Ultra-minimally invasive bioinstrument for deep cleansing and inflammation reduction
The ultra-minimal-invasive bio-instrument addresses the issues of needle displacement and device damage in existing anti-inflammatory instruments by incorporating a clamping mechanism for secure syringe placement and an antivibration mechanism for enhanced stability and safety.
Patent Information
- Application Number
- DE202025100123
- Authority / Receiving Office
- DE · DE
- Patent Type
- Utility models
- Current Assignee / Owner
- Priority Date
- 2024-09-20
- Filing Date
- 2025-01-13
- Publication Date
- 2025-03-13
- Estimated Expiration
- 2035-01-31
AI Technical Summary
Existing anti-inflammatory bio-instruments are prone to accidental needle displacement or breakage during injection, and are often expensive and susceptible to damage from external influences.
An ultra-minimal-invasive bio-instrument featuring a clamping mechanism that secures the syringe in place, combined with an antivibration mechanism to prevent accidental movement and damage, and shock absorber wheels for easy and damage-free mobility.
The bio-instrument effectively prevents needle displacement and breakage during injection, reduces the risk of device damage, and enhances user safety and convenience through improved positioning and vibration damping.
Smart Images
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Abstract
Description
[0001] The invention relates to the field of biomedicine, in particular to an ultra-minimally invasive bioinstrument for deep cleansing and anti-inflammatory purposes.
[0002] Ultra-minimally invasive techniques are widely used in medicine and biological therapies and shorten the recovery time after surgery or treatment by minimizing the incision; deep cleansing techniques are often used to remove toxins or waste from the body or from the skin's surface; and anti-inflammatory techniques are aimed at reducing inflammation and pain, which are now combined with the anti-inflammatory bioinstrument to increase the effectiveness of the patient's treatment.
[0003] Most of the existing anti-inflammatory bioinstruments require the healthcare provider to inject drugs into the bioinstruments during use, and the syringe may slip due to accidental hand slippage during injection, or the needle may break due to accidental tipping of the syringe. At the same time, the existing anti-inflammatory bioinstruments are often relatively expensive and may be damaged by external influences during use, so there is an urgent need for technology improvement.
[0004] Therefore, the technical expert offers an ultra-minimally invasive bioinstrument for deep cleansing and anti-inflammatory to solve the problems listed in the above description.
[0005] The objective of this invention is to overcome the deficiencies of existing technology and to offer an ultra-minimally invasive bioinstrument for deep cleansing and anti-inflammatory treatment. Unlike most conventional anti-inflammatory bioinstruments, the device is fixed in the correct position by means of a clamping mechanism. When the medical professional injects the drug with the syringe, the turntable is rotated by the oscillating lever by rotating the toggle lever, so that one end of the inner clamping block rotates and the other end of the sliding post slides in the through slot, so that the clamping block can be opened. At this time, the syringe is inserted into the hole in the center and the pivoting lever is rotated in the opposite direction, so that the cylindrical syringe can be clamped and the risk of the needle falling out is avoided.At the same time, the spring in the through slot is deformed so that when the staff does not exert any force on the toggle lever, the spring can spring back, so that the syringe can be fixed to prevent bending of the syringe and damage.
[0006] To achieve the above-mentioned problem, the invention offers the following technical solutions: An ultra-minimally invasive bioinstrument for deep cleansing and anti-inflammation, comprising a bioinstrument housing, a clamping mechanism, and an anti-vibration mechanism, wherein the clamping mechanism comprises a fixing disc having a rotating plate provided at its upper end, a plurality of through-slots provided inside the rotating plate, a plurality of rotating shafts fixedly attached to the upper surface of the fixing disc, a clamping block rotatably connected to the outer wall of the rotating shafts, a sliding post provided inside each of the through-slots, and a first spring provided on the outer wall of each of the sliding posts, a fixing ball fixedly connected to an end of the first spring remote from the sliding post, and a housing disc fixedly connected to the upper surface of the rotating shaft; wherein the anti-vibration mechanism comprises a mounting plate, a rubber post being fixedly connected to both the outer wall at the front end and the outer wall at the rear end of the mounting plate, a plurality of support plates being fixedly connected to the lower surface of the rubber post, and a stopper being slidably connected to the upper surface of the support plates, a guardrail being provided in the center of the body of the stopper, a disc motor being provided inside the guardrail, and a fan being fixedly connected to the output end of the disc motor, a plurality of third springs being fixedly connected to the inner wall of the stopper; With the above technical solution, compared to most conventional anti-inflammatory bioinstruments, the device is able to deform when the stopper is subjected to force during use or movement of the device through the anti-vibration mechanism installed on the outside of the bioinstrument body, so that the stopper can slide on the surfaces of the support plate and the rubber post, thereby preventing the bioinstrument from colliding and causing unnecessary damage, and improving the protection of the device. In addition, the fan on the stopper can dissipate heat to ensure stable operation of the device, and support plates are installed on the bottom surface of the bioinstrument to prevent shock when the device is moving, thus avoiding the risk of damage to the device.
