Superconducting cryogenic non-stick bipolar forceps
By setting water delivery channels and wire channels inside the handle of the bipolar tweezers, combined with a water delivery support mechanism and an anti-stick coating on the surface of the tweezers, the problem of high-temperature adhesion of the tweezers is solved, achieving cooling and anti-sticking effects on the tweezers and improving operational safety.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Patents(China)
- Current Assignee / Owner
- BEIJING HONGHU GAO XIANG TECH
- Filing Date
- 2026-02-06
- Publication Date
- 2026-06-26
AI Technical Summary
Existing bipolar forceps devices, under the waveform and energy output by the high-frequency host, are prone to high-temperature adhesion between the forceps blades and human tissue.
A superconducting low-temperature non-stick bipolar tweezers was designed. A water delivery channel and a wire channel were set inside the handle arm. The hollow support arm of the water delivery support mechanism was connected to the water delivery channel. The water delivery equipment output water flow to cool the tweezers and coated the surface of the tweezers with an anti-stick coating.
This effectively prevents the tweezers from sticking to human tissue due to high temperatures, improving safety, preventing burns, and ensuring the safety and reliability of the operation.
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Figure CN121667833B_ABST
Abstract
Description
Technical Field
[0001] This invention belongs to the field of medical device technology, specifically relating to superconducting low-temperature non-stick bipolar forceps. Background Technology
[0002] Bipolar forceps are specialized instruments with two independent forceps arms working together as their core structure, integrating functions such as precise positioning, insulation protection, and external device compatibility. They are mainly used in the medical field for high-frequency electrocoagulation hemostasis and tissue processing.
[0003] Chinese Patent Application No. 202421853412.5 discloses a guideable bipolar forceps device, including a shell with a mounting block. Left and right forceps are symmetrically arranged on the mounting block. Guide posts and guide grooves are respectively arranged on the side walls of the left and right forceps close to each other. Due to the setting of guide posts and guide grooves, the bipolar forceps device has a guiding function, which can realize the accurate alignment of the tips of the left and right forceps, prevent skewing, and also effectively control the blood vessels from being crushed due to excessive force causing the forceps tips to close too tightly. It can also avoid damage to other parts during operation.
[0004] The above-mentioned existing technology has the following problems: the existing bipolar forceps device does not have a forceps cooling function, which causes the forceps to generate high temperature under the waveform and energy output by the high-frequency host, which makes it very easy for them to adhere to human tissue.
[0005] In view of this, a superconducting low-temperature non-stick bipolar tweezers was designed to solve the above problems. Summary of the Invention
[0006] To address the problems mentioned in the background section, this invention provides a superconducting low-temperature non-stick bipolar forceps, which avoids the problem of the forceps blades easily adhering to human tissue due to the high temperature generated by the waveform and energy output from the high-frequency host.
[0007] To achieve the above objectives, the present invention provides the following technical solution: a superconducting low-temperature non-stick bipolar tweezers, comprising a fixing mechanism, wherein a water delivery wire handle mechanism is mounted on the mounting side of the fixing mechanism, a water delivery support mechanism is mounted on the mounting side of the water delivery wire handle mechanism, the water delivery support mechanism is connected to the water delivery wire handle mechanism for water delivery, and a tweezers tip mechanism is mounted on the mounting side of the water delivery support mechanism, wherein the tweezers tip mechanism is connected to the water delivery wire handle mechanism for connecting wires.
[0008] Furthermore, the fixing mechanism includes a hollow fixing housing, and a baffle with a connection port is fixed to one side wall of the hollow fixing housing by screws.
