TWM652139U - Inductive training system for simulating punctured blood vessels and realistic blood vessels - Google Patents

Abstract

The present disclosure provides an inductive training system for simulating blood vessel puncture, which includes a physical object, a virtual blood vessel, a sensing syringe, and a detection module. The virtual blood vessel includes a rubber tube and a copper mesh configured to be embedded in the rubber tube. The sensing syringe is configured to puncture into the virtual blood vessel to generate a sensing signal. The detection module is configured to be electrically connected to the sensing syringe, and detects the sensing signal to confirm a relative positional relationship between the sensing syringe and the virtual blood vessel.

Description

Inductive training system that simulates puncture blood vessels and simulated blood vessels

The present disclosure relates to an inductive training system that simulates puncturing blood vessels and a simulated blood vessel, and in particular, to an inductive training system that simulates blood drawing and a simulated blood vessel.

The commonly used system for training medical staff to draw blood from the arm mainly allows medical staff to use a syringe to puncture a realistic arm model, so that the medical staff can experience the touch and syringe needle before actually drawing blood from the human arm. The feeling when pricking. However, the position where the needle sticks into the blood vessel and the angle at which the needle sticks still require the guidance and training of experienced medical staff to confirm whether the medical staff who are new to blood drawing meet the requirements and will not puncture the surrounding nerves and cause nerve damage. . Even under the guidance of experienced medical staff, the position where the needle sticks into the blood vessel and the angle of the needle can only be roughly judged, which is not precise. In addition, red pigmented water is usually added to the simulated blood vessels to represent human blood. This red pigmented water requires additional cleaning after the blood drawing training is completed, which is really inconvenient.

In addition, among the conventional technologies, another method is to use immersion to allow novice medical staff to learn how to draw blood correctly, such as using a virtual reality (VR) helmet to allow students to experience the standard actions of blood drawing, such as guiding students to insert needles. Standard actions such as the correct location of the blood vessel inserted by the barrel needle, and the angle of insertion of the needle. However, this immersive experience lacks the tactile feeling, because the tactile feeling also includes the application of needles. The position, angle, depth, etc. feel.

Venipuncture such as blood sample collection is an invasive technique. Improper operation may cause patients to develop complications such as phlebitis, nerve damage, and hematoma. In view of the above-mentioned deficiencies in traditional knowledge and skills, we hope to propose an inductive training system that simulates puncture blood vessels and simulated blood vessels, so that novice medical staff can repeatedly practice blood drawing techniques, so that they can become proficient in blood drawing techniques and actually treat the human body. When drawing blood from a blood vessel, the blood vessel can be accurately found and the probability of the needle puncturing the nerves surrounding the blood vessel is greatly reduced.

Relative to the lack of the above-mentioned technical precedents, this disclosure proposes a sensor-based training system that simulates blood vessel puncture. This system uses a detection module to detect whether the sensing needle has punctured the blood vessel that correctly simulates the blood vessel in the physical object. position, the simulated blood vessels use elastic rubber tubes, and the inner walls of the simulated blood vessels are embedded with conductive wires or elastic conductive meshes, and different simulated blood vessels are assigned to represent different veins, and the detection modules are electrically By connecting different simulated blood vessels and sensing syringes, the detection module can receive sensing signals from different simulated blood vessels when the sensing syringe needle punctures the conductive wire or mesh in the virtual blood vessel. This is used to confirm which virtual blood vessel the sensing syringe needle has punctured.

The sensing syringe has an accelerometer. The accelerometer can sense the needle insertion angle of the sensing syringe when the lower needle is inserted into the simulated blood vessel to obtain an acceleration signal. The sensing syringe transmits the acceleration signal to the detection model. group, the detection module can confirm whether the needle insertion angle of medical staff who are new to blood drawing meets the requirements. The physical object can also include a conductive sheet, which is arranged around the simulated blood vessels to simulate the nerves around human blood vessels. When the sensing needle needle touches the conductive sheet, the detection module can confirm the novice draw from the sensing signal. Medical staff who are bleeding can send out a warning notification if the needle pricks the wrong location.

