Disposable electronic ureter pelvis endoscope multi-cavity catheter
By incorporating a temperature and pressure suture core and a temperature and pressure sensor into the multi-lumen catheter of the ureteropelvic endoscope, the problems of the inability to monitor intrarenal pelvic pressure and the lack of temperature measurement function in the existing technology are solved, realizing accurate monitoring of intrarenal pelvic pressure and temperature, and ensuring surgical safety and efficiency.
Patent Information
- Application Number
- CN202422830693.9
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-11-20
- Publication Date
- 2025-12-12
- Estimated Expiration
- 2034-11-20
AI Technical Summary
The existing electronic ureteropelvic endoscope multilumen catheter cannot accurately reflect the pressure inside the renal pelvis and lacks temperature measurement function, which makes it impossible to effectively guarantee the safety of the surgery.
A disposable electronic ureteropelvic endoscope multi-lumen catheter was designed, which incorporates a temperature and pressure core, a camera core, an illumination core, and temperature and pressure sensors. Combined with a suction channel and a water inlet channel, it enables real-time monitoring of pressure and temperature within the renal pelvis and transmits data to an external monitoring instrument via wires.
It enables accurate monitoring of pressure and temperature within the renal pelvis, ensuring surgical safety, avoiding medical accidents caused by excessively high or low pressure and temperature, and improving the safety and efficiency of the surgery.
Smart Images

Figure CN223653799U_ABST
Abstract
Description
TECHNICAL FIELD
[0001] The utility model relates to medical equipment technical field, especially in one -off electronic ureteral renal pelvis endoscope multi -chamber catheter. BACKGROUND
[0002] The existing ureteral nephroscope is integrally arranged, wherein a curved pipe is arranged in a hard sheath, the curved pipe is connected with a stretch steel wire, the curved pipe bending direction is controlled through the stretch steel wire, then an electronic mirror is inserted into the curved pipe to break the stone through laser, after holmium laser or thulium laser breaks the stone, the stone is taken out through a stone basket under the observation of the electronic mirror, after the stone is taken out, the ureteral nephroscope is pulled out, then is inserted again, the stone in another direction is taken out, the ureteral nephroscope is pulled out again, the operation is repeated until the stone is cleaned, when holmium laser or thulium laser is used to crush the stone in the ureter and renal pelvis, the temperature and pressure must be monitored to guarantee the safety of the operation process.
[0003] The pressure measured by the existing electronic ureteral renal pelvis endoscope multi -chamber catheter cannot truly reflect the pressure in the renal pelvis, and the significance of providing protection for the safety of operation is little, and the temperature measuring function is not provided, so that the operation cannot be smoothly and perfectly completed, therefore, it is necessary to provide one -off electronic ureteral renal pelvis endoscope multi -chamber catheter to solve the above -mentioned problems. SUMMARY
[0004] The utility model wants to solve the problem, aiming at the shortcoming in the prior art, provide a kind of one -off electronic ureteral renal pelvis endoscope multi -chamber catheter, to solve the above-mentioned problem that the pressure measured by the existing electronic ureteral renal pelvis endoscope multi -chamber catheter cannot truly reflect the pressure in the renal pelvis, and the significance of providing protection for the safety of operation is little, and the temperature measuring function is not provided, so that the operation cannot be smoothly and perfectly completed.
[0005] In order to solve the above problems, the utility model adopts the scheme as follows: disposable electronic ureteral nephropyeloscopy multi -chamber catheter, including operation handle operation handle, the end of operation handle operation handle is connected with the hard sheath pipe through the hose handle, the distal end of hard sheath pipe is connected with the curved pipe, the distal end of curved pipe is connected with the end, the inside of operation handle, hose handle, hard sheath pipe and curved pipe are connected with temperature and pressure core, camera core, illumination core, the inside of end is provided with temperature and pressure interface, camera interface and light source interface respectively and temperature and pressure core, camera core, illumination core are connected, temperature and pressure sensor, imaging module and LED light source are connected on temperature and pressure interface, camera interface and light source interface respectively, the end of end is provided with the section, the section inside is provided with suction port, suction port is connected with the suction passage of being connected in the inside of operation handle, hose handle, hard sheath pipe and curved pipe, and this suction passage is equipped with water absorption and instrument channel simultaneously, the end of end is also provided with water inlet, water inlet is connected with the mechanical water inlet passage of being connected in the inside of operation handle, hose handle, hard sheath pipe and curved pipe, the side of end is provided with monitoring groove, temperature and pressure sensor is located in the inside of monitoring groove.
