An integrated implant component of an implantable biosensor

Abstract

The present invention discloses an integrated implant component of an implantable biosensor, and the relative movement of each component is divided into three stages: ① the anti-trigger cover is removed, the bottom surface of the protective shell is fixed, the main shell is pressed, and the main shell drives the needle member, the compression spring, the main sliding seat and the fixed seat to move relative to the protective shell, and the transmitter of the sensor component provided at the bottom of the fixed seat and the sensor component provided inside the protective shell complete the clamping assembly to form a transmitter with the sensor component, and the needle member clamps the needle seat end face of the auxiliary needle member through the inner clamping claw; ② the implantation needle of the auxiliary needle member implants the sensor electrode of the sensor component under the skin; ③ then, the protruding bone position pushes the external hanging arm out of the first sliding groove, the compression spring is released, and the compression spring pushes the needle member to move in the direction away from the bottom surface of the main sliding seat, and the needle member drives the auxiliary needle member to complete the needle withdrawal. The power consumption during the shelf time is avoided, and the life of the implantable biosensor is guaranteed.

Description

Technical Field

[0001] The present invention relates to the technical field of biosensors, and in particular to an integrated implant component of an implantable biosensor. Background Art

[0002] For the diabetic population, traditional fingertip blood glucose meters have shortcomings such as being invasive, having limited information, and being unable to reflect blood glucose fluctuations and provide warnings. They can no longer meet the needs of some people, especially for type 1 diabetes patients who have real-time transmission requirements for blood glucose fluctuations and type 2 diabetes patients who require intensive insulin treatment.

[0003] Due to the need for continuous blood glucose monitoring, the integrated implant component and internal components of the implantable biosensor are required to implant the sensor into the subcutaneous tissue of the human body. Measuring the blood glucose concentration between tissue fluids is a continuous monitoring method that can be used in reality. Its single service life is one to two weeks, which greatly reduces the pain caused by the process of continuous fingertip blood sampling and venous blood sampling. Currently, such implant devices on the market have problems such as complex user operation, long implantation process, and easy mis-triggering of the push device, which leads to reduced user compliance (compliance, Patient compliance / Treatmentcompliance, also known as compliance, refers to the patient's behavior of taking treatment according to the doctor's prescription and consistent with the doctor's orders. It is customary to call the patient "cooperation"; otherwise it is called non-compliance) and experience.

[0004] The transmitter (device for transmitting monitored biological signals) has a compact structure and volume, which helps to improve the wearing experience. In the current integrated products, the transmitter is in working or silent state when placed inside the transmitter. However, no matter which of the above methods is used, the transmitter and sensor assembly have been electrically connected. In the smaller size of the transmitter, the battery size is limited, resulting in a small battery capacity. The hardware needs to have extremely low power consumption to meet the shelf life requirements of the product. Summary of the invention

[0005] In view of the above, the present invention provides a support structure for a biosensor component before implantation, which can effectively support the sensor component so that the sensor component and the transmitter are in a separated state.

[0006] An integrated implant assembly of an implantable biosensor comprises a main housing, a needle member, a compression spring, a main sliding seat, a fixing seat, an anti-trigger sleeve and a protective shell;

[0007] The relative movement of each component is divided into three stages:

[0008] The first stage: remove the anti-trigger cover, fix the bottom surface of the protective shell, press the main shell, the main shell drives the needle member, the compression spring, the main sliding seat and the fixed seat to move relative to the protective shell, and the transmitter without the sensor assembly arranged at the bottom of the fixed seat and the sensor assembly arranged inside the protective shell are assembled to form a transmitter with a sensor assembly, and the needle member clamps the needle seat end surface of the auxiliary needle member through the inner clamping claw;

[0009] The second stage: remove the protective shell, the bottom surface of the main sliding seat is attached to the skin surface, press the main shell, the main shell drives the needle member and the fixed seat to move downward relative to the main sliding seat, the needle member and the fixed seat drive the transmitter, the sensor assembly and the needle-aiding member to move downward at the same time, the bottom surface of the transmitter is bonded to the skin surface, the implantation needle of the needle-aiding member implants the sensor electrode of the sensor assembly under the skin, the protruding bone position of the main sliding seat gradually moves to the upper part of the first sliding groove close to the external hanging arm of the needle member, and the compression spring is in a compressed state;

[0010] The third stage: Then, the protruding bone position pushes the external hanging arm out of the first sliding groove, and the compression spring is released. The compression spring pushes the needle-carrying member to move in a direction away from the bottom surface of the main sliding seat, and the needle-carrying member drives the auxiliary needle member to complete the needle withdrawal.

[0011] Preferably, it further comprises an anti-trigger sleeve, wherein the middle and lower parts of the main shell are sleeved inside the protective shell, the anti-trigger sleeve is sleeved on the middle and upper part of the main shell, and the upper and lower end surfaces of the anti-trigger sleeve respectively abut against the lower end surface of the step of the main shell and the upper end surface of the protective shell;

[0012] Implantable biosensors include transmitter and sensor components of fabricated design;

[0013] Before the anti-trigger cover is removed, the transmitter and the sensor assembly are separated, the sensor assembly is placed in the lower part of the protective shell, and the transmitter is clamped in the lower part of the fixing seat;

[0014] After the anti-trigger cover is removed, a force is applied to move the main shell relative to the protective shell, and the lower end surface of the step of the main shell gradually approaches and contacts the upper end surface of the protective shell. At the same time, the transmitter clamped in the lower position of the fixing seat is clamped with the sensor assembly placed inside the protective shell, realizing the electrical connection and physical structure assembly of the transmitter and the sensor assembly, and the internal circuit of the transmitter is turned on.