The detection module can be electrically connected to the processing device to convert the received sensing signal into data and send it to the processing device. The processing device displays the relative position/needle placement between the sensing syringe and the simulated blood vessel based on the data. The angle relationship can be immediately fed back to the practicing medical staff, and the processing device can give warnings or guidance.

On the contrary, this system can also train novice medical staff not to penetrate blood vessels. Especially when medical staff inject the new crown vaccine, it is better to perform intramuscular injection. If the injection is into important blood vessels, it may cause thrombosis or myocarditis in the human body. Therefore, when the sensing needle penetrates into the simulated blood vessel, the detection module or processing device issues a warning or provides guidance.

Based on the above concept, the present disclosure provides an inductive training system that simulates blood vessel puncture, which includes a physical object, a sensing syringe, a detection module, and a processing device. The physical object includes an outer layer of silicone material and a simulated blood vessel. The simulated blood vessel is covered by the outer layer and includes a rubber tube and a copper mesh. The copper mesh is configured to be embedded in the rubber tube. The sensing needle is configured to puncture the virtual blood vessel to generate a sensing signal. The detection module is configured to electrically connect the sensing syringe to confirm a relative positional relationship between the sensing syringe and the virtual blood vessel. The processing device is configured to be electrically connected to the detection module, and to instantly display the relative position relationship by analyzing the sensing signal, so that a user can confirm whether the relative position relationship can meet a training requirement.

Based on the above concept, the present disclosure provides an inductive training system for simulating blood vessel puncture, which includes a physical object, a simulated blood vessel, a sensing syringe, and a detection module. The simulated blood vessel includes a rubber tube and a copper mesh configured to be embedded in the rubber tube. The sensing needle is configured to puncture the virtual blood vessel to generate a sensing signal. The detection module is configured to electrically connect the sensing syringe and detect the sensing signal to confirm a relative position between the sensing syringe and the simulated blood vessel. Set relationship.

Based on the above concept, the present disclosure provides an inductive training system for simulating blood vessel puncture, which includes a simulated blood vessel, a sensing syringe, and a processing device. The simulated blood vessel includes a rubber tube with a conductive mesh. The sensing needle barrel is configured to puncture the virtual blood vessel to generate a sensing signal. The processing device is configured to electrically connect to the sensing syringe, and display a relative positional relationship between the conductive network and the sensing syringe by analyzing the sensing signal.

Based on the above concept, the present disclosure provides an inductive training system for simulating blood vessel puncture, which includes a simulated blood vessel, a sensing syringe, an accelerometer, and a processing device. The sensing needle barrel is configured to puncture the virtual blood vessel. The accelerometer is disposed in the sensing syringe to generate a sensing signal when the sensing syringe punctures the virtual blood vessel. The processing device is configured to be electrically connected to the sensing syringe, and to display a needle angle at which the sensing syringe needles the virtual blood vessel by analyzing the sensing signal.

Based on the above concept, the present disclosure provides a simulated blood vessel, which includes a blood vessel body and a conductive mesh. The conductive mesh ring is provided on the inner wall of the blood vessel body so that when a sensing needle needle punctures the blood vessel body, it may The sensing needle barrel obtains a sensing signal.

For specific embodiments of the present disclosure, please refer to the drawings to further illustrate the technical content of the present disclosure.