[0006] Further, the hard sheath pipe is a metal snake pipe structure.
[0007] Further, the end of the operation handle is provided with an adjusting disc, the side of the adjusting disc is provided with a scale table, an adjusting rod is rotatably arranged on the adjusting disc, the adjusting rod is connected with the stretchable steel wire located in the inside of the operation handle, the hose handle and the hard sheath pipe, and the curved pipe, the turning diameter of the curved pipe is 8-12 mm.
[0008] Further, the outer diameter of the curved pipe is 12 Fr-15 Fr (±0.5).
[0009] Further, the suction port is in a circular structure, and the maximum diameter thereof is 1.8 Fr-3.0 Fr (±0.5).
[0010] Further, the end of the adjusting disc is provided with a collecting pipe, the suction passage and the water inlet passage are located in the inside of the collecting pipe, and a three-way valve for controlling the suction passage and the water inlet passage is arranged on the collecting pipe.
[0011] Further, the top of the adjusting disc is provided with a second wiring terminal, the camera core and the illumination core are located in the inside of the second wiring terminal, the second wiring terminal is connected with the external control instrument through the first wire, the operation handle is provided with a first wiring terminal, the temperature and pressure core is located in the inside of the first wiring terminal, and the first wiring terminal is connected with the external monitoring instrument through the second wire.
[0012] The technical effects of the utility model are as follows: the pressure and temperature sensor of the utility model can reach the nearest monitoring distance in the renal pelvis, thereby accurately monitoring the pressure and temperature inside the renal pelvis, and through the temperature and pressure wire core and the second wire, the monitoring data is transmitted to the external monitoring instrument, so that the external monitoring instrument can monitor the pressure and temperature inside the renal pelvis, and the operation cannot be successfully and perfectly completed, the problem that the pressure measured by the existing electronic ureteral renal pelvis endoscope multi-lumen catheter cannot truly reflect the pressure inside the renal pelvis, and the temperature measurement function is not provided, so that the operation cannot be successfully and perfectly completed.
[0013] Through the three-way valve, the suction passage and the water inlet passage are controlled, and then the water circulates in the suction passage, the water inlet passage and the renal pelvis, thereby keeping the clarity of the environment in the renal pelvis, facilitating clear imaging of the imaging module, and realizing the integrated setting of perfusion of the disposable electronic ureteral renal pelvis endoscope multi-lumen catheter.
[0014] The utility model is suitable for most human body structures, and can reduce the surgical pain of patients, and is suitable for promotion. BRIEF DESCRIPTION OF DRAWINGS
[0015] Figure 1 It is a front view structure schematic diagram of the utility model one-time electronic ureteral renal pelvis endoscope multi-lumen catheter.
[0016] Figure 2 It is a front view structure schematic diagram of the utility model one-time electronic ureteral renal pelvis endoscope multi-lumen catheter.
[0017] Figure 3 It is a front view structure schematic diagram of the utility model one-time electronic ureteral renal pelvis endoscope multi-lumen catheter.
[0018] Figure 4 It is a front view structure schematic diagram of the utility model one-time electronic ureteral renal pelvis endoscope multi-lumen catheter.
[0019] In the figure: 1, operating handle; 2, hose handle; 3, hard sheath tube; 4, curved pipe; 5, end; 6, terminal one; 7, adjusting disc; 8, scale table; 9, adjusting rod; 10, terminal two; 11, collecting pipe; 12, three-way valve; 13, LED light source; 14, imaging module; 15, suction port; 16, water inlet; 17, monitoring groove; 18, temperature and pressure sensor. DETAILED DESCRIPTION
[0020] The utility model will be further described in detail in combination with the drawings.
