CN212631403U - Combined driving device for separated ablation catheter and sheath catheter - Google Patents
Combined driving device for separated ablation catheter and sheath catheter Download PDFInfo
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- CN212631403U CN212631403U CN202021089249.1U CN202021089249U CN212631403U CN 212631403 U CN212631403 U CN 212631403U CN 202021089249 U CN202021089249 U CN 202021089249U CN 212631403 U CN212631403 U CN 212631403U
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Abstract
The utility model provides a combined driving device of a separated ablation catheter and a sheath catheter, which comprises a driving platform, a driving structure panel and adaptive consumables, wherein the driving platform comprises a catheter axial propelling and withdrawing driving module, a catheter head bending driving module and a sheath catheter axial propelling and withdrawing driving module; be provided with a plurality of mounting hole on the drive structure panel, on being fixed in drive platform with the adaptation consumptive material through the mounting hole, the adaptation consumptive material includes pipe and motion control consumptive material and sheath pipe and motion control consumptive material, wherein: the catheter axial advancing and withdrawing driving module is used for controlling the catheter axial advancing and withdrawing operation; the pipe head bending driving module is used for controlling the pipe head bending operation; the sheath tube axial propelling and withdrawing driving module is used for controlling the sheath tube axial propelling and withdrawing operation, reducing the complexity of the combined operation of the catheter and the sheath tube, meeting the requirement that the ablation target point reaches the satisfaction that the catheter is attached or stably attached to the sheath tube for a sufficient length, and improving the success rate and the efficiency of the operation.
Description
Technical Field
The utility model relates to the technical field of medical equipment, especially, relate to a disconnect-type melts pipe and sheath pipe and unites drive arrangement.
Background
In the radio frequency ablation operation, when the precise positioning of the ablation target point by operating the catheter is difficult, the sheath catheter is often required to be operated simultaneously or respectively, and the catheter is assisted to reach the target point which is difficult to position through the rotation or the forward and backward movement of the sheath catheter. At present, the linkage operation of the catheter and the sheath can be realized only by manual operation of an operator, and an operation assistant is needed to assist the operation when necessary.
Basic techniques for operating an ablation catheter in vitro to locate endocardial targets include: the forward and the backward guide pipes and the head end of the one-way bending guide pipe rotate the guide pipe in a required angle in a positive direction or a negative direction. However, when the catheter is simply operated to perform an ablation operation, only the head end of the catheter can be moved to reach about 50% of ablation target points, and the arrival rate of difficult target points and the positioning success rate of complex target points can be improved by operating the sheath tube to be matched with the catheter for positioning.
However, manual simultaneous operation of the ablation catheter and sheath requires a high operator effort, requiring one hand to operate the sheath (typically the left hand) and the other hand to operate the catheter (typically the right hand). In the middle of an operation, the movement of the sheath tube and the movement of the catheter are independent, particularly after the position of the sheath tube is fixed, an operator operates the movement, rotation and bending of the catheter through the ablation catheter handle without changing the position of the sheath tube, meanwhile, when the head end of the ablation catheter cannot reach an ablation target point, the operator operates the head end of the catheter to reach the ablation target point through the movement and rotation of the sheath tube, and the handle of the catheter should be kept fixed.
The above-mentioned combined operation of the catheter and the sheath requires the operator to keep the stability of the sheath and the catheter for a long time during the operation, because the operation technique is complicated and the operation risk is high, so that many ablation targets cannot reach satisfactory catheter attachment or cannot be stably attached for a long enough time, resulting in low operation success rate and efficiency.
SUMMERY OF THE UTILITY MODEL
The embodiment of the utility model provides a disconnect-type melts pipe and sheath pipe and unites drive arrangement for reduce the complexity of pipe and sheath pipe joint operation, satisfy and melt the target point and reach that satisfied pipe pastes or stably pastes and paste the demand of pasting enough length, improve operation success rate and efficiency.
