CN102871663A - Physiologic signal collecting system for quadrumana - Google Patents
Physiologic signal collecting system for quadrumana Download PDFInfo
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- CN102871663A CN102871663A CN2012103590980A CN201210359098A CN102871663A CN 102871663 A CN102871663 A CN 102871663A CN 2012103590980 A CN2012103590980 A CN 2012103590980A CN 201210359098 A CN201210359098 A CN 201210359098A CN 102871663 A CN102871663 A CN 102871663A
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Abstract
The invention provides a physiologic signal collecting system for quadrumana. The physiologic signal collecting system comprises an energy supply module used for supplying electrical energy for the physiologic signal collecting system for quadrumana, a stimulation module used for applying stimulation signals to a tested animal body and analyzing feedback signals generated to the stimulation signals by the tested animal body, a sensing and recording module implanted in the tested animal body and used for collecting and analyzing physiologic signals of the tested animal body, and a signal receiving module positioned in the tested animal body and used for receiving feedback signals returned by the stimulation module and physiologic signals returned by the sensing and recording module; and the energy supply module comprises a wireless charging conveying end, a mechanical charging end and a wireless charging receiving end, wherein the wireless charging conveying end and the mechanical charging end are positioned outside the tested animal body, and the wireless charging receiving end is implanted in the tested animal body. The physiologic signal collecting system for quadrumana, provided by the invention, can be changed outside the tested animal body, so that long-term power supply can be realized, and the requirements on scientific researches and medicine can be met.
Description
Technical field
The present invention relates to a kind of medical instruments field, relate in particular to a kind of primate Physiological Signal Acquiring System.
Background technology
At present, there are the signal data poor reliability in external remote measurement and the stimulating instrument of the physiological signal of tested animal, and battery is not durable, the problems such as number of active lanes deficiency, can't satisfy the demand of the scientific research of high speed development, also be unfavorable for tackling the development of personalized treatment of today, pharmacology clinical research.At present, the structure of implanted physiological signal telemetry system and stimulating system and the research of function make great progress, but the volume of implanted physiological signal telemetry system and stimulating system, and the stability of energy consumption and function and multiformity aspect are still failed perfect;
Along with the medical science such as pharmacology, physiology and pathology, scientific research field are all the more urgent to the demand of external telemetry system and stimulating system, require all the more strict for working time of implanted physiological signal telemetry system and stimulating system.
Chinese patent application CN 102013717A discloses a kind of wireless charging method of primate Physiological Signal Acquiring System apparatus para-position automatic prompting function, and it is a kind of device of communicating by letter with PPM and determining power supply parameter and carry out electricity irritation or bio-signal acquisition with the percutaneous wireless power.This device has its advantage in power supply, but perfect not arranging of the detection of physiological signal and stimulating system, can only carry out single pass detection, and stimulating system is too simple, can't realize stimulating the function synchronous with signal detection.
Chinese patent application CN 201130422Y discloses a kind of implantation type nerve micro-stimulus and gathering remote-controlled chip.This implantation type nerve micro-stimulus and gathering remote-controlled chip can be used for the stimulating animal brain, and the interior physiological signal of the brain of collecting animal, it has realized stimulating and the synchronization that records, but is used for only stimulation and the record of animal brain signal, and supply module is not durable, and can not test for a long time.
Therefore, extremely be necessary to provide a kind of primate Physiological Signal Acquiring System, this primate Physiological Signal Acquiring System is implanted in the health of tested animal, and can charge in the external of animal, can stimulate and outside animal body, its physiological signal is taken remote measurement tested animal, by external power supply and low energy consumption, high reliable communication, and have to stimulate with record and the function such as can realize synchronously, satisfy the demand of now scientific research and medical science.
Summary of the invention
The present invention provides a kind of primate Physiological Signal Acquiring System in order to solve the problems of the technologies described above, and can charge the external of tested animal body, realizes for a long time power supply; Can also be at tested animal body stimulate in the external or body and the physiological signal of the tested animal body of Real-Time Monitoring, satisfy the demand of scientific research and medical science.