10,20: Inductive training system that simulates blood vessel puncture

101:Solid objects

102,202,302: Sensing syringe

101’: Human arm model

103:Detection module

104,204: Processing device

105:Neural detection module

106: Tourniquet tightness detection module

107: Database module

1010: Outer layer

10111:Rubber hose

1011,201: Simulated blood vessels

10112:Copper network

10121:Middle ulnar vein

10112’,303: Conductive mesh

FSR: force sensitive resistor

1021,2021: Acceleration regulations

USR:User

10120: Main blood drawing vein

10122:Basic vein

10123: Cephalic vein

θ : Needle down angle

S1: Sensing signal

S2: acceleration signal

1071: Database module for image content

1072: Database module for audio content

1073:Database module

1074: Database module that generates streaming content

30: Simulated blood vessels

301:Vascular body

301W: Inner wall of blood vessel body

This disclosure is explained in detail through the following diagrams for a deeper understanding:

FIG. 1 is a schematic diagram of an inductive training system for simulating blood vessel puncture according to a preferred embodiment of the present disclosure.

FIG. 2 is a schematic diagram of an inductive training system that further simulates blood vessel puncture according to a preferred embodiment of the present disclosure.

Figure 3 shows a database module of the processing device configured in the inductive training system according to the preferred embodiment of the present disclosure. Schematic diagram.

FIG. 4 is a schematic diagram of an inductive training system that simulates blood vessel puncture according to a preferred embodiment of the present disclosure.

Figure 5 is a schematic diagram of a simulated blood vessel according to a preferred embodiment of the present disclosure.

Please read the following detailed description with reference to the accompanying drawings of the present disclosure. The accompanying drawings of the present disclosure are used to introduce various embodiments of the present disclosure by way of illustration and to provide an understanding of how to implement the present disclosure. The embodiments of this disclosure provide sufficient content for those skilled in the art to implement the embodiments disclosed in this disclosure, or to implement embodiments derived from the content disclosed in this disclosure. It should be noted that these embodiments are not mutually exclusive, and some embodiments can be appropriately combined with one or more other embodiments to form new embodiments, that is, the implementation of the present disclosure is not limited to Examples disclosed below. In addition, for the sake of conciseness and clarity of illustration, relevant details are not excessively disclosed in each embodiment. Even if specific details are disclosed, they are only illustrated to make readers understand. The relevant specific details in each embodiment are not used for limitation. The revelation of this case.

Please refer to FIG. 1 , which is a schematic diagram of an inductive training system 10 that simulates blood vessel puncture according to a preferred embodiment of the present disclosure. Please refer to FIG. 2 , which is a schematic diagram of an inductive training system 10 that further simulates blood vessel puncture according to a preferred embodiment of the present disclosure. . Please refer to Figures 1 and 2 at the same time. The sensor-based training system 10 for simulating blood vessel puncture includes a physical object 101, a sensing syringe 102, a detection module 103, and a processing device 104. The physical object 101 includes an outer layer 1010 made of silicone material and a simulated blood vessel 1011. The simulated blood vessel 1011 is covered by the outer layer 1010 and includes a rubber tube 10111 and a copper mesh 10112. The copper mesh 10112 is configured to be embedded in the rubber tube 10111. The sensing needle 102 is configured to puncture the virtual blood vessel 1011 to generate a sensing signal S1. The detection module 103 is configured to electrically connect the sensing syringe 102 to confirm the sensing syringe 102 and the virtual blood vessel 1011 a relative positional relationship between them. The processing device 104 is configured to be electrically connected to the detection module 103 and to instantly display the relative position relationship by analyzing the sensing signal S1 for a user to confirm whether the relative position relationship can meet a training requirement.