[0015] Preferably, the inner bottom wall of the protective shell is provided with a sensor assembly support platform and more than two temporary support arms;

[0016] The sensor component support platform is located between more than two temporary support arms, and an oblique angle is set on the inner upper part of the temporary support arm; more than two first clamping protrusions are set on the upper side of the sensor component support platform;

[0017] More than two L-shaped frame arms extend from both sides of the component sliding seat, and the inner bottom wall of the component sliding seat is provided with component through holes;

[0018] The upper inner end surface of the L-shaped frame arm is pressed on the bevel, and the first clamping protrusion passes through the component through hole and is clamped on the upper part of the inner bottom wall, so that the protective shell supports and positions the component sliding seat;

[0019] When a downward force is applied to the component sliding seat, the L-shaped frame arm pushes the temporary support arm radially outward through the oblique angle, so that the component sliding seat moves downward relative to the protective shell.

[0020] Preferably, the inner bottom wall extends inwardly with more than one arc-shaped clamping arm, and the arc-shaped clamping arm can be elastically deformed; the sensor component support platform is provided with a blind hole to assist in accommodating the needle;

[0021] Before assembling the implant device, the sensor assembly and the needle-assisting member are supported: the sensor assembly is placed on the sensor assembly support table through the assembly through hole, the needle-assisting member is pressed on the upper part of the sensor assembly, the implantation needle of the needle-assisting member is inserted into the needle-assisting blind hole, and the end of the arc-shaped clamping arm is clamped at the end surface of the clamping part of the needle-assisting member;

[0022] When the implant device is assembled: when the lower end face of the transmitter applies a downward force to the upper end face of the component sliding seat, the L-shaped frame arm pushes the temporary support arm radially outward through the oblique angle, so that the component sliding seat moves downward relative to the protective shell and loses the pressure contact on the sensor assembly and the auxiliary needle part, and the component clamping hole of the transmitter passes through the sensor assembly and clamps the sensor assembly, realizing the electrical connection and physical structure assembly of the transmitter and the sensor assembly, and the internal circuit of the transmitter is turned on.

[0023] Preferably, the number of the arc-shaped clamping arms is 2, and the two arc-shaped clamping arms are symmetrically arranged inside the component sliding seat.

[0024] Preferably, the two arc-shaped clamping arms are symmetrically clamped on the end surfaces on both sides of the clamping point of the needle-assisting member.

[0025] Preferably, the sensor component support platform is provided with positioning protrusions, the number of which is more than 2, and the positioning protrusions are used for positioning with the positioning holes at the bottom of the sensor component.

[0026] Preferably, the height of the sensor component support platform is greater than the height of the component sliding seat.

[0027] Preferably, an annular gap is provided between the outer peripheral wall of the auxiliary needle accommodating blind hole and the outer peripheral wall of the sensor assembly supporting platform.

[0028] Preferably, the number of the external hanging arms with the needle member is more than 2, the more than 2 external hanging arms are located on the peripheral side of the inner claw, and the end of the external hanging arm is provided with a second clamping protrusion;

[0029] The fixing seat comprises an upper wall body in a semi-enclosed or fully-enclosed state, a multi-section arc ring wall body at the bottom and a first partition wall in the middle, and first sliding grooves are respectively arranged on both sides of the lower part of the upper wall body;

[0030] The main body with the needle member is located inside the upper wall;

[0031] In the first and second stages of the movement: the bottom surface of the compression spring is pressed against the top surface of the first partition wall, the compression spring is sleeved on the outside of the inner claw, the compression spring is located on the inner side of more than two outer hanging arms, the second clamping protrusion is clamped on the top of the first sliding groove, the top surface of the compression spring is against the upper end surface of the inner part of the needle member, and the compression spring is in a compressed state;

[0032] In the third stage of the movement: the second latching protrusion withdraws from the first sliding groove, the compression spring is elastically released, pushing the needle member to move upward, and when the top end of the needle member abuts against the lower end surface of the main shell, the needle member reaches the upper limit position.

[0033] Preferably, it also includes an upper cover, the bottom of the upper cover has more than two arc-shaped cantilever beams, the arc-shaped cantilever beams are provided with arc-shaped holes, and the upper inner wall of the main shell is provided with more than two arc-shaped protrusions, which are locked in the arc-shaped holes to achieve assembly of the upper cover and the main shell.

[0034] Preferably, the bottom of the upper cover forms a convex stop structure, and the upper part of the main shell forms a concave stop structure. The convex stop structure of the upper cover cooperates with the concave stop structure of the main shell to achieve the lower part of the upper cover being stuck in the upper part of the main shell.

[0035] Preferably, it further comprises a baffle, wherein the lower part of the baffle is provided with two or more first cantilever clamping beams, the lower end of the first cantilever clamping beam is provided with a first clamping protrusion, and the upper wall of the fixing seat is provided with two or more first clamping holes;

[0036] Each first clamping protrusion is clamped at the first clamping hole, the bottom surface of the blocking piece is pressed against the top surface of the upper wall, and the top surface of the blocking piece is pressed against the bottom surface of the upper cover.

[0037] The bottom surface of the upper cover is provided with a first cross reinforcing rib, the bottom surface of the first cross reinforcing rib is against the top surface of the baffle, the first cross reinforcing rib reduces and increases the matching area between the upper cover and the baffle, improves the processing accuracy, and increases the pressing force of the buckle.

[0038] The inner side of the upper wall of the fixing seat is provided with more than two second vertical slots, and the lower part of the blocking piece is provided with more than two clamping ribs, each clamping rib is clamped in one of the second vertical slots.

[0039] When the top end of the needle member abuts against the lower end surface of the main shell, the top end of the needle member abuts against the bottom surface of the blocking piece.

[0040] Preferably, the main sliding seat comprises a bottom annular wall, a second partition wall in the middle and a clamping wall in the upper portion, the second partition wall is provided with a second fixing seat through hole, and the hole wall of the second fixing seat through hole extends two protruding bone positions inwardly;

[0041] The multi-section arc ring wall body is located on the inner side of the bottom ring wall body, the upper wall body passes through the second fixing seat through hole, the protruding bone position is located in the first sliding groove, and the protruding bone position can be slidably arranged along the first sliding groove.