[0009] Furthermore, the water delivery guide handle mechanism includes a guide arm disposed in the middle of the hollow fixed housing, two intermediate anti-scalding plates symmetrically disposed within the hollow fixed housing along the central axis of the guide arm, and two handle arms symmetrically disposed within the hollow fixed housing along the central axis of the guide arm. Two positioning valves are symmetrically fixed to the guide arm, and the positioning valves abut against the adjacent intermediate anti-scalding plates. The two intermediate anti-scalding plates are located inside the two handle arms and are welded and fixed to the adjacent handle arms. A water delivery channel is opened at the upper part of the handle arm, and a guide channel is opened at the lower part of the handle arm. The water delivery channel and the guide channel are connected to a baffle with a connection port. The water inlet of the water supply channel is fixedly connected to a water inlet valve. A wire with a connector is installed inside the wire channel. A wire outlet is opened on one side of the handle arm near the middle anti-scalding plate. One end of the wire outlet is connected to the wire channel, and the other end passes through the adjacent middle anti-scalding plate and is connected to the outside. A wire auxiliary arm is fixedly connected to the adjacent middle anti-scalding plate above the wire outlet. The end of the wire with the connector away from the connector goes out through the wire outlet and is connected to the wire arm through the wire auxiliary arm. A side anti-scalding plate is welded and fixedly connected to the other side of the handle arm away from the middle anti-scalding plate. A soft rubber sleeve is covered and fixedly connected to the exposed wall of the handle arm.
[0010] Furthermore, the guide arm, the intermediate heat shield, and the handle arm pass through the hollow fixed housing from the side away from the connecting port baffle and are fixed together with instant adhesive.
[0011] Furthermore, the middle heat-resistant plate and the side heat-resistant plate are made of stainless steel sheets that have been heat-treated and then cut by high-precision laser cutting equipment or high-precision wire cutting equipment.
[0012] Furthermore, the soft rubber sleeve is applied to the exposed outer wall of the handle arm by placing it in a glue injection mold.
[0013] Furthermore, the water supply support mechanism includes two hollow support arms welded and fixed to the two handle arms. The hollow cavity of the hollow support arm is connected to the water supply channel of the adjacent handle arm, and a silicone sleeve is fitted onto the outer wall of the hollow support arm.
[0014] Furthermore, the handle arm is made of stainless steel.
[0015] Furthermore, the tweezers tip mechanism includes two tweezers that are welded and fixed to two hollow support arms, and the two tweezers are connected to a wire connected to the wire arm.
[0016] Furthermore, the tweezers are made of stainless steel and have an anti-stick coating on their surface.
[0017] Compared with the prior art, the beneficial effects of the present invention are:
[0018] 1. The handle arm of the water delivery wire handle mechanism of the present invention is provided with a water delivery channel. The hollow support arm of the water delivery support mechanism is connected to the water delivery channel. Water is delivered through the water delivery channel and the hollow support arm to cool down the tweezers of the tweezers tip mechanism, so as to avoid the problem that the tweezers will generate high temperature under the waveform and energy output by the high frequency host and easily stick to human tissue.
[0019] 2. The water conveying wire handle mechanism of the present invention has a wire channel inside the handle arm, and a wire outlet communicating with the wire channel is provided on the side wall of the handle arm. At the same time, a wire auxiliary arm is provided on the side wall of the handle arm above the wire outlet. The provision of the wire arm can realize the orderly connection of the wire, avoid scattering, and improve safety.
[0020] 3. The handle arm of the water delivery wire handle mechanism of the present invention is provided with a side anti-scalding plate and a middle anti-scalding plate on the side, and a soft rubber sleeve is provided on the outer wall of the handle arm, which can play a protective role and prevent medical staff from being scalded.
[0021] 4. The hollow support arm of the water conveying support mechanism of the present invention is provided with a silicone sleeve on its outer wall to provide insulation and prevent burns to non-surgical areas when working at high frequency. Attached Figure Description
[0022] Figure 1 This is a three-dimensional representation of the invention;
[0023] Figure 2 This is a partial cross-sectional view of the present invention;
[0024] Figure 3 This is a partial cross-sectional view of the present invention;
[0025] Figure 4 This is a partial cross-sectional view of the present invention;
[0026] In the diagram: 1. Fixing mechanism; 101. Hollow fixing housing; 102. Baffle with connection port;
[0027] 2. Water delivery cable handle mechanism; 201. Water inlet valve; 202. Side anti-scalding plate; 203. Middle anti-scalding plate; 204. Cable arm; 205. Positioning valve; 206. Handle arm; 207. Cable channel; 208. Water delivery channel; 209. Soft rubber sleeve; 210. Cable auxiliary arm; 211. Cable outlet;
[0028] 3. Water conveyance support mechanism; 301. Hollow support arm; 302. Silicone sleeve;
[0029] 4. Tweezers tip mechanism; 401. Tweezers blade. Detailed Implementation
[0030] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.