In any embodiment of the present disclosure, the physical object 101 is, for example, a human arm model 101'. The training requirement includes at least one of whether the sensing needle 102 has punctured the virtual blood vessel 1011 and a puncture angle between the sensing needle 102 and the virtual blood vessel 1011 when puncturing. The processing device 104 analyzes the sensing signal S1 to confirm whether the sensing needle 102 has contacted the copper mesh 10112 to confirm that the sensing needle 102 has punctured the virtual blood vessel 1011. The sensing syringe 102 also includes an accelerometer 1021 that can generate an acceleration signal S2, wherein the sensing signal includes the acceleration signal S2, and the processing device 104 analyzes the acceleration signal in the sensing signal S1 S2 to confirm whether the puncture angle θ meets the training requirements. The training system 10 is used as an auxiliary training system for simulating arm blood drawing. The outer layer 1010 simulates human skin, and the silicone material can withstand punctures of the sensing syringe 102, for example, hundreds of times. The simulated blood vessel 1011 simulates a main blood pumping vein 10120. The main blood pumping vein includes at least one of a middle ulnar vein 10121, a basilic vein 10122, and a head vein 10123. The inductive training system 10 also includes a nerve detection module 105 having an induction conductor, such as a copper sheet. The nerve detection module 105 is disposed in the outer layer 1010 and outside the simulated blood vessel 1011 to Confirm whether the sensing syringe 102 contacts the copper piece, thereby simulating that the sensing syringe 102 punctures a human nerve. The inductive training system 10 also includes a tourniquet tightness detection module 106 having a force-sensitive resistor FSR. The tourniquet tightness detection module 106 is electrically connected to the processing device 103 to confirm that a tourniquet is tied. A tightness state of the tourniquet detection area TAR on the physical object 101.

Figure 2 shows the lower needle detection area NAR1, NAR2 can be included in the elbow The area NAR1 near the inner side and the area NAR2 near the back of the hand. At the beginning, the user USR first ties the tourniquet to the upper arm of the physical object 101. There is a tourniquet tightness detection module 106 in the tourniquet detection area TAR that can detect the tightness of the tourniquet of the user USR, for example The force-sensitive resistor FSR is used to detect the tightness of the tourniquet when it is tied. The tourniquet can usually be, for example, (a proper noun for a rubber tube). The user inserts the sensing syringe 102 into the outer skin 1010 of the lower needle area NAR at an angle θ and then penetrates into the interior. The angle of the puncture will be determined according to the physiological structure of the person from whom blood is drawn. For example, thinner people usually have less subcutaneous fat, so the needle insertion angle θ is closer to parallel; while fatter people usually have more subcutaneous fat, so the needle insertion angle θ is closer to vertical, that is, the range of the angle θ is 15 degrees. and 60 degrees, preferably 30 degrees. After puncturing the outer skin 1010, the user USR may puncture the sensing syringe 102 into the virtual blood vessel 1011, and the detection module 103 will receive the sensing signal S1 and cause the indicating unit 1030 to indicate that the user USR is puncturing. Which one of the simulated blood vessels 1011, the indication unit 1030 can be an LED light. Different simulated blood vessels can be associated with an LED light indicating the name of the blood vessel. In addition to allowing the user USR to experience the acupuncture of the sensing syringe, In addition to the feel, it can also receive immediate feedback and can immediately correct the user's USR to meet the requirements of standard blood drawing technology. In another embodiment, the processing device 104 can also use an image to display the situation when the sensing needle punctures the virtual blood vessel 1011 in real time.

On the other hand, after puncturing the outer skin 1010, the user USR may puncture the sensing syringe 102 into the sensing conductor around the virtual blood vessel 1011, and the detection module 103 will receive the sensing signal S1 from the sensing conductor and A warning is issued, or a warning is issued by the processing device 104. The processing device 104 can immediately use an image to display that the sensing needle has punctured a nerve outside the simulated blood vessel 1011.

In any embodiment of the present disclosure, the detection module 103 can be a microprocessor with general purpose input/output (GPIO), which can become an embedded system. The system serves as an electronic control box to analyze and/or process the sensing signal S1 and the acceleration signal S2. The inductive training system 10 can only be configured with the detection module 103 without the processing device 104, that is, for example, the following inductive training system 10 that simulates puncture blood vessels, which includes a physical object 101 and a simulated blood vessel 1011 , a sensing syringe 102, and a detection module 103. The simulated blood vessel 1011 includes a rubber tube 10111 and a copper mesh 10112, configured to be embedded in the rubber tube 10111. The sensing needle 102 is configured to puncture the virtual blood vessel 1011 to generate a sensing signal S1. The detection module 103 is configured to electrically connect the sensing syringe 102, and detect the sensing signal S1 to confirm a relative positional relationship between the sensing syringe 102 and the virtual blood vessel 1011.

