humidifying liquid and the disinfectant liquid inside the central liquid storage tank 602 and the liquid storage side box 603 can be alternately sucked to ensure that the coupling agent on the abdomen of the pregnant woman can be continuously kept moist during the ultrasonic identification detection process, effectively avoiding the influence on the detection effect due to the evaporation of the coupling agent during the long-time ultrasonic identification detection process, and at the same time preventing the phenomenon of repeatedly adding the coupling agent during the detection process, thereby effectively improving the use convenience of the ultrasonic identification detection device. And by periodically disinfecting the abdomen of the pregnant woman, it is ensured that the abdomen of the pregnant woman can be continuously kept in a sterile state, further improving the use safety of the ultrasonic identification detection device;

[0069] At the same time, the arc-shaped auxiliary heating fins 614 can also heat the solution flowing through the inside of the spray arc-shaped box 610, preventing discomfort caused by the large temperature difference between the sprayed coolant and the disinfection solution and the body of the pregnant woman, further improving the use experience of the ultrasonic identification detection device and improving the intelligent level during the use of the ultrasonic identification detection device.

[0070] The ultrasonic detection host 2 includes an ultrasonic image acquisition module and an intelligent analysis module;

[0071] The ultrasonic image acquisition module uses a high-precision ultrasonic probe to collect the image data of the fetus in real time by the system;

[0072] The intelligent analysis module automatically analyzes and processes the image data obtained from the image acquisition module by combining artificial intelligence algorithms.

[0073] In the images collected by the ultrasonic image acquisition module, the intensity and clarity of the signals are interfered by noise. The ultrasonic image acquisition module improves the image quality through digital filtering and enhancement algorithm technologies;

[0074] The intelligent analysis module enhances image details through deep learning algorithms, improving the image quality in low-contrast or blurred images, and simultaneously performing 3D reconstruction to convert 2D image data into 3D views.

[0075] The working principle and usage process of the present invention: In the actual application process of the present invention, a multi-demand fetal development smooth-type ultrasonic recognition and detection system includes a supporting mobile chassis 1. A ultrasonic detection host 2 is arranged on the top of the supporting mobile chassis 1. A control button panel 3 is arranged on the top of the ultrasonic detection host 2. A display screen 4 is installed on the top of the ultrasonic detection host 2 through a bracket;

[0076] A side cantilever feedback adjustment mechanism 5 is arranged on one side of the ultrasonic detection host 2. The side cantilever feedback adjustment mechanism 5 is used to move and adjust the probe required during the detection process, and support and limit it during the probe adjustment process;

[0077] The side cantilever feedback adjustment mechanism 5 includes a mounting arc base 501, a lifting adjustment square tube 502, a lifting adjustment inner tube 503, a fixed clamping bolt 504, an adjustment turntable 505, a lifting adjustment sliding box 506, a sliding rectangular guide block 507, a translation guide sliding box 508, a telescopic translation guide rod 509, a pressing adjustment bolt 510, a deflection guide bolt 511, an arc protection guide rail 512, a magnetic attraction restraint card plate 513, an arc sliding cover 514, a driving side handle 515, a limiting circular plate 516, a connecting arc plate 517, a mounting arc seat 518, a limiting block 519, an ultrasonic probe 520, a limiting arc circular plate 521, an extrusion driving airbag 522, an inner wall support hard plate 523, a support limiting spring 524, an isolation limiting air valve 525, a gas guiding connecting hose 526, an expansion flat airbag 527, a limiting extrusion sheet 528, a damping limiting thin sheet 529, a guiding angle wheel 530, a traction thin cord 531, a weight guiding box 532 and a weight small block 533;

[0078] An installation arc base 501 is arranged at the bottom on one side of the ultrasonic detection host 2. The middle of the top end of the installation arc base 501 is fixedly connected with a lifting adjustment square tube 502. A lifting adjustment inner tube 503 is slidably clamped inside the lifting adjustment square tube 502. A fixed clamping bolt 504 is installed in the middle of one side of the lifting adjustment inner tube 503 through a thread. The top end of the fixed clamping bolt 504 is fixedly connected with an adjustment turntable 505. The middle of the top end of the adjustment turntable 505 is fixedly connected with a lifting adjustment sliding box 506. A sliding rectangular guide block 507 is slidably clamped inside the lifting adjustment sliding box 506. The outer side of the bottom of the lifting adjustment inner tube 503 is closely slidably attached to the inner wall of the lifting adjustment square tube 502. The upper and lower parts of the adjustment turntable 505 can rotate relatively. The middle of the bottom surface of the sliding rectangular guide block 507 is fixedly clamped with a support spring;