[0007] Furthermore, the clamping mechanism is attached to the outer wall of one side of the bioinstrument housing, wherein the anti-vibration mechanism is attached to the outer wall of the front end, the outer wall of the rear end, or the outer wall of the side of the bioinstrument housing facing away from the clamping mechanism; Thanks to the technical solution described above, the mechanism is attached to the bioinstrument body in a sensible way, which facilitates its use.
[0008] Furthermore, an outer wall of one side of the bioinstrument housing is fixedly connected to a fixing disk, wherein an outer wall of a side of the bioinstrument housing remote from the fixing disk is fixedly connected to a fixing plate, and wherein the fixing ball is fixedly connected to the through slot, and the stopper slides on the upper surface of the support plate and on the outer wall of the rubber post, wherein an end of the third spring remote from the stopper is fixedly connected to the bioinstrument housing; Through the above technical solutions, the fixing disc and the fixing plate can be fixed to the bioinstrument body, the fixing ball is fixed to the through slot, so that the spring cannot deform chaotically, the stopper can slide on the support plate and the rubber post while the spring deforms, which can cushion the impact force, and at the same time, the end of the spring is fixed to the body, which leads to better vibration damping.
[0009] Furthermore, shock absorption wheels are provided at each of the four corners of the lower surface of the bioinstrument housing, each comprising a rotary disk, the rotary disk being fixedly connected to the lower surface of the bioinstrument housing, a support disk being rotatably connected to the lower surface of the rotary disk, and cylindrical slots being provided on both sides of the upper surface of the support disk, a socket post being slidably connected to the inside of the cylindrical slot, a support block being fixedly connected to the lower surface of the socket post, and a rotary rod being rotatably connected to the inner wall of the support block, a wheel being provided over the outer wall of the rotary rod, a second spring being provided over the outer wall of the socket post, and a spring housing being provided over the outer wall of the second spring; The technical solution described above makes it possible to move the bioinstrument easily by providing shock-absorbing wheels and at the same time reduce the bumps when moving, making it more comfortable to move the bioinstrument.
[0010] In addition, the upper surface of the spring housing is fixedly connected to a support disc, a suspension post is fixedly connected to the rear end of the lower surface of the support disc, a fender is fixedly connected to the lower surface of the suspension post, and the bushing post slides in a cylindrical slot; Through the above technical solutions, the spring housing is fixed with the support washer, so that when the spring deformation occurs, excessive pressure can be avoided which will damage the spring when it reaches the compression limit, through the suspension post and the fender can prevent moving dust splashing, sliding through the bushing post into the cylindrical slot, so that the spring deformation will not move, and the bushing post can have a sliding space to avoid damage to the bushing post.
[0011] In addition, several toggle levers are firmly connected to the outer wall of the turntable; The technical solution described above makes it easy to rotate the turntable.
[0012] In addition, the clamping block slides on the upper surface of the turntable; This technical solution makes it easier to rotate the terminal block.
[0013] In addition, the sliding post slides in the through slot;
[0014] The technical solution described above allows the terminal block to be opened and closed using a sliding post and a through slot.