The embodiment of the utility model provides a disconnect-type ablation pipe and sheath pipe combined drive device, including drive platform, drive structure panel and adaptation consumptive material, drive platform includes pipe axial propulsion and back-off drive module, pipe head drive module of bending and sheath pipe axial propulsion and back-off drive module; be provided with a plurality of mounting hole on the drive structure panel, through the mounting hole will the adaptation consumptive material is fixed in drive platform is last, the adaptation consumptive material includes pipe and motion control consumptive material and sheath pipe and motion control consumptive material, wherein:
the catheter axial advancing and withdrawing driving module is used for controlling the catheter axial advancing and withdrawing operation through the catheter motion control consumables;
the catheter head bending driving module is used for controlling the bending operation of the catheter head through the catheter motion control consumables;
sheath pipe axial propulsion and back-off drive module for through sheath pipe motion control consumptive material control sheath pipe axial propulsion and back-off operation.
In one possible embodiment, the drive platform further comprises a catheter circumferential rotation drive module and a sheath circumferential rotation drive module, wherein:
the guide pipe circumferential rotation driving module is used for controlling the guide pipe circumferential rotation operation through the guide pipe motion control consumable;
and the sheath tube circumferential rotation driving module is used for controlling the circumferential rotation operation of the sheath tube through the sheath tube motion control consumable.
In a possible embodiment, the guide tube axial pushing and retracting driving module comprises a guide tube axial movement driving motor, a first linear guide rail and a first adaptive support, the guide tube movement control consumable comprises a guide tube sliding block support plate, one end of the first adaptive support is connected with the first linear guide rail, the other end of the first adaptive support is connected with the guide tube sliding block support plate, and the guide tube sliding block support plate is installed on the driving structure panel through the first adaptive support;
the guide pipe axial movement driving motor is used for controlling the first adaptive support columns to advance or retreat along the first linear guide rail, and the guide pipe slide block supporting plate is driven to advance or retreat by the first adaptive support columns so as to control the guide pipe to carry out axial advancing or retreating operation.
In a possible embodiment, the first linear guide has a length not less than 10 cm.
In a possible implementation manner, the catheter circumferential rotation driving module comprises a catheter circumferential rotation driving motor and a second adaptive strut, the catheter motion control consumable comprises a first linkage gear and a first driving gear, one end of the second adaptive strut is connected with the catheter circumferential rotation driving motor, the other end of the second adaptive strut is connected with the first driving gear, and the first driving gear is mounted on the driving structure panel through the second adaptive strut;
and the catheter circumferential rotating motor is used for driving the first linkage gear and the first driving gear to rotate through the second adaptive strut so as to control the catheter circumferential rotating operation.
In one possible embodiment, the catheter head bending driving module comprises a catheter head bending driving motor, a second linear guide rail and a third adaptive strut, and the catheter motion control consumable comprises a tapered sleeve slider supporting plate; one end of the third adaptive support column is connected with the second linear guide rail, the other end of the third adaptive support column is connected with the tapered sleeve sliding block supporting plate, and the tapered sleeve sliding block supporting plate is installed on the driving structure panel through the third adaptive support column;
the guide pipe head bending driving motor is used for controlling the third adaptive support column to advance or retreat along the second linear guide rail, and the third adaptive support column drives the conical sleeve sliding block supporting plate to advance or retreat so as to control the guide pipe head bending operation.
In a possible embodiment, the second linear guide has a length not less than 5 cm.
In a possible embodiment, the sheath axial advancing and retracting driving module comprises a sheath axial movement driving motor, a third linear guide and a fourth adaptive strut, the sheath movement control consumable comprises a sheath slider supporting plate, one end of the fourth adaptive strut is connected with the third linear guide, the other end of the fourth adaptive strut is connected with the sheath slider supporting plate, and the sheath slider supporting plate is mounted on the driving structure panel through the fourth adaptive strut;
and the sheath tube axial movement driving motor is used for controlling the fourth adaptive support column to advance or retreat along the third linear guide rail, and driving the sheath tube sliding block supporting plate to advance or retreat through the fourth adaptive support column so as to control the axial advancing or retreating operation of the catheter.