[0042] In the first stage of movement, the protruding bone is located at the bottom end of the first sliding groove; in the second stage of movement, the protruding bone gradually moves toward the upper end of the first sliding groove; in the initial stage of the third stage, the protruding bone pushes out the second clamping protrusion.

[0043] Preferably, the inner wall of the clamping wall is provided with a fourth vertical clamping groove, and the outer side of the upper wall body is provided with more than two first vertical clamping strips, and the first vertical clamping strips are clamped in the fourth vertical clamping groove.

[0044] Preferably, the main housing comprises a lower cavity, a cavity partition plate and an upper cavity;

[0045] More than two cantilever abutting beams are arranged at the lower part of the cavity partition plate, and the ends of the cantilever abutting beams are arranged with third clamping protrusions;

[0046] A clamping convex groove is arranged on the wall body of the clamping wall;

[0047] In the first and second stages of the movement, the third latching protrusion is partially pressed on the top of the latching wall; in the initial stage of the third stage, the force pressing on the top of the main shell makes the main shell and the fixed seat reach a starting limit state relative to the main sliding seat, and the top of the latching wall pushes the third latching protrusion to both sides. The force pressing on the top of the main shell continues until the third latching protrusion is locked into the latching protrusion groove. At the same time, the raised bone position pushes the second latching protrusion out of the first sliding groove.

[0048] Preferably, the multi-section arc ring wall body includes more than two circumferentially extending clamping arms, and the clamping arms clamp the transmitter from the circumferential side;

[0049] The inner wall of the bottom annular wall body is provided with two or more second clamping strips, and the second clamping strips do not extend to the bottom end of the bottom annular wall body;

[0050] In the first and second stages of the movement, the second clamping strip is clamped on the outer side of the clamping arm, and in the third stage of the movement, the outer side of the clamping arm is freed from the restraint of the second clamping strip.

[0051] Preferably, the outer wall with the needle member is provided with two or more second vertical slide bars, and the inner wall of the upper wall body is provided with two or more vertical guide grooves, and the second vertical slide bars are slidably arranged along the vertical guide grooves.

[0052] Preferably, the top surface of the emitter abuts against the bottom surface of the first partition wall of the fixing base.

[0053] Preferably, the cavity partition plate is provided with a first fixing seat through hole, and the upper part of the upper wall body passes through the first fixing seat through hole from the lower cavity into the upper cavity.

[0054] Preferably, more than two third vertical card slots are arranged inside the upper cavity, and the upper part of each first vertical card strip is clamped in one of the third vertical card slots; and the lower part of the first vertical card strip is clamped in the fourth vertical card slot.

[0055] Preferably, the inner wall of the anti-trigger sleeve is provided with more than two first raised ribs, the inner wall of the protective shell is provided with more than two second raised ribs, and the lower circumferential side wall of the main shell is provided with more than two first vertical grooves, and each first raised rib and a corresponding second raised rib are inserted into a first vertical groove from top to bottom.

[0056] Preferably, the anti-trigger sleeve is provided with a vertical opening, and the anti-trigger sleeve can be elastically opened to release the sleeve connection with the main shell.

[0057] Preferably, the first vertical slot radially penetrates the lower wall of the main shell.

[0058] It is convenient for the second raised rib to be clamped, and can be clamped tightly and firmly.

[0059] Preferably, the lower peripheral side wall of the main shell is provided with more than two non-penetrating first card slots, and the inner wall of the protective shell is provided with more than two corresponding first protruding buckle positions;

[0060] Before the anti-trigger sleeve is removed, the first protruding buckle is snapped into the corresponding first slot; after the anti-trigger sleeve is removed, a force is applied so that when the main shell moves relative to the protective shell, the first protruding buckle is withdrawn from the first slot.

[0061] The beneficial effects of the present invention are as follows: the present invention discloses an integrated implant assembly of an implantable biosensor, comprising a main housing, a needle member, a compression spring, a main sliding seat, a fixing seat, an anti-trigger sleeve and a protective shell;

[0062] The relative movement of each component is divided into three stages:

[0063] The first stage: remove the anti-trigger cover, fix the bottom surface of the protective shell, press the main shell, the main shell drives the needle member, the compression spring, the main sliding seat and the fixed seat to move relative to the protective shell, and the transmitter without the sensor assembly arranged at the bottom of the fixed seat and the sensor assembly arranged inside the protective shell are assembled to form a transmitter with a sensor assembly, and the needle member clamps the needle seat end surface of the auxiliary needle member through the inner clamping claw;

[0064] The second stage: remove the protective shell, the bottom surface of the main sliding seat is attached to the skin surface, press the main shell, the main shell drives the needle member and the fixed seat to move downward relative to the main sliding seat, the needle member and the fixed seat drive the transmitter, the sensor assembly and the needle-aiding member to move downward at the same time, the bottom surface of the transmitter is bonded to the skin surface, the implantation needle of the needle-aiding member implants the sensor electrode of the sensor assembly under the skin, the protruding bone position of the main sliding seat gradually moves to the upper part of the first sliding groove close to the external hanging arm of the needle member, and the compression spring is in a compressed state;

[0065] The third stage: Then, the protruding bone position pushes the external hanging arm out of the first sliding groove, and the compression spring is released. The compression spring pushes the needle-carrying member to move in a direction away from the bottom surface of the main sliding seat, and the needle-carrying member drives the auxiliary needle member to complete the needle withdrawal.

[0066] Before the sensor electrode of the implantable biosensor is inserted under the skin, the transmitter and sensor components are designed to be separate, and the inside of the transmitter is in a short-circuit state, which will not consume electricity. With an integrated implant component, in the first stage of implantation, the transmitter without the sensor component set at the bottom of the fixing seat and the sensor component set inside the protective shell are snap-fitted and assembled to avoid power consumption during shelf time. BRIEF DESCRIPTION OF THE DRAWINGS

[0067] The integrated implant component of the implantable biosensor of the present invention is further described below in conjunction with the accompanying drawings.