[0015] The invention has the following advantageous effects: 1. This invention offers an ultra-minimally invasive bioinstrument for deep cleansing and anti-inflammatory treatment. Unlike most conventional anti-inflammatory bioinstruments, the device is fixed in the correct position by means of a clamping mechanism. When the medical professional injects the medication with the syringe, the rotary table is rotated by the oscillating lever by rotating the toggle lever, so that one end of the inner clamping block rotates and the other end of the sliding post slides in the through slot, so that the clamping block can be opened. At this time, the syringe is inserted into the hole in the center and the swing lever is rotated in the opposite direction, so that the cylindrical syringe can be clamped and the risk of the needle falling out is avoided. At the same time, the spring in the through slot is deformed, so that when the staff does not exert force on the toggle lever,the spring can spring back so that the syringe can be fixed to prevent bending of the syringe and damage. 2. An ultra-minimally invasive bioinstrument for deep cleansing and anti-inflammatory in this invention, compared to most conventional anti-inflammatory bioinstruments, is capable of deforming when the stopper is subjected to force during use or movement of the device thanks to the anti-vibration mechanism mounted on the outside of the bioinstrument body, so that the stopper can slide on the surfaces of the support plate and the rubber post. This allows the bioinstrument to avoid collision accidents that may cause unnecessary damage, and the protection of the device is improved. In addition, the fan on the stopper can dissipate heat to ensure stable operation of the device. And support plates are mounted on the bottom surface of the bioinstrument to prevent shock when the device is moving, thus avoiding the risk of damage to the device. Fig. Figure 1 shows an axonometric view of an ultra-minimally invasive bioinstrument for deep cleansing and anti-inflammatory use in the present invention. Fig. Figure 2 shows a schematic diagram of the structure of the anti-vibration mechanism of an ultra-minimally invasive bioinstrument for deep cleaning and anti-inflammation in the present invention. Fig. Figure 3 shows an axonometric view of the shock absorbing wheel of an ultra-minimally invasive bioinstrument for deep cleansing and anti-inflammatory in the present invention. Fig. 4 shows a schematic diagram of the structure of the shock absorbing wheel of an ultra-minimally invasive bioinstrument for deep cleansing and anti-inflammatory in the present invention. Fig. Figure 5 shows a rear view of the clamping mechanism of an ultra-minimally invasive bioinstrument for deep cleansing and anti-inflammatory use in the present invention. Fig. Figure 6 shows a schematic diagram of the structure of the clamping mechanism of an ultra-minimally invasive bioinstrument for deep cleaning and anti-inflammation in the present invention. Fig. Figure 7 shows a side view of the clamping mechanism of an ultra-minimally invasive bioinstrument for deep cleansing and anti-inflammatory use in the present invention.
[0016] As in Fig. 1 to 7, an embodiment of the invention is shown: An ultra-minimally invasive bioinstrument for deep cleansing and anti-inflammation, comprising a bioinstrument housing 1, a clamping mechanism 2, and an anti-vibration mechanism 4, wherein the clamping mechanism 2 comprises a fixing disc 206, at the upper end of which a rotary plate 202 is provided, wherein a plurality of through slots 204 are provided inside the rotary plate 202, a plurality of rotary shafts 209 are fixedly attached to the upper surface of the fixing disc 206, wherein a clamping block 207 is rotatably connected to the outer wall of the rotary shafts 209, wherein a sliding post 208 is provided inside each of the through slots 204, and a first spring 205 is provided on the outer wall of each of the sliding posts 208, wherein a fixing ball 203 is fixedly connected to an end of the first spring 205 remote from the sliding post 208, and a housing disc 2010 is fixedly attached to the upper surface of the Shaft 209 is connected; wherein the anti-vibration mechanism 4 comprises a fixing plate 401, a rubber post 402 is fixedly connected to both the outer wall at the front end and the outer wall at the rear end of the fixing plate 401, a plurality of support plates 408 are fixedly connected to the lower surface of the rubber post 402, and a stopper 403 is slidably connected to the upper surface of the support plates 408, a guardrail 404 is provided in the center of the body of the stopper 403, a disc motor 407 is provided inside the guardrail 404, and a fan 405 is fixedly connected to the output end of the disc motor 407, a plurality of third springs 406 are fixedly connected to the inner wall of the stopper 403.
[0017] Unlike most conventional anti-inflammatory bioinstruments, this device is fixed in the correct position by means of a clamping mechanism 2. When the medical professional injects the medication with the syringe, the rotating plate 202 is rotated by the oscillating lever by rotating the toggle lever 201, so that one end of the inner clamping block 207 rotates and the other end of the sliding post 208 slides in the through slot 204, so that the clamping block 207 can be opened. At this time, the syringe is inserted into the hole in the center and the pivoting lever is rotated in the opposite direction, so that the cylindrical syringe can be clamped and the risk of the needle falling out is avoided. At the same time, the spring in the through slot 204 is deformed, so that when the staff does not exert any force on the toggle lever 201, the spring can rebound, allowing the syringe to be fixed.to avoid bending the syringe and causing damage.