In one possible embodiment, the sheath circumferential rotation driving module comprises a sheath circumferential rotation driving motor and a fifth adaptive strut, and the sheath motion control consumables comprise a second driving gear, a second linkage gear, a sheath supporting rod and a sheath adapter; one end of the fifth adaptive strut is connected with the sheath tube circumferential rotation driving motor, the other end of the fifth adaptive strut is connected with the second driving gear, and the second driving gear is installed on the driving structure panel through the fifth adaptive strut; the sheath tube adapter is used for fixing a sheath tube;
sheath pipe circumference rotation driving motor for pass through fifth adaptation pillar control second linkage gear and second drive gear are rotatory, through second linkage gear and second drive gear drive sheath pipe bracing piece and sheath pipe adapter rotation to control sheath pipe circumference rotation operation.
Adopt above-mentioned technical scheme, the utility model discloses at least, following advantage has:
the combined driving device of the separated ablation catheter and the sheath catheter of the utility model utilizes the axial propelling and withdrawing driving module of the catheter to control the axial propelling and withdrawing operation of the catheter through the control consumable of the catheter motion; controlling the bending operation of the head of the catheter by using a catheter head bending driving module and controlling consumables through catheter motion; utilize sheath pipe axial to impel and withdraw drive module, through sheath pipe motion control consumptive material control sheath pipe axial impel and withdraw the operation, above-mentioned in-process, need not operation operator manually operation pipe and sheath pipe, thereby the complexity of pipe and sheath pipe joint operation has been reduced, and, the displacement and the travel time that can accurate control pipe and sheath pipe through drive platform, satisfied melt the target point and reach that satisfied pipe pastes or paste and lean on the demand of leaning on enough length steadily, operation success rate and efficiency have been improved.
Drawings
FIG. 1 is a schematic view showing a basic structure of a catheter and a sheath in the prior art;
fig. 2 is a schematic view of a basic structure of a catheter and a sheath according to an embodiment of the present invention;
fig. 3 is a schematic perspective view of a combined drive device of a detachable ablation catheter and a sheath according to an embodiment of the present invention;
FIG. 4a is a schematic front view of an adaptive consumable according to an embodiment of the present invention;
fig. 4b is a bottom schematic view of an adaptive consumable according to an embodiment of the present invention;
fig. 5a is a right side view of a drive platform according to an embodiment of the present invention;
fig. 5b is a left side view of a drive platform according to an embodiment of the present invention;
fig. 6 is a schematic control interface diagram of a workstation according to an embodiment of the present invention.
Detailed Description
To further illustrate the technical means and effects of the present invention adopted to achieve the predetermined objects, the present invention will be described in detail below with reference to the accompanying drawings and preferred embodiments.
It should be noted that the terms "first", "second", and the like in the description and the claims of the embodiments of the present invention and in the drawings are used for distinguishing similar objects and not necessarily for describing a particular order or sequence. It will be appreciated that the data so used may be interchanged under appropriate circumstances such that the embodiments described herein may be practiced otherwise than as specifically illustrated or described herein.
Reference herein to "a plurality or a number" means two or more. "and/or" describes the association relationship of the associated objects, meaning that there may be three relationships, e.g., a and/or B, which may mean: a exists alone, A and B exist simultaneously, and B exists alone. The character "/" generally indicates that the former and latter associated objects are in an "or" relationship.
As shown in fig. 1, it is a schematic diagram of the basic structure of a catheter and a sheath, and includes: the catheter comprises a catheter main body 11, a sheath head 12, a catheter handle 13, a catheter conical bending sleeve 14, a catheter saline pipe 15 and a sheath saline pipe 16. In the electrophysiology ablation operation, an operator holds the head of the sheath tube with the left hand, rotates, pushes and withdraws the sheath tube, holds the catheter handle with the right hand, rotates, pushes and withdraws the catheter, and pushes the conical sleeve to bend by the thumb.
The combined operation of the catheter and the sheath tube needs manual operation of an operator, the operation is complex, the operation risk is high, so that a plurality of ablation target points cannot reach satisfactory catheter attachment or cannot be stably attached for a long enough time, and the operation success rate and the operation efficiency are low.
