CN103190888A - Multiple-parameter telemetering monitoring system - Google Patents
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- CN103190888A CN103190888A CN201310118220XA CN201310118220A CN103190888A CN 103190888 A CN103190888 A CN 103190888A CN 201310118220X A CN201310118220X A CN 201310118220XA CN 201310118220 A CN201310118220 A CN 201310118220A CN 103190888 A CN103190888 A CN 103190888A
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Abstract
The invention discloses a multiple-parameter telemetering monitoring system which comprises a telemetering monitoring terminal, a relay receiving box and a central work station. The telemetering monitoring terminal is used for receiving a synchronous clock signal sent by the relay receiving box and combining and transmitting acquired monitoring data information and the synchronous clock signal to the relay receiving box. The relay receiving box is used for sending the synchronous clock signal to the telemetering monitoring terminal and receiving and then transmitting monitoring data information with the synchronous clock signal sent by the telemetering monitoring terminal to the central work station. The central work station is used for receiving and synchronously displaying the monitoring data information with the synchronous clock signal sent by the relay receiving box in real time. The multiple-parameter telemetering monitoring system solves the contradiction caused in wireless telemetering communication and has the advantages of being large in transmission distance, ultra-low in power consumption, wide in frequency bandwidth and the like.
Description
Technical field
The present invention relates to the engineering in medicine technical field, specifically, relate to a kind of multiparameter telemetry monitor system.
Background technology
In the prior art, the engineering in medicine technical field relates generally to bedside monitor technology and cardiac telemetry monitoring technology.Wherein, the major function of bedside monitor and construction features are: vital sign parameters such as electrocardio, breathing, blood pressure, blood oxygen, pulse and body temperature that one, can the real-time monitoring patient; Two, can carry out the function of real-time three grades of sound and light alarms and simple playback of data to unusual parameter.
But existing bedside monitor is mainly used in CCU(Coronary heart disease, serious symptom coronary heart disease) and ICU(Intensive Care Unit, the serious symptom intensive care unit) critical care nursing, its volume is bigger, generally is 10-12 cun liquid crystal display.What match with bedside monitor generally comprises the central monitoring work station;
Wherein, the main feature of this central monitoring work station is: one, the monitoring situation of the bedside monitor of a Centralized Monitoring 4-32 berth in real time; Two, have functions such as data warning, data readback; Three, networking mode comprises wired mode (generally using cable LAN), wireless mode (generally using the WIFI WLAN), but scope has only tens meters, only just can receive useful signal in these section office scope.
Major function and the construction features of described cardiac telemetry monitoring are: the remote measurement central monitoring that, can carry out 4-16 people's electrocardiosignal; Two, the distance of wireless telemetering generally is tens meters, satisfies the indoor remote measurement monitoring demand of undergraduate course; Three, volume is small and exquisite, adopts battery powered, can be worn at and carries out mobile monitoring on one's body.
Yet the major defect of existing bedside monitor and cardiac telemetry monitoring is:
At first, the bedside monitor volume is bigger, and it is other to be bundled in bed to patient during monitoring, limited the scope of application, the general use that only is applicable to ICU, CCU critical patient can't be applicable to after one's own heart internal medicine of other section office of hospital, and the transportable chronic disease crowd's of senile disease section office observation is used.
Secondly, though the cardiac telemetry monitoring can be carried out the mobile monitoring of Worn type, but monitored parameters is single, generally has only one of electrocardiogram, and Electrocardiographic lead few (generally have only and singly lead or two leading), can not satisfy cardiovascular patient, elderly patients' multi-parameter comprehensive is observed and the demand of analyzing.
At last, the wireless performance of remote measurement monitoring is poor, instability, distance are short, be interfered easily, the narrow bandwidth of remote measurement monitoring if the launch terminal with a frequency job is few in same hospital, can allow the launch terminal of different frequency work also less simultaneously.