[0031] This invention provides the following technical solution: a superconducting low-temperature non-stick bipolar tweezers, including a fixing mechanism 1, a water delivery wire handle mechanism 2 mounted on the mounting side of the fixing mechanism 1, a water delivery support mechanism 3 mounted on the mounting side of the water delivery wire handle mechanism 2, the water delivery support mechanism 3 communicating with the water delivery wire handle mechanism 2 for water delivery, and a tweezer tip mechanism 4 mounted on the mounting side of the water delivery support mechanism 3, the tweezer tip mechanism 4 connecting the water delivery wire handle mechanism 2 with a wire.
[0032] See appendix Figure 1 Before using the superconducting low-temperature non-stick bipolar tweezers, connect them to the high-frequency equipment via wires, and simultaneously connect them to the water supply equipment via the water supply wire handle mechanism 2.
[0033] When the superconducting low-temperature non-stick bipolar forceps are used, the power output is activated, and the waveform and energy output by the high-frequency device flow through the forceps tip mechanism 4 via the wires to achieve the surgical effect.
[0034] The water output from the water conveying equipment flows through the water conveying wire handle mechanism 2 and the water conveying support mechanism 3, and cools the tweezers tip mechanism 4 to prevent sticking.
[0035] Specifically, the fixing mechanism 1 includes a hollow fixing housing 101, and a baffle 102 with a connection port is fixed to one side wall of the hollow fixing housing 101 by screws.
[0036] See appendix Figure 1 The fixing mechanism 1 achieves the installation and fixing of the structure through the hollow fixing shell 101;
[0037] At the same time, it can be connected to high-frequency equipment and water supply equipment through the connection port with connection port baffle 102.
[0038] Specifically, the water delivery guide handle mechanism 2 includes a guide arm 204 disposed in the middle of the hollow fixed housing 101, two intermediate anti-scalding plates 203 disposed symmetrically along the central axis of the guide arm 204 disposed inside the hollow fixed housing 101, and two handle arms 206 disposed symmetrically along the central axis of the guide arm 204 disposed inside the hollow fixed housing 101. Two positioning valves 205 are symmetrically fixed to the guide arm 204, and the positioning valves 205 abut against the adjacent intermediate anti-scalding plates 203. The two intermediate anti-scalding plates 203 are located inside the two handle arms 206 and are welded and fixed to the adjacent handle arms 206. A water delivery channel 208 is opened in the upper part of the handle arm 206, and a guide channel 207 is opened in the lower part of the handle arm 206. The water delivery channel 208 and the guide channel 207 are directly opposite the baffle plate 1 with the connection port. 02 Connection port, water inlet valve 201 is fixedly connected to the water inlet end of water supply channel 208, wire with connector is installed inside wire channel 207, one side handle arm 206 has wire outlet 211 opened on the side wall near the middle anti-scalding plate 203, one end of wire outlet 211 is connected to wire channel 207, and the other end passes through the adjacent middle anti-scalding plate 203 to communicate with the outside, and a wire auxiliary arm 210 is fixedly connected to the adjacent middle anti-scalding plate 203 above the wire outlet 211, the end of the wire with connector away from the connector goes out through wire outlet 211 and is connected to wire arm 204 through wire auxiliary arm 210, and a side anti-scalding plate 202 is welded and fixedly connected to the side wall of the other side handle arm 206 away from the middle anti-scalding plate 203, and a soft rubber sleeve 209 is covered and fixedly connected to the exposed wall of handle arm 206.
[0039] See appendix Figure 1-3 The water delivery wire handle mechanism 2 is fixedly connected to the hollow fixed housing 101 through the wire arm 204, the intermediate anti-scalding plate 203 and the handle arm 206, thereby achieving a fixed connection with the fixed mechanism 1.
