Consumable components of an injection-type physiological monitor and an injection-type physiological monitor

Abstract

The present invention provides a consumable component of an injection-type physiological monitor and an injection-type physiological monitor. The consumable component of the injection-type physiological monitor includes a housing, an injection module, a physiological monitor and a carrier. The injection module is movably assembled in the housing. The physiological monitor is configured in the housing and is located on the moving path of the injection module. Part of the structure of the physiological monitor is accommodated in part of the structure of the injection module. The carrier is disposed in the housing and is located on the moving path of the injection module and the physiological monitor. The carrier and the physiological monitor are separated from each other and are located on opposite sides of the housing. The housing and the injection module are suitable for being assembled to a syringe. The syringe is suitable for driving the physiological monitor to be assembled to the carrier through the injection module. The consumable component of the injection-type physiological monitor and the injection-type physiological monitor of the present invention can reduce the garbage generated after each use of the injection-type physiological monitor and avoid the tip of the injection module being exposed to the outside and causing personal injury.

Description

Technical Field

[0001] The present invention relates to a consumable component and a monitor, and in particular to a consumable component of an injection-type physiological monitor and the injection-type physiological monitor. Background Art

[0002] Existing syringe monitors, including the monitor and syringe body, are single-use consumables that must be discarded after a single use, resulting in excessive waste. Furthermore, existing syringe monitors typically include a rigid needle for puncturing the surface of a living organism and a protective assembly for covering the needle. During transportation, use, and recycling, if the protective assembly is poorly manufactured or the covered needle is not securely fastened, exposing the needle can pose a risk of injury. Therefore, reducing the amount of waste generated after each use of syringe monitors and preventing injuries from exposed needles are pressing challenges in the field. Summary of the Invention

[0003] The present invention relates to a consumable component of an injection-type physiological monitor and the injection-type physiological monitor, which can reduce waste generated after each use of the injection-type physiological monitor and avoid personal injury caused by exposure of the tip of the injection module.

[0004] According to an embodiment of the present invention, the consumable component of the injection-type physiological monitor includes: a housing, an injection module, a physiological monitor, and a carrier. The injection module is movably assembled to the housing. The physiological monitor is configured in the housing and is located on the moving path of the injection module. Part of the structure of the physiological monitor is accommodated in part of the structure of the injection module. The carrier is disposed in the housing and is located on the moving path of the injection module and the physiological monitor, and the carrier and the physiological monitor are separated from each other and are located on opposite sides of the housing. The housing and the injection module are suitable for being assembled to a syringe, wherein the syringe is suitable for driving the physiological monitor to be assembled to the carrier through the injection module.

[0005] In the consumable assembly of the injection-type physiological monitor according to an embodiment of the present invention, after the syringe releases the assembled physiological monitor and the carrier from the housing and injects them onto the surface of the biological body, the syringe resets the injection module.

[0006] In the consumable assembly of the injection-type physiological monitor according to an embodiment of the present invention, the injection module completes the assembly and injection of the physiological monitor and the carrier in a unidirectional and single stroke.

[0007] In the consumables assembly of the injection-type physiological monitor according to an embodiment of the present invention, the injection module includes a puncture needle and a coupling structure coupled to each other. The puncture needle is located in a housing, and the coupling structure protrudes from the housing and is suitable for being assembled to a syringe.

[0008] In a consumable component of an injection-type physiological monitor according to an embodiment of the present invention, the physiological monitor includes a sensor needle and an electronic component. The puncture needle has a guide groove, a first portion of the sensor needle is slidably received in the guide groove, and a second portion of the sensor needle extends from the first portion out of the guide groove to structurally engage and electrically connect to the electronic component.

[0009] In the consumable assembly of the injection-type physiological monitor according to an embodiment of the present invention, the carrier includes a through hole. When the physiological monitor is assembled to the carrier, the sensing needle and the puncture needle pass through the through hole and partially protrude from the housing.

[0010] In the consumable assembly of the injection-type physiological monitor according to an embodiment of the present invention, when the syringe resets the injection module, the syringe drives the puncture needle to move into the housing and drives the coupling structure to protrude outside the housing.

[0011] In the consumable assembly of the injection-type physiological monitor according to an embodiment of the present invention, the housing has a channel, the injection module moves bidirectionally in the channel, and the outer contour of the physiological monitor matches the inner wall contour of the channel.

