26 results about "Mini invasive surgery" patented technology

The invention relates to the technical field of biomedical engineering, and discloses a tumor minimally invasive surgery risk assessment model construction method and system, and the method comprises the steps: recognizing a potential failure mode of a tumor minimally invasive surgery through employing an intra-operative video image and operation process data; calculating a risk priority index of the potential failure mode in the tumor minimally invasive surgery so as to determine a high-risk failure mode of the tumor minimally invasive surgery; setting a grading risk management layer of the tumor minimally invasive surgery by using the risk score and the high-risk failure mode of the patient in the tumor minimally invasive surgery; a failure correlation analysis network of the patient in the tumor minimally invasive surgery is constructed, and a risk prompt unit of the tumor minimally invasive surgery is generated; and constructing a risk assessment model of the tumor minimally invasive surgery in combination with a risk prompt unit, a hierarchical risk management layer and a failure association analysis network. According to the method, the high-risk failure mode can be accurately positioned, and the accuracy and comprehensiveness of model risk assessment are improved.

Disclosed is a microinvasive surgery device comprising a body element; a plurality of tools; a tube component having a proximal portion and a distal portion, wherein the proximal portion of the tube component is connected to the body element; a magazine configured for receiving the plurality of tools; a tool activation mechanism, wherein the tool activation mechanism is configured for mounting one of the plurality of tools to the distal portion of the tube component; and an operating element. The magazine is located at the body element. The tool activation mechanism is configured for interchanging the tool mounted to the distal portion of the tube component. The operating element is an operating lever. The microinvasive surgery device is a handheld device. Further disclosed are different methods comprising using the microinvasive surgery device for microinvasive surgery and / or connecting the microinvasive surgery device to a generator configured for providing electric power for electric cauterization.

The utility model discloses a pair of ultramicro wound operating forceps with an adjustable force arm, which comprises a forceps head, a puncture component, a locking sleeve, a support rod and a handle which are structurally separated from each other, the forceps head and the front end of the puncture component can be separated and connected through threads, and the locking sleeve can be annularly sleeved on the puncture component and axially slide along the puncture component. The tail end of the puncture assembly can penetrate through the supporting rod to be connected with and separated from the handle, the front end of the supporting rod can be connected with and separated from the locking sleeve, and the tail end of the supporting rod can be connected with and separated from the handle. According to the scheme, a locking structure is moved forwards, the structure of an existing instrument is simplified, and rapid assembling of the instrument is facilitated; according to the scheme, the locking structure is improved, the locking sleeve is used for guiding, and jamming between the needle tube and the supporting rod is avoided; according to the structural design of the scheme, the problem that assembly cannot be achieved due to the fact that the puncture assembly is uneven in stress after puncture is completed can be solved.

Medical software tools platform utilizes a surgical display to provide access to specific medical software tools, such as medically-oriented applications or tools, that can assist those in the operating room, such as a surgeon or surgical team, with a surgery. In particular, an optical sensor located within an endoscopic camera may register subtle differences in color characteristics reflected from a tissue surface and in turn transmit the information to a medical image processing system. Moreover, the new tools are intended to help surgeons better determine the boundaries between healthy and diseased regions during surgical procedures. Various tools are intended to be used in procedures where indocyanine green (ICG) fluorescent dye is used. Intraoperative fluorescence imaging is commonly used during minimally invasive procedures to enable surgeons to visualize tissue perfusion and anatomical structures. The term perfusion refers to the passage of blood and tissue fluid through the capillary bed. Intraoperative fluorescence imaging can also be used to improve visualization of vessels and structures, which, in turn, may reduce the risk of complications during minimally invasive surgeries.

The utility model discloses a prevent titanium clamp from blocking endoscope channel transparent tube cap of filter disc of movable tongue board formula, belong to medical instrument technical field, it is in solving the current gastrointestinal endoscopy postoperative endoscope review in endoscope channel is blocked by titanium clamp, and endoscope transparent cap structure needs improvement's problem. It adopts endoscope channel transparent cap body to be the transparent tube cap body of convex pipe body, and the cooperation of the transparent tube cap body connection endoscope's inner tube cavity is equipped with endoscope fastening ring and pipe mouth portion and is provided with transparent cap inner core cover link and is equipped with endoscope tube cap filter disc and is combined and is connected to become the filter type endoscope transparent tube cap body of integral whole, the endoscope tube cap filter disc is movable tongue board formula endoscope filter disc, the filter type endoscope transparent tube cap body rear is equipped with endoscope head connecting pipe. Its whole structure novel practical, no block, be applicable to the endoscope of microtrauma operation of gastric mirror or enteroscope operation.

