10results about How to "Improving Implantation Efficiency" patented technology

This invention provides a continuous implantation device for PDX model tumor tissue, comprising: a main cannula; and a pushing component disposed at one end of the main cannula. The continuous implantation device for PDX model tumor tissue provided by this invention utilizes the cooperation of structures such as the main cannula, the pushing component, the tissue sampler, and the retaining spring. The tissue sampler can be pre-loaded with multiple tumor tissue blocks, the retaining spring enables precise positioning and switching of the tissue sampler, the pushing component can sequentially push the tissue blocks for implantation, and the main cannula can be externally connected to an syringe to achieve simultaneous delivery of gel and tissue blocks. This device enables continuous implantation of tumor tissue blocks without the need for repeated clamping and transfer operations, significantly improving implantation efficiency and avoiding the decrease in activity caused by prolonged exposure of tissue blocks outside the body. Furthermore, it eliminates the need for clamping tissue blocks during transfer, reducing the risk of mechanical damage and ensuring the integrity of the tissue blocks. It also enables simultaneous delivery of tissue blocks, gel, and drugs, improving the experimental adaptability of the device.

The application discloses a kind of preformed hole type Z-pin implantation methods with protection, belong to composite Z-pin technical field, comprising: continuous Z-pin is placed in implantation head, pass through the roller set, catheter and hollow thin-walled steel needle of implantation head, control implantation head, make hollow thin-walled steel needle pierce composite material structure, and rise, through the cooperation of roller set and auxiliary cutter realizes the discretization of continuous Z-pin and the effective residence of discrete Z-pin in composite material structure, complete Z-pin implantation.The application can effectively protect Z-pin during implantation, and guarantee the implantation path of Z-pin, and without preparing specific length discrete Z-pin in advance, without preparing foam preform, expand the application range of Z-pin reinforcement process, while greatly improving the implantation efficiency of Z-pin, and good practicality.

This invention relates to the field of anchor bolt implantation technology, specifically a post-pressure grouting anchor bolt implantation reinforcement system, including an operating platform, a guide frame, and a bolt mounting base. A storage box is located on the top of the operating platform, and a partition divides the storage box into a grouting groove and a bolt groove. The guide frame is inclinedly positioned at the bottom of the operating platform, and its upper end has a through hole connecting to the bolt groove. The bolt mounting base is located on the operating platform and has a V-shaped groove aligned with the bottom of the guide frame. During slope reinforcement operations, the operator moves the operating platform along a load plate on the slope. The anchor bolts are placed in the bolt groove of the storage box, and cement grout is stored in the grouting groove. The anchor bolts in the bolt groove are moved one by one to the bolt mounting base via the guide frame, and then implanted into the borehole via a pusher mechanism. This eliminates the need for separate handling of the anchor bolts, improving the implantation efficiency.

The electrode implanting device comprises: a plurality of implanting assemblies corresponding to a plurality of electrode wires one by one, each implanting assembly has opposite first and second ends in a first direction, and the first end is pre-connected to the front end of the corresponding electrode wire; a fixing assembly for fixing the implanting assembly and a signal transmission module, the implanting assembly is located in front of the signal transmission module in a second direction, and the second direction is perpendicular to the first direction; the electrode wire comprises a first section extending from the front end to the second end along the first direction, and a second section connecting the first section and the signal transmission module; the interval between the first fixing position of the implanting assembly on the fixing assembly and the second fixing position of the signal transmission module on the fixing assembly in the second direction is adjustable, so as to adjust the length of the second section according to the target moving amount of the implanting assembly in the first direction. Through the scheme, the overhanging part of the electrode wire can be in a natural straightening state, the electrode wires are prevented from winding with each other, and the electrode wire implanting efficiency is improved.

This disclosure provides an implantation device and an implantation system. The implantation device includes: a receiving mechanism, the receiving mechanism including a first receiving portion; and an implantation component, the implantation component being housed in the first receiving portion, at least a portion of the implantation component being movable relative to the first receiving portion to drive the movement of electrodes attached to the implantation component; wherein the electrodes are capable of acquiring electrical signals from biological tissue or applying electrical stimulation to biological tissue. The solution of this disclosure can reliably improve at least one of implantation efficiency and implantation accuracy.