And the communication basic demand that realizes wireless telemetering is: Distance Transmission is far away, super low-power consumption and wideer frequency bandwidth.Can and this three is conflicting and restriction, existing wireless communication technology (being based on a low-power consumption territory fidonetFido of IEEE802.15.4 standard as WIFI, bluetooth, ZIGBEE() etc.) very difficult effectively address this problem.
Therefore, how to solve the contradiction that produces in the existing wireless telemetering communication, the frequency bandwidth problem that Distance Transmission is near, power consumption is big and narrower just becomes the technical problem that needs to be resolved hurrily.
Summary of the invention
Technical problem to be solved by this invention provides a kind of multiparameter telemetry monitor system, to solve the contradiction that produces in the existing wireless telemetering communication, the problem of the frequency bandwidth that Distance Transmission is near, power consumption is big and narrower.
For solving the problems of the technologies described above, the invention provides a kind of multiparameter telemetry monitor system, comprising: remote measurement monitoring terminal, relaying receiving box and central workstation; Wherein,
Described remote measurement monitoring terminal couples mutually with described relaying receiving box, is used for receiving the synchronizing clock signals that described relaying receiving box sends, and after the monitoring data message that will gather and the corresponding combination of described synchronizing clock signals, is transferred to described relaying receiving box;
Described relaying receiving box, couple mutually with described remote measurement monitoring terminal and central workstation, be used for described remote measurement monitoring terminal is sent synchronizing clock signals, the monitoring data message that has described synchronizing clock signals that receives described remote measurement monitoring terminal transmission is transmitted to described central workstation;
Described central workstation couples mutually with described remote measurement monitoring terminal, is used for receiving the monitoring data message that has described synchronizing clock signals that described relaying receiving box transmits, and shows in real time synchronously.
Further, described remote measurement monitoring terminal comprises: physiological parameter acquisition elements, data conversion, data handling component, telemetry communication element, display element and source element; Wherein,
Described physiological parameter acquisition elements couples mutually with described data conversion and source element, is used for monitoring and gathers the monitoring data information transfer to described data conversion;
Described data conversion couples mutually with described physiological parameter acquisition elements and data handling component, and the monitoring data message that is used for the described physiological parameter acquisition elements transmission of reception is converted to the physiological data signal of telecommunication and transfers to described data handling component;
Described data handling component, couple mutually with described data conversion, display element, telemetry communication element and source element respectively, the described physiological data electrical signal conversion that is used for the described data conversion transmission of reception is physiology data digital signal, and described physiological data digital signal is sent to described telemetry communication element and display element; Simultaneously, receive the key command that described display element sends, according to described key command described physiological data digital signal is operated and handled;
Described telemetry communication element, couple mutually with described data handling component, source element and relaying receiving box respectively, be used for receiving the described physiological data digital signal of described data handling component transmission and receive the synchronizing clock signals that described relaying receiving box sends, behind the described physiological data digital signal and the corresponding combination of described synchronizing clock signals that receive, transfer to described relaying receiving box;
Described display element couples mutually with described data handling component and source element, and the described physiological data digital signal that is used for the described data handling component transmission of reception shows; Simultaneously, receive described key command and be sent to described data handling component;
Described source element, couple mutually with described physiological parameter acquisition elements, data conversion, data handling component, telemetry communication element and display element respectively, be used for giving described physiological parameter acquisition elements, data conversion, data handling component, telemetry communication element and display element that power supply is provided.
Further, it is characterized in that described relaying receiving box comprises a receiving box and at least one relaying box; Wherein,
Described relaying box, couple mutually with described telemetry communication element and receiving box, be used for receiving the synchronizing clock signals that described receiving box sends, be transmitted to described telemetry communication element, and the physiological data digital data transmission that has described synchronizing clock signals that the described remote measurement monitoring element that will receive sends is to described receiving box;
Described receiving box, couple mutually with described relaying box and described central workstation, be used for the physiological data digital signal that has described synchronizing clock signals that described relaying box transmission synchronizing clock signals, the described relaying box of reception send is sent to described central workstation.