The invention discloses a child cardiothoracic surgery cardiac minimally invasive surgery postoperative rehabilitation training device, and relates to the technical field of postoperative rehabilitation training equipment.The child cardiothoracic surgery cardiac minimally invasive surgery postoperative rehabilitation training device comprises a rehabilitation training table, a gantry moving frame is fixedly connected to the surface of the top end of one side of the rehabilitation training table, and a sliding limiting adjusting groove is formed in the top end of one side of the gantry moving frame; a sliding limiting rail is fixedly mounted in one side of the sliding limiting adjusting groove, and a sliding adjusting disc is slidably connected to the surface of one side of the sliding limiting rail. The using position of the connecting arm can be adjusted by moving the sliding adjusting disc on the sliding limiting rail. The stretching training machine is used for achieving stretching training, a patient holds a stretching training handle by hand, a linkage transmission roller is driven to operate through a stretching steel wire, and therefore weight bearing training is conducted on a weight box. Different numbers of counterweight plates can be loaded in the counterweight box to adjust the overall weight, and the counterweight plates are fixedly connected with the bolts of the counterweight limiting mounting rods through the limiting bolt mounting holes.

An access device for accessing an intervertebral disc having an outer shield comprising an access shield with a larger diameter (˜16-30 mm) that reaches from the skin down to the facet line, with an inner shield having a second smaller diameter (˜5-12 mm) extending past the access shield and reaches down to the disc level. This combines the benefits of the direct visual microsurgical / mini open approaches and the percutaneous, “ultra-MIS” techniques.

A method and system provide intra-operative visualization in robotic-assisted and minimally invasive surgeries through augmented reality (AR) overlays using dithering techniques. The system integrates pre-operative and intra-operative imaging directly into the surgeon's field of view on a stereoscopic 3D screen without obstructing critical anatomical views. Traditional alpha blending methods for AR overlays are computationally intensive. The disclosed dithering approach alternately displays augmented and real pixels to create a semi-transparent effect, preserving the endoscopic view and ensuring patient safety. Transparency is dynamically adjustable using hand controllers, foot pedals, eye tracking, and voice commands. This innovation provides surgeons with critical subsurface anatomical information during procedures, reducing cognitive load and improving surgical outcomes by minimizing the risk of damaging critical structures. The system is compatible with existing surgical robotic platforms, offering an efficient and safe solution for integrating AR in surgical environments.

The invention provides a tissue cutting device comprising a handle, a first blade. and a second blade. The second blade is coupled to the handle. The second blade is rotatable relative to the first blade such that the second blade is configured to rotate between a first position and a second position. The second blade is in a same plane as the first blade when the second blade is in the first position. The second blade is rotated into a different plane from the first blade when the second blade is rotated from the first position toward the second position.

The invention provides a scoliosis minimally invasive surgery auxiliary system for recognizing vertebral body morphological changes based on AI, and relates to the technical field of medical instruments and artificial intelligence. The system comprises a multi-mode image input module for acquiring and preprocessing spine image data; the vertebral body segmentation and three-dimensional reconstruction module is used for automatically segmenting a vertebral body and reconstructing a three-dimensional surface model; the AI vertebral body micro-morphological change identification module is used for quantitatively analyzing the micro-morphological change of each vertebral body; the scoliosis comprehensive evaluation module is used for automatically measuring a Cobb angle, centrum rotation and trunk offset in combination with the tiny morphological change and the overall spine force line; the minimally invasive surgery planning and navigation module is used for automatically designing a minimally invasive surgery scheme according to the individualized centrum micro morphological characteristics, planning a filling part and material consumption and distribution, and providing intra-operative navigation support; the minimally invasive surgery scheme guides a doctor to fill, rest and correct the asymmetric part of the vertebral body by using a filling material under a minimally invasive condition. And on the basis of AI identification, minimally invasive open surgery is realized.

A probe part (100) includes abase member (110) defining a first bore (112). A first elongated elastic member (120) includes a near end (126) secured to the base member (110) and extends therefrom to a far end (128) and defines a channel (125) in communication with the first bore (112) and that runs lengthwise with the first elongated elastic member (120). A first tendon (130) has a first end and an opposite second end that is secured to the first elongated elastic member (120) adjacent to the far end (128). The first tendon (130) runs through the channel (125) adjacent the first side (122) and exits through the first bore (112) exiting outwardly therefrom. Applying tension to the first tendon (130) causes the first elongated elastic member (120) to bend in the direction of the first side (122).