A kind of primate Physiological Signal Acquiring System provided by the invention comprises:
The energy supply module, it is used to the primate Physiological Signal Acquiring System that electric energy is provided, comprise being positioned at the external wireless charging delivery end of tested animal body and being positioned at the mechanical charge end of tested animal body body, and implant the wireless charging receiving terminal in the tested animal body body; Described wireless charging delivery end is undertaken to described wireless charging receiving terminal charging by the wireless charging technology; Described mechanical charge end is used for utilizing the mechanical energy generation current to charge to described wireless charging receiving terminal when described tested animal movement;
Stimulating module is held stimulus signal for described tested animal body is added, and tested animal body is carried out analyzing and processing to the feedback signal that this stimulus signal produces;
The sensing logging modle, it is implanted in the body of tested animal body, is used for gathering the physiological signal of tested animal body and carrying out analyzing and processing;
Signal receiving module, it is positioned at the external of tested animal body, is used for receiving the physiological signal that feedback signal that described stimulating module returns and described sensing logging modle are returned.
Wherein, described wireless charging delivery end comprises Power Management Unit and radiating circuit unit; Described wireless charging receiving terminal comprises primary current converting unit and charhing unit;
The Power Management Unit of described wireless charging delivery end provides basic operating current for described wireless charging delivery end; Described radiating circuit unit is comprised of coil array and associated electrical element;
When described wireless charging delivery end and described wireless charging receiving terminal near the time, the coil array of the coil array of described wireless charging receiving terminal and described wireless charging delivery end is responded to generation current, carries out energy delivery.
Wherein, described mechanical charge end comprises:
Charhing unit, it comprises high-strength Magnet and the coil of implanting in the tested animal body, during described tested animal movement, described coil cuts the magnetic field that described high-strength Magnet forms, generation current;
Rectification unit is used for the electric current that described charhing unit produces is carried out rectification;
The mu balanced circuit unit is used for the electric current that described rectification unit carries out after rectification is processed is carried out the voltage stabilizing processing, and is transported to the wireless charging receiving terminal.
Wherein, described wireless charging receiving terminal comprises:
Coil array, it is combined by copper cash and biomaterial;
Current conversion unit is used for the electric current of described wireless charging delivery end or the generation of described mechanical charge end is carried out conversion process;
Rechargeable battery is used for storing the electric current after described current conversion unit is processed.
Wherein, described primate Physiological Signal Acquiring System also comprises:
Whether voltage sensor has reached rated operational voltage for detection of the rechargeable battery of described wireless charging receiving terminal, charges as the rechargeable battery of wireless charging receiving terminal to determine to start described wireless charging delivery end or mechanical charge end.
Wherein, described sensing logging modle comprises:
The physiological signal collecting unit is used for gathering the physiological signal in the described tested animal body body;
The physiological signal adjustment unit is used for the physiological signal of described physiological signal collecting unit collection is adjusted processing;
The wireless signal transmission unit is used for the physiological signal that the adjustment of described physiological signal adjustment unit obtains is launched by wireless technology.
Wherein, described stimulating module comprises:
Stimulus is used for one or more stimulus signals that stimulate to the stimulation of described tested animal body additional electrical, photostimulation, magnetic;
Emitter, it directly is connected with described stimulus, is used for adopting the mode of wireless transmission signal, and the feedback signal of the stimulus signal that the described stimulus of response that produces in the tested animal body body is additional passes;
Receptor is used for receiving the feedback signal that described emitter transmits;
Processor, it directly is connected with described receptor, with described stimulus be connected emitter and be connected by the serial peripheral equipment interface SPI mode respectively, be used for described feedback signal is carried out analyzing and processing, and described stimulus controlled.
Wherein, described signal receiving module comprises:
The reception of wireless signals unit is used for receiving the physiological signal of sensing logging modle transmission and the feedback signal that described stimulating module sends;
The signal-data processing unit is used for physiological signal and feedback signal that described reception of wireless signals unit receives are carried out analyzing and processing;
The signal data storage element is used for storage through physiological signal and the feedback signal of described signal-data processing unit.
Wherein, described wireless charging delivery end is installed on the seat, or is embedded on the waistcoat that tested animal body wears, or is arranged in the cage at tested animal body place.