Further, described synchronously real-time content displayed comprises: waveform and digital information, Realtime Alerts information, data readback information and data management and analytical information.
Further, described physiological parameter acquisition elements, further the physiological data acquisition elements for being constituted by multi-lead electrocardio line, blood pressure cuff, blood oxygen nail covers and/or body temperature line.
Further, described display element further is the display element of being made up of liquid crystal display, corresponding button and/or acoustics circuit.
Further, described data conversion further is the analogue amplifier of INA333 for model.
Compared with prior art, a kind of multiparameter telemetry monitor system of the present invention has reached following effect:
1) multiparameter telemetry monitor system of the present invention has solved the contradiction that produces in the wireless telemetering communication, can realize that Distance Transmission is far away, super low-power consumption and wideer frequency bandwidth;
2) multiparameter telemetry monitor system of the present invention, the bedside monitor of producing by this system be the monitor of the original TV size monitor that narrows down to hand size, can conveniently move wherein, and patient can carry, and is easy to use;
3) cardiac diagnosis lead in the multiparameter telemetry monitor system of the present invention expands to entirely lead (7 the electrocardio ripple shows with screen) by original singly leading or two leading, and can conveniently carry out corresponding myocardial ischemia spots localization for the heart patient;
4) multiparameter telemetry monitor system of the present invention, the distance of its wireless transmission and reception can expand to several kilometer range, the terminal that can monitor is also from being originally that 1 is increased to 16, but and extension frequency, also realized simultaneously the utilization of Low-power Technology, make the remote measurement monitoring be very easy to medical personnel, also liberated patient simultaneously, be convenient to promptly popularize;
5) multiparameter telemetry monitor system of the present invention, the characteristic that had both had the Realtime Alerts of monitoring, simultaneously also provide corresponding information for afterwards analysis expert, make it have real-time monitoring function, dynamic electrocardiogram analytic function, ambulatory blood pressure analytic function, sleep-respiratory analytic function etc. simultaneously, be fit to very much cardiovascular chronic disease senile disease crowd's chronic disease crowd's management and health evaluating.
Description of drawings
Fig. 1 is the structured flowchart of the described multiparameter telemetry monitor system of the embodiment of the invention;
Fig. 2 is the concrete structure block diagram of remote measurement monitoring terminal 10 and relaying receiving box 20 in the multiparameter telemetry monitor system of the described embodiment of Fig. 1.
The specific embodiment
Censure specific components as in the middle of description and claim, having used some vocabulary.Those skilled in the art should understand, and hardware manufacturer may be called same assembly with different nouns.This specification and claims are not used as distinguishing the mode of assembly with the difference of title, but the criterion that is used as distinguishing with the difference of assembly on function.Be an open language as " comprising " mentioned in the middle of description and the claim in the whole text, so should be construed to " comprise but be not limited to ".Refer in receivable range of error that " roughly " those skilled in the art can solve the technical problem, and reach described technique effect substantially in certain range of error.In addition, " couple " word and comprise any indirect electric property coupling means that directly reach at this.Therefore, be coupled to one second device if describe one first device in the literary composition, then represent described first device and can directly be electrically coupled to described second device, or be electrically coupled to described second device indirectly by other devices or the means that couple.The description subsequent descriptions is for implementing preferred embodiments of the present invention, and right described description is to illustrate that rule of the present invention is purpose, is not in order to limit scope of the present invention.Protection scope of the present invention is as the criterion when looking the claims person of defining.
Below in conjunction with accompanying drawing the present invention is described in further detail, but not as a limitation of the invention.