This invention discloses a double-crosslinked hydrophobic fluid gelatin hemostatic material and its preparation method, belonging to the field of biomedical materials technology. The material is composed of type A gelatin, transglutaminase, glycerol, and deionized water. It undergoes biological crosslinking via transglutaminase and vacuum high-temperature physical crosslinking, combined with a porous structure design, to prepare a ready-to-use shear-thinning fluid gelatin. This invention employs a biological enzyme and physical double crosslinking system, avoiding the toxic residues of chemical crosslinking agents and ensuring high biosafety. The material is directly aseptically filled in a ready-to-use fluid form, requiring no preoperative preparation or dilution; it is ready to use immediately upon opening, significantly simplifying clinical procedures. Through the biological-physical double crosslinking network design, its mechanical strength and structural stability are greatly improved. It is heat-resistant, deformation-resistant, and does not disintegrate or collapse with long-term use. It can effectively adhere to irregular wound surfaces and is suitable for wound hemostasis and repair in minimally invasive surgeries such as neurosurgery and spinal surgery.

1. The name of the design product: electrode handle (microsurgery knife). 2. The use of the design product: for the handle of microsurgery knife head (electrode). 3. The design points of the design product: in the combination of shape and pattern. 4. The picture or photo that best indicates the design points: perspective view.

This application belongs to the technical field of medical devices and discloses a minimally invasive endoscopic graphic report generation system, which includes an image acquisition device and a report generation system. The report generation system includes a patient information access module, a key frame image screening module, and a report generation module. The image acquisition device and the report generation system are communicatively connected. The image acquisition device is used to collect surgical process images through a minimally invasive endoscope and send them to the report generation system. The patient information access module is used to obtain the basic patient information from the hospital's medical information system. The key frame image screening module is used to screen key frame images from the surgical process images according to the basic patient information. The report generation module is used to generate a surgical graphic report according to the basic patient information and the key frame images, so as to assist users in quickly generating graphic reports for minimally invasive surgeries, thereby improving the generation efficiency of graphic reports for minimally invasive surgeries.

The present application relates to the technical field of surgical video segmentation, and provides a liver minimally invasive surgery video segmentation method, system, computer device and storage medium, the method comprising: acquiring a liver minimally invasive surgery video to be processed and a corresponding video description text, and analyzing the liver minimally invasive surgery video to obtain a plurality of original video images; using a pre-trained segmentation model to process the original video images and the video description text to generate a segmentation mask; and adding the segmentation mask to the liver minimally invasive surgery video. The present application provides a liver minimally invasive surgery video segmentation method, system, computer device and storage medium, which guides the segmentation process based on the video description text, and fully integrates the text features of the video description text and the image features of the liver minimally invasive surgery video, so that the accuracy of the segmentation result is high.

The invention provides a tissue cutting device comprising a handle, a first blade, and a second blade. The second blade is coupled to the handle. The second blade is rotatable relative to the first blade such that the second blade is configured to rotate between a first position and a second position. The second blade is in a same plane as the first blade when the second blade is in the first position. The second blade is rotated into a different plane from the first blade when the second blade is rotated from the first position toward the second position.

A microinvasive surgery device includes a body element, a tube component, a plurality of tools each having an operative portion to contact a target and a proximal portion, a magazine having a plurality of chambers each configured to receive a tool, a tool interchange mechanism, and a power supply arrangement. The tool interchange mechanism activates a tool by advancing the tool through the tube component and mounting the tool to a distal portion of the tube component, and deactivates the tool by demounting the tool and retracting the tool through the tube component. The power supply arrangement provides electricity to a proximal portion of a tool when the tool is mounted. Each tool is configured either to transmit electricity through the proximal portion to the operative portion or to electrically isolate the proximal portion so that no electrical transmission to the operative portion is possible when the tool is mounted.

Methods of bioprinting a bio-ink construct on an internal tissue defect or a chondral defect during a minimally invasive surgery on an individual in need thereof are provided, comprising: visualizing the defect; positioning a bioprinter comprising a printhead within proximity of or in contact with the defect; and ejecting a bio-ink from the printhead onto the defect to form a bio-ink layer, thereby generating a bio-ink construct. Further provided are systems for bioprinting a bio-ink construct on an internal tissue defect during a minimally invasive surgery on an individual in need thereof, comprising a control system, an endoscope, and a bioprinter comprising a printhead.

The invention discloses a composite magnetic photo-thermal microsphere. The composite magnetic photo-thermal microsphere comprises a macromolecular polymeric material grafted with an amino group, a magnetic material and a photo-thermal preparation, the high-molecular polymeric material grafted with the amino group has positive electricity; the photo-thermal preparation has electronegativity, and the photo-thermal preparation is loaded on a macromolecular polymeric material grafted with amino groups through electrostatic adsorption. The composite magnetic photo-thermal microsphere provided by the invention has photo-thermal and magnetic control multifunctional modes, has a more stable three-dimensional network structure with higher charge content, remarkably improves the strong adsorption function on targeted drugs, markers and the like, can realize accurate targeted embolism, and has a good application prospect. The device can be used as an efficient interventional therapy machine for radiotherapy or minimally invasive surgery, and is applied to clinical intravascular treatment of tumors, arteriovenous malformation or local inflammation.

