Cannula system special for cerebral hemorrhage robot navigation visualization minimally invasive surgery
By designing a closely integrated endoscope and suction tube channel, the problem of simultaneous visualization and suction during RAVMIA surgery was solved, thus improving the safety and efficiency of minimally invasive surgery for cerebral hemorrhage.
Patent Information
- Application Number
- CN202422803775.4
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-11-18
- Publication Date
- 2025-11-18
- Estimated Expiration
- 2034-11-18
AI Technical Summary
Due to limited operating space, the endoscope and suction tube can only be inserted alternately during current RAVMIA procedures, making it impossible to perform visualization and suction operations simultaneously.
A robotic-guided, visualized, minimally invasive surgical cannula system for cerebral hemorrhage was designed, including a contact-visual cannula, an electronic endoscope, a side-suction U-shaped tube, and a multi-channel design. This system enables close cooperation between the endoscope channel and the U-shaped tube channel, allowing simultaneous visualization and suction operations.
This improves the safety and efficiency of the surgery, ensures that the suction tube can only draw fluid from the visible area, reduces damage to normal brain tissue, and improves the cleanliness and visibility of the surgery.
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Figure CN223554974U_ABST
Abstract
Description
TECHNICAL FIELD
[0001] The utility model relates to medical equipment technical field especially, it relates to a cerebral hemorrhage robot navigation visualization minimally invasive operation special sleeve system. BACKGROUND
[0002] Cerebral hemorrhage is a common form of cerebral stroke, about 10%-15% of cerebral stroke. Because its high mortality and disability rate, has been a major threat to the health of the population. From the perspective of evidence-based medicine, the surgical treatment effect of cerebral hemorrhage is not completely clear at present. Stereotactic catheterization realizes accurate catheterization through millimeter level brain injury, but clinical trials have failed to confirm its efficacy. Hematoma is invisible, and the intraoperative hematoma removal efficiency is low, which may be one of the reasons for this result. In contrast, open endoscopic surgery can significantly improve the intraoperative hematoma removal efficiency. The latest published ENRICH clinical trial verified the efficacy of the surgery on superficial hematoma, but failed to prove its effectiveness on deep hematoma. In the process of reaching deep hematoma, sleeve operation may cause brain vice injury with a diameter of 1-3 centimeters and a depth of 6-7 centimeters, which may be one of the reasons affecting the efficacy of deep hematoma.
[0003] To break through the limitations of the above operation, the team proposed robot navigation visualization minimally invasive aspiration (Robot Assisted Visualized Minimally Invasive Aspiration, RAVMIA). The operation improves the stereotactic catheterization in the following two aspects: first, the robot is used instead of stereotactic navigation, aiming to strictly control the operation path along the long axis of the hematoma; second, the contact visual endoscope is used as an intraoperative monitoring means, aiming to improve the intraoperative hematoma removal rate. However, in the RAVMIA operation, due to the limited operation space, the endoscope and the suction tube can only be placed alternately, and cannot be "seen" and "sucked" at the same time. Therefore, through ingenious integration design, the contact visual endoscope and the suction tube are placed at the same time in the space of 5 millimeters, so that the doctor can "see" and "suck" at the same time, and provide space for flushing and electrocoagulation hemostasis. UTILITY MODEL CONTENT
[0004] Therefore, the utility model wants to solve the technical problem that in the existing RAVMIA operation, due to the limited operation space, the endoscope and the suction tube can only be placed alternately, and cannot be "seen" and "sucked" at the same time.
[0005] To solve the above technical problems, the utility model discloses a cerebral hemorrhage robot navigation visualization minimally invasive operation special sleeve system, which comprises:
[0006] The contact visual sleeve is formed with an endoscope channel, a U-shaped tube channel and a flushing channel.
[0007] One end of the endoscope channel is blind and transparentized;
[0008] The electronic endoscope is detachably placed in the endoscope channel for contact visual operation;
[0009] The side suction U-shaped tube is provided with a one-sided hole at one end thereof, and the one-sided hole is used for suction of hematoma, and the side suction U-shaped tube is detachably placed in the U-shaped tube channel.