[0012] According to an embodiment of the present invention, an injection-type physiological monitor includes: a syringe and a consumable assembly. The consumable assembly includes a housing, an injection module, a physiological monitor and a carrier. The injection module is movably assembled to the housing. The physiological monitor is configured in the housing and is located on the moving path of the injection module. Part of the structure of the physiological monitor is accommodated in part of the structure of the injection module. The carrier is disposed in the housing and is located on the moving path of the injection module and the physiological monitor, and the carrier and the physiological monitor are separated from each other and are located on opposite sides of the housing. The housing and the injection module are used to be assembled to the syringe to execute a use mode or to be removed from the syringe. In the use mode, the syringe drives the injection module to move relative to the housing to drive the physiological monitor to assemble the carrier.

[0013] In an injection-type physiological monitor according to an embodiment of the present invention, the syringe includes a body, a driving member, a button, a first spring and a handle. The shell is used to be assembled with or removed from the body. The driving member is movably arranged in the body, and the driving member has a first elastic arm to snap onto or release from the body, and the driving member has a clamping member to enable the injection module to be assembled with or removed from the clamping member. The button is movably arranged on the body and the first elastic arm is located on the moving path of the button. The handle is movably arranged on the body and the handle is connected to the driving member. The first spring connects the driving member and the body, and the first spring is accommodated in the body.

[0014] In an injection-type physiological monitor according to an embodiment of the present invention, in the first state of the syringe, the driver is in the first position, and the first elastic arm is locked to the body. In the second state of the syringe, the driver is in the second position, and the button presses against the first elastic arm, releasing the driver from the body. When in use mode, an external force is applied to the button, causing the syringe to transition from the first state to the second state. After the assembled physiological monitor and carrier are released from the housing and injected into a biological surface, the external force is removed from the button, causing the syringe to return to the first state.

[0015] In the injection-type physiological monitor according to an embodiment of the present invention, after the injector releases the assembled physiological monitor and the carrier from the housing and injects the assembled physiological monitor and the carrier into the surface of the biological body, the injector resets the injection module.

[0016] In the injection-type physiological monitor according to an embodiment of the present invention, the injection module completes the assembly and injection of the physiological monitor and the carrier in a unidirectional and single stroke.

[0017] In the injection-type physiological monitor according to an embodiment of the present invention, the injection module includes a puncture needle and a coupling structure coupled to each other. The puncture needle is located in a housing, and the coupling structure protrudes from the housing and is suitable for being assembled to a syringe.

[0018] In an injection-type physiological monitor according to an embodiment of the present invention, the physiological monitor includes a sensing needle and an electronic component. The puncture needle has a guide groove, a first portion of the sensing needle is slidably received in the guide groove, and a second portion of the sensing needle extends from the first portion out of the guide groove to structurally engage and electrically connect to the electronic component.

[0019] In the injection-type physiological monitor according to an embodiment of the present invention, the carrier includes a through hole. When the physiological monitor is assembled to the carrier, the sensing needle and the puncture needle pass through the through hole and partially protrude from the carrier.

[0020] In the injection-type physiological monitor according to an embodiment of the present invention, when the syringe resets the injection module, the syringe drives the puncture needle to move into the housing and drives the coupling structure to protrude outside the housing.

[0021] In the injection-type physiological monitor according to an embodiment of the present invention, the housing has a channel, the injection module moves bidirectionally in the channel, and the outer contour of the physiological monitor matches the inner wall contour of the channel.

[0022] Based on the above, the present invention's injectable physiological monitor comprises a housing, an injection module, and a physiological monitor, all of which are consumable components that contact the living body. The physiological monitor and carrier are separately mounted. After the consumable component is assembled into the syringe, the syringe applies force to the injection module, completing the assembly of the physiological monitor and carrier, and the injection into the living body. Consequently, after each injection, only the consumable component needs to be discarded, while the syringe can be retained and reused, thereby reducing medical waste. BRIEF DESCRIPTION OF THE DRAWINGS

[0023] Figure 1A is a schematic diagram of an injection-type physiological monitor according to an embodiment of the present invention;

[0024] Figure 1B yes Figure 1A A schematic diagram of the consumable components;

[0025] Figure 1C Shown in stereoscopic perspective Figure 1B Partial components of consumable components;

[0026] Figure 2 yes Figure 1A Schematic diagram of the injection-type physiological monitor during injection;

[0027] Figure 3 yes Figure 2 Schematic diagram of the injectable physiological monitor during reset;

[0028] Figure 4 yes Figure 3 Schematic diagram of an injectable physiological monitor with some components separated;

[0029] Figure 5 yes Figure 4 Schematic diagram of the syringe and consumable components being separated;

[0030] Figure 6A and Figure 6B Consumable components according to different embodiments are shown respectively.