As shown in Figure 1, multiparameter telemetry monitor system of the present invention comprises: remote measurement monitoring terminal 10, relaying receiving box 20 and central workstation 30; Wherein,
Described remote measurement monitoring terminal 10, couple mutually with described relaying receiving box 20, be used for receiving the synchronizing clock signals that described relaying receiving box 20 sends, and after the monitoring data message that will gather and the corresponding combination of described synchronizing clock signals, be transferred to described relaying receiving box 20;
Described relaying receiving box 20, couple mutually with described remote measurement monitoring terminal 10 and central workstation 30, be used for described remote measurement monitoring terminal 10 is sent synchronizing clock signals, the monitoring data message that has described synchronizing clock signals that receives described remote measurement monitoring terminal 10 transmissions is transmitted to described central workstation 30;
As shown in Figure 2, in specific embodiment, described relaying receiving box 20 generally is made up of a receiving box 202 and at least one relaying box 201.Described relaying box 201, couple mutually with described telemetry communication element 104 and receiving box 202, be used for to receive that synchronizing clock signals that described receiving box 202 sends is transmitted to described telemetry communication element 104 and the physiological data digital data transmission that has described synchronizing clock signals of described remote measurement monitoring element 104 transmissions that will receive to described receiving box 202; Described receiving box 202, couple mutually with described relaying box 201 and described central workstation 30, be used for the physiological data digital signal that has described synchronizing clock signals that described relaying box 201 transmission synchronizing clock signals, the described relaying box 201 of reception send is sent to described central workstation 30.
As shown in Figure 2, particularly, described relaying box 201 can adopt the mode of cascade, but cascade is 63 at most, the useful signal that each relaying box 201 and receiving box 202 can receive be outside the institute 1000 meters of the distances of distinct vision with interior scope, after cascade, the maximum magnitude that receives useful signal in theory can increase in 64 kms.Described receiving box 202 and relaying box 201 be external antenna all, between described relaying box 201 and other relaying boxes 201, all be that RS485 bus by 4 cores is connected between relaying box 201 and the receiving box 202, be to be connected by the RS232 serial ports between described receiving box 202 and the central workstation 30.In addition, described receiving box 202 can also be furnished with the dc source interface, and DC voltage is 12V, and described receiving box 202 can also pass through the RS485 bus transfer to described relaying box 201 with described dc source simultaneously, gives described relaying box 201 power supplies.
Described central workstation 30 couples mutually with described remote measurement monitoring terminal 10, is used for receiving the monitoring data message that has described synchronizing clock signals that described relaying receiving box 20 transmits, and shows in real time synchronously.
Particularly, content displayed in the described central workstation 30 comprises: waveform and digital information, Realtime Alerts information, data readback information and data management and analytical information.
Particularly, as shown in Figure 2, described remote measurement monitoring terminal 10 comprises: physiological parameter acquisition elements 101, data conversion 102, data handling component 103, telemetry communication element 104, display element 105 and source element 106; Wherein,
Described physiological parameter acquisition elements 101 couples mutually with described data conversion 102 and source element 106, is used for monitoring and gathers the monitoring data information transfer to described data conversion 102;
In specific embodiment, described physiological parameter acquisition elements 101 can be that multi-lead electrocardio line, blood pressure cuff, blood oxygen nail covers and body temperature line constitute, can detect and gather patient's multi-lead electrocardiographic wave in real time, respiratory waveform, pressure value, blood oxygen levels, monitoring such as pulse wave and body temperature value data message.Described monitoring data message comprises: the pulse pressure value signal that extracts by the electrocardiosignal of described multi-lead electrocardio line drawing and respiratory pressure variable signal, by described blood pressure cuff, the HONGGUANG of being extracted by described blood oxygen nail covers and infrared signal and by the body temperature signal of described body temperature line drawing.Wherein, the electrocardio line that leads expands to multi-lead electrocardio line (being that 7 electrocardio ripples show with screen in the present embodiment) by original singly lead electrocardio line or two electrocardio line that leads, and can conveniently carry out corresponding myocardial ischemia spots localization for the heart patient.At this foregoing is not made detailed restriction.