[0010] Further, one end of the side suction U-shaped tube is blind, and the one-sided hole is formed in the recess on one side of the blind end of the side suction U-shaped tube.
[0011] Further, the length of the side suction U-shaped tube is greater than the length of the contact visual sleeve, and the one-sided hole is exposed outside the contact visual sleeve.
[0012] Further, the groove of the side suction U-shaped tube is in half-wrapping close contact with the outer edge of the endoscope channel, and the relative position relationship between the side suction U-shaped tube and the endoscope channel is unchanged and cannot be rotated respectively.
[0013] The side suction U-shaped tube is used for suction of hematoma visible to the contact visual endoscope.
[0014] Further, the brain hemorrhage robot navigation visual minimally invasive surgery special sleeve system comprises a general sleeve, a columnar bipolar electrocoagulation, and a soft connector;
[0015] The general sleeve is formed with an endoscope channel, a U-shaped tube channel, and a flushing channel; and the columnar bipolar electrocoagulation is detachably placed in the U-shaped channel of the general sleeve;
[0016] The soft connector is used for closed connection of the U-shaped channel outer port of the general sleeve, and the soft connector forms a hole for placement of the columnar bipolar electrocoagulation.
[0017] Further, the brain hemorrhage robot navigation visual minimally invasive surgery special sleeve system comprises a controllable negative pressure device;
[0018] One end of the side suction U-shaped tube is connected to the controllable negative pressure device, which is used for control or adjustment of the negative pressure in the side suction U-shaped tube.
[0019] Further, the flushing channel is a triangular channel, and the outer wall of the triangular channel close to the side of the contact visual sleeve has the same thickness as the outer wall of the endoscope channel and the U-shaped tube channel close to the side of the contact visual sleeve.
[0020] The display is connected to the electronic endoscope.
[0021] Further, the brain hemorrhage robot navigation visual minimally invasive surgery special sleeve system comprises an electrocoagulation U-shaped tube;
[0022] The end of the electrocoagulation U-shaped tube is open, and the electrocoagulation U-shaped tube is detachably placed in the U-shaped tube channel.
[0023] Further, the brain hemorrhage robot navigation visual minimally invasive surgery special cannula system comprises a flushing pressurizing device.
[0024] The flushing pressurizing device is provided with a triangular pipe joint, one end of the flushing pressurizing device is detachably inserted into the cannula flushing channel, and the other end is used for connecting a liquid infusion device for pressurized flushing.
[0025] Further, the brain hemorrhage robot navigation visual minimally invasive surgery special cannula system comprises a spraying U-shaped tube.
[0026] One end of the spraying U-shaped tube is a blind end, and a circular side hole is formed on one side of the blind end for spraying a medicament.
[0027] The brain hemorrhage robot navigation visual minimally invasive surgery special cannula system has the following beneficial effects:
[0028] The brain hemorrhage robot navigation visual minimally invasive surgery special cannula system comprises a contact visual cannula, which is formed with an endoscope channel, a U-shaped tube channel and a flushing channel. The endoscope channel is used for placing an electronic endoscope, and one end is designed as a blind end. The electronic endoscope works in the channel, and transmits images of a surgical site to a display in real time, so that a doctor can clearly observe the situation of the surgical area, including the position, size and surrounding tissue state of a hematoma. The U-shaped tube channel is tangent to the endoscope channel, and can accommodate U-shaped tubes with different functions, such as a side suction U-shaped tube, an electrocoagulation U-shaped tube and a spraying U-shaped tube, and can be switched or cooperatively work according to the needs of the surgery. The flushing channel is formed on both sides of the circular endoscope channel, and is a triangular channel. The outer wall near the contact visual cannula is the same in thickness as the outer wall on the side of the endoscope channel and the U-shaped tube channel. The side suction U-shaped tube has a blind end at one end, and a unilateral hole is formed in the recess on one side of the blind end, which is used for absorbing liquid at the surgical site, such as blood and cerebrospinal fluid. The length of the side suction U-shaped tube is greater than the length of the contact visual cannula, and the unilateral hole is exposed outside the contact visual cannula, so that the position of the liquid can be more accurately positioned, and the liquid in the visual area can be sucked out of the body in cooperation with the endoscope channel.