The induction training system 10 can only be configured with the processing device 104 without the detection module 103. Under this condition, the processing device 104 can be a module with an image display unit, and can detect, analyze, Processing the sensing signal S1 and the acceleration signal S2, that is, for example, the following inductive training system 10 includes a virtual blood vessel 1011, a sensing syringe 102, and a processing device 104. The simulated blood vessel 1011 includes a conductive mesh 10112' and a rubber tube 10111. The sensing needle 102 is configured to puncture the virtual blood vessel 1011 to generate a sensing signal S1. The processing device 104 is configured to electrically connect the sensing needle 102, and display a relative positional relationship between the conductive network 10112' and the sensing needle 102 by analyzing the sensing signal S1.

Please refer to FIG. 3 , which is a schematic diagram of the database module 107 of the processing device 104 configured in the induction training system 10 according to the preferred embodiment of the present disclosure. The processing device 104 is, for example, a personal computer, which includes a database module 1071 for storing image content, a database module 1072 for storing audio content, a database module 1073 for storing data, and a database module for generating streaming content. At least one of 1074. The processing device 104 can provide the user USR with different scenarios to choose from, such as (1) general mode: simulating normal blood drawing, (2) needle fainting treatment: the patient suddenly suffers from needle fainting after the needle is inserted. Management, (3) Nerve injury: handle when the patient has nerve damage, and (4) No blood drawn: handle when the user does not draw blood after inserting the USR needle.

The processing device 104 can use the database module 107 at an appropriate time to respond to the user's operating conditions according to the above different scenarios. For example, in the normal blood drawing mode, if the sensing syringe 102 punctures one of the main blood drawing veins 10120, the processing device 104 uses the database 107 module to display which one of the main blood drawing veins 10120 is being punctured. blood vessels, and can simultaneously display whether the needle angle θ is within the standard range; if the sensing syringe 102 punctures the peripheral nerve of the main blood-drawing vein 10120, a cry can be emitted to warn the user of USR acupuncture. to the nerve site. In another embodiment, when the user's USR needle pricks the peripheral nerve, it can also be displayed as simulating the needle pricking the nerve, and when the sensing syringe needle pricks the main blood-drawing vein 10120, a warning is issued to notify The acupuncture status of the user USR. This can be applied to, for example, the intramuscular injection of the COVID-19 vaccine. If the vaccine is injected into the blood vessels, it may cause myocarditis or thrombosis in the person being injected.

The processing device 104 can instruct the user USR to perform training according to the normal blood drawing process, including: checking basic patient information, tying a tourniquet, disinfecting the needle site, inserting the needle to draw blood, inserting the test tube, removing the tourniquet, and removing the blood drawing process. Instructions on needles, compression, hygiene, etc. The above blood drawing training can be used for the area NAR of the needle insertion site, such as the area NAR1 near the inner side of the elbow and the area NAR2 near the back of the hand.

Please refer to FIG. 4 , which is a schematic diagram of an inductive training system 20 for simulating puncture blood vessels according to a preferred embodiment of the present disclosure. It includes a simulated blood vessel 201 , a sensing syringe 202 , an accelerometer 2021 , and a processing device 204 . The sensing needle 202 is configured to puncture the virtual blood vessel 201 . The accelerometer 2021 is disposed in the sensing syringe 202 to generate a sensing signal S1 when the sensing syringe 202 punctures the virtual blood vessel 201 . The processing device 204 is configured to electrically connect the sensing needle barrel 202 and display the needle angle θ at which the sensing needle barrel 202 punctures the virtual blood vessel 201 by analyzing the acceleration signal S2 in the sensing signal S1.