[0079] One side of the sliding rectangular guide block 507 is movably connected with a translation guide sliding box 508 through a connecting bolt. A telescopic translation guide rod 509 is slidably clamped at the inner bottom of the translation guide sliding box 508. One end of the middle part of the top surface of the telescopic translation guide rod 509 is installed with a pressing adjustment bolt 510 through threads. Storage grooves are arranged at the bottoms of both the translation guide sliding box 508 and the telescopic translation guide rod 509. The outer side of the telescopic translation guide rod 509 is closely and slidably attached to the inner wall of the translation guide sliding box 508. The bottom of the pressing adjustment bolt 510 is closely attached to the top surface of the translation guide sliding box 508;

[0080] One end of the telescopic translation guide rod 509 is movably installed with a deflection guide bolt 511 through an arc-shaped plate. An arc-shaped protective guide rail 512 is movably sleeved outside the deflection guide bolt 511. A magnetic adsorption restraint card plate 513 is magnetically adsorbed at the bottom of the outer side of the arc-shaped protective guide rail 512;

[0081] An arc-shaped sliding cover 514 is slidably sleeved in the middle of the outer side of the arc-shaped protective guide rail 512. One side of the middle part of the arc-shaped sliding cover 514 is fixedly connected with a driving side handle 515. A limiting circular plate 516 is embedded and installed in the middle of the bottom surface of the arc-shaped sliding cover 514. A connecting arc plate 517 is movably inserted and installed in the middle of one side of the limiting circular plate 516. The bottom end of the connecting arc plate 517 is fixedly connected with an installation arc-shaped clamping seat 518. Limiting blocks 519 are equidistantly and evenly clamped on the outer side of the middle part of the installation arc-shaped clamping seat 518. An ultrasonic probe 520 is clamped inside the installation arc-shaped clamping seat 518;

[0082] At the position corresponding to the inside of the arc-shaped sliding cover 514 at the top end of the connecting arc plate 517, a limiting arc-shaped circular plate 521 is fixedly connected. At the position corresponding to the inside of the arc-shaped sliding cover 514 at the top of the limiting arc-shaped circular plate 521, an extrusion driving air bag 522 is filled. An inner wall support hard plate 523 is bonded to the top of the inner cavity of the extrusion driving air bag 522. Support limiting springs 524 are fixedly connected to both ends of the bottom surface of the inner wall support hard plate 523. One end of the bottom of the extrusion driving air bag 522 is fixedly connected with an isolation limiting air valve 525 through a pipeline. Protective lines are evenly arranged on the outer arc surface of the arc-shaped protective guide rail 512. An arc-shaped guide groove is opened in the inner circle of the arc-shaped protective guide rail 512. Control buttons are arranged on the side of the driving side handle 515, and the signal output end of the control button is connected to the signal input end of the isolation limiting air valve 525. The ultrasonic probe 520 is connected to the ultrasonic detection host 2 through a cable;

[0083] One end of the middle part of the isolation limiting air valve 525 is fixedly connected with a gas guiding connecting hose 526. The end of the gas guiding connecting hose 526 is fixedly connected with an expansion flat air bag 527 at a position corresponding to one side inside the lifting adjustment sliding box 506. A limiting extrusion sheet 528 is bonded to one side of the expansion flat air bag 527. A damping limiting thin sheet 529 is bonded to one side of the sliding rectangular guide block 507 close to the limiting extrusion sheet 528;

