CN111721942A - An infertility big data analysis and detection signal transmission system - Google Patents
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Abstract
本发明公开了一种不孕不育大数据分析检测信号传输系统，包括频率采样模块、振荡比较模块，所述频率采样模块采集不孕不育大数据分析检测模块输出信号频率，频率采样模块连接振荡比较模块，振荡比较模块运用三极管Q2、三极管Q3和电容C11组成异常信号检测电路，将噪声检测电路输出信号中的异常信号反馈至运放器AR5反相输入端，运放器AR5比较信号，调节输出信号波形，同时进一步采用可控硅VTL1反馈运放器AR2输出信号和三极管Q2集电极信号差，微调反馈信号，最后运放器AR6和电阻R15、电阻R16组成加法电路对信号做加法处理，保证信号强度，不孕不育大数据分析检测信号传输系统终端接收信号能实时监测数据传输状态，并作出调整。
The invention discloses an infertility big data analysis and detection signal transmission system, comprising a frequency sampling module and an oscillation comparison module. The frequency sampling module collects the frequency of an output signal of the infertility big data analysis and detection module, and the frequency sampling module is connected to The oscillation comparison module uses the transistor Q2, the transistor Q3 and the capacitor C11 to form an abnormal signal detection circuit, and feeds the abnormal signal in the output signal of the noise detection circuit to the inverting input terminal of the operational amplifier AR5, and the operational amplifier AR5 compares the signal, Adjust the output signal waveform, and further use the thyristor VTL1 to feedback the difference between the output signal of the op amp AR2 and the collector signal of the transistor Q2, and fine-tune the feedback signal. Finally, the op amp AR6, resistor R15 and resistor R16 form an addition circuit to add the signal. , to ensure signal strength, infertility big data analysis and detection signal transmission system terminal receiving signals can monitor the data transmission status in real time and make adjustments.
Description
技术领域technical field
本发明涉及大数据技术领域，特别是涉及一种不孕不育大数据分析检测信号传输系统。The invention relates to the technical field of big data, in particular to an infertility big data analysis and detection signal transmission system.
背景技术Background technique
不孕是世界性共同关注的多发性疑难病症，并非一个独立的疾病，而是诸多妇科疾病的一个结局，或继发性后遗症,而目前数据网络的快速发展，给各行各业带来了很多的便利，传统的不孕不育病例数据分析仅限于区域性，具有其区部性，只能人为的进行分类筛选，但是随着大数据的到来，“大数据”是指以多元形式，许多来源搜集而来的庞大数据组，往往具有实时性，能够准确对不孕不育病例数据分析进行智能化监控，然而由于大数据具有实时性，而不孕不育病例分析较为复杂，在数据传输是存在冗杂的医院环境内，网络传输很容易出现网络堵塞的状况，从而导致不孕不育大数据分析检测后的信号传输质量差，甚至会出现同步信道之后信号互相干扰，导致数据“丢包”。Infertility is a multiple intractable disease that is of common concern worldwide. It is not an independent disease, but an outcome of many gynecological diseases, or a secondary sequelae. At present, the rapid development of data networks has brought a lot to all walks of life. The convenience of traditional infertility case data analysis is limited to regional, with its locality, can only be classified and screened artificially, but with the advent of big data, "big data" refers to a variety of forms, many The huge data set collected from the source is often real-time, which can accurately and intelligently monitor the data analysis of infertility cases. However, due to the real-time nature of big data, the analysis of infertility cases is more complicated. In a complex hospital environment, network transmission is prone to network congestion, resulting in poor signal transmission quality after infertility big data analysis and detection, and even interference between signals after synchronization channels, resulting in data "packet loss". ".