In any embodiment of the present disclosure, the processing device 204 can be replaced by a detection module 103. The detection module 103 can use the indication unit 1030, and different simulated blood vessels can be associated with a vessel name. Instruction unit 1030.

Please refer to Figure 5, which is a schematic diagram of a simulated blood vessel 30 according to a preferred embodiment of the present disclosure. It includes a blood vessel body 301 and a conductive mesh 303. The conductive mesh 303 is surrounded by the inner wall 301W of the blood vessel body 301. When a sensing syringe needle 302 punctures the blood vessel body 301, the sensing syringe 302 is allowed to obtain a sensing signal S1.

In any embodiment of the present disclosure, the blood vessel body 301 is a rubber tube 10111, and the conductive mesh 303 is a copper mesh 10112. The simulated blood vessel 301 simulates a main blood pumping vein 10120. The main blood pumping vein 10120 includes at least one of a middle ulnar vein 10121, a basilic vein 10122, and a head vein 10123. The virtual blood vessel 301 is electrically connected to a processing device 104, 204. The processing device 104, 204 analyzes the sensing signal S1 to confirm whether the sensing syringe 302 has contacted the conductive mesh 303 to confirm that the sensing syringe 302 The virtual blood vessel 301 has been punctured. The sensing syringe 302 includes an accelerometer 1021.2021, which generates an acceleration signal S2, and the processing device 104, 204 determines the needle of the sensing syringe 102, 202 by analyzing the acceleration signal S2 in the sensing signal S1. The needle angle θ for puncturing the blood vessel body 301 is θ. The processing devices 104, 204 can be replaced by the detection module 103. The detection module 103 will receive the sensing signal S1 and enable the indication unit 1030 to indicate to the user which one of the simulated blood vessels 1011 the USR is acupuncture. The indication unit 1030 It can be an LED light. Different simulated blood vessels can be associated with an LED light indicating the name of the blood vessel. In addition to allowing the user USR to experience the acupuncture feel of the sensing syringe, it can also receive immediate feedback and can Immediately correct the user's USR to meet the requirements of standard blood drawing technology.

The numerous variations and other embodiments of the present disclosure set forth herein will be appreciated by those skilled in the art with the benefit of the teachings presented in the above description and associated drawings. Therefore, it should be understood that the present disclosure is not limited to the specific embodiments disclosed, and modifications and other embodiments are intended to be included within the scope of the following claims.

10: Inductive training system that simulates blood vessel puncture

101:Solid objects

102: Sensing syringe

101’: Human arm model

103:Detection module

104: Processing device

105:Neural detection module

106: Tourniquet tightness detection module

107: Database module

1010: Outer layer

10111:Rubber hose

1011,201: Simulated blood vessels

10112:Copper network

10121:Middle ulnar vein

10112’: Conductive mesh

1021:Acceleration regulations

10120: Main blood drawing vein

10122:Basic vein

10123: Cephalic vein

θ : Needle down angle

S1: Sensing signal

S2: acceleration signal

Claims (10)