[0068] Figure 1 The present invention discloses an assembly diagram of a component sliding seat and a protective shell in an integrated implant component of an implantable biosensor, which includes a needle aid and a sensor component.

[0069] Figure 2 The present invention is a schematic diagram of the structural decomposition of a component sliding seat and a protective shell in an integrated implant component of an implantable biosensor, which includes a transmitter, an auxiliary needle part and a sensor component.

[0070] Figure 3 The present invention is a schematic structural diagram of a component sliding seat of an integrated implant component of an implantable biosensor.

[0071] Figure 4 It is a structural schematic diagram of a protective shell of an integrated implant component of an implantable biosensor of the present invention.

[0072] Figure 5 The present invention is a schematic diagram of the structural decomposition of an integrated implant component of an implantable biosensor, which includes a transmitter, an auxiliary needle component and a sensor component.

[0073] Figure 6 The present invention is a schematic diagram of the structural decomposition of a part of the integrated implant component of an implantable biosensor after the structure is decomposed, with the upper cover and the blocking piece removed.

[0074] Figure 7 It is a structural schematic diagram of a main shell of an integrated implant component of an implantable biosensor of the present invention from one perspective.

[0075] Figure 8 It is a structural schematic diagram of a fixing seat of an integrated implant component of an implantable biosensor of the present invention.

[0076] Fig. 9 It is a structural schematic diagram of the main shell of the integrated implant component of an implantable biosensor of the present invention from another perspective.

[0077] Fig.10 The present invention is a schematic structural diagram of an integrated implant component with a needle member of an implantable biosensor.

[0078] Fig.11 The present invention is a structural schematic diagram of a main sliding seat of an integrated implant component of an implantable biosensor from one viewing angle.

[0079] Fig.12 It is a structural schematic diagram of a main sliding seat of an integrated implant component of an implantable biosensor of the present invention from another perspective.

[0080] In the figure:

[0081] 2-blocking piece; 21-first cantilever clamping beam; 211-first clamping protrusion; 22-clamping rib; 3-main shell; 301-lower cavity; 302-upper cavity; 31-first vertical clamping slot; 32-first clamping slot; 35-arc-shaped clamping protrusion; 37-third vertical clamping slot; 39-cavity partition plate; 391-first fixing seat through hole; 392-cantilever abutting beam; 3921-third clamping protrusion; 4-needle piece; 41-inner clamping claw; 42-outer hanging arm; 421-second convex clamping part; 43-second vertical slide bar; 5-compression spring; 6-main sliding seat; 61-bottom annular wall; 611-second clamping strip; 62-second dividing wall; 621-second fixing seat through hole; 622-convex bone position; 63-clamping wall; 631-fourth vertical clamping groove; 632-convex clamping groove; 7-fixing seat; 71-upper wall; 711-first clamping hole; 713-first sliding groove; 714-vertical guide groove; 715-first vertical clamping strip; 72-multi-section arc ring wall; 721-clamping arm; 73-first partition wall; 10-emitter; 101-assembly clamping hole; 11-needle aid; 111-implantation needle; 112-needle seat end face; 12-sensor assembly; 121-sensor electrode; 13-assembly sliding seat; 131-L-shaped frame arm; 132-inner bottom wall; 1321-assembly through hole; 1322-arc-shaped clamping arm; 1323-first Five-clamp protrusion; 14-anti-trigger cover; 141-first raised rib position; 15-protective shell; 151-sensor assembly support platform; 1511-first clamp protrusion; 1512-positioning protrusion; 1513-aiding needle accommodating blind hole; 152-temporary support arm; 1521-bevel; 155-second raised rib position; 156-first raised buckle position; 01-upper cover; 011-arc cantilever beam; 0111-arc hole; 012-first cross reinforcement rib. DETAILED DESCRIPTION

[0082] The following is combined with Figures 1 to 12 The integrated implant component of an implantable biosensor of the present invention is further described.

[0083] An integrated implant assembly of an implantable biosensor, comprising a main housing 3, a needle member 4, a compression spring 5, a main sliding seat 6, a fixing seat 7, an anti-trigger sleeve 14 and a protective shell 15;

[0084] The relative movement of each component is divided into three stages:

[0085] The first stage: remove the anti-trigger sleeve 14, fix the bottom surface of the protective shell 15, press the main shell 3, the main shell 3 drives the needle member 4, the compression spring 5, the main sliding seat 6 and the fixed seat 7 to move relative to the protective shell 15, and the transmitter 10 without the sensor assembly arranged at the bottom of the fixed seat 7 and the sensor assembly 12 arranged inside the protective shell 15 are assembled to form a transmitter with a sensor assembly, and the needle member 4 clamps the needle seat end face 112 of the auxiliary needle member 11 through the inner claw 41;

[0086] The second stage: remove the protective shell 15, the bottom surface of the main sliding seat 6 is attached to the skin surface, and the main shell 3 is pressed. The main shell 3 drives the needle member 4 and the fixing seat 7 to move downward relative to the main sliding seat 6. The needle member 4 and the fixing seat 7 drive the transmitter 10, the sensor assembly 12 and the auxiliary needle member 11 to move downward at the same time. The bottom surface of the transmitter 10 is bonded to the skin surface. The implantation needle 111 of the auxiliary needle member 11 implants the sensor electrode 121 of the sensor assembly 12 under the skin. The protruding bone position 622 of the main sliding seat 6 gradually moves to the upper part of the first sliding groove 713 and approaches the outer hanging arm 42 of the needle member 4. The compression spring 5 is in a compressed state.

[0087] The third stage: Then, the protruding bone position 622 pushes the external hanging arm 42 out of the first sliding groove 713, and the compression spring 5 is released. The compression spring 5 pushes the needle member 4 to move away from the bottom surface of the main sliding seat 6, and the needle member 4 drives the auxiliary needle member 11 to complete the needle withdrawal.

