Electric artificial lens implantation system

Abstract

The utility model discloses an electric intraocular lens implanting system which comprises an injector outer shell, an injector rear shell, a push needle, a power system and a power supply system, the injector outer shell and the injector rear shell play a role in protection, the push needle is used for pushing out an intraocular lens, the power system is used for providing power for the whole injection process, and the power supply system is used for providing energy for the power system. The power system and the power supply system are installed in the injector outer shell, the power system is connected with the power supply system, part of the power system and the whole power supply system are wrapped in the injector rear shell, the tail end of the injector rear shell is provided with a USB charging outer hole, and the USB charging outer hole is connected with an external wired charger. The speed in the injection process is uniform, stable and controllable, and the deformation of the artificial lens is controllable, so that scratching and tearing are reduced, the risk in the implantation process is reduced, the implantation success rate is improved, in addition, a large amount of training on doctors can be reduced, and the workload of the doctors can be reduced.

Description

Technical Field

[0001] This utility model relates to the field of intraocular lens technology, and in particular to an electrically powered intraocular lens implantation system. Background Technology

[0002] Currently, intraocular lens (IOL) implantation is typically performed manually, requiring a doctor's intervention throughout the process. However, each doctor's implantation method and technique vary, potentially leading to the IOL ejecting into the capsular capsule and causing injury. Furthermore, the injection speed affects IOL deformation; rapid injection can cause scratches and tears. In addition, the complex procedure requires extensive specialized training for doctors to successfully implant the IOL, increasing their workload. Therefore, there is an urgent need to develop a motorized IOL implantation system to address these technical challenges.

[0003] In view of the above, this utility model is hereby proposed. Utility Model Content

[0004] The purpose of this invention is to provide an electrically powered intraocular lens implantation system that allows the intraocular lens to be smoothly implanted into the human capsular bag, avoiding ejection. The injection speed is uniform, stable, and controllable during the injection process, and the deformation of the intraocular lens is controllable, thereby reducing scratches and tears, lowering the risks during the implantation process, and improving the success rate of implantation. In addition, it can reduce the amount of training required for doctors and reduce their workload. It has broad application prospects and is conducive to its widespread application.

[0005] To achieve the above objectives, this utility model provides an electrically powered intraocular lens implantation system, comprising a protective injector housing and an injector rear housing, an injector needle for ejecting the intraocular lens, a power system providing power for the entire injection process, and a power supply system providing energy to the power system. The injector needle is mounted on the power system, and both are installed inside the injector housing. The power system is connected to the power supply system. An inlet head is installed at the other end of the injector housing. Part of the power system and the entire power supply system are enclosed within the injector rear housing. The device includes a fixed power system and a power supply system. A control button is located on the rear shell of the injector, allowing the injector needle to be pushed forward or retracted. A USB charging port is located at the tail end of the injector's rear shell, allowing connection to an external wired charger. The front end of the injector needle has a fork that contacts and pushes the intraocular lens, simultaneously positioning the posterior haptic of the intraocular lens on the lens's optical zone. The tail end of the injector needle serves as a connecting end, which connects to the power system. This connection is achieved through magnetic force, facilitating easy disassembly and installation of the injector needle.

[0006] Preferably, the power system includes a fixed frame, a movable pusher, a lead screw, a motor as a power source, and a gearbox for changing the motor speed and torque. The fixed frame serves as a support for the entire power system, and a movable lead screw is mounted on top of it. The movable pusher is fixed on the lead screw and reciprocates with it. Limit controller one and limit controller two are respectively provided at both ends of the lead screw to limit the movement of the movable pusher. One end of the lead screw is connected to the motor through the gearbox, converting rotary motion into linear motion, which has the advantages of high precision, reversibility, and high efficiency. The gearbox is connected to one side of the fixed frame.

[0007] Preferably, the movable pusher is provided with a second magnet inside, and the far end of the pusher pin connection end is provided with a first magnet that cooperates with the second magnet, so that the pusher pin is magnetically connected to the movable pusher pin through the first magnet and the second magnet.

[0008] Preferably, the power supply system includes a control circuit board for controlling the operation of the entire system, a battery, an energy component bracket, a USB charging port, and an induction coil. The control circuit board is located above the energy component bracket, and the battery is located below it. An induction coil is located on one side of the energy component bracket, and a USB charging port is located at the outer end of the induction coil.

[0009] Preferably, the charging method includes USB charging and contactless charging. The USB charging method connects to an external charger through the USB charging port to charge the electric intraocular lens implantation system. The contactless charging method utilizes the changing magnetic field generated when current passes through the transmitting coil. This magnetic field induces current in the induction coil, thereby transmitting electrical energy from the transmitting end to the receiving end, realizing wireless charging.

[0010] Preferably, the pusher is a metal pusher that can be repeatedly sterilized and reused.

[0011] Preferably, the battery is a lead-acid battery.

[0012] The present invention provides an electrically powered intraocular lens implantation system, which has the following beneficial effects.