An inductive training system that simulates blood vessel puncture, including: a human arm model, including: an outer layer made of silicone material; a simulated blood vessel, covered by the outer layer, and including: a rubber tube; and a copper mesh , configured to be embedded in the rubber tube; a sensing syringe configured to puncture the virtual blood vessel to generate a sensing signal; a detection module configured to electrically connect the sensing syringe to confirm the Sensing a relative positional relationship between the syringe and the virtual blood vessel; and a processing device configured to electrically connect to the detection module and to instantly display the relative positional relationship by analyzing the sensing signal for a The user confirms whether the relative position relationship can meet a training requirement. The sensor-based training system as claimed in claim 1, wherein: the training requirements include whether the sensing needle has punctured the virtual blood vessel, and a puncture angle between the sensing needle and the virtual blood vessel when puncturing. At least one of them; the processing device analyzes the sensing signal to confirm whether the sensing syringe has contacted the copper mesh to confirm that the sensing syringe has punctured the virtual blood vessel; the sensing syringe also It includes an accelerometer that can generate an acceleration signal, wherein the sensing signal includes the acceleration signal, and the processing device determines whether the puncture angle meets the training requirements by analyzing the acceleration signal; the training system is applied to a simulated arm An auxiliary training system for blood drawing; The outer layer simulates human skin, and the silicone material is resistant to puncture by the sensing syringe; and the simulated blood vessel simulates a main blood-drawing vein, and the main blood-drawing vein includes a middle ulnar vein, a basilic vein, and At least one of the veins of a head; the inductive training system also includes a nerve detection module with a copper plate, the nerve detection module is disposed in the outer layer and outside the simulated blood vessel to confirm the Detect whether the sensing syringe contacts the copper piece, thereby simulating that the sensing syringe punctures a human nerve; and the inductive training system also includes a tourniquet tightness detection module with a force-sensitive resistor, the tourniquet The tightness detection module is electrically connected to the processing device to confirm the tightness of a tourniquet tied to the human arm model. An inductive training system for simulating blood vessel puncture, including: a physical object, including: a simulated blood vessel, including: a rubber tube; and a copper mesh configured to be embedded in the rubber tube; and a sensing syringe configured puncturing the virtual blood vessel to generate a sensing signal; and a detection module configured to electrically connect the sensing syringe and detect the sensing signal to confirm the connection between the sensing syringe and the virtual blood vessel. a relative positional relationship between them. The inductive training system as described in claim 3, wherein: the inductive training system further includes a processing device configured to be electrically connected to the detection module and to instantly display the relative position relationship by analyzing the sensing signal; The inductive training system also includes an outer layer, the outer layer includes a silicone material; the simulated blood vessel is covered by the outer layer; The processing device allows a user to confirm whether the relative position relationship can meet a training requirement; the training requirement includes whether the sensing needle has punctured the virtual blood vessel, and whether the sensing needle is in contact with the virtual blood vessel during puncture. At least one of the puncture angles; the processing device analyzes the sensing signal to confirm whether the sensing needle has contacted the copper mesh to confirm that the sensing needle has punctured the virtual blood vessel; the The sensing syringe further includes an accelerometer that can generate an acceleration signal, wherein the sensing signal includes the acceleration signal, and the processing device determines whether the puncture angle meets the training requirement by analyzing the acceleration signal; the processing The device includes a first program that provides a blood drawing training program, a needle fainting treatment training program, a nerve injury treatment training program, and a non-blood drawing treatment training program; the training system is used in simulation An auxiliary training system for arm blood drawing; the outer layer simulates a human skin, and the silicone material is resistant to puncture by the sensing syringe; the physical object is a human arm model; the simulated blood vessel simulates a main blood drawing vein, The main blood-drawing vein includes at least one of a middle ulnar vein, a basilic vein, and a cranial vein; and the processing device also includes a second program, the second program provides a needle fainting treatment training program, the fainting The needle handling training program includes simulating at least one of confirming a blood sugar and a blood oxygen of a subject; the inductive training system also includes a nerve detection module having a copper sheet, the nerve detection module Disposed within the outer layer and outside the simulated blood vessel to confirm whether the sensing needle contacts the copper sheet and simulates the sensing needle penetrating a human nerve; The inductive training system also includes a tourniquet tightness detection module with a force-sensitive resistor. The tourniquet tightness detection module is electrically connected to the processing device to