[0084] At one corner of the top of the lifting and adjusting sliding box 506, a guiding angle wheel 530 is rotatably installed through a mounting frame. In the middle of the top surface of the arc-shaped sliding cover 514, a traction cable 531 is fixedly connected. At a position corresponding to one side of the lifting and adjusting square tube 502 at the end of the traction cable 531, a counterweight guiding box 532 is fixedly connected. Inside the counterweight guiding box 532, a counterweight block 533 is tightly clamped. The extrusion driving airbag 522 and the inflated flat airbag 527 are interconnected. The position between the limiting extrusion sheet 528 and the damping limiting thin sheet 529 corresponds to each other. The side surface of the counterweight guiding box 532 is closely attached to the outer side of the lifting and adjusting square tube 502. Through the mutual cooperation of the components inside the side cantilever feedback adjustment mechanism 5, the use process of the ultrasonic identification and detection device is optimized. Through the mutual cooperation of the movable components, the ultrasonic probe 520 can be adjusted in multiple dimensions of height, position, and tilt angle during use, and after the ultrasonic probe 520 is adjusted to the appropriate position, it is fixed to ensure that the ultrasonic probe 520 can continuously be located at the same position during the detection process to fully perform ultrasonic sampling on the fetal signs, so that the ultrasonic detection device can meet the requirement of long-term continuous sampling during the fetal examination process, reduce the holding time and operation intensity of medical staff during the detection process, and effectively improve the accuracy of ultrasonic identification and detection. At the same time, the fixed point continuously irradiates and samples, reducing the difficulty of detecting data analysis and effectively improving the intelligence level of the ultrasonic identification and detection system;

[0085] At the same time, through the flexible linkage cooperation between the extrusion driving airbag 522 and the inflated flat airbag 527, the movement state of the sliding rectangular guide block 507 is feedback-adjusted by using the reaction force between the ultrasonic probe 520 and the pregnant woman's skin during use to ensure that the ultrasonic probe 520 will not strongly squeeze the abdomen of the pregnant woman during use. Furthermore, while ensuring the smooth progress of ultrasonic detection, the use experience of the ultrasonic detection device is improved. And through the snap-fit structure design of the components connected to the arc-shaped clamping seat 518 and the limiting block 519, the installation and disassembly process of the ultrasonic probe 520 is made faster and more convenient, thereby effectively improving the use convenience of the ultrasonic detection device. At the same time, through the traction structure design between the guiding angle wheel 530 and the traction cable 531, the adjustment process of the arc-shaped sliding cover 514 is made more labor-saving, further improving the use process of the ultrasonic identification and detection device and enhancing the use fluency and safety of the ultrasonic identification and detection device;

[0086] On the top of the supporting moving chassis 1, a humidity and heat auxiliary maintaining mechanism 6 is provided, and the humidity and heat auxiliary maintaining mechanism 6 is used to optimize the ultrasonic detection process to ensure the normal progress of the entire ultrasonic detection process;

[0087] The humid and hot auxiliary maintaining mechanism 6 includes a comprehensive installation back box 601, a central liquid storage tank 602, a liquid storage side box 603, a liquid discharge bottom valve 604, a suction catheter 605, a suction small pump 606, a sealing small valve 607, a connecting liquid guiding valve 608, a transportation hose 609, a spraying arc box 610, an adjusting corrugated pipe 611, an inclined atomizing nozzle 612, a connecting arc seat 613, an arc-shaped auxiliary heating fin 614, a connecting arc plate 615 and an isolation connecting angle block 616;

[0088] A comprehensive installation back box 601 is fixedly installed at a position on the top surface of the support moving bottom frame 1 corresponding to the back surface of the ultrasonic detection host 2. A central liquid storage tank 602 is installed in the middle of the inner side of the comprehensive installation back box 601. Liquid storage side boxes 603 are clamped at positions on both sides of the central liquid storage tank 602 inside the comprehensive installation back box 601. A liquid discharge bottom valve 604 is fixedly connected to the bottom of the side surfaces of the central liquid storage tank 602 and the liquid storage side boxes 603 through pipelines;

[0089] Suction catheters 605 are fixedly installed inside both the central liquid storage tank 602 and the liquid storage side boxes 603. A suction small pump 606 is fixedly connected to the bottom of the end of the suction catheter 605. Sealing small valves 607 are fixedly connected to the outer sides of multiple suction catheters 605 at positions corresponding to the top of the central liquid storage tank 602. A connecting liquid guiding valve 608 is fixedly connected to the tops of multiple sealing small valves 607. A transportation hose 609 is fixedly connected to the middle of the top of the connecting liquid guiding valve 608;