Implement a kind of primate Physiological Signal Acquiring System provided by the invention, because wireless charging and two kinds of charging techniques of mechanical charge are provided, can guarantee the long-time normal operation of this Medical Instruments supply module, and can in the external or body of tested animal body, stimulate, the physiological signal of the tested animal body of Real-Time Monitoring, carry out Treatment Analysis after gathering this physiological signal, can satisfy the demand of modern scientific research and medical science.
Description of drawings
In order to be illustrated more clearly in the embodiment of the invention or technical scheme of the prior art, the below will do to introduce simply to the accompanying drawing of required use in embodiment or the description of the Prior Art, apparently, accompanying drawing in the following describes only is some embodiments of the present invention, for those of ordinary skills, under the prerequisite of not paying creative work, can also obtain according to these accompanying drawings other accompanying drawing.
Fig. 1 is the structural representation of a kind of primate Physiological Signal Acquiring System embodiment one provided by the invention;
Fig. 2 is the structural representation of a kind of primate Physiological Signal Acquiring System embodiment two provided by the invention;
Fig. 3 is the structural representation of a kind of primate Physiological Signal Acquiring System embodiment three provided by the invention;
Fig. 4 is the structural representation of a kind of primate Physiological Signal Acquiring System embodiment four provided by the invention;
Fig. 5 is the structural representation of a kind of primate Physiological Signal Acquiring System embodiment five provided by the invention;
Fig. 6 is the structural representation of a kind of primate Physiological Signal Acquiring System embodiment six provided by the invention;
Fig. 7 is the structural representation of a kind of primate Physiological Signal Acquiring System embodiment seven provided by the invention;
Fig. 8 is the structural representation of a kind of primate Physiological Signal Acquiring System embodiment eight provided by the invention;
Fig. 9 is the structural representation of a kind of primate Physiological Signal Acquiring System embodiment nine provided by the invention;
Figure 10 is the structural representation of a kind of primate Physiological Signal Acquiring System embodiment ten provided by the invention;
Figure 11 is the structural representation of a kind of primate Physiological Signal Acquiring System embodiment 11 provided by the invention.
The specific embodiment
The present invention provides a kind of primate Physiological Signal Acquiring System in order to solve the problems of the technologies described above, and can charge the external of tested animal body, realizes for a long time power supply; Can also at the external also physiological signal of the tested animal body of Real-Time Monitoring that stimulates of tested animal body, satisfy the demand of scientific research and medical science.
Referring to Fig. 1, for the invention provides the structural representation of a kind of primate Physiological Signal Acquiring System embodiment one.
The primate Physiological Signal Acquiring System that present embodiment one provides comprises:
Stimulating module 11 is held stimulus signal for described tested animal body is added, and tested animal body is carried out analyzing and processing to the feedback signal that this stimulus signal produces;
Sensing logging modle 12, it is implanted in the body of tested animal body, is used for gathering the physiological signal of tested animal body and carrying out analyzing and processing;
Wherein, described primate Physiological Signal Acquiring System also comprises:
Referring to Fig. 2, be the structural representation of a kind of primate Physiological Signal Acquiring System embodiment two provided by the invention.
Present embodiment two will be described concrete function and the structure of the supply module 10 of primate Physiological Signal Acquiring System provided by the invention in detail, comprise:
Wherein, described wireless charging delivery end 100 comprises Power Management Unit 1001 and radiating circuit unit 1002; Described wireless charging receiving terminal 102 comprises primary current converting unit 1020 and charhing unit 1021;
The Power Management Unit 1001 of described wireless charging delivery end 100 provides basic operating current for described wireless charging delivery end 100; Described radiating circuit unit 1002 is comprised of coil array; When described wireless charging delivery end 100 contacted with described wireless charging receiving terminal 102, the coil array of the coil array of described wireless charging receiving terminal 102 and described wireless charging delivery end 100 induction generation current carried out energy delivery.
Concrete, described wireless charging receiving terminal 102 comprises:
When described wireless charging delivery end 100 contacts with described wireless charging receiving terminal 102, the coil array 1020(of described wireless charging receiving terminal 102 is secondary coil) respond to generation current with radiating circuit unit 1002 coil arrays (being primary coil) of described wireless charging delivery end 100, the charhing unit 1021 of described wireless charging receiving terminal 102 utilizes this electric current to provide electric energy for the battery that described primate Physiological Signal Acquiring System is implanted in the tested animal body body.