[0013] 1. This utility model overcomes the problem of ejecting the artificial lens into the human capsular bag, allowing the artificial lens to be stably implanted into the human capsular bag. The injection speed is uniform, stable and controllable during the injection process, and the deformation of the artificial lens is controllable, thereby reducing scratches and tears, reducing the risk during the implantation process, and improving the implantation success rate.

[0014] 2. This utility model can reduce the amount of training required for doctors, reduce their workload, and improve work efficiency.

[0015] 3. This utility model is reusable, which helps to reduce the cost of use. The pusher can be quickly disassembled and replaced, making it easy to operate.

[0016] 4. The power system of this utility model adopts a lead screw feed during the injection process, which is controllable and stable; the power supply system has two charging methods, namely USB charging and non-contact charging, and the charging method is not unique, which has the characteristics of diversity. Attached Figure Description

[0017] Figure 1 A schematic diagram of the structure of an electrically driven intraocular lens implantation system provided by this utility model;

[0018] Figure 2 Exploded view of an electrically powered intraocular lens implantation system provided by this utility model;

[0019] Figure 3 A schematic diagram of the injector housing structure of an electric intraocular lens implantation system provided by this utility model;

[0020] Figure 4 A schematic diagram of the posterior shell structure of the injector in an electrically powered intraocular lens implantation system provided by this utility model;

[0021] Figure 5 A schematic diagram of the pusher structure of an electric intraocular lens implantation system provided by this utility model;

[0022] Figure 6 A three-dimensional view of the power system of an electric intraocular lens implantation system provided by this utility model;

[0023] Figure 7 A front view of the power system of an electric intraocular lens implantation system provided by this utility model;

[0024] Figure 8 The present invention provides a three-dimensional power supply system for an electrically powered intraocular lens implantation system. Figure 1 ;

[0025] Figure 9 The present invention provides a three-dimensional power supply system for an electrically powered intraocular lens implantation system. Figure 2 ;

[0026] Figure 10 A schematic diagram of the induction coil structure of an electric intraocular lens implantation system provided by this utility model.

[0027] In the picture:

[0028] 1. Injector housing 101. Inlet head 2. Injector rear housing 201. USB charging port 202. Control button 3. Injector needle 301. Front fork 302. Injector needle connection end 4. Power system 401. Motor 402. Gearbox 403. Fixing frame 404. Moving push table 405. Lead screw 406. Limit controller one 407. Limit controller two 5. Power supply system 501. Control circuit board 502. Battery 503. Energy component mounting frame 504. USB charging port 505. Induction coil. Detailed Implementation

[0029] The present invention will be further described below with reference to specific embodiments and accompanying drawings to help understand the content of the present invention.

[0030] like Figures 1-5 The figures shown are a schematic diagram, an exploded view, and schematic diagrams of the injector housing, injector rear housing, and injector needle structure of an electric intraocular lens implantation system provided by this utility model. The electric intraocular lens implantation system includes a protective injector housing 1 and an injector rear housing 2, an injector needle 3 for ejecting the intraocular lens, a power system 4 that provides power for the entire injection process, and a power supply system 5 that provides energy to the power system 4. The injector needle 3 is mounted on the power system 4, and both are completely enclosed by the injector housing 1. The injector needle 3 is a metal needle that can be repeatedly sterilized and reused. The power system 4 extends out of the injector housing 1 and connects to the power supply system 5. An inlet head 101 is installed at the other end of the injector housing 1. Part of the power system 4 and the entire power supply system 5 are enclosed in the injector rear housing 2. The injector housing 1 and the injector rear housing 2 fix the power system 4 and the power supply system 5. The injector rear housing 2 is provided with a control button 202, which controls the injector needle 3 to push forward or retract backward. The tail end of the injector rear housing 2 is provided with a USB charging port 201, which is connected to an external wired charger. The front end of the injector needle 3 is provided with a front fork 301, which contacts and pushes the intraocular lens, while simultaneously positioning the posterior haptic of the intraocular lens on the optical zone of the lens. The tail end of the injector needle 3 is the injector connection end 302, which is connected to the power system 4. Under the action of magnetic force, it can be quickly connected to the power system 4, facilitating the disassembly and installation of the injector needle 3.

[0031] like Figures 6-7The figures shown are a perspective view and a front view of an electrically powered intraocular lens implantation system provided by this utility model. The power system 4 includes a fixed frame 403, a movable pusher 404, a lead screw 405, a motor 401 as a power source, and a gearbox 402 for changing the speed and torque of the motor 401. The fixed frame 403 serves as a support for the entire power system 4, and the lead screw 405, which can move back and forth, is mounted on top of it. The movable pusher 404 is fixed on the lead screw 405 and moves back and forth with the lead screw 405. Limit controller 1 406 and limit controller 2 407 are respectively provided at both ends of the lead screw 405 to limit the movement position of the movable pusher 404. One end of the lead screw 405 is connected to the motor 401 through the gearbox 402, converting rotary motion into linear motion, which has the advantages of high precision, reversibility, and high efficiency. The gearbox 402 is connected to one side of the fixed frame 403. The movable pusher 404 is equipped with a second magnet inside, and the end of the pusher pin connection 302 is equipped with a first magnet that cooperates with the second magnet. The pusher pin 3 is magnetically connected to the movable pusher 404 through the first magnet and the second magnet.