[0018] The clamping mechanism 2 is attached to an outer wall of one side of the bioinstrument housing 1, and the anti-vibration mechanism 4 is attached to the outer wall of the front end, the outer wall of the rear end, and the outer wall of the side of the bioinstrument housing 1 facing away from the clamping mechanism 2, respectively, so that the mechanism is properly attached to the biometer housing 1 and thus convenient to use. An outer wall on the side of the bioinstrument housing 1 is fixedly connected to the fixing disc 206. An outer wall on the side of the bioinstrument housing 1 facing away from the fixing disc 206 is fixedly connected to the fixing plate 401, and the fixing ball 203 is fixedly connected to the through slot 204. The stopper 403 slides on the upper side of the support plate 408 and the outer wall of the rubber post 402, and the end of the third spring 406 remote from the stopper 403 is fixedly connected to the bioinstrument housing 1.so that the mounting disc 206 and the mounting plate 401 can be attached to the bioinstrument housing 1, the mounting ball 203 is fixed in the through slot 204 so that the spring can deform without moving, and the stopper 403 can slide on the support plate 408 and the rubber post 402 while the spring deforms and dampens the impact force. Furthermore, one end of the spring is attached to the housing, which enables better vibration damping; shock-absorbing wheels 3 are provided at all four corners of the lower surface of the bioinstrument housing 1, the shock-absorbing wheels 3 comprising a rotary disc 301 that is fixedly connected to the lower surface of the bioinstrument housing 1, a lower surface of the rotary disc 301 being rotatably connected to a support disc 302, and cylindrical slots 303 are provided on both sides of the upper surface of the support disc 302.wherein a socket post 305 is slidably connected to the interior of the cylindrical slot 303, and a support block 307 is fixedly connected to the lower surface of the socket post 305, wherein the inner walls of the support block 307 are all rotatably connected to a rotary rod 308, the outer wall of the rotary rod 308 is covered with a wheel 309, an outer wall of the socket post 305 is provided with a second spring 306, wherein an outer wall of the second spring 306 is provided with a spring housing 304, by providing shock absorbing wheels 3, it is possible to move the bioinstrument easily and at the same time reduce the unevenness during movement, so that it becomes more convenient to move the bioinstrument, wherein the upper surface of the spring housing 304 is fixedly connected to the support disk 302, the rear end of the lower surface of the support disk 302 is fixedly connected to the Suspension post 3010 is connected,and the lower surface of the suspension post 3010 is fixedly connected to the fender 3011, with the bushing post 305 sliding in the cylindrical slot 303; The fastening of the spring housing 304 and the support disc 302 prevents damage to the spring during deformation when the spring reaches its compression limit under excessive pressure. The suspension post 3010 and the fender 3011 prevent the splashing of moving dust. The sliding of the bushing post 305 in the cylindrical slot 303 prevents the spring from moving uncontrollably during deformation. The bushing post 305 has a certain amount of sliding space to prevent damage to the bushing post 305. Several toggle levers 201 are firmly attached to the outer wall of the turntable 202, which enable rotation of the turntable 202. The clamping block 207 slides on the top of the turntable 202.thereby facilitating the rotation of the clamping block 207, and the sliding post 208 slides in the through slot 204, so that the clamping block 207 can be opened and contracted with the aid of the sliding post 208 and the through slot 204.
[0019] Operating principle: First, when injecting medication with a syringe, the medical professional uses the clamping mechanism 2 to rotate the toggle lever 201 to rotate the intermediate rotary disc 202, causing the sliding post 208 at one end of the clamping block 207 to slide along the through slot 204. To open the clamping block 207, a rotary shaft 209 pivotally attached to the other end rotates. At this moment, the syringe is inserted, and the toggle lever 201 is reversed, clamping the clamping block 207. At the same time, the spring in the through slot 204 rebounds and clamps the device, thus avoiding the risk of the syringe falling and reducing the risk of the syringe bending and the associated damage. At the same time, the device is held in position by the anti-vibration mechanism 4 and by the provision of a fixing plate 401 and a support plate 408 in the bioinstrument housing 1,A spring post on both sides of the mounting plate 401 cushions the corners to prevent accidental impacts on the human body from causing damage. The upper end of the support plate 408 is slidably connected to a stopper 403. Several springs are attached to the stopper 403 on the biometer body 1. When the impact hits the stopper 403, the spring absorbs the shock, so that the bioinstrument can avoid accidents caused by collisions. In addition, the fan 405 on the baffle 403 can dissipate heat to ensure stable operation of the device. The shock-absorbing wheels 3 on the bottom are designed to reduce shocks during movement through the spring support and wheels 309 and protect the device from mechanical damage. List of reference symbols: 1 bioinstrument housing 2 clamping mechanism 201 Knee lever 202 turntables 203 Mounting ball 204 Through slot 205 first spring 206 mounting disc 207 terminal block 208 sliding posts 209 Rotating shaft 2010 housing disc 3 Shock absorption wheel 301 turntable 302 support disc 303 cylindrical slot 304 spring housing 305 socket posts 306 second spring 307 support block 308 Rotating rod 309 Wheel 3010 Suspension post 3011 fender 4 Anti-vibration mechanism 401 mounting plate 402 rubber posts 403 stop 404 protective railings 405 blower 406 third spring 407 disc motor 408 support plate