The present invention relates to a minimally invasive electronic device for implantation in a living body, aiming to detect signals within the body, stimulate the body, or release drugs through various methods. Through interaction between the internal and external environments of the living body, the invention is intended for use in various purposes such as diagnosis, treatment, and research.

1. The name of the design product: ear endoscope handle (microsurgery knife). 2. The use of the design product: for the handle of microsurgery knife head (ear endoscope). 3. The design points of the design product: the combination of shape and pattern. 4. The picture or photo that best indicates the design points: perspective view.

Medical software tools platform utilizes a surgical display to provide access to specific medical software tools, such as medically-oriented applications or tools, that can assist those in the operating room, such as a surgeon or surgical team, with a surgery. In particular, an optical sensor located within an endoscopic camera may register subtle differences in color characteristics reflected from a tissue surface and in turn transmit the information to a medical image processing system. Moreover, the new tools are intended to help surgeons better determine the boundaries between healthy and diseased regions during surgical procedures. Various tools are intended to be used in procedures where indocyanine green (ICG) fluorescent dye is used. Intraoperative fluorescence imaging is commonly used during minimally invasive procedures to enable surgeons to visualize tissue perfusion and anatomical structures. The term perfusion refers to the passage of blood and tissue fluid through the capillary bed. Intraoperative fluorescence imaging can also be used to improve visualization of vessels and structures, which, in turn, may reduce the risk of complications during minimally invasive surgeries.

The invention provides a tissue cutting device comprising a handle, a first blade, and a second blade. The second blade is coupled to the handle. The second blade is rotatable relative to the first blade such that the second blade is configured to rotate between a first position and a second position. The second blade is in a same plane as the first blade when the second blade is in the first position. The second blade is rotated into a different plane from the first blade when the second blade is rotated from the first position toward the second position.

The invention relates to the technical field of operation video segmentation, and provides a liver minimally invasive operation video segmentation method and system, computer equipment and a storage medium, and the method comprises the steps: obtaining a to-be-processed liver minimally invasive operation video and a corresponding video description text, analyzing the liver minimally invasive surgery video to obtain a plurality of original video images; processing the original video image and the video description text by using a pre-trained segmentation model to generate a segmentation mask; and adding the segmentation mask to the liver minimally invasive surgery video. According to the liver minimally invasive surgery video segmentation method and system, the computer equipment and the storage medium, the segmentation process is guided based on the video description text, the text features of the video description text and the image features of the liver minimally invasive surgery video are fully fused, and the accuracy of the segmentation result is high.

The application provides an injectable microparticulate acellular dermal matrix and a preparation method and application thereof, and belongs to the technical field of preparation of acellular dermal matrixes.The preparation method of the microparticulate acellular dermal matrix comprises the following steps: (1) taking a dermal layer, performing homogenization and defatting treatment, and then performing decellularization treatment; (2) freezing under the condition of liquid nitrogen at-196 DEG C for 1-2 minutes; (3) placing in a cold trap circulating medium, controlling the temperature to be below-50 DEG C, and performing ball milling under the temperature condition by using milling balls with different sizes; (4) after the ball milling is completed, screening the obtained product in step (3), and directly collecting the product in a sterile collection container by using a turbine airflow to form a low-pressure area and storing the product, so that the microparticulate acellular dermal matrix is obtained.The microparticulate acellular dermal matrix obtained by the method has good uniformity, high product quality and high stability, and has good injectability, and can be used for minimally invasive surgical treatment of primary premature ejaculation.

A controller (522) for live annotation of interventional imagery includes a memory (52220) that stores software instructions and a processor (52210) that executes the software instructions. When executed by the processor (52210), the software instructions cause the controller (522) to implement a process that includes receiving (S210) interventional imagery during an intraoperative intervention and automatically analyzing (S220) the interventional imagery for a detectable feature. The process further includes, when executed by the processor (52210) executing the software instructions, detecting (S230) the detectable feature and determining (S240) that an annotation is to be added to the interventional imagery for the detectable feature. The process further includes identifying (S250) a location in the interventional imagery for the annotation as an identified location and adding (S260) the annotation to the interventional imagery at the identified location to correspond to the detectable feature. During the intraoperative intervention, a video is output (S270) based on the interventional imagery and the annotation as a video output, the annotation including the annotation overlaid on the interventional imagery at the identified location.