[0029] The present application makes the surgical instrument layout more compact, saves space, and improves the stability and reliability of the equipment by using the multi-channel design of the contact visual cannula. Among them, the triangle-shaped flushing channel has stability, makes the flushing channel more solid and not easy to deform, and helps to control the direction and speed of the flushing water flow, improving the flushing efficiency. The outer wall of the same thickness improves the integrity, aesthetics, strength and durability of the equipment, reducing the risk of rupture or damage during use. The blind end of the endoscope channel and the electronic endoscope provide real-time image information, allowing doctors to better understand the situation of the surgical area and make accurate operations and judgments. The unilateral hole is opened in the recess on one side of the blind end of the side suction U-shaped tube, which can more accurately drain the liquid to the position of the unilateral hole, and cooperate with the endoscope channel to realize seeing and sucking, and the liquid in the visualized area is sucked out, at the same time, only the liquid in the specific area of the visualization is efficiently sucked, and normal brain tissue cannot be sucked, greatly increasing the safety of the operation. BRIEF DESCRIPTION OF DRAWINGS
[0030] In order to make the content of the present application more easily understood, the present application will be further described in detail below according to the specific embodiments of the present application and in conjunction with the drawings.
[0031] Figure 1 is a structural schematic view of one angle of a special cannula system for brain hemorrhage robot navigation visual micro-invasive surgery mentioned in the present application;
[0032] Figure 2 is a structural schematic view of another angle of a special cannula system for brain hemorrhage robot navigation visual micro-invasive surgery mentioned in the present application;
[0033] Figure 3 is a structural schematic view of another angle of a special cannula system for brain hemorrhage robot navigation visual micro-invasive surgery mentioned in the present application.
[0034] BRIEF DESCRIPTION OF DRAWINGS:
[0035] 100, contact visual cannula; 110, endoscope channel; 120, U-shaped tube channel; 121, side suction U-shaped tube; 1211, unilateral hole; 130, flushing channel. DETAILED DESCRIPTION
[0036] The present application will be further described below in conjunction with the drawings and specific embodiments, so that those skilled in the art can better understand the present application and implement it, but the embodiments are not as a limitation on the present application.
[0037] The brain hemorrhage robot navigation visual minimally invasive surgery special cannula system aims to cooperate with robot navigation to realize millimeter level secondary injury visual and operation synchronization of brain hemorrhage minimally invasive surgery. The circular contact visual endoscope and the U-shaped side suction pipe are mutually occluded, the relative position is unchanged, so that the aspirator can only suck the visible hematoma and cannot suck the normal brain tissue, greatly increasing the safety of the operation. Through the ingenious design in the small space, the four requirements of seeing, flushing, sucking and coagulating during hemostasis are met at the same time.
[0038] In the brain hemorrhage minimally invasive surgery, the cannula system is combined with robot navigation. The robot navigation system provides accurate surgical path planning and positioning to guide the cannula system to accurately reach the brain hemorrhage site. Specifically, referring to Figure 1 , the brain hemorrhage robot navigation visual minimally invasive surgery special cannula system comprises:
[0039] The contact visual cannula 100 is formed with an endoscope channel 110, a U-shaped pipe channel 120 and a flushing channel 130. Among them, the contact visual cannula 100 provides the main channel structure for the operation. The endoscope channel 110 is used to place the electronic endoscope, and the visualization observation of the operation site is realized through the electronic endoscope. Since the endoscope channel 110 is designed to be transparent at one end, the electronic endoscope can clearly observe the operation area on the blind side, providing real-time image information for the doctor.
[0040] Referring to Figure 2 and Figure 3 , in a feasible implementation, the shape of the U-shaped pipe is a concave tubular channel closely tangent to the circular endoscope channel 110, and the flushing channel 130 is arranged on both sides of the circular endoscope channel 110. The U-shaped pipe channel 120 closely cooperates with the endoscope channel 110. This close tangent design can make the whole structure more compact, save space, and also may help to improve the stability and reliability of the equipment.