In view of this, the embodiment of the present invention provides a separated ablation catheter and sheath catheter combined driving device, as shown in fig. 2, which is a schematic structural diagram of the separated ablation catheter and sheath catheter combined driving device provided in the embodiment of the present invention, including a driving platform 21, a driving structural panel 22 and an adaptive consumable 23, where the driving platform 21 includes a catheter axial propulsion and withdrawal driving module, a catheter circumferential rotation driving module, a catheter head bending driving module, a sheath axial propulsion and withdrawal driving module, and a sheath circumferential rotation driving module; be provided with a plurality of mounting hole on the drive structure panel 22, through the mounting hole will adaptation consumptive material 23 is fixed in on the drive platform 21, adaptation consumptive material 23 includes pipe and motion control consumptive material and sheath pipe and motion control consumptive material thereof.
When the device is specifically implemented, the catheter axial advancing and withdrawing driving module is used for controlling the catheter axial advancing and withdrawing operation through the catheter motion control consumables; the guide pipe circumferential rotation driving module is used for controlling the guide pipe circumferential rotation operation through the guide pipe motion control consumable; the catheter head bending driving module is used for controlling the bending operation of the catheter head through the catheter motion control consumables; the sheath tube axial propelling and withdrawing driving module is used for controlling the sheath tube axial propelling and withdrawing operation through the sheath tube motion control consumables; and the sheath tube circumferential rotation driving module is used for controlling the circumferential rotation operation of the sheath tube through the sheath tube motion control consumable.
In specific implementation, the guide tube axial pushing and withdrawing driving module comprises a guide tube axial movement driving motor 210, a first linear guide rail 211 and a first adaptive support column 212, the guide tube movement control consumable comprises a guide tube slider supporting plate 231, one end of the first adaptive support column 212 is connected with the first linear guide rail 211, the other end of the first adaptive support column is connected with the guide tube slider supporting plate 231, and the guide tube slider supporting plate 231 is installed on the driving structure panel 22 through the first adaptive support column 212; wherein the first fitting support 212 connects the first linear guide 211 and the guide tube slider support plate 231 through an opening in the drive structure panel 22.
The catheter axial movement driving motor 210 is used for controlling the first adaptive support 212 to advance or retreat along the first linear guide rail 211, and the catheter slide block support plate 231 is driven to advance or retreat by the first adaptive support 212 so as to control the catheter axial advancing or retreating operation.
In one possible embodiment, the first linear guide is no less than 10 cm in length, and the catheter slider support plate 231 is placed in the middle of the guide by the first adaptive strut 212 before preparing for the surgical procedure, ensuring that the catheter is advanced and retracted no less than 5 cm.
In specific implementation, the catheter circumferential rotation driving module comprises a catheter circumferential rotation driving motor 213 and a second adaptive strut 214, the catheter motion control consumable comprises a first linkage gear 233 and a first driving gear 232, one end of the second adaptive strut 214 is connected with the catheter circumferential rotation driving motor 213, the other end of the second adaptive strut 214 is connected with the first driving gear 232, and the first driving gear 232 is installed on the driving structure panel 22 through the second adaptive strut 214; wherein the second compliant support 214 connects the conduit circumferential rotation drive motor 213 and the first drive gear 232 through an aperture in the drive structural panel 22.
The catheter circumferential rotation motor 213 is configured to drive the first linkage gear 233 and the first driving gear 232 to rotate through the second adaptive strut 214, so as to control the catheter circumferential rotation operation.
In specific implementation, the catheter head bending driving module comprises a catheter head bending driving motor 215, a second linear guide rail 216 and a third adaptive support column 217, and the catheter motion control consumables comprise a tapered casing slider supporting plate 234; one end of the third adaptive support column 217 is connected with the second linear guide rail 216, and the other end is connected with the tapered sleeve slider support plate 234, and the tapered sleeve slider support plate 234 is mounted on the driving structure panel through the third adaptive support column 217; wherein the third compliant leg 217 connects the second linear guide 216 and the tapered sleeve slider support plate 234 through an opening in the drive structure panel 22.
The conduit head bending driving motor 215 is used for controlling the third adaptive strut 217 to advance or retreat along the second linear guide rail 216, and the tapered sleeve sliding block supporting plate 234 is driven to advance or retreat by the third adaptive strut 217 so as to control the conduit head bending operation.