Described data conversion 102, couple mutually with described physiological parameter acquisition elements 101 and data handling component 103, the described monitoring data message that is used for described physiological parameter acquisition elements 101 transmissions of reception is converted to the physiological data signal of telecommunication and transfers to described data handling component 103;
In specific embodiment, described data conversion 102 can be that model is the simulation amplification change-over circuit of INA333, and power consumption can be controlled in 1mA.Particularly, described data conversion 102 receives described electrocardiosignal, breath signal, pulse pressure value signal, HONGGUANG and infrared signal and the body temperature signal that described physiological parameter acquisition elements 101 sends, by described analog amplify circuit above-mentioned each analogue signal is converted into the signal of telecommunication, after also carrying out difference amplification and corresponding low frequency and High frequency filter processing simultaneously, be sent to described data handling component 103.At this foregoing is not made detailed restriction.
Described data handling component 103, couple mutually with described data conversion 102, display element 105, telemetry communication element 104 and source element 106 respectively, the described physiological data electrical signal conversion that is used for described data conversion 102 transmissions of reception is physiology data digital signal, and described physiological data digital signal is sent to described telemetry communication element 104 and display element 105; Simultaneously, receive the key command that described display element 105 sends, according to described key command described physiological data digital signal is operated and handled.
Described telemetry communication element 104, couple mutually with described data handling component 103, source element 106 and relaying receiving box 20 respectively, be used for receiving the described physiological data digital signal of described data handling component 103 transmissions and receiving the synchronizing clock signals that described relaying receiving box 20 sends, behind the described physiological data digital signal and the corresponding combination of described synchronizing clock signals that receive, transfer to described relaying receiving box 20;
As shown in Figure 2, particularly, described telemetry communication element 104 is built-in with antenna, it will receive the synchronizing clock signals that described relaying receiving box 20 transmits, receive the described physiological data digital signal that described data handling component 103 sends simultaneously, and determine different emission sequential according to the transmission channel that has configured, will described physiological data digital signal in the official hour gap and described synchronizing clock signals corresponding in conjunction with after send to described relaying receiving box 20 successively; Described telemetry communication element 104 itself also has the adaptation function of clock, can still can carry out the transmission of data according to correct sequential in can't receiving 40 seconds of described synchronizing clock signals.In addition, do not carrying out signal in the mutual time with described relaying receiving box 20, described telemetry communication element 104 will enter resting state automatically, and it is minimum that power consumption is dropped to.
Described display element 105 couples mutually with described data handling component 103 and source element 106, and the physiological data digital signal that is used for described data handling component 103 transmissions of reception shows; Simultaneously, receive key command and be sent to described data handling component 103;
Described display element 105 further is to be made up of liquid crystal display, corresponding button and acoustics circuit.Certainly do not do concrete restriction here.
Described source element 106, couple mutually with described physiological parameter acquisition elements 101, data conversion 102, data handling component 103, telemetry communication element 104 and display element 105 respectively, be used for giving described physiological parameter acquisition elements 101, data conversion 102, data handling component 103, telemetry communication element 104 and display element 105 that power supply is provided.
Below for adopting an Application Example of long-range first-aid monitoring system of the present invention.