[0031] Description of Reference Numerals

[0032] 10: Injectable physiological monitor;

[0033] 100: consumable components;

[0034] 110: housing;

[0035] 112a, 112b, 112c: channels;

[0036] 120: injection module;

[0037] 122: puncture needle;

[0038] 123: guide groove;

[0039] 124: combined structure;

[0040] 130: Physiological monitor;

[0041] 132: sensor needle;

[0042] 134a, 134b, 134c: electronic components;

[0043] 135: convex part;

[0044] 140a, 140b, 140c: bearing members;

[0045] 142: through hole;

[0046] 144a, 144b, 144c: accommodating grooves;

[0047] 145: groove;

[0048] 200: syringe;

[0049] 210: Ontology;

[0050] 220: driving member;

[0051] 222: first spring arm;

[0052] 224: snap-fitting piece;

[0053] 230: button;

[0054] 240: second spring;

[0055] 250: first spring;

[0056] 260: handle;

[0057] A: Region;

[0058] BS: biological surface;

[0059] DA: moving axis;

[0060] F1, F2: external force;

[0061] P1: Part I;

[0062] P2: Part 2. DETAILED DESCRIPTION

[0063] Reference will now be made in detail to exemplary embodiments of the present invention, examples of which are illustrated in the accompanying drawings. Whenever possible, the same reference numerals are used in the drawings and the description to refer to the same or like parts.

[0064] Figure 1A FIG. 1 is a schematic diagram of an injection-type physiological monitor according to an embodiment of the present invention. Figure 1B yes Figure 1A See also the diagram of the consumable components. Figure 1A and Figure 1B , the injection-type physiological monitor 10 of this embodiment includes a syringe 200 and a consumable assembly 100. The syringe 200 includes a body 210 and a driving member 220, and the consumable assembly 100 includes a shell 110 and an injection module 120. The driving member 220 is movably disposed in the body 210, and the injection module 120 is movably assembled to the shell 110. The shell 110 and the injection module 120 are used to be assembled to the syringe 200 to execute the use mode or to be removed from the syringe 200. More specifically, the shell 110 is assembled to the body 210, and the injection module 120 is assembled to the driving member 220. The driving member 220 is suitable for moving along the moving axis DA in a first position ( Figure 1A ) and the second position ( Figure 2 ) to drive the injection module 120 to move bidirectionally along the moving axis DA.

[0065] like Figure 1B As shown, the consumables assembly 100 of this embodiment further includes a physiological monitor 130 and a carrier 140a. The physiological monitor 130 is movably configured in the housing 110 and is located on the moving path of the injection module 120. Part of the structure of the physiological monitor 130 of this embodiment is accommodated in part of the structure of the injection module 120. The carrier 140a is disposed in the housing 110 and is located on the moving path of the injection module 120 and the physiological monitor 130. Before executing the use mode, the carrier 140a and the physiological monitor 130 are separated from each other and are located on opposite sides of the housing 110. When the injector 200 is started, the injection module 120 is adapted to be pushed by the driving member 220 of the injector 200, and further pushes the physiological monitor 130 to move toward the carrier 140a, so as to assemble the physiological monitor 130 in the accommodating groove 144a of the carrier 140a.

[0066] Figure 1C Shown in stereoscopic perspective Figure 1B Here, Figure 1C Shown in stereoscopic perspective Figure 1B In order to clearly show the relationship between the puncture needle 122 and the sensor needle 132, the puncture needle 122 and the sensor needle 132 are arranged in the region A. Figure 1C Some components are omitted. Please also refer to Figures 1A to 1C In this embodiment, the injection module 120 includes a puncture needle 122 and a combination structure 124, and the physiological monitor 130 includes a sensor needle 132 and an electronic component 134a. Figure 1AAs shown, when the consumable assembly 100 is assembled to the syringe 200 and the syringe 200 is in the first state, the puncture needle 122 is located in the shell 110, and the coupling structure 124 protrudes out of the shell 110 and is assembled to the driving member 220 of the syringe 200.