Referring to Fig. 3, be the structural representation of a kind of primate Physiological Signal Acquiring System embodiment three provided by the invention.
In the present embodiment three in detail, the wireless charging delivery end 100 of supply module 10 of primate Physiological Signal Acquiring System provided by the invention and the structure of wireless charging receiving terminal 102 will be described.
Among Fig. 3, the alternating current that adds at wireless charging delivery end 100 is used to the startup power supply that this wireless charging delivery end 100 provides indispensability, and the radiating circuit unit 1002 of wireless charging delivery end 100 is specially coil array and forms, and also is the primary coil among Fig. 3; And the current conversion unit 1020 of wireless charging receiving terminal 102 is specially secondary coil.When elementary coil and secondary coil are wireless when contacting, produce faradic current, the electricity that wireless charging delivery end 100 will produce is input to wireless charging receiving terminal 102.
Wherein, described wireless charging delivery end 100 is installed on the seat, or is embedded on the waistcoat that tested animal body wears, or is arranged in the cage at tested animal body place.The below will describe one by one.
Referring to Fig. 4, be the structural representation of a kind of primate Physiological Signal Acquiring System embodiment four provided by the invention.
In the present embodiment four in detail, the wireless charging delivery end 100 of supply module 10 of primate Physiological Signal Acquiring System provided by the invention and the specific implementation one of wireless charging receiving terminal 102 will be described.
As shown in Figure 4, wireless charging delivery end 100 is specifically realized at the charging seat of making of insulant; Power Management Unit 1001 and radiating circuit unit 1002 specifically are arranged on the charging seat, and it is connected with extraneous power supply; Wireless charging receiving terminal 10 is implanted in the animal body.
Wireless charging delivery end 100 is to be embedded in intensive coil array (being primary coil) at seat, is connected with extraneous power supply, comprises Power Management Unit 1001 and radiating circuit unit 1002.Wireless charging receiving terminal 102 is combined by magnetic alloy, copper cash and biomaterial for being embedded in the receiving coil (being secondary coil) in the tested animal body, is used for receiving electric energy, is battery charging in the body.During charging, body (being tested animal body) is sitting on the charging seat, and subcutaneous receptor 102 contact with wireless charging delivery end 100 on the chair, and formation contacts the site.When seat passes into alternating current, primary coil in the wireless charging delivery end 100 produces induced field, the secondary coil that the wireless charging receiving terminal is 102 li is in the induced field, the corresponding generation current of meeting, behind the change-over circuit through wireless charging receiving terminal 102, can be the charging of primate Physiological Signal Acquiring System at acceptance point.
Referring to Fig. 5, be the structural representation of a kind of primate Physiological Signal Acquiring System embodiment five provided by the invention.
In the present embodiment five in detail, the wireless charging delivery end 100 of supply module 10 of primate Physiological Signal Acquiring System provided by the invention and the specific implementation two of wireless charging receiving terminal 102 will be described.
In the present embodiment, wireless charging delivery end 100 is to be embedded in intensive coil array at waistcoat to realize that it is connected with extraneous power supply, comprises Power Management Unit and radiating circuit unit.Wireless charging receiving terminal 102 is combined by magnetic alloy, copper cash and biomaterial for being embedded in the coil array in the tested animal body, is used for receiving electric energy, and the battery that is implanted into for tested animal body charges.During charging, tested animal body is worn bodice, and subcutaneous wireless charging receiving terminal 102 is contacted with wireless charging delivery end 100 on the waistcoat, forms the contact site.When waistcoat passes into alternating current, primary coil in the wireless charging delivery end 100 produces induced field, and the secondary coil that the wireless charging receiving terminal is 102 li is in the induced field, the corresponding generation current of meeting, after the conversion process through wireless charging receiving terminal 102, can be equipment charge at acceptance point.In addition, ampere wires is communicated with waistcoat and power supply by a cross bar, can not limit like this activity of organism when charging, makes it activity freely.