[0041] Referring to Figure 3 , the shape of the U-shaped pipe is a concave tubular channel, which is helpful to guide the flow of liquid or other substances, and facilitates the operation of suction or flushing. The flushing channel 130 is arranged on both sides of the circular endoscope channel 110, which can make the flushing channel 130 closer to the operation area, improve the flushing effect. At the same time, the flushing channels 130 arranged on both sides can provide more uniform flushing water flow, ensuring the cleanliness of the operation area.
[0042] Referring to Figure 3The flushing channel 130 is a triangle-like channel, and the thickness of the outer wall of the triangle-like channel near the side of the contact visual cannula 100 is the same as that of the inner mirror channel 110 and the U-shaped tube channel 120 near the side of the contact visual cannula 100. The flushing channel 130 is a triangle-like channel, which has the stability of a triangle and can make the flushing channel 130 more solid during use and not easy to deform. The shape of the triangle also helps to control the direction and speed of the flushing water flow, improving the efficiency of flushing.
[0043] The thickness of the outer wall of the triangle-like channel near the side of the contact visual cannula 100 is the same as that of the inner mirror channel 110 and the U-shaped tube channel 120 near the side of the contact visual cannula 100, which can make the entire structure have a consistent thickness on the outer wall of the side of the contact visual cannula 100, improving the overall integrity and aesthetics of the equipment. The same thickness also helps to improve the strength and durability of the equipment and reduce the risk of breakage or damage during use.
[0044] It should be noted that in the brain hemorrhage robot navigation visualization minimally invasive surgery special cannula system, the "blind end transparency" refers to the end of the inner mirror channel 110 of the contact visual cannula 100 is designed as a closed blind end, and this blind end part is made of transparent material. On the one hand, the blind end can prevent the electronic endoscope from inserting too deeply into the inner mirror channel 110 and causing unnecessary damage to the tissue, serving as a certain limiting function. On the other hand, due to the blind end transparency, when the electronic endoscope is placed in the inner mirror channel 110 and near the blind end, the situation in a certain direction of the surgical area can be clearly observed through the transparent blind end. For example, the tissue near the front end of the cannula, the hematoma, etc. can be better observed, providing the doctor with a more accurate surgical field of view, which helps the doctor to perform more precise operations and judgments.
[0045] It should be noted that the electronic endoscope is detachably placed in the inner mirror channel 110 for visual operation. The electronic endoscope works in the inner mirror channel 110 of the contact visual cannula 100, and transmits the image of the surgical site to the display in real time, allowing the doctor to clearly observe the situation of the surgical area, including the position, size of the hematoma, and the state of the surrounding tissue, etc. The doctor can perform precise surgical operations according to the image information provided by the electronic endoscope.
[0046] It should be noted that a single-sided hole 1211 is provided at one end of the side suction U-shaped tube 121, which is used for absorbing liquid, and the side suction U-shaped tube 121 is detachably placed in the U-shaped tube channel 120. The U-shaped tube channel 120 of the contact visual cannula 100 can accommodate different functional U-shaped tubes such as the side suction U-shaped tube 121, the electrocoagulation U-shaped tube, and the spraying U-shaped tube. These U-shaped tubes are switched or work cooperatively according to the needs of the operation.
[0047] In the technical solution, one end of the side suction U-shaped tube 121 is a blind end, and a one-sided hole 1211 is formed in the recess on one side of the blind end of the side suction U-shaped tube 121.
[0048] The one-sided hole 1211 is formed in the recess on one side of the blind end of the side suction U-shaped tube 121, which is used to absorb liquid such as blood, cerebrospinal fluid, etc. at the surgical site. The side suction U-shaped tube 121 can control or adjust the negative pressure in the tube by connecting a controllable negative pressure device, so as to realize precise suction of the liquid. During the operation, the doctor can adjust the size of the negative pressure according to the needs to ensure effective removal of the liquid while avoiding damage to the surrounding tissues.
[0049] The length of the side suction U-shaped tube 121 is greater than the length of the contact visualizing cannula 100, and the one-sided hole 1211 is exposed outside the contact visualizing cannula 100.