[0090] At the position corresponding to one side of the arc-shaped protective guide rail 512 at the end of the transport hose 609, a spray arc-shaped box 610 is fixedly connected. On the inner arc surface of the spray arc-shaped box 610, adjusting bellows 611 are fixedly installed at equal intervals. At the end of the adjusting bellows 611, an inclined atomizing nozzle 612 is fixedly connected. A connecting arc-shaped seat 613 is clamped outside the spray arc-shaped box 610. Arc-shaped auxiliary heating fins 614 are clamped on both sides inside the connecting arc-shaped seat 613. A connecting arc-shaped plate 615 is fixedly connected to one side of the connecting arc-shaped seat 613. Isolation connecting angle blocks 616 are fixedly connected to the bottom ends on both sides of the connecting arc-shaped plate 615. Different solutions can be contained in the central liquid storage tank 602 and the liquid storage side box 603 according to requirements. A plurality of suction small pumps 606 and the arc-shaped auxiliary heating fins 614 are all powered by an external power supply. There is a gap between the side surface of the connecting arc-shaped plate 615 and the side surface of the arc-shaped protective guide rail 512. The isolation connecting angle block 616 is fixedly connected to the arc-shaped protective guide rail 512 through a connecting bolt. Through the mutual cooperation between the components inside the humid heat assistance maintaining mechanism 6, the humidification and disinfection process during the use of the ultrasonic identification detection device is optimized. The suction small pump 606 can alternately suck the humidifying liquid and the disinfectant liquid inside the central liquid storage tank 602 and the liquid storage side box 603 to ensure that the coupling agent on the pregnant woman's abdomen can be continuously kept moist during the ultrasonic identification detection process, effectively avoiding the influence on the detection effect due to the evaporation of the coupling agent during the long-term ultrasonic identification detection process, and also preventing the phenomenon of repeatedly adding the coupling agent during the detection process. Furthermore, the use convenience of the ultrasonic identification detection device is effectively improved. By periodically disinfecting the pregnant woman's abdomen, it is ensured that the pregnant woman's abdomen can be continuously kept in a sterile state, further improving the use safety of the ultrasonic identification detection device;

[0091] At the same time, the arc-shaped auxiliary heating fins 614 can also heat the solution flowing through the inside of the spray arc-shaped box 610, preventing discomfort caused by a large temperature difference between the sprayed cooling liquid and the disinfection solution and the pregnant woman's body, further improving the use experience of the ultrasonic identification detection device and the intelligent degree during the use of the ultrasonic identification detection device.

[0092] Finally, it should be noted that the above are only preferred examples of the present invention and are not used to limit the present invention. Although the present invention has been described in detail with reference to the foregoing embodiments, for those skilled in the art, they can still modify the technical solutions recorded in the foregoing embodiments, or perform equivalent replacements for some of the technical features. Any modifications, equivalent replacements, improvements, etc. made within the spirit and principle of the present invention shall be included in the protection scope of the present invention.

Claims

1. A fetal development smooth type ultrasonic recognition and detection system with multiple requirements, including a support moving chassis (1), characterized in that: The top of the supporting mobile chassis (1) is provided with an ultrasonic detection host (2); One side of the ultrasonic detection host (2) is provided with a side cantilever feedback adjustment mechanism (5), and the side cantilever feedback adjustment mechanism (5) is used to move and adjust the probe required during the detection process, and support and limit it during the probe adjustment process; The side cantilever feedback adjustment mechanism (5) includes a mounting arc base (501); One side of the ultrasonic detection host (2) is provided with a mounting arc base (501), the top end of the mounting arc base (501) is connected with a lifting adjustment square tube (502), the inside of the lifting adjustment square tube (502) is clamped with a lifting adjustment inner tube (503), and one side of the lifting adjustment inner tube (503) is provided with a fixed clamping bolt (504); The top end of the fixed clamping bolt (504) is connected with an adjustment turntable (505), the middle part of the top end of the adjustment turntable (505) is connected with a lifting adjustment sliding box (506), the inside of the lifting adjustment sliding box (506) is slidably clamped with a sliding rectangular guide block (507), one side of the sliding rectangular guide block (507) is connected with a translation guide sliding box (508), the inside of the translation guide sliding box (508) is clamped with a telescopic translation guide rod (509), and the top surface of the telescopic translation guide rod (509) is provided with a pressing adjustment bolt (510).

