4 results about "Burn scars" patented technology

The present application relates to the technical field of rehabilitation intervention method, specifically to a burn scar personalized rehabilitation intervention method based on edge computing, comprising the following steps: obtaining skin temperature and tendon compression data of traction path, matching time to identify traction asynchronous section, analyzing release rhythm lag and marking lag path, identifying interference section, reconstructing alternating decreasing release rhythm, pairing scar recovery and rehabilitation stage label, and obtaining individualized traction intervention structure content.In the present application, by synchronously comparing skin temperature and tendon compression changes, identifying rhythm response time difference positioning abnormal section, introducing path level rhythm lag analysis and contralateral interference discrimination, making traction rhythm adjustment based on multi-source physiological behavior correlation, reconstructing the path rhythm with conflict through nonlinear decreasing release, reducing interference risk, pairing the reconstructed rhythm with scar recovery status and rehabilitation stage, making traction control logic dynamically adapt to individual recovery changes, and improving intervention process stability and pertinence.

The utility model relates to the technical field of auxiliary treatment tools, and particularly discloses an elastic glove for preventing scar hyperplasia after burn, which comprises a glove main body, the glove main body comprises a palm part and a fingerstall part, and one end of the fingerstall part is provided with the palm part and a tension reducing mechanism; the tension reducing mechanism comprises a stretching notch formed in the palm part and a traction strip arranged in the stretching notch, and one end of the traction strip is connected with a traction piece; according to the device, the glove body can be longitudinally separated by arranging the separating zipper, at the moment, a patient can stretch the hand into the glove, the double-sided adhesive tape is bonded to the two ends of a wound part respectively, and after the glove body is worn, the two sets of traction strips exposed out of the palm part are pulled in the opposite outer side directions respectively; at the moment, the double-sided adhesive tape at the other end of the traction strip can be pulled inwards at the same time, so that the wound part can be extruded, and an effective tension reducing effect can be provided for the wound.

The invention relates to the field of medical treatment, and provides a burn surface scar bandaging auxiliary device based on pressure control, which comprises a base, two supporting and fixing assemblies are slidably connected to the top wall of the base, an inflatable airbag part mechanism is connected to the supporting and fixing assemblies, and an electric sliding frame is further slidably connected to the top wall of the base. The top wall of the base is fixedly connected with a bearing seat and a recycling box, the bearing seat is connected with a sprayer storage mechanism, the electric sliding frame is connected with an electric sliding block in a sliding mode, the electric sliding block is provided with a sprayer connecting mechanism, the top wall of the base is connected with two or more liquid storage boxes, and the liquid storage boxes are connected with sprayers through soft pipes. Through a modular structure and automatic control, precise fixing, automatic spraying, multi-angle flushing and nozzle circulating replacement in the burn scar binding process are achieved, the treatment efficiency and nursing convenience are remarkably improved, and the workload of medical staff is reduced.

This invention discloses a rolling burn scar treatment device and its usage method. The invention relates to the field of burn scar treatment technology and includes a mounting housing. A handle housing is mounted on the outer wall of the mounting housing via mounting bolts. A constant pressure component is disposed inside the mounting housing, comprising two floating connecting rods. Guide grooves are provided on both sides of the interior of the mounting housing, and the two floating connecting rods are installed inside the guide grooves. A U-shaped fixing frame is mounted on the front end of each floating connecting rod via fixing bolts. A sterile microneedle roller is mounted on the end of the U-shaped fixing frame away from the floating connecting rods via detachable bolts. By setting up a constant pressure component and a fixed-gap medication application component, the treatment pressure, medication dosage, and scraping interval can be pre-calibrated for standardization, eliminating reliance on the operator's clinical experience, significantly reducing the operational threshold of the device, and ensuring treatment consistency among different operators.