[0067] like Figure 1C As shown, the sensing needle 132 is formed by stamping and bending a metal sheet, for example, but the present invention is not limited thereto. The sensing needle 132 has a first portion P1 and a second portion P2 bent relative to the first portion P1, and the first portion P1 and the second portion P2 are not parallel to each other. The puncture needle 122 has a guide groove 123, and the first portion P1 of the sensing needle 132 can be slidably accommodated in the guide groove 123, so that the puncture needle 122 can be separated from the sensing needle 132. The second portion P2 extends from the first portion P1 away from the guide groove 123, and the second portion P2 is structurally coupled and electrically connected to the electronic component 134a. Here, the area of ​​the second portion P2 is significantly larger than that of the first portion P1, so as to improve the structural coupling strength between the second portion P2 and the electronic component 134a, and facilitate the second portion P2 to maintain a stable electrical connection with the electronic component 134a.

[0068] Please return Figure 1A The syringe 200 further includes a button 230, a second spring 240, a first spring 250, and a pull handle 260. The driver 220 has a first elastic arm 222 and a locking member 224. Here, the locking member 224 can be considered the second elastic arm of the driver 220. The button 230 and the pull handle 260 are movably disposed on the body 210. The first elastic arm 222 is located in the movement path of the button 230, and the pull handle 260 is movable bidirectionally relative to the body 210 along the movement axis DA. The coupling structure 124 of the injection module 120 is engaged with the locking member 224. In this embodiment, the movement path of the button 230 is perpendicular to the movement axis DA. The second spring 240 and the first spring 250 respectively connect the driver 220 and the body 210. The second spring 240 and the first spring 250 are located at different locations on the same movement axis DA of the driver 220. More specifically, the second spring 240 abuts between the pull handle 260 and the driver 220. The first spring 250 connects the driving member 220 and the main body 210. The first spring 250 is accommodated in the main body 210, and the elastic driving direction of the second spring 240 is opposite to the elastic driving direction of the first spring 250. In this embodiment, the elastic force of the first spring 250 is used to move the driving member 220 downward (i.e., toward the biological surface BS).

[0069] like Figure 1AAs shown, before the button 230 is subjected to force, the syringe 200 is in a first state and the driver 220 is in a first position. In the first state, the button 230 protrudes from the body 210, the first elastic arm 222 is engaged with the body 210, and the coupling structure 124 and the engaging member 224 are located within the body 210. At this point, the elastic force of the first spring 250 is greater than the elastic force of the second spring 240. However, the first elastic arm 222 is engaged with the body 210, maintaining the driver 220 in the first position. Here, the injection-type physiological monitor 10 is placed on a biological surface BS, ready for an injection.

[0070] Figure 2 yes Figure 1A Schematic diagram of the injection-type physiological monitor during injection. Please also refer to Figure 1A and Figure 2 , the user applies an external force F1 to the button 230 ( Figure 1A ), so that the syringe 200 from Figure 1A The first state shown transitions to Figure 2 The second state shown is to execute the use mode. Figure 2 As shown, the button 230 is pushed into the body 210 by the external force F1 and presses against the first elastic arm 222, so that it releases the locking relationship with the body 210. At this time, the driving member 220 is driven to the second position due to the elastic force of the first spring 250, and then the driving member 220 pushes the injection module 120 and the physiological monitor 130 to move toward the carrier 140a. After the physiological monitor 130 is assembled to the carrier 140a, the injection module 120 is used to inject the assembled physiological monitor 130 and the carrier 140a into the biological surface BS to perform the assembly and injection of the physiological monitor 130 and the carrier 140a. In this process, the first spring 250 is at Figure 1A The accumulated elastic force is used to perform the assembly and injection, and further drives the second spring 240 to deform until the second spring 240 and the first spring 250 are in a force balance state.

[0071] Specifically, during the assembly and injection process of the physiological monitor 130 and the carrier 140a, the engaging member 224 of the driver 220 and the coupling structure 124 of the injection module 120 extend into the channel 112a of the housing 110. The puncture needle 122 of the injection module 120 and the sensing needle 132 of the physiological monitor 130 pass through the through-hole 142 of the carrier 140a, partially protruding from the carrier 140a and puncturing the biological surface BS. In this embodiment, the channel 112a serves as a guide path for the engaging member 224 of the driver 220 and the coupling structure 124 within the housing 110, but the present invention is not limited thereto.