[0040] The wires with connectors are accommodated through two wire channels 207. The end of the wire with connectors near the connectors is connected to the high-frequency equipment through the connector port with the connector baffle 102. The end of the wire with connectors away from the connectors goes out through the wire outlet 211 and is connected to the wire arm 204 through the wire auxiliary arm 210, and is connected to the tweezers tip mechanism 4, so as to realize the connection between the high-frequency equipment and the tweezers tip mechanism 4.
[0041] Precise positioning is achieved through positioning valve 205;
[0042] The middle anti-scalding plate 203, the side anti-scalding plate 202 and the soft rubber sleeve 209 can play a protective role to prevent medical staff from being burned.
[0043] Water is conveyed by the water conveying equipment through two water conveying channels 208 and the connection between the two water conveying channels 208 and the water conveying support mechanism 3;
[0044] The water delivery speed of the water delivery channel 208 can be controlled by the water inlet valve 201.
[0045] Specifically, the guide arm 204, the intermediate anti-scalding plate 203, and the handle arm 206 pass through the hollow fixed housing 101 from the side away from the connecting port baffle 102 and are fixed together by instant glue.
[0046] See appendix Figure 2 This ensures the effective fixation of the guide arm 204, the intermediate anti-scalding plate 203, and the handle arm 206 to the hollow fixed housing 101.
[0047] Specifically, the middle heat shield 203 and the side heat shield 202 are made of stainless steel sheets that have been heat-treated and then cut by high-precision laser cutting equipment or high-precision wire cutting equipment.
[0048] See appendix Figure 2 This increases the hardness of the middle heat shield 203 and the side heat shield 202.
[0049] Specifically, the soft rubber sleeve 209 is placed in the injection mold to cover the exposed wall surface of the handle arm 206.
[0050] See appendix Figure 2 It can provide protection and prevent burns to medical staff.
[0051] Specifically, the water supply support mechanism 3 includes two hollow support arms 301 that are welded and fixed to the two handle arms 206. The hollow cavity of the hollow support arm 301 is connected to the water supply channel 208 adjacent to the handle arm 206, and a silicone sleeve 302 is fitted on the outer wall of the hollow support arm 301.
[0052] See appendix Figure 4 The water conveying support mechanism 3 is connected to the water conveying channels 208 of the two handle arms 206 through two hollow support arms 301 to realize the water conveying of the water conveying equipment;
[0053] The silicone sleeve 302 serves as insulation to prevent burns to non-surgical areas during high-frequency operation.
[0054] Specifically, the handle arm 206 is made of stainless steel.
[0055] Specifically, the tweezers tip mechanism 4 includes two tweezers 401 that are welded and fixed to two hollow support arms 301, and the two tweezers 401 are connected to wires connected to the wire arm 204.
[0056] See appendix Figure 1 When the power output is activated, the waveform and energy output by the high-frequency device flow through the forceps 401 via the wires to achieve the surgical effect.
[0057] Specifically, the tweezers 401 are made of stainless steel and have an anti-stick coating on their surface.
[0058] See appendix Figure 2 When in contact with human tissue, it can prevent tissue adhesion.
[0059] Working principle of the invention:
[0060] Before using the superconducting low-temperature non-stick bipolar tweezers, connect them to the high-frequency equipment by passing a wire through the connection port with the connection port baffle 102, and connect them to the water supply equipment by passing a water inlet valve 201 through the connection port with the connection port baffle 102.
[0061] When using the superconducting low-temperature non-stick bipolar forceps, open the water inlet valve 201 to the appropriate opening degree. When the high-frequency equipment power output is activated, the output waveform and energy flow through the two forceps 401 via the wires to achieve the surgical effect.
[0062] The middle anti-scalding plate 203, the side anti-scalding plate 202 and the soft rubber sleeve 209 can play a protective role to prevent medical staff from being burned.
[0063] The silicone sleeve 302 serves as insulation to prevent burns to non-surgical areas during high-frequency operation.
[0064] The water output from the water conveying equipment flows through two water conveying channels 208 and two hollow support arms 301, cooling the two tweezers 401 to prevent them from sticking together.
[0065] Although embodiments of the invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the invention, the scope of which is defined by the appended claims and their equivalents.