At first, the remote measurement monitoring terminal 10 of the multiparameter telemetry system described in the present embodiment is a small-sized mobile monitoring instrument, carried by patient, as the patient end equipment of the embodiment of the invention, its hardware system mainly is made up of physiological parameter acquisition elements 101, data conversion 102, data handling component 103, telemetry communication element 104, display element 105 and source element 106.Described mobile monitoring instrument adopts the microminiaturized integrated technology of height, and circuit such as multi-physiological-parameter acquisition elements 101 and data handling component 103, telemetry communication element 104 have all been concentrated on the circuit board of a hand size, and volume is little, and is easy to carry.Wherein, described physiological parameter acquisition elements 101 comprises multi-lead electrocardio line, blood pressure cuff, blood oxygen nail covers and body temperature line again.The concrete connected mode of they and human body is:
1) patient uses multi-lead electrocardio line, and electrocardio electrode slice on the termination of electrode button will be arranged, and is attached to the human body epiphase and answers the position, and the plug other end inserts the electrocardio socket of this mobile monitoring instrument;
2) use blood pressure cuff, blood pressure cuff is helped people's upper arm (position concordant with the cardia level), the plug of the other end inserts the blood pressure socket of this mobile monitoring instrument;
3) use blood oxygen line, on people's finger, the plug of the other end inserts the blood oxygen socket of this mobile monitoring instrument with blood oxygen nail covers;
4) use the body temperature line, with the body temperature probe by immobilization with adhesive tape in the human body oxter, the plug of the other end inserts the body temperature socket of this mobile monitoring instrument.
After connecting with human body, open the switch of remote measurement monitoring terminal 10, this moment this remote measurement monitoring terminal 10 each analogue signal by analog amplify circuit and supporting filter circuit with it, be input to data handling component 103 at last, be embodied in:
One, electrocardiosignal enters amplification and the filter circuit (comprising low pass, high pass, 50HZ trap circuit) of electrocardiosignal by multi-lead electrocardio line, is input to data handling component 103;
Two, breath signal enters amplification and the filter circuit of breath signal by multi-lead electrocardio line, is input to data handling component 103;
Three, blood pressure signal enters the pulse wave of blood pressure and the amplification filtering circuit of force value by blood pressure cuff, and then enters into blood pressure module calculating CPU, calculates pressure value, is input to data handling component 103 at last;
Four, the blood oxygen signal then by blood oxygen nail covers, enters the amplifying circuit of HONGGUANG and infrared light, and then enters into oximeter calculation CPU, calculates blood oxygen levels, is input to data handling component 103 at last;
Five, the body temperature signal enters the amplifying circuit of body temperature then by the body temperature line, is input to data handling component 103 at last.
Secondly, when needs carry out transfer of data, described receiving box 202 will send at least one synchronizing clock signals to described relaying box 201, and the described synchronizing clock signals that described relaying box 201 will receive simultaneously is transmitted to described telemetry communication element 104;
Then, described telemetry communication element 104 receives the described physiological data digital signal that described data handling component 103 sends, behind the described physiological data digital signal and the corresponding combination of described synchronizing clock signals that receive, transfer to the relaying box 201 in the described relaying receiving box 20; After described relaying box 201 receives the physiological data digital signal that has described synchronizing clock signals, carry out handshake communication by described RS485 bus and described receiving box 202, after the invitation of receiving described receiving box 202, the physiological data digital signal that has described synchronizing clock signals that will receive again sends to described receiving box 202.Described receiving box 202 will be handled the physiological data digital signal that has described synchronizing clock signals that receives, and be sent to described central workstation 30 then.
At last, central workstation 30 just can receive to receive and be positioned at long-range various places outside the institute by described relaying receiving box 20, the physiological data digital signal that has described synchronizing clock signals that the mobile monitoring instrument that everywhere each patient carries in the institute sends, it is decompressed, after communication Protocol Conversion etc. are handled, patient's monitoring data message is saved among the data base, by embedded analysis expert system, as: the dynamic electrocardiogram analysis, ambulatory blood pressure is analyzed, sleep-respiratory analysis etc., the physiological data information that is stored among the data base is carried out a series of expert system analysis, and provide the analysis final report, then, this doctor on duty is again in conjunction with the diagnostic result of analysis expert system software analysis, namely disease morbidity people's monitoring information is analysed in depth and diagnosis, and the patient under in the hole to life and health in time rescues, and to guarantee patient's life and health safety, realizes that a doctor finishes centralized real-time monitoring to several patients inside and outside the institute by a central workstation 30.