[0072] In short, the driver 220 and injection module 120 of this embodiment complete the assembly and injection of the physiological monitor 130 and the carrier 140a in a unidirectional, single-stroke manner within the channel 112a. The movement of the driver 220 from the first position to the second position is a unidirectional stroke, and the assembly and injection of the physiological monitor 130 and the carrier 140a requires only the pressing of the button 230, without any additional actions, thus forming a single stroke.

[0073] The needle body (e.g., the puncture needle 122 and / or the sensor needle 132) of the existing injection-type physiological monitor is exposed to the external environment and requires an additional protective component to cover the needle body to prevent the needle body from pricking the user or the handler. Therefore, the existing injection-type physiological monitor must first remove the protective component covering the needle body before the injection can be performed, which is a multi-stage process. In this embodiment, since the needle body (puncture needle 122 and sensor needle 132) are both housed in the housing 110 before assembly and injection, no additional protective component is required. Therefore, the injection-type physiological monitor 10 of this embodiment only needs to press the button 230 to complete the injection while preventing the needle body from being exposed.

[0074] Please return Figure 2 In this embodiment, the shape of the receiving groove 144a of the carrier 140a matches the shape of the electronic component 134a. Figure 2 As shown in the enlarged view, the electronic component 134a has a protrusion 135 and the accommodating groove 144a is provided with a groove 145. When the electronic component 134a is assembled to the accommodating groove 144a, the protrusion 135 and the groove 145 snap fit together, so that the electronic component 134a is firmly accommodated in the carrier 140a. At this time, the injection-type physiological monitor 10 has completed the injection of the physiological monitor 130 and the carrier 140a. The physiological monitor 130 and the carrier 140a are attached to the biological surface BS to obtain physiological information of the biological body. For example, the physiological monitor 130 and the carrier 140a of this embodiment can be used for continuous blood glucose monitoring. The carrier 140a is attached to the biological surface BS by, for example, medical double-sided tape, but the present invention is not limited thereto.

[0075] Figure 3 yes Figure 2 Schematic diagram of the injectable physiological monitor during reset. Figure 4 yes Figure 3 Schematic diagram of the injectable physiological monitor with some components separated. Please also refer to Figures 2 to 4 , Figure 3 The drive member 220 is shown Figure 2 The process of resetting the second position to the first position. Figure 4In the process, the driver 220 is reset and the injection type physiological monitor 10 is separated from the physiological monitor 130 and the carrier 140a. Figure 2 ) after, such as Figure 3 As shown, the external force F1 is removed from the button 230, and the external force F2 is applied to pull the handle 260 upward, compressing the second spring 240 and pulling the driver 220 and injection module 120 upward. The first elastic arm 222 moves upward with the driver 220, resets, and becomes locked to the body 210. At this point, the handle 260 is in an upward sliding position relative to the body 210. Specifically, the engaging member 224 drives the injection module 120 in the direction of the arrow within the channel 112a. At this point, the injection module 120 is separated from the physiological monitor 130 and the carrier 140a.

[0076] Then, the external force F2 is removed to reset the handle 260. Figure 4 As shown, after the external force F2 is removed, the second spring 240, compressed by the external force F2, releases its preload, causing the handle 260 to slide downward relative to the body 210 and return to its initial position. As can be seen, the rebound force of the second spring 240 allows the handle 260, which has been overstretched, to rebound and return to its initial position. This eliminates any significant gap between the handle 260 and the body 210, preventing the user's hand from being pinched when pressing the button 230.

[0077] The handle 260, the driving member 220 and the injection module 120 are reset to the state as shown in FIG. Figure 4 It is worth mentioning that when the driving member 220 is reset, the first elastic arm 222 moves upward and pushes the button 230, so that the button 230 moves from the Figure 2 The position shown returns to Figure 3 The position shown protrudes from the body 210. The user can determine whether the driver 220 and injection module 120 have been fully reset based on the position of the button 230. After the syringe 200 and injection module 120 have been fully reset, the syringe 200 is lifted to separate the assembled physiological monitor 130 and carrier 140a from the housing 110. At this point, the puncture needle 122 is housed within the housing 110 and not exposed to the outside, preventing injury. In other words, the puncture needle 122 is always concealed within the passage 112a within the housing 110 when not injecting.