Claims
1. A superconducting low-temperature non-stick bipolar tweezers, characterized in that, It includes a fixing mechanism (1), on which a water delivery wire handle mechanism (2) is mounted, and on which a water delivery support mechanism (3) is mounted, the water delivery support mechanism (3) communicates with the water delivery wire handle mechanism (2) to deliver water, and on which a tweezers tip mechanism (4) is mounted, the tweezers tip mechanism (4) connects with the water delivery wire handle mechanism (2) to deliver a wire; The fixing mechanism (1) includes a hollow fixing shell (101), and a baffle (102) with a connection port is fixed to one side wall of the hollow fixing shell (101) by screws. The water delivery guide handle mechanism (2) includes a guide arm (204) disposed in the middle of the hollow fixed housing (101), two intermediate anti-scalding plates (203) disposed symmetrically along the central axis of the guide arm (204) disposed inside the hollow fixed housing (101), and two handle arms (206) disposed symmetrically along the central axis of the guide arm (204) disposed inside the hollow fixed housing (101). Two positioning valves (205) are symmetrically fixed to the guide arm (204), and the positioning valves (205) abut against the adjacent intermediate anti-scalding plates (203). The two intermediate anti-scalding plates (203) are located inside the two handle arms (206) and are welded and fixed to the adjacent handle arms (206). A water delivery channel (208) is opened at the upper part of the handle arm (206), and a guide channel (207) is opened at the lower part of the handle arm (206). The water delivery channel (208) and the guide channel (207) are directly opposite the baffle with connection port (102). The water inlet of the water supply channel (208) is fixedly connected to a water inlet valve (201). The wire channel (207) is provided with a wire with a connector inside. The handle arm (206) on one side is provided with a wire outlet (211) near the side wall of the middle anti-scalding plate (203). One end of the wire outlet (211) is connected to the wire channel (207), and the other end passes through the adjacent middle anti-scalding plate (203) and is connected to the outside. A wire auxiliary arm (210) is fixedly connected above the wire outlet (211) on the adjacent middle anti-scalding plate (203). The end of the wire with the connector away from the connector goes out through the wire outlet (211) and is connected to the wire arm (204) through the wire auxiliary arm (210). The handle arm (206) on the other side is welded and fixedly connected to a side anti-scalding plate (202) away from the side wall of the middle anti-scalding plate (203). The exposed wall of the handle arm (206) is covered and fixedly connected with a soft rubber sleeve (209).
2. The superconducting low-temperature non-stick bipolar tweezers according to claim 1, characterized in that: The guide arm (204), the intermediate heat shield (203), and the handle arm (206) pass through the hollow fixed housing (101) on the side away from the connecting port baffle (102) and are fixed together by instant glue.
3. The superconducting low-temperature non-stick bipolar tweezers according to claim 2, characterized in that: The middle heat shield (203) and the side heat shield (202) are made of stainless steel sheets that have been heat-treated and then cut by high-precision laser cutting equipment or high-precision wire cutting equipment.
4. The superconducting low-temperature non-stick bipolar tweezers according to claim 3, characterized in that: The soft rubber sleeve (209) is placed in the glue injection mold and wrapped around the exposed wall surface of the handle arm (206).
5. The superconducting low-temperature non-stick bipolar tweezers according to claim 4, characterized in that: The water supply support mechanism (3) includes two hollow support arms (301) welded and fixed to two handle arms (206). The hollow cavity of the hollow support arm (301) is connected to the water supply channel (208) of the adjacent handle arm (206). The outer wall of the hollow support arm (301) is fitted with a silicone sleeve (302).
6. The superconducting low-temperature non-stick bipolar tweezers according to claim 5, characterized in that: The handle arm (206) is made of stainless steel.
7. The superconducting low-temperature non-stick bipolar tweezers according to claim 6, characterized in that: The tweezers tip mechanism (4) includes two tweezers (401) welded and fixed to two hollow support arms (301), and the two tweezers (401) are connected to the wires connected to the wire arm (204).
8. The superconducting low-temperature non-stick bipolar tweezers according to claim 7, characterized in that: The tweezers (401) are made of stainless steel and have an anti-stick coating on their surface.
Citation Information
Patent Citations
CN222693516U
CN107440792A
CN208910477U