Compared with prior art, a kind of multiparameter telemetry monitor system of the present invention has reached following effect:
1) multiparameter telemetry monitor system of the present invention has solved the contradiction that produces in the wireless telemetering communication, can realize that Distance Transmission is far away, super low-power consumption and wideer frequency bandwidth;
2) multiparameter telemetry monitor system of the present invention, the bedside monitor of producing by this system be the monitor of the original TV size monitor that narrows down to hand size, can conveniently move wherein, and patient can carry, and is easy to use;
3) cardiac diagnosis lead in the multiparameter telemetry monitor system of the present invention expands to entirely lead (7 the electrocardio ripple shows with screen) by original singly leading or two leading, and can conveniently carry out corresponding myocardial ischemia spots localization for the heart patient;
4) multiparameter telemetry monitor system of the present invention, the distance of its wireless transmission and reception can expand to several kilometer range, the terminal that can monitor is also from being originally that 1 is increased to 16, but and extension frequency, also realized simultaneously the utilization of Low-power Technology, make the remote measurement monitoring be very easy to medical personnel, also liberated patient simultaneously, be convenient to promptly popularize;
5) multiparameter telemetry monitor system of the present invention, the characteristic that had both had the Realtime Alerts of monitoring, simultaneously also provide corresponding information for afterwards analysis expert, make it have real-time monitoring function, dynamic electrocardiogram analytic function, ambulatory blood pressure analytic function, sleep-respiratory analytic function etc. simultaneously, be fit to very much cardiovascular chronic disease senile disease crowd's chronic disease crowd's management and health evaluating.
Above-mentioned explanation illustrates and has described some preferred embodiments of the present invention, but as previously mentioned, be to be understood that the present invention is not limited to the disclosed form of this paper, should not regard the eliminating to other embodiment as, and can be used for various other combinations, modification and environment, and can in invention contemplated scope described herein, change by technology or the knowledge of above-mentioned instruction or association area.And the change that those skilled in the art carry out and variation do not break away from the spirit and scope of the present invention, then all should be in the protection domain of claims of the present invention.
Claims (7)
1. a multiparameter telemetry monitor system is characterized in that, comprising: remote measurement monitoring terminal, relaying receiving box and central workstation; Wherein,
Described remote measurement monitoring terminal couples mutually with described relaying receiving box, is used for receiving the synchronizing clock signals that described relaying receiving box sends, and after the monitoring data message that will gather and the corresponding combination of described synchronizing clock signals, is transferred to described relaying receiving box;
Described relaying receiving box, couple mutually with described remote measurement monitoring terminal and central workstation, be used for described remote measurement monitoring terminal is sent synchronizing clock signals, the monitoring data message that has described synchronizing clock signals that receives described remote measurement monitoring terminal transmission is transmitted to described central workstation;
Described central workstation couples mutually with described remote measurement monitoring terminal, is used for receiving the monitoring data message that has described synchronizing clock signals that described relaying receiving box transmits, and shows in real time synchronously.
2. multiparameter telemetry monitor system as claimed in claim 1 is characterized in that, described remote measurement monitoring terminal comprises: physiological parameter acquisition elements, data conversion, data handling component, telemetry communication element, display element and source element; Wherein,
Described physiological parameter acquisition elements couples mutually with described data conversion and source element, is used for monitoring and gathers the monitoring data information transfer to described data conversion;
Described data conversion couples mutually with described physiological parameter acquisition elements and data handling component, and the monitoring data message that is used for the described physiological parameter acquisition elements transmission of reception is converted to the physiological data signal of telecommunication and transfers to described data handling component;
Described data handling component, couple mutually with described data conversion, display element, telemetry communication element and source element respectively, the described physiological data electrical signal conversion that is used for the described data conversion transmission of reception is physiology data digital signal, and described physiological data digital signal is sent to described telemetry communication element and display element; Simultaneously, receive the key command that described display element sends, according to described key command described physiological data digital signal is operated and handled;
Described telemetry communication element, couple mutually with described data handling component, source element and relaying receiving box respectively, be used for receiving the described physiological data digital signal of described data handling component transmission and receive the synchronizing clock signals that described relaying receiving box sends, behind the described physiological data digital signal and the corresponding combination of described synchronizing clock signals that receive, transfer to described relaying receiving box;
Described display element couples mutually with described data handling component and source element, and the described physiological data digital signal that is used for the described data handling component transmission of reception shows; Simultaneously, receive described key command and be sent to described data handling component;
Described source element, couple mutually with described physiological parameter acquisition elements, data conversion, data handling component, telemetry communication element and display element respectively, be used for giving described physiological parameter acquisition elements, data conversion, data handling component, telemetry communication element and display element that power supply is provided.