This utility model discloses a precise collagen implantation device, relating to the field of medical aesthetic device technology. It includes an implantation device with a filling device connected to one end. The precise collagen implantation device of this utility model controls the volume of collagen inside the injection tube by corresponding the movement distance of the moving frame at the bottom of the scale to the scale graduations, improving the accuracy of collagen implantation. A moving motor controls the rotation of a screw, causing the moving frame to drive the piston to move at a constant speed inside the injection tube, ensuring the stability of the collagen implantation speed and automatically replenishing the collagen inside the injection tube, thus improving the efficiency of collagen implantation. By setting a distance sensor to detect the distance between the piston and the positioning plate, the piston moves a fixed distance to the left inside the injection tube, thereby achieving quantitative implantation of collagen in batches. This improves the efficiency of multiple implantations while ensuring accurate implantation volume.

The utility model discloses a resistance wire implanter which comprises a feeding vibration disc, a supporting clamping jaw, a clamping clamping jaw, a lifting clamping jaw, a guide plate and a positioning jig, a resistance wire is placed in the feeding vibration disc, the feeding vibration disc is used for feeding the resistance wire in a vibration mode, the supporting clamping jaw supports the resistance wire fed by the feeding vibration disc, the clamping clamping jaw is used for clamping the resistance wire, and the positioning jig is used for positioning the resistance wire. The guide plate is used for guiding the resistance wire to enter a product main body, the clamping clamp is used for clamping the supported resistance wire, the lifting clamping jaw is used for lifting the clamped resistance wire, the guide plate is used for guiding the resistance wire to enter the product main body, and the product main body is arranged on the side wall of the positioning jig. The whole resistance wire implanting operation is highly automatic, the implanting efficiency is high, the air cylinder is used for controlling the clamp to clamp the resistance wire, the force is stable, and the resistance wire is not prone to deformation.

The invention relates to the technical field of catgut embedding needles, in particular to a disposable medical catgut embedding needle, a kit and an assembling method thereof.The disposable medical catgut embedding needle comprises a handheld shell internally provided with a T-shaped hole and a hollow inserting needle, the bottom end of the handheld shell is fixedly connected with the hollow inserting needle, the upper end of the handheld shell is provided with a first spring, and the top end of the first spring is fixedly connected with a grip; a push rod is fixedly connected to the lower end of the grip, a connecting frame is mounted in the middle of the hollow contact pin, a thread changing unit is mounted on one side of the connecting frame, and a telescopic clamping block is mounted at the upper end of the thread changing unit; the wire changing unit comprises a first connecting plate, a connecting piece is fixedly connected to the middle of the upper end of the first connecting plate, a second connecting plate is fixedly connected to the upper end of the connecting piece, and a wire storage cylinder is installed on the outer side of the connecting piece. The problem that a line is polluted when being put into an injector can be effectively avoided, the line implanting efficiency can be improved, and meanwhile the line implanting safety is improved.

The microneedle assembly comprises a microneedle base and a microneedle mechanism, and microneedle guide holes distributed in an array mode are formed in the middle of the microneedle base; the microneedle mechanism is mounted on the microneedle base, the microneedle mechanism comprises a microneedle mounting plate and a microneedle array structure, and a clamping groove is formed in the inner wall of the microneedle mounting plate; the micro-needle array structure is clamped on the clamping groove, the micro-needle array structure is provided with a row of micro-needles which are distributed at intervals, and the micro-needles penetrate through the micro-needle guide holes. According to the microneedle assembly provided by the invention, the microneedle array structure is provided with a row of multiple microneedles, and each microneedle penetrates out of the microneedle guide hole of the microneedle base during installation so as to enter the brain tissue, so that when the microneedle assembly is implanted, multiple microneedles are implanted at a time in an array mode, and compared with one-by-one implantation, the implantation efficiency is obviously improved. According to the application, the microneedle array is used, so that multi-channel high-throughput bidirectional neural signal acquisition and regulation can be realized.