In a possible embodiment, the length of the second linear guide rail 216 is not less than 5cm, and the conduit head bending driving motor 215 pushes the tapered sleeve slider supporting plate 234 through the third adaptive support column 217 to realize the bending of the conduit head.
In specific implementation, the sheath axial advancing and retracting driving module includes a sheath axial movement driving motor 218, a third linear guide 219 and a fourth adaptive support column 220, the sheath movement control consumables include a sheath slider support plate 235, one end of the fourth adaptive support column 220 is connected to the third linear guide 219, the other end is connected to the sheath slider support plate 235, and the sheath slider support plate 235 is installed on the driving structure panel 22 through the fourth adaptive support column 220; wherein the fourth adaptive strut 220 connects the third linear guide 219 and the sheath slider support plate 235 through an opening in the drive structure panel 22.
The sheath axial movement driving motor 218 is configured to control the fourth adaptive strut 220 to advance or retreat along the third linear guide 219, and the sheath slider supporting plate 235 is driven by the fourth adaptive strut 220 to advance or retreat, so as to control the axial advancing or retreating operation of the catheter.
Specifically, the sheath axial movement driving motor 218 controls the fourth adaptive strut 220 to advance or retreat along the third linear guide 219, so as to drive the sheath slider supporting plate 235 to slide back and forth, thereby achieving axial advancing or retreating of the sheath.
In specific implementation, the sheath circumferential rotation driving module comprises a sheath circumferential rotation driving motor 221 and a fifth adaptive support 222, and the sheath motion control consumables comprise a second driving gear 236, a second linkage gear 237, a sheath support rod 238 and a sheath adapter 239; one end of the fifth adaptive strut 222 is connected to the sheath circumferential rotation driving motor 221, and the other end is connected to the second driving gear 236, and the second driving gear 236 is mounted on the driving structure panel 22 through the fifth adaptive strut 222; the sheath adaptor 239 is used for fixing a sheath; wherein, the fifth adaptive strut 222 is connected with the sheath circumferential rotation driving motor 221 and the second driving gear 236 through the opening hole on the driving structure panel 22.
The sheath circumferential rotation driving motor 221 is configured to control the second linkage gear 237 and the second driving gear 236 to rotate through the fifth adapting support 222, and drive the sheath support rod 238 and the sheath adapter 239 to rotate through the second linkage gear 237 and the second driving gear 236, so as to control the sheath circumferential rotation operation.
Specifically, the sheath circumferential rotation driving motor 221 controls the second linkage gear 237 and the second driving gear 236 to rotate through the fifth adaptive strut 222, and drives the sheath supporting rod sheath adapter 239 to rotate, thereby realizing the rotation driving of the sheath.
Fig. 3 is a schematic perspective view of a separate ablation catheter and sheath combined driving device according to an embodiment of the present invention.
As shown in FIG. 4a, which is a schematic front view of the adaptive consumable 23, the adaptive consumable 23 includes a guide tube 41, a first driving gear 232, a first linkage gear 233, a tapered sleeve slider support plate 234, a screw 42 for fixing the adaptive consumable on a driving structure panel, and a guide tube slider support plate 231.
As shown in FIG. 4b, which is a schematic bottom view of the adaptive consumable 23, the adaptive consumable comprises a guide tube 41, a guide tube slider support plate 231, a screw 42 for fixing the adaptive consumable on a driving structure panel, a sliding groove 43 for sliding a tapered sleeve slider support plate 234, and a first driving gear 232.
Axial advancing or back turning of the guide pipe is completed based on moving advancing or withdrawing of the guide pipe sliding block supporting plate 231, the first driving gear 232 and the first linkage gear 233 of the gear pair are used for controlling circumferential rotation of the guide pipe, and the conical sleeve sliding block supporting plate 234 is used for controlling radian adjustment of the head end of the guide pipe.
According to the embodiment of the utility model provides a, adaptation consumptive material 23 can be disposable adaptation consumptive material, and it is used for adaptation pipe, sheath pipe and drive platform's linkage, is used for matcing the pipe and the sheath pipe of specific operation, as disposable aseptic adaptation consumptive material, after the operation, abandons no longer to use.