[0021] Embodiment: as Figures 1-4The shown disposable electronic ureteral nephroscopic multi-lumen catheter comprises an operating handle operating handle 1, the end of the operating handle operating handle 1 is connected with a hard sheath tube 3 through a hose handle 2, the end of the hard sheath tube 3 away from the hose handle 2 is connected with a curved tube 4, the end of the curved tube 4 away from the hard sheath tube 3 is connected with a tip 5, the inside of the operating handle 1, the hose handle 2, the hard sheath tube 3 and the curved tube 4 is connected with a temperature and pressure wire core, a camera wire core and an illumination wire core, the inside of the tip 5 is provided with a temperature and pressure measuring interface, a camera interface and a lamp source interface connected with the temperature and pressure wire core, the camera wire core and the illumination wire core respectively, the temperature and pressure sensor 18, the imaging module 14 and the LED lamp source 13 are connected with the temperature and pressure measuring interface, the camera interface and the lamp source interface respectively, the end of the tip 5 is provided with a cutting surface, the cutting surface is provided with an suction port 15, the suction port 15 is connected with a suction channel connected in the inside of the operating handle 1, the hose handle 2, the hard sheath tube 3 and the curved tube 4, the suction channel is provided with a water inlet 16, the suction channel is connected with a mechanical water inlet channel connected in the inside of the operating handle 1, the hose handle 2, the hard sheath tube 3 and the curved tube 4.
[0022] The end of the adjusting disc 7 is provided with a collecting pipe 11, the suction channel and the water inlet channel are located in the inside of the collecting pipe 11, and the three-way valve 12 for controlling the suction channel and the water inlet channel is arranged on the collecting pipe 11, the top of the adjusting disc 7 is provided with a wiring end two 10, the camera wire core and the illumination wire core are located in the inside of the wiring end two 10, the wiring end two 10 is connected with the external control instrument through the first lead wire, the operating handle 1 is provided with a wiring end one 6, the temperature and pressure wire core is located in the inside of the wiring end one 6, the wiring end one 6 is connected with the external monitoring instrument through the second lead wire.
[0023] The end of the operating handle 1 is provided with the adjusting disc 7, the side of the adjusting disc 7 is provided with a scale 8, the adjusting disc 7 is rotatably provided with an adjusting rod 9, the adjusting rod 9 is connected with the curved tube 4 through the tensile steel wire located in the inside of the operating handle 1, the hose handle 2 and the hard sheath tube 3.
[0024] When using the disposable electronic ureteral nephroscopic multi-lumen catheter, the imaging module 14 and the LED lamp source 13 are turned on through the external control instrument, the curved tube 4 and the tip 5 are stretched into the renal pelvis, at this time, the adjusting rod 9 is rotated, the bending direction of the curved tube 4 is controlled through the tensile steel wire, the bending direction and the bending degree of the curved tube 4 are adjusted through the scale 8, so as to facilitate the imaging module 14 on the tip 5 to observe the environment in the renal pelvis without dead angle, and then the position of the stone is quickly found.
[0025] After the location of the stone is found, the stone is crushed by holmium laser or thulium laser, and then the crushed stone is taken out by a stone basket under the observation of the imaging module 14. After the stone is taken out, the ureteral nephroscope is pulled out and then inserted again to take out another stone. The operation is repeated until the stones are completely removed.
[0026] In order to avoid the influence of the turbidity of the environment in the renal pelvis on the operation of the imaging module 14, the suction channel and the water inlet channel are controlled by the three-way valve 12, so that the water circulates in the suction channel, the water inlet channel and the renal pelvis, thereby maintaining the clarity of the environment in the renal pelvis, and facilitating clear imaging of the imaging module 14.
[0027] Since the monitoring groove 17 is formed on the side of the end 5, and the temperature and pressure sensor 18 is located in the monitoring groove 17, the temperature and pressure sensor 18 can achieve the closest monitoring distance in the renal pelvis, thereby accurately monitoring the pressure and temperature in the renal pelvis, and transmitting the monitoring data to the external monitoring instrument through the temperature and pressure wire core and the second wire, so that the external monitoring instrument can monitor the pressure and temperature in the renal pelvis, and the operation can be completed smoothly, perfectly and safely. The problem that the pressure measured by the existing electronic ureteral nephroscopy multi-lumen catheter cannot truly reflect the pressure in the renal pelvis, and the surgery cannot be completed smoothly, perfectly and safely is solved.
