5results about How to "Improve stone crushing efficiency" patented technology

The utility model discloses a kind of laser device and laser therapeutic instrument, including first laser, second laser, beam synthesis subassembly and optical fiber;The first laser is used for emitting holmium laser towards the beam synthesis subassembly;The second laser is used for emitting thulium laser towards the beam synthesis subassembly;The beam synthesis subassembly is used to beam combining the holmium laser emitted by the first laser and the thulium laser emitted by the second laser into mixed light beam, and the mixed light beam is output to the optical fiber.Wherein, laser device can generate the mixed light beam of holmium laser and thulium laser when working to beam combining, and mixed light beam is guided to target position (such as the region needing treatment) by optical fiber, so that corresponding treatment can be carried out using mixed light beam, so that the treatment effect of holmium laser and thulium laser can be considered.

This invention provides a method for processing an ultrafine lithotripsy probe, comprising the following steps: S1. Inserting one end of the probe body into the mounting hole of the probe base to complete the initial assembly; S2. Placing the initially assembled ultrafine lithotripsy probe into a pressing device and fastening the probe body to the column of the pressing device, so that the probe base is located inside the heating coil of the heating machine; S3. Starting the heating machine to heat the probe base, and when the probe base reaches a predetermined state, using the pressing device to press the probe body into the mounting hole to a predetermined depth; S4. After pressing, removing the ultrafine lithotripsy probe and performing a cooling treatment. The ultrafine lithotripsy probe produced by this processing method has the advantages of tight assembly between the probe body and the probe base, low ultrasonic transmission loss, and the connection between the probe body and the probe base is not easily broken under high-frequency ultrasonic vibration, resulting in high lithotripsy efficiency.

This invention discloses a lithotripsy system combining optical and inertial motion capture, belonging to the field of stone fragmentation technology. It incorporates an ultrasonic device and several optical motion capture devices within the diagnostic chamber. A computer establishes a spatial coordinate system based on information obtained from the optical motion capture devices. The ultrasonic device is equipped with both an inertial and optical motion capture system. The ultrasonic imaging device can detect the distance from the ultrasonic probe to the stone. Both the inertial and optical motion capture systems capture the position of the ultrasonic probe in space and feed the captured data back to the computer in real time. The computer then inputs the known distance from the ultrasonic probe to the stone and calculates the spatial position information of the stone, i.e., the stone's spatial coordinates.

The flexible ureteroscope comprises a handle, a knob a and a knob b are arranged on the surface of the handle, a sheathing canal is arranged at the end of the handle, a steering mechanism is arranged at the end of the sheathing canal, a guide wire is arranged on the surface of the steering mechanism, and the other end of the guide wire is correspondingly wound on the knob a and the knob b. The flexible ureteroscope lithotripsy device has the advantages that the rotary knob a and the rotary knob b are used for controlling the stretching condition of the guide wire to control the steering mechanism, so that the steering mechanism turns in multiple directions, the lithotripsy device at the end of the flexible ureteroscope is conveyed to a designated position for lithotripsy, lithotripsy efficiency is improved, and the risk of septicopyemia of a patient is reduced.

A negative pressure stone basket and an integrated endoscopic catheter are disclosed. The negative pressure stone basket has an outer opening and a connecting part fitted onto the area near the top of the endoscopic catheter head. Multiple water inlet channels are provided near the inner opening of the negative pressure stone basket, and the water inlet channels are distributed circumferentially around the inner opening of the negative pressure stone basket. Water can enter the water inlet channel through the outer opening of the water inlet channel due to the negative pressure of the inner cavity of the negative pressure stone basket, and then enter the inner cavity of the negative pressure stone basket through the inner opening of the water inlet channel. During laser lithotripsy, water enters through the gap between the sheath tube and the endoscopic catheter. The working channel of the endoscopic catheter is connected to negative pressure. The inner opening of the negative pressure stone basket is close to or close to the target stone. The optical fiber extends from the inner opening of the working channel of the endoscopic catheter and releases energy to break the stone by touching or being near the target stone. Water continuously enters the inner cavity of the negative pressure stone basket due to the negative pressure, and the stone powder and the heat energy generated by the laser are discharged to the outside of the body with the water flow through the working channel of the endoscopic catheter.