2. The fetal development smooth type ultrasonic recognition detection system with multiple requirements according to claim 1, characterized in that, The top of the ultrasonic detection host (2) is provided with a control button panel (3), and the top of the ultrasonic detection host (2) is installed with a display screen (4); The end of the telescopic translation guide rod (509) is provided with a deflection guide bolt (511), the outside of the deflection guide bolt (511) is sleeved with an arc protection guide rail (512), and a magnetic adsorption restraint clamping plate (513) is adsorbed on the outside of the arc protection guide rail (512); The outer bottom of the lifting adjustment inner tube (503) is in close sliding fit with the inner wall of the lifting adjustment square tube (502), the upper and lower parts of the adjustment turntable (505) can rotate relatively, and the middle part of the bottom surface of the sliding rectangular guide block (507) is fixedly clamped with a support spring.

3. The fetal development smooth type ultrasonic recognition and detection system with multiple requirements according to claim 1, characterized in that, Both the translation guide sliding box (508) and the telescopic translation guide rod (509) are provided with storage grooves at the bottom, the outside of the telescopic translation guide rod (509) is in close sliding fit with the inner wall of the translation guide sliding box (508), and the bottom of the pressing adjustment bolt (510) is in close fit with the top surface of the translation guide sliding box (508).

4. A fetal development smooth-type ultrasonic recognition and detection system with multiple requirements according to claim 2, characterized in that, The middle part of the outside of the arc protection guide rail (512) is slidably sleeved with an arc sliding cover (514), one side of the middle part of the arc sliding cover (514) is fixedly connected with a driving side handle (515), the middle part of the bottom surface of the arc sliding cover (514) is embedded with a limiting circular plate (516), one side of the middle part of the limiting circular plate (516) is movably inserted with a connecting arc plate (517), the bottom end of the connecting arc plate (517) is fixedly connected with a mounting arc clamp seat (518), the outside of the middle part of the mounting arc clamp seat (518) is equidistantly and evenly clamped with limiting blocks (519), and an ultrasonic probe (520) is clamped inside the mounting arc clamp seat (518); At the position corresponding to the inside of the arc-shaped sliding cover (514) at the top of the connecting arc plate (517), a limiting arc-shaped circular plate (521) is fixedly connected. At the position corresponding to the inside of the arc-shaped sliding cover (514) at the top of the limiting arc-shaped circular plate (521), an extrusion driving airbag (522) is filled. At the top of the inner cavity of the extrusion driving airbag (522), an inner wall supporting hard plate (523) is adhesively connected. At both ends of the bottom surface of the inner wall supporting hard plate (523), a supporting limiting spring (524) is fixedly connected. One end of the bottom of the extrusion driving airbag (522) is fixedly connected with an isolation limiting air valve (525) through a pipeline; The outer arc surface of the arc-shaped protection guide rail (512) is evenly provided with protection patterns. An arc-shaped guide groove is formed in the inner ring of the arc-shaped protection guide rail (512). Control buttons are arranged on the side of the driving side handle (515), and the signal output end of the control button is connected to the signal input end of the isolation limiting air valve (525). The ultrasonic probe (520) is connected to the ultrasonic detection host (2) through a cable.

5. A multi-demand fetal development smooth type ultrasonic recognition and detection system according to claim 4, characterized in that, One middle part of one end of the isolation limiting air valve (525) is fixedly connected with a gas guiding connecting hose (526). At the position corresponding to one side inside the lifting and adjusting sliding box (506) at the end of the gas guiding connecting hose (526), an expanding flat airbag (527) is fixedly connected. One side of the expanding flat airbag (527) is adhesively connected with a limiting extrusion sheet (528). One side of the sliding rectangular guide block (507) close to the limiting extrusion sheet (528) is adhesively connected with a damping limiting thin sheet (529); One corner at the top of the lifting and adjusting sliding box (506) is rotatably installed with a guiding angle wheel (530) through a mounting bracket. The middle part of the top surface of the arc-shaped sliding cover (514) is fixedly connected with a traction thin cable (531). At the position corresponding to one side of the lifting and adjusting square pipe (502) at the end of the traction thin cable (531), a weight guiding box (532) is fixedly connected. A weight small block (533) is tightly clamped inside the weight guiding box (532).