Referring to Fig. 6, be the structural representation of a kind of primate Physiological Signal Acquiring System embodiment six provided by the invention.
In the present embodiment six in detail, the wireless charging delivery end 100 of supply module 10 of primate Physiological Signal Acquiring System provided by the invention and the specific implementation three of wireless charging receiving terminal 102 will be described.
In the present embodiment six, wireless charging delivery end 100 is to realize in the cage by intensive coil array Bao Huancheng, and the external suitable high-frequency alternating current of coil makes the space of the coil array Bao Huancheng rapidly moving field that changes.This charging modes is called the cage type magnetic induction charging.Wireless charging receiving terminal 102 is for being embedded in the coil array in the tested animal body, combined by magnetic alloy, copper cash and biomaterial, when tested animal body is movable in this cage, should be vertical with magnetic direction by the coil array plane in the holder, its magnetic flux change is rapid, receive the most efficiently electric energy, be battery charging in the body.
Use this principle, can make the long tunnel type to cage, tested animal in cage, walk or time of stopping enough, then can finish once completely charging process.Fruit decoy in the sketch map can instruct tested animal to finish this charging process.
Compare with the vest type charging, this cage charging device has two advantages:
1, realizes untouchable charging fully, on the almost not impact of the normal life activity of tested animal.
2, reduced the specification requirement of charging and be more suitable for gregarious tested animal is charged.
Referring to Fig. 7, be the structural representation of a kind of primate Physiological Signal Acquiring System embodiment seven provided by the invention.
In the present embodiment 7 in detail, the mechanical charge end 101 of supply module 10 of primate Physiological Signal Acquiring System provided by the invention and the structure of wireless charging receiving terminal 102 will be described.
Wherein, described mechanical charge end 101 comprises:
Mu balanced circuit unit 1012 is used for the electric current that described rectification unit 1011 carries out after rectification is processed is carried out the voltage stabilizing processing, and is transported to wireless charging receiving terminal 102.
Identical among the concrete structure of wireless charging receiving terminal 102 and Fig. 2 do not repeat them here.
Referring to Fig. 8, be the structural representation of a kind of primate Physiological Signal Acquiring System embodiment eight provided by the invention.
In the present embodiment eight in detail, the mechanical charge end 101 of supply module 10 of primate Physiological Signal Acquiring System provided by the invention and the specific implementation of wireless charging receiving terminal 102 will be described.
Among Fig. 81 is the high-strength Magnet of selecting, and in its implanted tested animal body, can do living coron in formulating coil space.Among Fig. 72 is coil arrays, with rechargeable battery be series relationship.Among Fig. 73 is rectification units 1011, plays alternating current is converted into the unidirectional current effect.Among Fig. 74 is mu balanced circuit unit 1012, plays a part constant charge voltage.
During charging, the coil array of wireless charging receiving terminal 102 moved with relative the interting of the high-strength Magnet of mechanical charge end 101, and the coil array of wireless charging receiving terminal 102 produces faradic current, and electrical power storage is in rechargeable battery.
By the embodiment of above-mentioned wireless charging delivery end and mechanical charge end as can be known, in charging scheme of the present invention, combining wireless charging scheme and mechanical charge scheme are to solve the problem of charging.When rechargeable battery fails to reach rated operational voltage, 14 of voltage sensors start mechanical charging ends and send signal by emitter, inform that the laboratory technician need to take corresponding measure.Under the clear-headed active state of tested animal, mechanical charge System Operation in the body is for battery charging in the body, until the complete side that charges stops.If the mechanical charge end fails to finish the charging task, rechargeable battery fails to reach rated operational voltage, voltage sensor 14 sends signal by emitter, informs that the laboratory technician need to start wireless charging delivery end 100, and is relatively quiet or continue charging under the state of sleep animal.Generally speaking, at tested animal capable freely under the movable state, mechanical charge end 101 is continuous service, and when the mechanical charge end fails to finish the charging task, will be continued to finish by wireless charging delivery end 100.
Referring to Fig. 9, be the structural representation of a kind of primate Physiological Signal Acquiring System embodiment nine provided by the invention.
In the present embodiment nine in detail, the specific implementation of the sensing logging modle of primate Physiological Signal Acquiring System provided by the invention will be described.