[0088] In this embodiment, an anti-trigger sleeve 14 is further included. The middle and lower parts of the main shell 3 are sleeved inside the protective shell 15. The anti-trigger sleeve 14 is sleeved on the middle and upper part of the main shell 3. The upper and lower end surfaces of the anti-trigger sleeve 14 respectively abut against the lower end surface of the step of the main shell 3 and the upper end surface of the protective shell 15.

[0089] The implantable biosensor includes a transmitter 10 and a sensor assembly 12 of an assembled design;

[0090] Before the anti-trigger cover 14 is removed, the transmitter 10 and the sensor assembly 12 are separated, the sensor assembly 12 is placed in the lower position inside the protective shell 15, and the transmitter 10 is clamped in the lower position of the fixing seat 7;

[0091] After the anti-trigger sleeve 14 is removed, a force is applied to move the main housing 3 relative to the protective shell 15, and the lower end surface of the step of the main housing 3 gradually approaches and contacts the upper end surface of the protective shell 15. At the same time, the transmitter 10 clamped at the lower position of the fixing seat 7 is clamped with the sensor assembly 12 placed inside the protective shell 15, so that the transmitter 10 and the sensor assembly 12 are electrically connected and physically assembled, and the internal circuit of the transmitter 10 is turned on. After the sensor assembly 12 is clamped on the transmitter 10, at the same time, the spring pin set on the sensor assembly 12 is inserted into the power hole of the transmitter, and the entire system circuit of the transmitter changes from a power-off state to a power-on state. There are different ways for the spring pin to drive the power hole to be turned on: ① The hole walls on the left and right sides of the power hole are not completely copper-plated and are in a non-connected state. Both sides are in an open circuit state. After the spring pin is inserted, the left and right sides begin to connect; ② A trigger switch is set inside the power hole, and the power is turned on by the spring pin contacting the trigger switch.

[0092] In this embodiment, the transmitter 10 includes a transmitter upper cover 102, a transmitter PCBA 103 and a transmitter bottom shell 104. PCBA is the abbreviation of Printed Circuit Board Assembly, which means that the PCB blank board undergoes the entire process of SMT mounting or DIP plug-in, referred to as PCBA, that is, the components formed after the relevant electronic components are installed on the circuit board. Before the first stage is realized, the transmitter 10 does not contain the sensor component 12.

[0093] In this embodiment, the inner bottom wall of the protective shell 15 is provided with a sensor assembly support platform 151 and more than two temporary support arms 152;

[0094] The sensor component support platform 151 is located between more than two temporary support arms 152, and an oblique angle 1521 is provided on the inner upper part of the temporary support arm 152; more than two first clamping protrusions 1511 are provided on the upper side of the sensor component support platform 151;

[0095] More than two L-shaped frame arms 131 extend from both sides of the component sliding seat 13, and the inner bottom wall 132 of the component sliding seat 13 is provided with a component through hole 1323;

[0096] The upper inner end surface of the L-shaped frame arm 131 is pressed on the bevel 1521, and the first latching protrusion 1511 passes through the component through hole 1323 and is latched on the upper part of the inner bottom wall 132, so that the protective shell 15 supports and positions the component sliding seat 13; a fifth latching protrusion 1323 is provided on the inner bottom wall 132, and the first latching protrusion 1511 is latched on the upper part of the fifth latching protrusion 1323.

[0097] When a downward force is applied to the component sliding seat 13 , the L-shaped frame arm 131 pushes the temporary support arm 152 to radially spring outward through the bevel 1521 , so that the component sliding seat 13 moves downward relative to the protective shell 15 .

[0098] In this embodiment, the inner bottom wall 132 extends inwardly with more than one arc-shaped clamping arm 1322, and the arc-shaped clamping arm 1322 can be elastically deformed; the sensor component support platform 151 is provided with a needle-assisted blind hole 1513;

[0099] Before the implant device is assembled, the sensor assembly 12 and the needle-assisting member 11 are supported: the sensor assembly 12 is placed on the sensor assembly support platform 151 through the assembly through hole 1323, the needle-assisting member 11 is pressed on the upper part of the sensor assembly 12, the implantation needle 111 of the needle-assisting member 11 is inserted into the needle-assisting blind hole 1513, and the end of the arc-shaped clamping arm 1322 is clamped at the end surface of the clamping part of the needle-assisting member 11;

[0100] When the implant device is assembled: when the lower end face of the transmitter 10 applies a downward force to the upper end face of the component sliding seat 13, the L-shaped frame arm 131 pushes the temporary support arm 152 radially outward through the bevel 1521, so that the component sliding seat 13 moves downward relative to the protective shell 15 and loses the pressure contact with the sensor component 12 and the auxiliary needle part 11, and the component clamping hole 101 of the transmitter 10 passes through the sensor component 12 and clamps the sensor component 12, thereby realizing the electrical connection and physical structure assembly of the transmitter 10 and the sensor component 12, and the internal circuit of the transmitter 10 is turned on.

[0101] In this embodiment, the number of the arc-shaped clamping arms 1322 is two, and the two arc-shaped clamping arms 1322 are symmetrically arranged inside the component sliding seat 13 .

[0102] In this embodiment, the two arc-shaped clamping arms 1322 are symmetrically clamped on the end surfaces on both sides of the clamping point of the needle-assisting member 11 .

[0103] In this embodiment, the sensor component support platform 151 is provided with positioning protrusions 1512 , and the number of the positioning protrusions 1512 is more than two. The positioning protrusions 1512 are used to mate with the positioning holes at the bottom of the sensor component 12 for positioning.

[0104] In this embodiment, the height of the sensor component support platform 151 is greater than the height of the component sliding seat 13 .

[0105] In this embodiment, an annular gap is provided between the outer peripheral wall of the auxiliary needle accommodating blind hole 1513 and the outer peripheral wall of the sensor assembly supporting platform 151 .

[0106] In this embodiment, the number of the external hanging arms 42 with the needle member 4 is more than two, and the more than two external hanging arms 42 are located around the inner claw 41, and the end of the external hanging arm 42 is provided with a second clamping protrusion 421;

[0107] The fixing seat 7 comprises an upper wall body 71 in a semi-enclosed or fully-enclosed state, a multi-section arc ring wall body 72 at the bottom and a first partition wall 73 in the middle. First sliding grooves 713 are respectively provided on both sides of the lower part of the upper wall body 71.