[0050] The one-sided hole 1211 is formed in the recess, on one hand, when the blind end of the endoscope channel 110 contacts the blood or wound, etc., the length of the recess structure of the side suction U-shaped tube 121 is greater than the contactable length of the blind end of the endoscope channel 110, and the liquid at the wound is drained to the one-sided hole 1211 in the recess structure of the side suction U-shaped tube 121, which can improve the efficiency and accuracy of liquid suction. On the other hand, the one-sided hole 1211 is arranged in the recess to a certain extent to play a protective role, reducing the risk of the hole being blocked, and also avoiding the one-sided hole 1211 from being damaged by excessive friction or collision with the surrounding tissues during the operation.
[0051] As shown in Figure 1 , the overall length of the side suction U-shaped tube 121 is longer than the contact visualizing cannula 100, so that the one-sided hole 1211 at one end of the side suction U-shaped tube 121 can extend out of the range of the contact visualizing cannula 100 and be in an exposed state. Specifically, the one-sided hole 1211 is exposed outside the contact visualizing cannula 100, which can more accurately position to the specific position where the liquid needs to be sucked. Through the cooperation of the length of the side suction U-shaped tube 121 and the blind end of the endoscope channel 110, the effect of seeing and sucking can be realized, which can effectively suck the liquid in the contact visualizing endoscope out of the body through the side suction U-shaped tube 121, as shown in Figure 1 , the liquid or hematoma is led out of the body along the direction of the arrow shown in the figure, which ensures efficient suction of the liquid such as blood, cerebrospinal fluid, etc. in the specific area of visualization, and improves the cleanliness and visibility of the operation.
[0052] As shown in Figure 3 , the recess of the side suction U-shaped tube 121 is in close contact with the outer edge of the endoscope channel 110 in a half-wrapping manner, and the relative position relationship between the side suction U-shaped tube 121 and the endoscope channel 110 is unchanged and cannot be rotated separately; the side suction U-shaped tube 121 is used to suck the hematoma that can be seen by the contact visualizing endoscope.
[0053] It should be noted that, due to the close contact between the groove of the side suction U-shaped tube 121 and the outer edge of the endoscope channel 110 in a semi-encircling manner, the relative positional relationship between the two is fixed, and accidental relative rotation will not occur during the operation, thereby ensuring the stability of the operation. Doctors do not need to worry about the change of the position of the two components affecting the operation field and the accuracy of the operation, and can focus more on the operation. In addition, the fixed relative positional relationship helps to improve the accuracy of hematoma suction. Doctors can accurately determine the position of the hematoma according to the visual information provided by the endoscope channel 110, and the side suction U-shaped tube 121 can more accurately suction the hematoma in contact with the endoscope due to the close contact and fixed position of the endoscope channel 110, thereby improving the efficiency and success rate of the operation. During the operation, especially when dealing with sensitive parts such as cerebral hemorrhage, any unnecessary movement may have serious consequences. It avoids accidental damage to the surrounding tissues caused by the relative movement of the side suction U-shaped tube 121 and the endoscope channel 110, reduces the risk of the operation, and improves the safety of the operation. At the same time, the side suction U-shaped tube 121 can always be kept in the right position to effectively suction the hematoma, without affecting the suction effect due to the change of position, thereby providing a reliable guarantee for the smooth progress of the operation and ensuring the reliability of the suction function.