As shown in fig. 5a, which is a right side view of the drive platform, includes an axial motion drive motor 210, a first linear guide rail 211, a drive structural panel 22, a second adaptive strut 214, and a conduit head bending drive motor 215.
As shown in fig. 5b, which is a left side view of the driving platform, it includes a fifth adaptive pillar 222, a third adaptive pillar 217, a conduit circumferential rotation driving motor 213, a conduit slider supporting plate 231 and a main control system circuit board 51.
According to the embodiment of the utility model, the axial displacement of pipe is accomplished by the whole removal on first linear guide 211 of axial motion driving motor 210 drive pipe slider backup pad 231, and the circumferential direction of pipe is accomplished by first drive gear and the first linkage gear of pipe circumferential direction rotation driving motor 213 control adaptation consumptive material 23 part, and the head radian adjustment of pipe is bent driving motor 215 by the pipe head and is removed third adaptation pillar 217, drives toper sleeve pipe slider backup pad 234 and removes the completion.
According to the utility model discloses, the joint drive of pipe and sheath pipe can be through controller and workstation joint remote control, and the control interface of workstation is as shown in fig. 6, include: a sheath driving interface 61, a catheter driving interface 62, a 3-dimensional catheter display 63 and a surgical site memory tracking 64. The working process of the catheter and sheath combined driving device is as follows:
1. surgical preparation, vessel puncture, placement of a sheath, sterile placement and manipulation of the catheter to the target cavity.
2. The driving device is powered on, and the movable mechanical arm is operated to enable the sheath tube adapter to be flush with the tail end of the sheath tube.
3. The sheath tube axial movement driving motor and the catheter axial movement driving motor are reset in the middle of the guide rail, and the sheath tube circumferential rotating motor and the catheter circumferential and head end bending motor are reset.
4. The sheath driver is opened to install the sheath in place, and the sheath infusion tube is installed in place.
5. The catheter adapter is opened and the catheter is installed in place.
6. The sheath driver is controlled to rotate or advance and retreat through the instruction, and the rotation, advance and retreat and bending freedom degree of the catheter driver are controlled to complete the operation.
7. The sheath adapter and the catheter adapter are repositioned.
8. And opening the related clamping groove and the clamping ring, and detaching the sheath tube and the catheter.
The technical means and functions of the present invention to achieve the intended purpose will be understood more deeply and concretely through the description of the embodiments, however, the attached drawings are only for reference and illustration, and are not intended to limit the present invention.
Claims (9)
1. A combined driving device for a separated ablation catheter and a sheath catheter is characterized by comprising a driving platform, a driving structure panel and adaptive consumables, wherein the driving platform comprises a catheter axial propelling and withdrawing driving module, a catheter head bending driving module and a sheath catheter axial propelling and withdrawing driving module; be provided with a plurality of mounting hole on the drive structure panel, through the mounting hole will the adaptation consumptive material is fixed in drive platform is last, the adaptation consumptive material includes pipe and motion control consumptive material and sheath pipe and motion control consumptive material, wherein:
the catheter axial advancing and withdrawing driving module is used for controlling the catheter axial advancing and withdrawing operation through the catheter motion control consumables; the catheter head bending driving module is used for controlling the bending operation of the catheter head through the catheter motion control consumables;
sheath pipe axial propulsion and back-off drive module for through sheath pipe motion control consumptive material control sheath pipe axial propulsion and back-off operation.
2. The combined ablation catheter and sheath drive of claim 1, wherein the drive platform further comprises a catheter circumferential rotation drive module and a sheath circumferential rotation drive module, wherein:
the guide pipe circumferential rotation driving module is used for controlling the guide pipe circumferential rotation operation through the guide pipe motion control consumable;
and the sheath tube circumferential rotation driving module is used for controlling the circumferential rotation operation of the sheath tube through the sheath tube motion control consumable.
3. The combined ablation catheter and sheath drive of claim 1, wherein the catheter axial advancement and retraction drive module comprises a catheter axial movement drive motor, a first linear guide and a first adaptive strut, the catheter movement control consumable comprising a catheter slider support plate, the first adaptive strut having one end connected to the first linear guide and the other end connected to the catheter slider support plate, the catheter slider support plate being mounted to the drive structure panel via the first adaptive strut;
the guide pipe axial movement driving motor is used for controlling the first adaptive support columns to advance or retreat along the first linear guide rail, and the guide pipe slide block supporting plate is driven to advance or retreat by the first adaptive support columns so as to control the guide pipe to carry out axial advancing or retreating operation.
