4 results about "Spinal tumor" patented technology

The utility model discloses a kind of spinal tumor puncture devices, belong to medical instrument technical field, the spinal tumor puncture device includes dilator, ring saw, divider and first push rod, wherein: ring saw includes ring saw main body and the first handle located above ring saw main body, first passageway is equipped on ring saw vertically through, the lower end of ring saw main body is equipped with sawtooth;Divider includes the divider main body that can be inserted into first passageway and the second handle located above divider main body, second passageway is equipped on divider vertically through, the lower side of divider main body is equipped with slot, the lower side of divider main body is equipped with the first blade edge of vertically extending in the side edge of slot close to;First push rod includes the first push rod main body that can be inserted into second passageway and the third handle located above first push rod main body.The utility model is convenient for sampling to hardened bone and non-hardened bone, sampling is sufficient, and it is easy to puncture, amount of bleeding is less, and tissue damage is small.

This utility model discloses a bipolar radiofrequency electrode for bone tumor surgery, which includes a cable assembly, a handle, a scalpel, and a scalpel head connected in sequence. The scalpel head includes a suction tube and an outer steel tube that is spaced and sleeved on the suction tube, with a water outlet channel formed between the suction tube and the outer steel tube. The scalpel head includes an insulating head fixed to the distal end of the outer steel tube. The insulating head is provided with a first strip electrode and a second strip electrode arranged side by side. The insulating head located at the first strip electrode and the second strip electrode has several suction holes, which are connected to the suction tube. Several water outlet holes connected to the water outlet channel are provided on both sides of the distal end of the outer steel tube. This solution uses radiofrequency electrodes to irrigate the incision after the resection of benign spinal tumors, which can accurately stop bleeding at soft tissue bleeding points, effectively reducing the amount of bleeding. Furthermore, by utilizing the circulating supply of physiological saline, the first strip electrode and the second strip electrode are effectively wrapped by physiological saline, thereby ensuring the plasma excitation efficiency.

The invention discloses a radiotherapy scheme decision-making method and system based on a tumor classification labeling database. The method comprises the following steps: collecting historical spinal tumor radiotherapy data of a patient; labeling the historical spinal tumor radiotherapy data to obtain a classification labeling database; historical text data, historical medical image data and historical multi-source time sequence data of multiple systems in a hospital are collected, and multi-modal fusion data are obtained; mapping the multi-modal fusion data and the classification annotation database to obtain historical diagnosis and treatment data; collecting current case data; and matching the current case data with the historical diagnosis and treatment data to obtain a radiotherapy scheme decision result. The scheme of the invention effectively solves the problems of insufficient utilization of existing spinal tumor radiotherapy data and lack of data support in decision making.

This invention provides a 3D-printed, height-adjustable integrated reconstruction prosthesis for spinal tumors, belonging to the field of orthopedic medical device technology. It includes a support frame with two first prostheses symmetrically fixedly connected to its top and bottom. Each first prosthesis has a hollow internal structure. An adjusting ring is rotatably connected to the inner wall of the support frame, and an adjusting threaded rod is fixedly connected to the inner wall of the adjusting ring. The adjusting threaded rod is rotatably connected to the interior of the first prosthesis. A second prosthesis is threadedly connected to the outer wall of the adjusting threaded rod, and the second prosthesis is slidably connected to the inner wall of the first prosthesis. The support frame, first prosthesis, and second prosthesis are formed by 3D printing. The prosthesis as a whole is a porous titanium alloy structure with a porosity of 60%–80% and a pore size of 300μm–800μm. This invention has the advantages of strong adaptability, high surgical efficiency, structural stability, few complications, good biocompatibility, high safety, individualized customization, and strong clinical adaptability.