[0078] Figure 5 yes Figure 4 Diagram showing the syringe and consumable components separated. Figure 5, after the puncture needle 122 of the consumable component 100 is reset back into the housing 110, the user can remove the housing 110 of the consumable component 100 together with the injection module 120 from the syringe 200. The consumable component 100 of this embodiment is a single-use disposable component, while the syringe 200 is reusable. In other words, the injection-type physiological monitor 10 only needs to discard the consumable component 100 after each use, and the syringe 200 can be connected to a new consumable component 100 and injected again to reduce the amount of waste after each use. In addition, from the above-mentioned driving method of the injection-type physiological monitor 10, it can be seen that the puncture needle 122 is only in the second position when the driving member 220 is in the second position ( Figure 2 ) when protruding from the housing 110 and puncturing the surface BS of the biological body, the consumable component 100 ( Figure 1A ) or remove the consumable component 100 from the syringe 200 ( Figure 5 ), the puncture needle 122 remains contained within the housing 110. This design prevents the puncture needle 122 from being exposed and potentially injuring others, and eliminates the need for additional protective components to cover the puncture needle 122. Therefore, the injection-type physiological monitor 10 of this embodiment can complete the assembly of the physiological monitor 130 and the carrier 140a and the injection process in a single, unidirectional stroke.

[0079] Figure 6A and Figure 6B Consumable components according to different embodiments are shown respectively. Figure 6A and Figure 6B Provides a top view of the electronic components 134b, 134c, the coupling structure 124 and the inner wall contours of the channels 112b, 112c of the housing (shown in dotted lines). Figure 6A and Figure 6B The inner wall profiles of the channels 112b and 112c respectively match the outer contours of the electronic components 134b and 134c to provide a foolproof effect when the electronic components 134b and 134c are assembled into the housing 110. Specifically, the channels 112b and 112c are adapted to prevent the electronic components 134b and 134c from rotating when moving within the channels 112b and 112c.

[0080] Here, the inner wall profile of the channel 112b is triangular, and the inner wall profile of the channel 112c is egg-shaped, but the present invention is not limited thereto. It can be seen that the shapes of the channels 112b and 112c can be changed according to the outer contours of the electronic components 134b and 134c. In addition, Figure 1A The channel 112a is used to guide the movement of the driving member 220 and the injection module 120, and does not match the outer contour of the electronic component 134a. The user can set appropriate channels 112a, 112b, and 112c according to their needs.

[0081] In summary, the injection-type physiological monitor of the present invention includes a syringe and a consumable component that can be removed from the syringe. The injection module, physiological monitor and carrier that contact the surface of the biological body are all arranged in the consumable component, and the carrier and the physiological monitor are separated from each other and are located on opposite sides of the shell. The injection module can complete the assembly and injection of the physiological monitor and the carrier through a one-way and single stroke. After each injection, only the consumable component that contacts the surface of the biological body needs to be discarded, and the syringe can be reused to reduce the garbage generated after each use. In addition, by separating the injection module from the physiological monitor and the carrier, the puncture needle of the injection module protrudes from the shell only when in use mode, and resets back to the shell after the use mode to ensure that the puncture needle is not exposed to the outside and causes personal injury.

[0082] Finally, it should be noted that the above embodiments are only used to illustrate the technical solutions of the present invention, rather than to limit it. Although the present invention has been described in detail with reference to the above embodiments, those skilled in the art should understand that they can still modify the technical solutions described in the above embodiments, or replace some or all of the technical features therein with equivalents. However, these modifications or replacements do not cause the essence of the corresponding technical solutions to deviate from the scope of the technical solutions of the embodiments of the present invention.

Claims

1. A consumable component of an injection-type physiological monitor, characterized in that: include: case; an injection module, movably assembled to the housing; a physiological monitor disposed in the housing and located on a moving path of the injection module, wherein a portion of the physiological monitor is accommodated in a portion of the injection module; as well as A carrier is disposed in the housing and is located on a moving path of the injection module and the physiological monitor, the carrier and the physiological monitor being separated from each other and located on opposite sides of the housing, The housing and the injection module are suitable for being assembled to a syringe, The syringe is adapted to drive the physiological monitor to be assembled to the carrier through the injection module.

2. The consumable component of the injection-type physiological monitor according to claim 1, characterized in that: After the syringe releases the assembled physiological monitor and the carrier from the housing and injects the assembled physiological monitor and the carrier into the surface of the biological body, the syringe resets the injection module.

3. The consumable component of the injection-type physiological monitor according to claim 2, characterized in that: The injection module completes the assembly and injection of the physiological monitor and the carrier in a unidirectional and single stroke.