The sensing logging modle 12 that present embodiment provides comprises:
Physiological signal collecting unit 120 is used for gathering the physiological signal in the described tested animal body body;
Physiological signal adjustment unit 121 is used for the physiological signal that described physiological signal collecting unit 120 gathers is adjusted processing;
Wireless signal transmission unit 122 is used for that described physiological signal adjustment unit 121 is adjusted the physiological signal that obtains and launches by wireless technology.
Referring to Figure 10, be the structural representation of a kind of primate Physiological Signal Acquiring System embodiment ten provided by the invention.
In the present embodiment ten in detail, the specific implementation of the stimulating module of primate Physiological Signal Acquiring System provided by the invention will be described.
The described stimulating module 11 that present embodiment provides comprises:
Stimulus 110 is used for one or more stimulus signals that stimulate to the stimulation of described tested animal body additional electrical, photostimulation, magnetic;
Emitter 111, it directly is connected with described stimulus 110, is used for adopting the mode of wireless transmission signal, and the feedback signal of the stimulus signal that the described stimulus of response that produces in the tested animal body body is additional passes;
Receptor 112 is used for receiving the feedback signal that described emitter transmits;
Processor 113, it directly is connected with described receptor 112, with described stimulus 110 be connected emitter 111 and be connected by the serial peripheral equipment interface SPI mode respectively, be used for described feedback signal is carried out analyzing and processing, and described stimulus controlled.
Referring to Figure 11, be the structural representation of a kind of primate Physiological Signal Acquiring System embodiment 11 provided by the invention.
In the present embodiment 11 in detail, the specific implementation of the signal receiving module of primate Physiological Signal Acquiring System provided by the invention will be described.
The signal receiving module 13 that present embodiment provides comprises:
Reception of wireless signals unit 130 is used for receiving the physiological signal of sensing logging modle 12 transmissions and the feedback signal that described stimulating module 11 sends;
Signal-data processing unit 131 is used for physiological signal and feedback signal that described reception of wireless signals unit 130 receives are carried out analyzing and processing;
Signal data storage element 132 is used for storage through physiological signal and the feedback signal of described signal-data processing unit 131.
Implement a kind of primate Physiological Signal Acquiring System provided by the invention, because wireless charging and two kinds of charging techniques of mechanical charge are provided, can guarantee the long-time normal operation of this Medical Instruments supply module, and can stimulate the external of tested animal body, the physiological signal of the tested animal body of Real-Time Monitoring, carry out Treatment Analysis after gathering this physiological signal, can satisfy the demand of modern scientific research and medical science.
Above content is the further description of the present invention being done in conjunction with concrete preferred implementation, can not assert that implementation of the present invention is confined to these explanations.For the general technical staff of the technical field of the invention, without departing from the inventive concept of the premise, can also make some simple deduction or replace, all should be considered as belonging to protection scope of the present invention.
Claims (8)
1. a primate Physiological Signal Acquiring System is characterized in that, comprising:
The energy supply module, it is used to the primate Physiological Signal Acquiring System that electric energy is provided, and comprises being positioned at the external wireless charging delivery end of tested animal body, and implants tested animal body body interior wireless charging receiving terminal and mechanical charge end; Described wireless charging delivery end is used for when described tested animal is in relatively peace and quiet or general activity state, is undertaken to described wireless charging receiving terminal charging by the wireless charging technology; Described mechanical charge end is used for utilizing the mechanical charge end that mechanical energy is converted into electric energy and charging to described wireless charging receiving terminal when described tested animal movement;
Stimulating module is held stimulus signal for described tested animal body is added, and tested animal body is carried out analyzing and processing to the feedback signal that this stimulus signal produces;
The sensing logging modle, it is implanted in the body of tested animal body, is used for gathering the physiological signal of tested animal body and carrying out analyzing and processing;
Signal receiving module, it is positioned at the external of tested animal body, is used for receiving the physiological signal that feedback signal that described stimulating module returns and described sensing logging modle are returned.