[0054] The application refers to a special cannula system for brain hemorrhage robot navigation visualization minimally invasive surgery, which comprises a contact visualization cannula 100 formed with an endoscope channel 110, a U-shaped tube channel 120 and a flushing channel 130. The endoscope channel 110 is used for placing an electronic endoscope, and one end is designed as a blind end. The electronic endoscope works in the channel to transmit the image of the operation site to the display in real time, so that the doctor can clearly observe the situation of the operation area, including the position, size and surrounding tissue state of the hematoma. The U-shaped tube channel 120 is closely tangent to the endoscope channel 110 and can accommodate different functional U-shaped tubes such as side suction U-shaped tube 121, electrocoagulation U-shaped tube and spraying U-shaped tube, which can be switched or cooperatively work according to the operation needs. The flushing channel 130 is provided on both sides of the circular endoscope channel 110 and is a triangle-like channel, and the outer wall near one side of the contact visualization cannula 100 has the same thickness as the outer wall of the endoscope channel 110 and the U-shaped tube channel 120 on this side. The side suction U-shaped tube 121 has a blind end, and a single-sided hole 1211 is provided in the recess on one side of the blind end for absorbing liquid such as blood and cerebrospinal fluid at the operation site. The length of the side suction U-shaped tube 121 is greater than the length of the contact visualization cannula 100, and the single-sided hole 1211 is exposed outside the contact visualization cannula 100, so that the position of the liquid can be more accurately positioned, and the liquid in the visualization area can be sucked out of the body in cooperation with the endoscope channel 110.
[0055] The present application ensures that the cannula system accurately reaches the cerebral hemorrhage site through a robot navigation system, improving the accuracy of the operation. The blind end of the endoscope channel 110 and the electronic endoscope provide real-time image information, allowing the doctor to more accurately understand the situation in the operation area and make accurate operations and judgments. The multi-channel design of the contact visual cannula 100 makes the layout of the surgical instruments more compact, saving space and improving the stability and reliability of the equipment. Among them, the triangle-shaped flushing channel 130 has stability, making the flushing channel 130 more solid and not easy to deform, while helping to control the direction and speed of the flushing water flow and improve the flushing efficiency. The same thickness of the outer wall improves the integrity, aesthetics, strength and durability of the equipment, reducing the risk of rupture or damage during use. The see-and-suck function ensures efficient suction of liquid in the visualized specific area, improving the cleanliness and visibility of the operation.
[0056] In the present technical solution, the cerebral hemorrhage robot navigation visual minimally invasive surgery special cannula system comprises: a general cannula, a cylindrical bipolar electrocoagulation;
[0057] The general cannula is formed with an endoscope channel 110, a U-shaped tube channel 120 and a flushing channel 130; the cylindrical bipolar electrocoagulation is detachably placed in the U-shaped channel of the general sleeve.
[0058] It should be noted that the difference between the general cannula and the contact visual cannula 100 is that the endoscope channel 110 port is open, and the cylindrical bipolar electrocoagulation is placed in the U-shaped channel of the general cannula. During the distance visualization surgery, when hemostasis is needed, the doctor can push the cylindrical bipolar electrocoagulation out of the channel to accurately electrocoagulate the bleeding point. The bipolar electrocoagulation technology can reduce the thermal damage to the surrounding tissue and improve the safety of the operation.
[0059] In the present technical solution, the cerebral hemorrhage robot navigation visual minimally invasive surgery special cannula system comprises: a controllable negative pressure device; one end of the side suction U-shaped tube 121 is connected to the controllable negative pressure device, which is used to control or adjust the negative pressure in the side suction U-shaped tube 121.
[0060] In the present technical solution, the cerebral hemorrhage robot navigation visual minimally invasive surgery special cannula system comprises: a display; the display is connected to the electronic endoscope.
[0061] In the technical solution, the brain hemorrhage robot navigation visual minimally invasive surgery special cannula system includes: an electrocoagulation U-shaped tube; the end of the electrocoagulation U-shaped tube is open, and the electrocoagulation U-shaped tube is detachably arranged in the U-shaped tube channel 120. The electrocoagulation U-shaped tube is open at the end, and is detachably arranged in the U-shaped tube channel 120. When electrocoagulation operation is needed, it can be introduced into the operation area to perform electrocoagulation treatment on the specific part. Once active bleeding is encountered, electrocoagulation hemostasis is needed. Replace the contact visual cannula 100 with a general cannula, place the endoscope at a distance, and place the electrocoagulation U-shaped tube in the U-shaped channel of the general cannula. The cylindrical bipolar electrocoagulation is placed in the electrocoagulation U-shaped tube, the flushing channel 130 is flushed, the U-shaped tube is close to the suction, and the electrocoagulation hemostasis is performed.