[0108] The main body with the needle member 4 is located inside the upper wall 71;

[0109] In the first and second stages of the movement: the bottom surface of the compression spring 5 is pressed against the top surface of the first partition wall 73, the compression spring 5 is sleeved on the outside of the inner claw 41, the compression spring 5 is located on the inner side of more than two outer hanging arms 42, the second clamping protrusion 421 is hooked on the top of the first sliding groove 713, the top surface of the compression spring 5 is against the upper end surface of the inner part of the needle member 4, and the compression spring 5 is in a compressed state;

[0110] In the third stage of the movement: the second latching protrusion 421 withdraws from the first sliding groove 713, the compression spring 5 is elastically released, pushing the needle member 4 to move upward, and when the top end of the needle member 4 abuts against the lower end surface of the main shell 3, the needle member 4 reaches the upper limit position.

[0111] In this embodiment, it also includes an upper cover 01, and the bottom of the upper cover 01 has more than two arc-shaped cantilever beams 011, and the arc-shaped cantilever beams 011 are provided with arc-shaped holes 0111. The upper inner wall of the main shell 3 is provided with more than two arc-shaped protrusions 35, and the arc-shaped protrusions 35 are stuck in the arc-shaped holes 0111 to realize the assembly of the upper cover 01 and the main shell 3.

[0112] In this embodiment, the bottom of the upper cover 01 constitutes a convex stop structure, and the upper part of the main shell 3 constitutes a concave stop structure. The convex stop structure of the upper cover 01 cooperates with the concave stop structure of the main shell 3 to achieve the lower part of the upper cover 01 being stuck in the upper part of the main shell 3.

[0113] In this embodiment, a baffle 2 is further included, wherein the lower portion of the baffle 2 is provided with two or more first cantilever clamping beams 21, the lower end of the first cantilever clamping beam 21 is provided with a first clamping protrusion 211, and the upper wall 71 of the fixing seat 7 is provided with two or more first clamping holes 711;

[0114] Each first engaging protrusion 211 is engaged at the first engaging hole 711 , the bottom surface of the blocking piece 2 is pressed against the top surface of the upper wall 71 , and the top surface of the blocking piece 2 is pressed against the bottom surface of the upper cover 01 .

[0115] The bottom surface of the upper cover 01 is provided with a first cross reinforcing rib 012, the bottom surface of the first cross reinforcing rib 012 is against the top surface of the baffle 2, the first cross reinforcing rib 012 reduces and increases the matching area between the upper cover 01 and the baffle 2, improves the processing accuracy, and increases the pressing force of the buckle.

[0116] The inner side of the upper wall 71 of the fixing seat 7 is provided with more than two vertical guide grooves 714 , and the lower part of the blocking piece 2 is provided with more than two clamping ribs 22 , and each clamping rib 22 is clamped in one of the vertical guide grooves 714 .

[0117] When the top end of the needle member 4 abuts against the lower end surface of the main housing 3 , the top end of the needle member 4 abuts against the bottom surface of the blocking piece 2 .

[0118] In this embodiment, the main sliding seat 6 includes a bottom annular wall body 61, a second partition wall 62 in the middle and a clamping wall 63 at the top. The second partition wall 62 is provided with a second fixing seat through hole 621. The hole wall of the second fixing seat through hole 621 extends two protruding bone positions 622 inwardly.

[0119] The multi-segment arc ring wall body 72 is located on the inner side of the bottom ring wall body 61 , the upper wall body 71 passes through the second fixing seat through hole 621 , the protruding bone position 622 is located in the first sliding groove 713 , and the protruding bone position 622 is slidably arranged along the first sliding groove 713 .

[0120] In the first stage of movement, the protruding bone position 622 is located at the bottom end of the first sliding groove 713; in the second stage of movement, the protruding bone position 622 gradually moves toward the upper end of the first sliding groove 713; in the initial stage of the third stage, the protruding bone position 622 pushes out the second locking protrusion 421.

[0121] In this embodiment, a fourth vertical slot 631 is disposed on the inner wall of the engaging wall 63 , and more than two first vertical clips 715 are disposed on the outer side of the upper wall 71 . The first vertical clips 715 are clipped in the fourth vertical slot 631 .

[0122] In this embodiment, the main housing 3 includes a lower cavity 301, a cavity partition plate 39 and an upper cavity 302;

[0123] The lower part of the cavity partition plate 39 is provided with more than two cantilever abutting beams 392, and the end of the cantilever abutting beam 392 is provided with a third clamping protrusion 3921;

[0124] The wall of the clamping wall 63 is provided with a clamping convex groove 632;

[0125] In the first and second stages of the movement, the third latching protrusion 3921 is partially pressed on the top of the latching wall 63; in the initial stage of the third stage, the force pressing on the top of the main shell 3 makes the main shell 3 and the fixed seat 7 reach a starting limit state relative to the main sliding seat 6, and the top of the latching wall 63 pushes the third latching protrusion 3921 to both sides. The force pressing on the top of the main shell 3 continues until the third latching protrusion 3921 is stuck in the latching protrusion groove 632. At the same time, the raised bone position 622 pushes the second latching protrusion 421 out of the first sliding groove 713.

[0126] In this embodiment, the multi-segment arc ring wall body 72 includes more than two circumferentially extending clamping arms 721, and the clamping arms 721 clamp the transmitter 10 from the circumferential side;

[0127] The inner wall of the bottom ring wall body 61 is provided with more than two second clamping strips 611, and the second clamping strips 611 do not extend to the bottom end of the bottom ring wall body 61;

[0128] In the first and second stages of the movement, the second clamping strip 611 is clamped on the outer side of the clamping arm 721 , and in the third stage of the movement, the outer side of the clamping arm 721 is freed from the restraint of the second clamping strip 611 .