3. multiparameter telemetry monitor system as claimed in claim 2 is characterized in that, described relaying receiving box comprises a receiving box and at least one relaying box; Wherein,
Described relaying box, couple mutually with described telemetry communication element and receiving box, be used for receiving the synchronizing clock signals that described receiving box sends, be transmitted to described telemetry communication element, and the physiological data digital data transmission that has described synchronizing clock signals that the described remote measurement monitoring element that will receive sends is to described receiving box;
Described receiving box, couple mutually with described relaying box and described central workstation, be used for the physiological data digital signal that has described synchronizing clock signals that described relaying box transmission synchronizing clock signals, the described relaying box of reception send is sent to described central workstation.
4. multiparameter telemetry monitor system as claimed in claim 1 is characterized in that, described synchronously real-time content displayed comprises: waveform and digital information, Realtime Alerts information, data readback information and data management and analytical information.
5. multiparameter telemetry monitor system as claimed in claim 2 is characterized in that, described physiological parameter acquisition elements, further the physiological data acquisition elements for being made of multi-lead electrocardio line, blood pressure cuff, blood oxygen nail covers and/or body temperature line.
6. multiparameter telemetry monitor system as claimed in claim 2 is characterized in that, described display element further is the display element of being made up of liquid crystal display, corresponding button and/or acoustics circuit.
7. multiparameter telemetry monitor system as claimed in claim 2 is characterized in that, described data conversion further is the analogue amplifier of INA333 for model.
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| CN108471957A (en) * | 2016-01-19 | 2018-08-31 | 日本光电工业株式会社 | Patient monitor |
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| CN203206294U (en) * | 2013-04-07 | 2013-09-18 | 北京海利赢医疗科技有限公司 | Multi-parameter telemetry monitoring system |
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| CN101073083A (en) * | 2004-11-12 | 2007-11-14 | 皇家飞利浦电子股份有限公司 | Message integrity for secure communication of wireless medical devices |
| CN101061481A (en) * | 2004-11-16 | 2007-10-24 | 皇家飞利浦电子股份有限公司 | Time synchronization in wireless ad hoc networks of medical devices and sensors |
| JP2010529455A (en) * | 2007-06-05 | 2010-08-26 | ２４エイト エルエルシー | Pressure point measuring method and apparatus therefor |
| CN201519339U (en) * | 2009-03-10 | 2010-07-07 | 中山大学 | Critical care and infusion control diagnosis and treatment integration system |
| US20110051626A1 (en) * | 2009-08-28 | 2011-03-03 | 4Ipnet, Inc. | System and method for wireless node connection |
| CN203206294U (en) * | 2013-04-07 | 2013-09-18 | 北京海利赢医疗科技有限公司 | Multi-parameter telemetry monitoring system |
Cited By (2)
| Publication number | Priority date | Publication date | Assignee | Title |
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| CN103445771A (en) * | 2013-09-18 | 2013-12-18 | 无锡中盛医疗设备有限公司 | Vehicular ECG diagnosis cloud system |
| CN108471957A (en) * | 2016-01-19 | 2018-08-31 | 日本光电工业株式会社 | Patient monitor |
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| CN103190888B (en) | 2015-07-15 |
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