[0062] In the technical solution, the brain hemorrhage robot navigation visual minimally invasive surgery special cannula system includes: a flushing and pressurizing device; the flushing and pressurizing device is provided with a three-way pipe joint, one end of the flushing and pressurizing device is detachably inserted into the cannula flushing channel 130, and the other end is used for connecting a liquid infusion device for pressurized flushing. The flushing and pressurizing device is connected with the flushing channel 130 of the contact visual cannula 100 through the three-way pipe joint. During the operation, the flushing and pressurizing device pressurizes the flushing liquid in the liquid infusion device and delivers it to the operation site, keeps the operation area clean, and helps to remove the hematoma and tissue fragments.
[0063] In the technical solution, the brain hemorrhage robot navigation visual minimally invasive surgery special cannula system includes: a soft connector; the soft connector is used for closed connection of the U-shaped channel outer port of the general cannula, and the soft connector forms a hole for placing the cylindrical bipolar electrocoagulation.
[0064] In the technical solution, the brain hemorrhage robot navigation visual minimally invasive surgery special cannula system includes: a spraying U-shaped tube; one end of the spraying U-shaped tube is a blind end, and a circular side hole is formed on one side of the blind end for spraying drugs. During the operation, the doctor can spray hemostatic agents, anti-inflammatory drugs and other drugs to the operation site through the spraying U-shaped tube as needed, so as to promote wound healing and prevent infection.
[0065] One end of the spraying U-shaped tube is a blind end, and a circular side hole is formed on one side of the blind end for spraying drugs. The soft connector is used for closed connection of the U-shaped channel outer port of the general cannula, and provides a stable placement channel for the cylindrical bipolar electrocoagulation, while ensuring the sealing of the channel to prevent liquid leakage and external pollution. In summary, the brain hemorrhage robot navigation visual minimally invasive surgery special cannula system realizes minimally invasive surgery operation under robot navigation through the cooperation of various components, and improves the safety, accuracy and efficiency of the operation.
[0066] In the technical solution, the brain hemorrhage robot navigation visual minimally invasive surgery special cannula system includes: an open sleeve for traditional open endoscopic surgery.
[0067] Obviously, the above embodiments are only examples for clearly illustrating, and are not limitation to the embodiments. Other different forms of changes or variations can be made on the basis of the above description for those skilled in the art. Here, all the embodiments need not be exhausted, and the obvious changes or variations derived therefrom are still within the protection scope of the present application.
[0068] In the description of the present application, it should be understood that the terms "first", "second" are only for the purpose of description, and cannot be understood as indicating or implying relative importance or implicitly indicating the number of the indicated technical features. Therefore, the features with "first", "second" can explicitly or implicitly include one or more of the features. In the description of the present application, the meaning of "multiple" is two or more than two, unless otherwise specifically limited.
[0069] In the present application, unless otherwise specifically defined and limited, the terms "mounting", "connecting", "connecting", "fixing" and the like should be understood in a broad sense, for example, it can be fixedly connected, or it can be detachably connected, or it can be integrated; it can be mechanically connected, or it can be electrically connected; it can be directly connected, or it can be indirectly connected through an intermediate medium; it can be the internal communication of two elements or the interaction relationship between two elements. For those skilled in the art, the specific meaning of the above terms in the present application can be understood according to the specific circumstances.
[0070] In the present application, unless otherwise specifically defined and limited, the first feature is "on" or "under" the second feature, which can be direct contact between the first and second features, or indirect contact between the first and second features through an intermediate medium. Moreover, the first feature is "above", "above" and "above" the second feature, which can be directly above or obliquely above the first feature, or only indicates that the horizontal height of the first feature is higher than that of the second feature. The first feature is "below", "below" and "below" the second feature, which can be directly below or obliquely below the first feature, or only indicates that the horizontal height of the first feature is lower than that of the second feature.
[0071] In the description of the present specification, the description of the terms "one embodiment", "some embodiments", "embodiment", "example", "specific example" or "some examples" and the like means that the specific features, structures, materials or characteristics described in connection with the embodiment or example are included in at least one embodiment or example of the present application. In the present specification, the illustrative description of the above terms does not necessarily refer to the same embodiment or example. Moreover, the specific features, structures, materials or characteristics described can be combined in any appropriate manner in any one or more embodiments or examples. Furthermore, the person skilled in the art can combine and combine the different embodiments or examples described in the present specification and the features of the different embodiments or examples without contradiction.