[0032] like Figures 8-10 The diagram shows a three-dimensional power supply system for an electrically powered intraocular lens implantation system provided by this invention. Figure 1 3D Figure 2 A schematic diagram of the induction coil structure is also provided. The power supply system 5 includes a control circuit board 501 that controls the operation of the entire system, a battery 502, an energy component bracket 503, a USB charging port 504, and an induction coil 505. The control circuit board 501 is located above the energy component bracket 503, and the battery 502 is located below it. The induction coil 505 is located on one side of the energy component bracket 503, and the USB charging port 504 is located at the outer end of the induction coil 505. The battery 502 is a lead-acid battery. The charging methods include USB charging and contactless charging. The USB charging method connects to an external charger through the USB charging port 504 to charge the electric intraocular lens implantation system. The contactless charging method utilizes the changing magnetic field generated when current passes through the transmitting coil. This magnetic field induces a current in the induction coil 505, thereby transmitting electrical energy from the transmitting end to the receiving end, realizing wireless charging.

[0033] This invention overcomes the limitations of ejecting the intraocular lens (IOL) into the human capsular bag, allowing for stable implantation. The injection speed is uniform, stable, and controllable during the injection process, and the deformation of the IOL is controllable, thus reducing scratches and tears, lowering the risks during implantation, and increasing the success rate. This invention reduces the amount of training required for doctors, decreasing their workload and improving work efficiency. This invention is reusable, which helps reduce operating costs. The injection needle 3 can be quickly disassembled and replaced, making operation convenient. The power system 4 of this invention uses a lead screw 405 for feeding during the injection process, ensuring controllable and stable feeding. The power supply system 5 offers two charging methods: USB charging and non-contact charging, providing versatility.

[0034] This article uses specific examples to illustrate the inventive concept in detail. The description of the above embodiments is only for the purpose of helping to understand the core idea of ​​this utility model. It should be noted that any obvious modifications, equivalent substitutions or other improvements made by those skilled in the art without departing from the inventive concept should be included within the protection scope of this utility model.

Claims

1. An electrically powered intraocular lens implant system, characterized in that The device includes a protective injector housing and a injector rear housing, an injector needle for ejecting the intraocular lens, a power system that provides power for the entire injection process, and a power supply system that provides energy to the power system. The injector needle is mounted on the power system, and both are installed inside the injector housing. The power system is connected to the power supply system. An inlet head is installed at the other end of the injector housing. Part of the power system and the entire power supply system are enclosed in the injector rear housing. The injector housing and the injector rear housing fix the power system and the power supply system. The injector rear housing has a control button that controls the injector needle to push forward or retract backward. The tail end of the injector rear housing has a USB charging port for connecting to an external wired charger. The front end of the injector needle has a fork that contacts and pushes the intraocular lens, simultaneously positioning the posterior haptic of the intraocular lens on the optical zone of the lens. The tail end of the injector needle is a connecting end that connects to the power system and can be quickly connected under magnetic force.

2. The electrically powered intraocular lens implant system of claim 1, wherein, The power system includes a fixed frame, a movable push platform, a lead screw, a motor as the power source, and a gearbox for changing the motor speed and torque. The fixed frame serves as the support for the entire power system, and a movable lead screw is mounted on top of it. The movable push platform is fixed on the lead screw and reciprocates with it. Limit controller one and limit controller two are respectively provided at both ends of the lead screw to limit the movement of the movable push platform. One end of the lead screw is connected to the motor through the gearbox to convert rotary motion into linear motion. The gearbox is connected to one side of the fixed frame.

3. The electrically powered intraocular lens implant system of claim 2, wherein, The movable pusher is equipped with a second magnet inside, and the end of the pusher pin connection is equipped with a first magnet that cooperates with the second magnet. The pusher pin is magnetically connected to the movable pusher pin through the first magnet and the second magnet.

4. The electrically powered intraocular lens implant system of claim 3, wherein, The power supply system includes a control circuit board that controls the operation of the entire system, a battery, an energy component bracket, a USB charging port, and an induction coil. The control circuit board is located above the energy component bracket, and the battery is located below it. An induction coil is located on one side of the energy component bracket, and a USB charging port is located at the outer end of the induction coil.

5. The electrically powered intraocular lens implantation system according to claim 4, characterized in that, The charging methods include USB charging and contactless charging. The USB charging method connects to an external charger through the USB charging port to charge the electric intraocular lens implantation system. The contactless charging method utilizes the changing magnetic field generated when current passes through the transmitting coil. This magnetic field induces current in the induction coil, thereby transmitting electrical energy from the transmitting end to the receiving end, realizing wireless charging.

6. The electrically powered intraocular lens implant system of claim 5, wherein, The push needle is a metal push needle that can be repeatedly sterilized and reused.

7. The electrically powered intraocular lens implant system of claim 6, wherein, The battery is a lead-acid battery.

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