[0028] Specifically, if the pressure monitored by the temperature and pressure sensor 18 is too large, the external monitoring instrument alarms to prompt medical staff to absorb the liquid in the renal pelvis through the suction port 15 and the suction channel to reduce the pressure, and if the pressure is too small, the liquid in the renal pelvis is supplemented through the water inlet 16 and the water inlet channel to increase the pressure. Thus, the present one-time electronic ureteral nephroscopy multi-lumen catheter realizes integrated irrigation.
[0029] When the temperature in the renal pelvis is too high, the holmium laser or thulium laser crushing operation is stopped, thereby protecting the patient's organs from being damaged and avoiding medical accidents.
[0030] The hard sheath tube 3 is a metal snake tube structure, which has the effect of combining hardness and softness.
[0031] The turning diameter of the curved tube 4 is 10 mm, the outer diameter of the curved tube 4 is 15 Fr (±0.5), the suction port 15 is in a circular structure, and the maximum diameter thereof is 3.0 Fr (±0.5). Such a structure conforms to the structure of most human bodies, thereby reducing the pain of the patient during the operation.
Claims
1. A disposable electronic ureteropelvic endoscope multilumen catheter, comprising an operating handle and operating grip (1), characterized in that: The end of the operating handle (1) is connected to a rigid sheath (3) via a flexible handle (2). A curved tube (4) is connected to the end of the rigid sheath (3) away from the flexible handle (2). An end (5) is connected to the end of the curved tube (4) away from the rigid sheath (3). Temperature and pressure cores, camera cores, and lighting cores are connected inside the operating handle (1), flexible handle (2), rigid sheath (3), and curved tube (4). The end (5) is provided with a temperature and pressure measuring interface, a camera interface, and a light source interface that are respectively connected to the temperature and pressure measuring interface, the camera interface, and the light source interface. A temperature and pressure sensor (18) and an imaging module (14) are respectively connected to the temperature and pressure measuring interface, the camera interface, and the light source interface. The end of the end (5) is provided with a cut surface, and a suction port (15) is provided inside the cut surface. The suction port (15) is connected to the suction channel inside the operating handle (1), the hose handle (2), the hard sheath (3) and the curved tube (4). The suction channel also serves as a water suction and instrument channel. The end of the end (5) is also provided with a water inlet (16). The water inlet (16) is connected to the mechanical water inlet channel inside the operating handle (1), the hose handle (2), the hard sheath (3) and the curved tube (4). A monitoring groove (17) is provided on the side of the end (5). The temperature and pressure sensor (18) is located inside the monitoring groove (17).
2. The disposable electronic ureteropelvic endoscope multi-lumen catheter according to claim 1, characterized in that: The rigid sheath (3) has a metal serpentine structure.
3. The disposable electronic ureteropelvic endoscope multi-lumen catheter according to claim 1, characterized in that: An adjustment disc (7) is provided at the end of the operating handle (1), and a scale (8) is provided on the side of the adjustment disc (7). An adjustment rod (9) is rotatably provided on the adjustment disc (7). The adjustment rod (9) is connected to a tension steel wire and a bending tube (4) located inside the operating handle (1), the flexible hose handle (2) and the hard sheath tube (3). The bending diameter of the bending tube (4) is 8-12mm.
4. The disposable electronic ureteropelvic endoscope multi-lumen catheter according to claim 3, characterized in that: The outer diameter of the bent tube (4) is 12Fr-15Fr (±0.5).
5. The disposable electronic ureteropelvic endoscope multi-lumen catheter according to claim 1, characterized in that: The suction port (15) has a circular structure and its maximum diameter is 1.8Fr-3.0Fr (±0.5).
6. The disposable electronic ureteropelvic endoscope multi-lumen catheter according to claim 3, characterized in that: The end of the regulating plate (7) is provided with a manifold (11), and the suction channel and the water inlet channel are both located inside the manifold (11). A three-way valve (12) for controlling the suction channel and the water inlet channel is provided on the manifold (11).
7. The disposable electronic ureteropelvic endoscope multi-lumen catheter according to claim 6, characterized in that: The top of the adjustment disc (7) is provided with a second terminal (10), the camera wire core and the lighting wire core are both located inside the second terminal (10), the second terminal (10) is connected to an external control instrument through a first wire, the operating handle (1) is provided with a first terminal (6), the temperature and pressure wire core is located inside the first terminal (6), the first terminal (6) is connected to an external monitoring instrument through a second wire.