confirm that a tourniquet is tied to the physical object. a tightness state; and the processing device also includes a third program, the third program provides a nerve damage treatment training program, the nerve damage treatment training program is emitted by the processing device when the sensing needle contacts the copper plate A sound is made to indicate to a user that the sensing needle has simulated puncture into a human nerve. An inductive training system for simulating blood vessel puncture, including: a virtual blood vessel including a rubber tube with a conductive network; a sensing needle configured to puncture the virtual blood vessel to generate a sensing signal; and A processing device is configured to electrically connect the sensing syringe, and display a relative positional relationship between the conductive network and the sensing syringe by analyzing the sensing signal. The inductive training system as described in claim 5, wherein: the conductive mesh is a copper mesh, and the copper mesh is configured to be buried in the rubber tube; the inductive training system also includes a detection module, the detection module The module is configured to electrically connect the sensing syringe; the processing device includes a program to receive the sensing signal and analyze the sensing signal through the program to confirm the relative position relationship; the induction training system is used in An auxiliary training system that simulates arm blood drawing; the inductive training system also includes an outer layer with a silicone material, the outer layer simulates a human skin, and the silicone material withstands the puncture of the sensing syringe; the inductive training The system also includes a physical object, which is a human arm model; the physical object includes the simulated blood vessel; The virtual blood vessel simulates a main blood pumping vein, and the main blood pumping vein includes at least one of a middle ulnar vein, a basilic vein, and a head vein; the inductive training system also includes a nerve with a copper plate A detection module, the nerve detection module is disposed in the outer layer and outside the simulated blood vessel to confirm whether the sensing needle contacts the copper sheet and simulates the sensing needle penetrating a human nerve; The inductive training system also includes a tourniquet tightness detection module with a force-sensitive resistor. The tourniquet tightness detection module is electrically connected to the processing device to confirm that a tourniquet is tied to the physical object. a tightness state; and the program also provides a blood drawing training program for a user to instantly display the relative positional relationship between the copper mesh and the sensing syringe. An inductive training system for simulating blood vessel puncture, including: a virtual blood vessel, including a rubber tube with a conductive network; a sensing needle configured to puncture the virtual blood vessel; and an accelerometer disposed on the sensing In the syringe, a sensing signal is generated when the sensing syringe punctures the virtual blood vessel; and a processing device is configured to electrically connect the sensing syringe and display the sensing signal by analyzing the sensing signal. Measure the needle angle of the syringe needle when it punctures the simulated blood vessel. The inductive training system as described in claim 7, wherein: the conductive mesh is a copper mesh, and the copper mesh is configured to be embedded in the rubber tube; the inductive training system is used in an auxiliary training system that simulates arm blood drawing ; The inductive training system also includes an outer layer with a silicone material, the outer layer simulates a human skin, and the silicone material is resistant to puncture by the sensing syringe; The inductive training system also includes a physical object, which is a human arm model; the physical object includes the simulated blood vessel; the simulated blood vessel simulates a main blood pumping vein, and the main blood pumping vein includes a middle ulnar vein , a basilic vein, and at least one of a head vein; the processing device analyzes the sensing signal to confirm whether the sensing syringe has contacted the copper mesh to confirm that the sensing syringe has punctured the a simulated blood vessel; and the sensing signal includes an acceleration signal, and the processing device determines the needle angle at which the sensing needle barrel punctures the virtual blood vessel by analyzing the acceleration signal. A simulated blood vessel is used to allow a sensing needle outside the blood vessel to obtain a sensing signal, and includes: a blood vessel body, wherein the blood vessel body is a rubber tube; and a conductive mesh surrounding the blood vessel body The inner wall allows the sensing syringe to obtain the sensing signal when the sensing syringe punctures the blood vessel body. The virtual blood vessel as described in claim 9, wherein: the conductive mesh is a copper mesh; the virtual blood vessel simulates a main blood pumping vein, and the main blood pumping vein includes a middle ulnar vein, a basilic vein, and a At least one of the veins; the virtual blood vessel is electrically connected to a processing device, and the processing device determines whether the sensing syringe has contacted the conductive network by analyzing the sensing signal to confirm that the sensing syringe has The virtual blood vessel has been punctured; and the sensing syringe includes an accelerometer that generates an acceleration signal, wherein the sensing signal includes the acceleration signal, and the processing device determines the acceleration signal by analyzing the acceleration signal. Sense the needle angle at which the syringe needle penetrates the blood vessel body.

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