2. primate Physiological Signal Acquiring System as claimed in claim 1 is characterized in that, described wireless charging delivery end comprises Power Management Unit and radiating circuit unit; Described wireless charging receiving terminal comprises primary current converting unit and charhing unit;
The Power Management Unit of described wireless charging delivery end provides basic operating current for described wireless charging delivery end; Described radiating circuit unit is comprised of coil array and associated electrical element;
When described wireless charging delivery end and described wireless charging receiving terminal near the time, the coil array of the coil array of described wireless charging receiving terminal and described wireless charging delivery end is responded to generation current, carries out energy delivery.
3. primate Physiological Signal Acquiring System as claimed in claim 1 is characterized in that, described mechanical charge end comprises:
Charhing unit, it comprises high-strength Magnet and the coil of implanting in the tested animal body, during described tested animal movement, described coil cuts the magnetic field that described high-strength Magnet forms, generation current;
Rectification unit is used for the electric current that described charhing unit produces is carried out rectification;
The mu balanced circuit unit is used for the electric current that described rectification unit carries out after rectification is processed is carried out the voltage stabilizing processing, and is transported to the wireless charging receiving terminal.
4. primate Physiological Signal Acquiring System as claimed in claim 2 or claim 3 is characterized in that described wireless charging receiving terminal comprises:
Coil array, it is combined by copper cash and biomaterial;
Current conversion unit is used for the electric current of described wireless charging delivery end or the generation of described mechanical charge end is carried out conversion process;
Rechargeable battery is used for storing the electric current after described current conversion unit is processed.
5. primate Physiological Signal Acquiring System as claimed in claim 4 is characterized in that, described primate Physiological Signal Acquiring System also comprises:
Whether voltage sensor has reached rated operational voltage for detection of the rechargeable battery of described wireless charging receiving terminal, charges as the rechargeable battery of wireless charging receiving terminal to determine to start described wireless charging delivery end or mechanical charge end.
6. primate Physiological Signal Acquiring System as claimed in claim 5 is characterized in that, described sensing logging modle comprises:
The physiological signal collecting unit is used for gathering the physiological signal in the described tested animal body body;
The physiological signal adjustment unit is used for the physiological signal of described physiological signal collecting unit collection is adjusted processing;
The wireless signal transmission unit is used for the physiological signal that the adjustment of described physiological signal adjustment unit obtains is launched by wireless technology.
7. primate Physiological Signal Acquiring System as claimed in claim 5 is characterized in that, described stimulating module comprises:
Stimulus is used for one or more stimulus signals that stimulate to the stimulation of described tested animal body additional electrical, photostimulation, magnetic;
Emitter, it directly is connected with described stimulus, is used for adopting the mode of wireless transmission signal, and the feedback signal of the stimulus signal that the described stimulus of response that produces in the tested animal body body is additional passes;
Receptor is used for receiving the feedback signal that described emitter transmits;
Processor, it directly is connected with described receptor, with described stimulus be connected emitter and be connected by the serial peripheral equipment interface SPI mode respectively, be used for described feedback signal is carried out analyzing and processing, and described stimulus controlled.
8. primate Physiological Signal Acquiring System as claimed in claim 7 is characterized in that, described signal receiving module comprises:
The reception of wireless signals unit is used for receiving the physiological signal of sensing logging modle transmission and the feedback signal that described stimulating module sends;
The signal-data processing unit is used for physiological signal and feedback signal that described reception of wireless signals unit receives are carried out analyzing and processing;
The signal data storage element is used for storage through physiological signal and the feedback signal of described signal-data processing unit.
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| CN109414217A (en) * | 2016-03-10 | 2019-03-01 | 艾皮乔尼克控股有限公司 | Microelectronic sensor for enteron aisle and intestines diagnosis and intestinal motive force monitoring |
| CN110338780A (en) * | 2018-04-02 | 2019-10-18 | 中国科学院深圳先进技术研究院 | Wireless feedback regulator control system and method |
| CN110811628A (en) * | 2018-08-14 | 2020-02-21 | 智识互通(苏州)生物科技有限公司 | Gait image analysis system with synchronous transcranial direct current stimulation function |
| CN111685733A (en) * | 2020-06-02 | 2020-09-22 | 脑谷人工智能研究院(南京)有限公司 | Radio physiological signal acquisition and processing system based on brain science research |
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