Claims
[1] An ultra-minimally invasive bioinstrument for deep cleansing and anti-inflammatory action, comprising a bioinstrument housing (1), a clamping mechanism (2) and an anti-vibration mechanism (4), wherein the clamping mechanism (2) comprises a fixing disc (206) having a rotary plate (202) provided at its upper end, wherein a plurality of through-slots (204) are provided inside the rotary plate (202), a plurality of rotary shafts (209) are fixedly attached to the upper surface of the fixing disc (206), a clamping block (207) is rotatably connected to the outer wall of the rotary shafts (209), wherein a sliding post (208) is provided inside each of the through-slots (204), and a first spring (205) is provided on the outer wall of each of the sliding posts (208), wherein a fixing ball (203) is fixedly connected to one end of the first spring (205) extending from the sliding post (208) is removed,and a housing disc (2010) is fixedly connected to the upper surface of the rotary shaft (209); wherein the anti-vibration mechanism (4) comprises a mounting plate (401), a rubber post (402) being fixedly connected to both the outer wall at the front end and the outer wall at the rear end of the mounting plate (401), a plurality of support plates (408) being fixedly connected to the lower surface of the rubber post (402), and a stopper (403) being slidably connected to the upper surface of the support plates (408), a guardrail (404) being provided in the center of the body of the stopper (403), a disc motor (407) being provided within the guardrail (404), and a fan (405) being fixedly connected to the output end of the disc motor (407), a plurality of third springs (406) being fixedly connected to the inner wall of the stopper (403). [2] Ultra-minimally invasive bioinstrument for deep cleansing and anti-inflammatory treatment according to claim 1,characterized by that the clamping mechanism (2) is attached to the outer wall of one side of the bioinstrument housing (1), wherein the anti-vibration mechanism (4) is attached to the outer wall of the front end, the outer wall of the rear end or the outer wall of the side of the bioinstrument housing (1) facing away from the clamping mechanism (2). [3] Ultra-minimally invasive bioinstrument for deep cleansing and anti-inflammatory treatment according to one of the preceding claims, characterized bythat an outer wall of one side of the bioinstrument housing (1) is fixedly connected to a fixing disk (206), wherein an outer wall of a side of the bioinstrument housing (1) remote from the fixing disk (206) is fixedly connected to a fixing plate (401), and wherein the fixing ball (203) is fixedly connected to the through slot (204), and the stopper (403) slides on the upper surface of the support plate (408) and on the outer wall of the rubber post (402), wherein an end of the third spring (406) remote from the stopper (403) is fixedly connected to the bioinstrument housing (1). [4] Ultra-minimally invasive bioinstrument for deep cleansing and anti-inflammatory treatment according to one of the preceding claims, characterized bythat shock-absorbing wheels (3) are provided at each of the four corners of the lower surface of the bioinstrument housing (1), each comprising a rotary disk (301), wherein the rotary disk (301) is fixedly connected to the lower surface of the bioinstrument housing (1), wherein a support disk (302) is rotatably connected to the lower surface of the rotary disk (301), and cylindrical slots (303) are provided on both sides of the upper surface of the support disk (302), wherein a socket post (305) is slidably connected to the inside of the cylindrical slot (303), a support block (307) is fixedly connected to the lower surface of the socket post (305), and a rotary rod (308) is rotatably connected to the inner wall of the support block, wherein a wheel (309) is provided above the outer wall of the rotary rod (308), a second spring (306) above the outer wall of the socket post (305) is provided, and a spring housing (304) is provided above the outer wall of the second spring (306). [5] Ultra-minimally invasive bioinstrument for deep cleansing and anti-inflammatory treatment according to claim 4, characterized by in that the upper surface of the spring housing (304) is fixedly connected to a support disc (302), wherein a suspension post (3010) is fixedly connected to the rear end of the lower surface of the support disc (302), wherein a fender (3011) is fixedly connected to the lower surface of the suspension post (3010), and the bushing post (305) slides in a cylindrical slot (303). [6] Ultra-minimally invasive bioinstrument for deep cleansing and anti-inflammatory treatment according to one of the preceding claims, characterized by that several toggle levers (201) are firmly connected to the outer wall of the turntable (202). [7] Ultra-minimally invasive bioinstrument for deep cleansing and anti-inflammatory treatment according to one of the preceding claims, characterized by that the clamping block (207) slides on the upper surface of the turntable (202). [8] Ultra-minimally invasive bioinstrument for deep cleansing and anti-inflammatory treatment according to one of the preceding claims, characterized by that the sliding post (208) slides in the through slot (204).