[0072] Although the embodiments of the present application have been shown and described above, it is understood that the above embodiments are exemplary and cannot be understood as limiting the present application, and the person skilled in the art can modify, modify, replace and modify the above embodiments within the scope of the present application.
Claims
1. A cannula system for use in intracerebral hemorrhage robotically navigated visualized minimally invasive surgery, characterized in that It comprises: a contact visual cannula, which is formed with an endoscope channel, a U-shaped tube channel and a flushing channel; one end of the endoscope channel is blind and transparentized; an electronic endoscope, which is detachably placed in the endoscope channel for contact visual operation; a side suction U-shaped tube, which is provided with a one-side hole at one end for sucking hematoma, and is detachably placed in the U-shaped tube channel.
2. The cannula system for robot navigation visualized minimally invasive surgery of cerebral hemorrhage according to claim 1, characterized in that: one end of the side suction U-shaped tube is blind, and the one-side hole is formed in the recess on one side of the blind end of the side suction U-shaped tube.
3. The cannula system for robot navigation visualized minimally invasive surgery of cerebral hemorrhage according to claim 1, characterized in that: the length of the side suction U-shaped tube is greater than the length of the contact visual cannula, and the one-side hole is exposed outside the contact visual cannula.
4. The cannula system for robot navigation visualized minimally invasive surgery of cerebral hemorrhage according to claim 1, characterized in that: the recess of the side suction U-shaped tube is in close contact with the outer edge of the endoscope channel in a half-wrapping manner, and the relative position relationship between the side suction U-shaped tube and the endoscope channel is unchangeable and cannot be rotated respectively; the side suction U-shaped tube is used for sucking the hematoma observed by the contact visual endoscope.
5. The brain hemorrhage robot navigation visualized minimally invasive surgery dedicated cannula system according to claim 1, characterized in that, It comprises: a general cannula, a columnar bipolar electrocoagulation and a soft connector; the general cannula is formed with an endoscope channel, a U-shaped tube channel and a flushing channel; the columnar bipolar electrocoagulation is detachably placed in the U-shaped tube channel of the general cannula; the soft connector is used for sealingly connecting the outer port of the U-shaped tube channel of the general cannula, and the soft connector is formed with a hole for placing the columnar bipolar electrocoagulation.
6. A special cannula system for intracerebral hemorrhage robot navigation visualization minimally invasive surgery according to claim 1, characterized in that, It comprises: a controllable negative pressure device; one end of the side suction U-shaped tube is connected to the controllable negative pressure device for controlling or adjusting the negative pressure in the side suction U-shaped tube.
7. The cannula system for robot navigation visualized minimally invasive surgery of cerebral hemorrhage according to claim 1, characterized in that: the flushing channel is a triangular channel, and the outer wall of the triangular channel close to the side of the contact visual cannula has the same thickness as the outer wall of the endoscope channel and the U-shaped tube channel close to the side of the contact visual cannula.
8. A special cannula system for intracerebral hemorrhage robot navigation visualization minimally invasive surgery according to claim 1, characterized in that, It comprises: an electrocoagulation U-shaped tube; the end of the electrocoagulation U-shaped tube is open, and the electrocoagulation U-shaped tube is detachably placed in the U-shaped tube channel.
9. A special cannula system for intracerebral hemorrhage robot navigation visualization minimally invasive surgery according to claim 1 characterized in that, It comprises: a flushing pressurizing device; the flushing pressurizing device is provided with a triangular pipe joint, one end of the flushing pressurizing device is detachably inserted into the flushing channel of the cannula, and the other end is used for connecting a liquid infusion device for pressurized flushing.
10. The brain hemorrhage robot navigation visualized minimally invasive surgery dedicated cannula system of claim 1, wherein, It comprises: a spraying U-shaped tube; one end of the spraying U-shaped tube is blind, and a round side hole is formed on one side of the blind end for spraying medicaments.