4. The combined ablation catheter and sheath drive of claim 3, wherein the first linear guide is no less than 10 cm in length.
5. The combined driving device for the separated ablation catheter and the sheath according to any one of claims 1 to 4, wherein the catheter circumferential rotation driving module comprises a catheter circumferential rotation driving motor and a second adaptive strut, the catheter motion control consumable comprises a first linkage gear and a first driving gear, one end of the second adaptive strut is connected with the catheter circumferential rotation driving motor, the other end of the second adaptive strut is connected with the first driving gear, and the first driving gear is mounted on the driving structure panel through the second adaptive strut;
and the catheter circumferential rotating motor is used for driving the first linkage gear and the first driving gear to rotate through the second adaptive strut so as to control the catheter circumferential rotating operation.
6. The combined ablation catheter and sheath drive of claim 5, wherein the catheter head bending drive module comprises a catheter head bending drive motor, a second linear guide rail and a third adaptive strut, and the catheter motion control consumables comprise a tapered cannula slider support plate; one end of the third adaptive support column is connected with the second linear guide rail, the other end of the third adaptive support column is connected with the tapered sleeve sliding block supporting plate, and the tapered sleeve sliding block supporting plate is installed on the driving structure panel through the third adaptive support column;
the guide pipe head bending driving motor is used for controlling the third adaptive support column to advance or retreat along the second linear guide rail, and the third adaptive support column drives the conical sleeve sliding block supporting plate to advance or retreat so as to control the guide pipe head bending operation.
7. The combined ablation catheter and sheath drive of claim 6, wherein the second linear guide is no less than 5cm in length.
8. The combined sheath and ablation catheter drive of claim 1, wherein the sheath axial advancing and retracting drive module comprises a sheath axial movement drive motor, a third linear guide, and a fourth adaptive strut, the sheath movement control consumable comprising a sheath slider support plate, the fourth adaptive strut having one end connected to the third linear guide and another end connected to the sheath slider support plate, the sheath slider support plate being mounted to the drive structure panel via the fourth adaptive strut;
and the sheath tube axial movement driving motor is used for controlling the fourth adaptive support column to advance or retreat along the third linear guide rail, and driving the sheath tube sliding block supporting plate to advance or retreat through the fourth adaptive support column so as to control the axial advancing or retreating operation of the catheter.
9. The combined drive device of the detached ablation catheter and sheath of claim 1 or 8, wherein the sheath circumferential rotation drive module comprises a sheath circumferential rotation drive motor and a fifth adaptive strut, and the sheath movement control consumables comprise a second drive gear, a second linkage gear, a sheath support rod and a sheath adapter; one end of the fifth adaptive strut is connected with the sheath tube circumferential rotation driving motor, the other end of the fifth adaptive strut is connected with the second driving gear, and the second driving gear is installed on the driving structure panel through the fifth adaptive strut; the sheath tube adapter is used for fixing a sheath tube;
sheath pipe circumference rotation driving motor for pass through fifth adaptation pillar control second linkage gear and second drive gear are rotatory, through second linkage gear and second drive gear drive sheath pipe bracing piece and sheath pipe adapter rotation to control sheath pipe circumference rotation operation.
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| Application Number | Priority Date | Filing Date | Title |
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| CN202021089249.1U CN212631403U (en) | 2020-06-12 | 2020-06-12 | Combined driving device for separated ablation catheter and sheath catheter |
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| CN202021089249.1U CN212631403U (en) | 2020-06-12 | 2020-06-12 | Combined driving device for separated ablation catheter and sheath catheter |
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Cited By (1)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN114343833A (en) * | 2021-11-29 | 2022-04-15 | 苏州艾科脉医疗技术有限公司 | Ablation catheter |
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Cited By (1)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN114343833A (en) * | 2021-11-29 | 2022-04-15 | 苏州艾科脉医疗技术有限公司 | Ablation catheter |
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