4. The consumable component of the injection-type physiological monitor according to claim 2, characterized in that: The injection module includes a puncture needle and a combination structure that are combined with each other. The puncture needle is located in the shell, and the combination structure protrudes from the shell and is suitable for being assembled to the syringe.

5. The consumable component of the injection-type physiological monitor according to claim 4, characterized in that: The physiological monitor includes a sensor needle and an electronic component. The puncture needle has a guide groove. The first part of the sensor needle is slidably accommodated in the guide groove. The second part of the sensor needle extends from the first part out of the guide groove to structurally combine and electrically connect to the electronic component.

6. The consumable component of the injection-type physiological monitor according to claim 5, characterized in that: The carrier includes a through hole. When the physiological monitor is assembled to the carrier, the sensing needle and the puncture needle pass through the through hole and partially protrude from the carrier.

7. The consumable component of the injection-type physiological monitor according to claim 4, characterized in that: When the syringe resets the injection module, the syringe drives the puncture needle to move into the housing and drives the combining structure to protrude out of the housing.

8. The consumable component of the injection-type physiological monitor according to claim 1, characterized in that: The housing has a channel, the injection module moves in two directions in the channel, and the outer contour of the physiological monitor matches the inner wall contour of the channel.

9. An injection-type physiological monitor, characterized in that: include: syringe; as well as Consumable components, including: case; an injection module, movably assembled to the housing; a physiological monitor disposed in the housing and located on a moving path of the injection module, wherein a portion of the physiological monitor is accommodated in a portion of the injection module; and A carrier is disposed in the housing and is located on a moving path of the injection module and the physiological monitor, the carrier and the physiological monitor being separated from each other and located on opposite sides of the housing, The shell and the injection module are used to be assembled to the syringe to execute a use mode or to be removed from the syringe. In the use mode, the syringe drives the injection module to move relative to the shell to drive the physiological monitor to be assembled to the carrier.

10. The injection type physiological monitor according to claim 9, characterized in that: The syringe includes a body, a driving member, a button, a first spring and a handle. The shell is used to be assembled with or removed from the body. The driving member is movably arranged in the body. The driving member has a first elastic arm to be snapped into or released from the body. The driving member has a locking member to enable the injection module to be assembled with or removed from the locking member. The button is movably arranged on the body and the first elastic arm is located on the moving path of the button. The handle is movably arranged on the body and the handle is connected to the driving member. The first spring connects the driving member and the body, and the first spring is accommodated in the body.

11. The injection type physiological monitor according to claim 10, characterized in that: When the syringe is in the first state, the driving member is located at the first position, and the first elastic arm is buckled with the body. When the syringe is in the second state, the driving member is located at the second position, and the button presses the first elastic arm to release the driving member from the body. When executing the usage mode, the button is subjected to external force, causing the syringe to switch from the first state to the second state, and after the assembled physiological monitor and the carrier are released from the shell and injected into the surface of the biological body, the external force is removed from the button, causing the syringe to return to the first state.

12. The injection-type physiological monitor according to claim 9, characterized in that: After the assembled physiological monitor and the carrier are released from the housing and injected into the surface of a living body, the injector resets the injection module.

13. The injection type physiological monitor according to claim 12, characterized in that: The injection module completes the assembly and injection of the physiological monitor and the carrier in a unidirectional and single stroke.

14. The injection type physiological monitor according to claim 12, characterized in that The injection module includes a puncture needle and a combination structure that are combined with each other. The puncture needle is located in the shell, and the combination structure protrudes from the shell and is suitable for being assembled to the syringe.

15. The injection type physiological monitor according to claim 14, characterized in that The physiological monitor includes a sensor needle and an electronic component. The puncture needle has a guide groove. The first part of the sensor needle is slidably accommodated in the guide groove. The second part of the sensor needle extends from the first part out of the guide groove to structurally combine and electrically connect to the electronic component.

16. The injection type physiological monitor according to claim 15, characterized in that The carrier includes a through hole. When the physiological monitor is assembled to the carrier, the sensing needle and the puncture needle pass through the through hole and partially protrude from the shell.

17. The injection type physiological monitor according to claim 14, characterized in that When the syringe resets the injection module, the syringe drives the puncture needle to move into the housing and drives the combining structure to protrude out of the housing.

18. The injection-type physiological monitor according to claim 9, characterized in that The housing has a channel, the injection module moves in two directions in the channel, and the outer contour of the physiological monitor matches the inner wall contour of the channel.

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