[0129] In this embodiment, the outer wall of the needle member 4 is provided with two or more second vertical slide bars 43 , and the inner wall of the upper wall body 71 is provided with two or more vertical guide grooves 714 , along which the second vertical slide bars 43 are slidably arranged.

[0130] In this embodiment, the top surface of the emitter 10 abuts against the bottom surface of the first partition wall 73 of the fixing base 7 .

[0131] In this embodiment, the cavity partition plate 39 is provided with a first fixing seat through hole 391 , and the upper portion of the upper wall 71 passes through the first fixing seat through hole 391 from the lower cavity 301 into the upper cavity 302 .

[0132] In this embodiment, more than two third vertical slots 37 are provided inside the upper cavity 302 , and the upper portion of each first vertical clip 715 is clipped in one third vertical slot 37 ; the lower portion of the first vertical clip 715 is clipped in the fourth vertical slot 631 .

[0133] In this embodiment, the inner wall of the anti-trigger sleeve 14 is provided with more than two first raised ribs 141, the inner wall of the protective shell 15 is provided with more than two second raised ribs 155, and the lower peripheral wall of the main shell 3 is provided with more than two first vertical grooves 31, and each first raised rib 141 and a corresponding second raised rib 155 are inserted into a first vertical groove 31 from top to bottom.

[0134] In this embodiment, the anti-trigger sleeve 14 is provided with a vertical opening, and the anti-trigger sleeve 14 can be elastically opened, thereby releasing the sleeve connection state with the main shell 3.

[0135] In this embodiment, the first vertical slot 31 radially penetrates the lower wall of the main housing 3 .

[0136] This facilitates the clamping of the second raised rib 155 , and enables the clamping to be tight and firm.

[0137] In this embodiment, the lower peripheral side wall of the main housing 3 is provided with more than two non-penetrating first slots 32, and the inner wall of the protective shell 15 is provided with more than two corresponding first protruding buckle positions 156;

[0138] Before the anti-trigger cover 14 is removed, the first protruding buckle 156 is snapped into the corresponding first slot 32 ; after the anti-trigger cover 14 is removed, a force is applied so that when the main shell 3 moves relative to the protective shell 15 , the first protruding buckle 156 withdraws from the first slot 32 .

[0139] In this embodiment, the height of the sensor component support platform 151 is greater than the height of the component sliding seat 13 .

[0140] In this embodiment, an annular gap is provided between the outer peripheral wall of the auxiliary needle accommodating blind hole 1513 and the outer peripheral wall of the sensor assembly support platform 151, which can avoid a large-volume block structure, reduce stress and strain, and improve structural stability.

[0141] The above description is only a preferred embodiment of the present invention. It should be pointed out that a person skilled in the art can make several improvements without departing from the principle of the present invention, and these improvements should also be regarded as within the protection scope of the present invention.

Claims

1. An integrated implant component of an implantable biosensor, characterized in that: The device comprises a main housing (3), a needle member (4), a compression spring (5), a main sliding seat (6), a fixing seat (7), an anti-trigger sleeve (14) and a protective shell (15); the fixing seat (7) comprises an upper wall (71); and first sliding grooves (713) are respectively arranged on both sides of the lower part of the upper wall (71); The relative movement of each component is divided into three stages: The first stage: the anti-trigger sleeve (14) is removed, the bottom surface of the protective shell (15) is fixed, and the main shell (3) is pressed, so that the main shell (3) drives the needle member (4), the compression spring (5), the main sliding seat (6) and the fixed seat (7) to move relative to the protective shell (15), and the transmitter (10) without the sensor component arranged at the bottom of the fixed seat (7) and the sensor component (12) arranged inside the protective shell (15) are assembled by clamping, so that the transmitter with the sensor component is formed, and the needle member (4) clamps the needle seat end surface (112) of the auxiliary needle member (11) through the inner clamping claw (41); The second stage: the protective shell (15) is removed, the bottom surface of the main sliding seat (6) is attached to the skin surface, and the main shell (3) is pressed. The main shell (3) drives the needle member (4) and the fixing seat (7) to move downward relative to the main sliding seat (6). The needle member (4) and the fixing seat (7) drive the transmitter (10), the sensor assembly (12) and the auxiliary needle member (11) to move downward at the same time. The bottom surface of the transmitter (10) is bonded to the skin surface. The implantation needle (111) of the auxiliary needle member (11) implants the sensor electrode (121) of the sensor assembly (12) under the skin. The protruding bone position (622) of the main sliding seat (6) gradually moves toward the upper part of the first sliding groove (713) and approaches the external hanging arm (42) of the needle member (4). The compression spring (5) is in a compressed state. The third stage: Then, the protruding bone position (622) pushes the external hanging arm (42) out of the first sliding groove (713), and the compression spring (5) is released. The compression spring (5) pushes the needle member (4) to move in a direction away from the bottom surface of the main sliding seat (6), and the needle member (4) drives the auxiliary needle member (11) to complete the needle withdrawal.

2. The integrated implant component of the implantable biosensor according to claim 1, characterized in that: The middle and lower parts of the main shell (3) are sleeved inside the protective shell (15), the anti-trigger sleeve (14) is sleeved on the middle and upper part of the main shell (3), and the upper and lower end surfaces of the anti-trigger sleeve (14) respectively abut against the lower end surface of the step of the main shell (3) and the upper end surface of the protective shell (15); The implantable biosensor includes a transmitter (10) and a sensor assembly (12) of an assembled design; Before the anti-trigger cover (14) is removed, the transmitter (10) and the sensor assembly (12) are in a separated state, the sensor assembly (12) is placed in a lower position inside the protective shell (15), and the transmitter (10) is clamped at a lower position of the fixing seat (7); After the anti-trigger sleeve (14) is removed, a force is applied to cause the main housing (3) to move relative to the protective shell (15), and the lower end surface of the step of the main housing (3) gradually approaches and contacts the upper end surface of the protective shell (15). At the same time, the transmitter (10) clamped at the lower position of the fixing seat (7) and the sensor assembly (12) placed inside the protective shell (15) are clamped, thereby achieving electrical connection and physical structural assembly of the transmitter (10) and the sensor assembly (12).