6. The fetal development smooth type ultrasonic recognition and detection system with multiple requirements according to claim 5, characterized in that, The extrusion driving airbag (522) and the expanding flat airbag (527) are communicated with each other. The positions of the limiting extrusion sheet (528) and the damping limiting thin sheet (529) correspond to each other. The side surface of the weight guiding box (532) is closely attached to the outer side of the lifting and adjusting square pipe (502).

7. A multi-demand fetal development smooth-type ultrasonic recognition and detection system according to claim 5, characterized in that, A humidity and heat auxiliary maintaining mechanism (6) is arranged on the top of the supporting moving base frame (1). The humidity and heat auxiliary maintaining mechanism (6) is used to optimize the ultrasonic detection process to ensure the normal progress of the entire ultrasonic detection process; The humidity and heat auxiliary maintaining mechanism (6) includes a comprehensive installation back box (601); The comprehensive installation back box (601) is fixedly installed at the position on the top surface of the supporting moving base frame (1) corresponding to the back of the ultrasonic detection host (2). A central liquid storage tank (602) is installed in the middle of the inner side of the comprehensive installation back box (601). Liquid storage side boxes (603) are clamped at the positions on both sides of the central liquid storage tank (602) inside the comprehensive installation back box (601). Drainage bottom valves (604) are fixedly connected to the bottom sides of the central liquid storage tank (602) and the liquid storage side boxes (603) through pipelines; Inside the central liquid storage tank (602) and the liquid storage side box (603), a suction catheter (605) is fixedly installed. At the bottom of the end of the suction catheter (605), a suction small pump (606) is fixedly connected. At the position corresponding to the top of the central liquid storage tank (602) on the outer sides of multiple suction catheters (605), a sealing small valve (607) is fixedly connected. At the top of multiple sealing small valves (607), a connecting liquid guiding valve (608) is fixedly connected together. In the middle of the top of the connecting liquid guiding valve (608), a transportation hose (609) is fixedly connected.

8. A multi-demand fetal development smooth type ultrasonic recognition and detection system according to claim 7, characterized in that, At the position corresponding to one side of the arc-shaped protective guide rail (512) at the end of the transportation hose (609), a spray arc-shaped box (610) is fixedly connected. On the inner arc surface of the spray arc-shaped box (610), adjusting bellows (611) are fixedly installed at equal intervals and uniformly. At the end of the adjusting bellows (611), an inclined atomizing nozzle (612) is fixedly connected. A connecting arc-shaped seat (613) is clamped outside the spray arc-shaped box (610). Arc-shaped auxiliary heating fins (614) are clamped on both sides inside the connecting arc-shaped seat (613). On one side of the connecting arc-shaped seat (613), a connecting arc-shaped plate (615) is fixedly connected. At the bottom ends of both sides of the connecting arc-shaped plate (615), isolation connecting angle blocks (616) are fixedly connected. The central liquid storage tank (602) and the liquid storage side box (603) can hold different solutions according to requirements. Multiple suction small pumps (606) and arc-shaped auxiliary heating fins (614) are all powered by an external power supply. There is a gap between the side surface of the connecting arc-shaped plate (615) and the side surface of the arc-shaped protective guide rail (512). The isolation connecting angle block (616) is fixedly connected to the arc-shaped protective guide rail (512) through a connecting bolt.

9. A multi-demand fetal development smooth type ultrasonic recognition and detection system according to claim 2, characterized in that, The ultrasonic detection host (2) includes an ultrasonic image acquisition module and an intelligent analysis module; The ultrasonic image acquisition module uses a high-precision ultrasonic probe to collect the image data of the fetus in real time by the system; The intelligent analysis module automatically analyzes and processes the image data obtained from the image acquisition module by combining artificial intelligence algorithms.

10. The fetal development smooth-type ultrasound recognition and detection system with multiple requirements according to claim 9, characterized in that, In the images collected by the ultrasonic image acquisition module, the intensity and clarity of the signals are interfered by noise. The ultrasonic image acquisition module improves the quality of the images through digital filtering and enhancement algorithm techniques. The intelligent analysis module enhances the image details through deep learning algorithms, improves the image quality in low-contrast or blurred images, and simultaneously performs three-dimensional reconstruction to convert the two-dimensional image data into a three-dimensional view.

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