3. The integrated implant component of the implantable biosensor according to claim 2, characterized in that: It also includes a component sliding seat (13), wherein the inner bottom wall of the protective shell (15) is provided with a sensor component support platform (151) and more than two temporary support arms (152); The sensor component support platform (151) is located between two or more temporary support arms (152), and an oblique angle (1521) is provided on the inner upper portion of the temporary support arm (152); and more than two first latching protrusions (1511) are provided on the upper side of the sensor component support platform (151); More than two L-shaped frame arms (131) extend from both sides of the component sliding seat (13), and a component through hole (1321) is provided on the inner bottom wall (132) of the component sliding seat (13); The upper inner end surface of the L-shaped frame arm (131) is pressed on the bevel (1521), and the first latching protrusion (1511) passes through the component through hole (1321) and is latched on the upper part of the inner bottom wall (132), thereby achieving support and positioning of the component sliding seat (13) by the protective shell (15); When a downward force is applied to the component sliding seat (13), the L-shaped frame arm (131) pushes the temporary support arm (152) radially outward through the bevel (1521), so that the component sliding seat (13) moves downward relative to the protective shell (15).

4. The integrated implant component of the implantable biosensor according to claim 1, characterized in that: The number of the external hanging arms (42) with the needle member (4) is more than two, the more than two external hanging arms (42) are located on the peripheral side of the internal clamping claw (41), and the ends of the external hanging arms (42) are provided with second clamping protrusions (421); The fixing seat (7) comprises an upper wall body (71) in a semi-enclosed or fully-enclosed state, a multi-segment arc ring wall body (72) at the bottom, and a first partition wall (73) in the middle; The main body of the needle member (4) is located inside the upper wall (71); In the first and second stages of the movement: the bottom surface of the compression spring (5) is pressed against the top surface of the first partition wall (73), the compression spring (5) is sleeved on the outside of the inner clamping claw (41), the compression spring (5) is located on the inner side of more than two outer hanging arms (42), the second clamping protrusion (421) is clamped on the top of the first sliding groove (713), the top surface of the compression spring (5) is pressed against the upper end surface of the inner part of the needle member (4), and the compression spring (5) is in a compressed state; In the third stage of the movement: the second latching protrusion (421) withdraws from the first sliding groove (713), the compression spring (5) is elastically released, pushing the needle member (4) to move upward, and when the top end of the needle member (4) abuts against the lower end surface of the main shell (3), the needle member (4) reaches the upper limit position.

5. The integrated implant component of the implantable biosensor according to claim 4, characterized in that: The main sliding seat (6) comprises a bottom annular wall body (61), a second partition wall (62) in the middle, and a clamping wall (63) at the top; the second partition wall (62) is provided with a second fixing seat through hole (621); the hole wall of the second fixing seat through hole (621) extends two protruding bone positions (622) inwardly; The multi-segment arc ring wall body (72) is located on the inner side of the bottom ring wall body (61), the upper wall body (71) passes through the second fixing seat through hole (621), the raised bone position (622) is located in the first sliding groove (713), and the raised bone position (622) is slidably arranged along the first sliding groove (713).

6. The integrated implant component of the implantable biosensor according to claim 5, characterized in that: The main housing (3) comprises a lower cavity (301), a cavity partition plate (39) and an upper cavity (302); The lower part of the cavity partition plate (39) is provided with more than two cantilever abutting beams (392), and the end of the cantilever abutting beam (392) is provided with a third clamping protrusion (3921); The wall body of the clamping wall (63) is provided with a clamping convex groove (632); In the first and second stages of the movement, a portion of the third latching protrusion (3921) is pressed against the top of the latching wall (63); in the initial stage of the third stage, the force pressing against the top of the main housing (3) causes the main housing (3) and the fixed seat (7) to reach a starting limit state relative to the main sliding seat (6), and the top of the latching wall (63) pushes the third latching protrusion (3921) to both sides. The force pressing against the top of the main housing (3) continues until the third latching protrusion (3921) is latched into the latching protrusion groove (632). At the same time, the protruding bone position (622) pushes the second latching protrusion (421) out of the first sliding groove (713).

7. The integrated implant component of the implantable biosensor according to claim 6, characterized in that: The multi-segment arc ring wall (72) comprises more than two circumferentially extending clamping arms (721), wherein the clamping arms (721) clamp the transmitter (10) from the circumferential side. The inner wall of the bottom annular wall body (61) is provided with more than two second clamping strips (611), and the second clamping strips (611) do not extend to the bottom end of the bottom annular wall body (61); In the first and second stages of the movement, the second clamping strip (611) is clamped on the outside of the clamping arm (721), and in the third stage of the movement, the outside of the clamping arm (721) is freed from the restraint of the second clamping strip (611).

8. The integrated implant component of the implantable biosensor according to claim 4, characterized in that: The outer wall of the needle member (4) is provided with two or more second vertical slide bars (43), and the inner wall of the upper wall body (71) is provided with two or more vertical guide grooves (714), and the second vertical slide bars (43) are slidably arranged along the vertical guide grooves (714).

9. The integrated implant component of the implantable biosensor according to claim 1, characterized in that: The cavity partition plate (39) is provided with a first fixing seat through hole (391), and the upper part of the upper wall body (71) passes through the first fixing seat through hole (391) from the lower cavity (301) and enters the upper cavity (302).

10. The integrated implant component of the implantable biosensor according to claim 2, characterized in that: The inner wall of the anti-trigger sleeve (14) is provided with more than two first raised ribs (141), the inner wall of the protective shell (15) is provided with more than two second raised ribs (155), and the lower peripheral wall of the main shell (3) is provided with more than two first vertical slots (31), and each of the first raised ribs (141) and a corresponding second raised rib (155) are inserted into one of the first vertical slots (31) from top to bottom.

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