发明内容SUMMARY OF THE INVENTION
针对上述情况，为克服现有技术之缺陷，本发明之目的在于提供一种不孕不育大数据分析检测信号传输系统，能够不孕不育大数据分析检测模块输出信号频率，转换为不孕不育大数据分析检测信号传输系统终端的调节触发信号。In view of the above situation, in order to overcome the defects of the prior art, the purpose of the present invention is to provide an infertility big data analysis and detection signal transmission system, which can convert the output signal frequency of the infertility big data analysis and detection module into infertility big data analysis and detection module. The sterility big data analysis detects the regulation trigger signal of the terminal of the signal transmission system.
其解决的技术方案是，一种不孕不育大数据分析检测信号传输系统，包括频率采样模块、振荡比较模块，所述频率采样模块采集不孕不育大数据分析检测模块输出信号频率，频率采样模块连接振荡比较模块，振荡比较模块输出信号经信号发射器E1发送至不孕不育大数据分析检测信号传输系统终端内；The technical scheme solved by the system is that an infertility big data analysis and detection signal transmission system includes a frequency sampling module and an oscillation comparison module. The sampling module is connected to the oscillation comparison module, and the output signal of the oscillation comparison module is sent to the terminal of the infertility big data analysis and detection signal transmission system through the signal transmitter E1;
所述振荡比较模块包括电感L1,电感L1的一端接电阻R2、电容C4的一端，电感L1的另一端接地，电容C4的另一端接电容C3的一端和频率采样模块输出端口，电容C3的另一端接电容C5、电容C6的一端，电容C6的另一端接电阻R6和二极管D2的正极，电容C5和电阻R6的另一端接地，二极管D2的负极接电容C7的一端，电容C7的另一端接电阻R8的一端和运放器AR1的同相输入端，电阻R8的另一端接地，运放器AR1的反相输入端接电阻R9、电阻R10、电阻R11、电容C11的一端，电阻R9的另一端接电源+5V，电阻R10的另一端接三极管Q2的基极和三极管Q3的集电极，三极管Q2的发射极接电阻R11的另一端，三极管Q2的集电极接三极管Q3的积极和电容C11的另一端和稳压管D3的负极、二极管D4的正极，稳压管D3的正极接地，三极管Q3的发射极接运放器AR5的反相输入端，电阻R2的另一端接电阻R3、电阻R4的一端，电阻R3的另一端接电容C8的一端和运放器AR2的同相输入端，运放器AR2的反相输入端接电阻R4的另一端和电阻R5的一端，电阻R5的另一端接三极管Q1的集电极，运放器AR2的输出端接运放器AR3的同相输入端和电容C8的另一端、可控硅VTL1的正极，三极管Q1的发射极接电阻R12、电容C10的一端，电阻R12、电容C10的另一端接地，运放器AR3的反相输入端接运放器AR3的输出端和运放器AR4、运放器AR4的同相输入端，可控硅VTL1的控制极接二极管D4的负极和电阻R13、电容C9的一端，电阻R13、电容C9的另一端接地，可控硅VTL1的负极接电阻R14的一端和运放器AR4的反相输入端，电阻R14的另一端接地，运放器AR4的输出端接运放器AR5的输出端和运放器AR6同相输入端，运放器AR6反相输入端接电阻R15、电阻R16的一端，电阻R15的另一端接地，电阻R16的另一端接运放器AR6的输出端和信号发射器E1。The oscillation comparison module includes an inductor L1, one end of the inductor L1 is connected to one end of the resistor R2 and one end of the capacitor C4, the other end of the inductor L1 is grounded, the other end of the capacitor C4 is connected to one end of the capacitor C3 and the output port of the frequency sampling module, and the other end of the capacitor C3 is connected to the output port of the frequency sampling module. One end is connected to one end of capacitor C5 and capacitor C6, the other end of capacitor C6 is connected to the positive electrode of resistor R6 and diode D2, the other end of capacitor C5 and resistor R6 is connected to ground, the negative electrode of diode D2 is connected to one end of capacitor C7, and the other end of capacitor C7 is connected to the ground. One end of the resistor R8 and the non-inverting input terminal of the op amp AR1, the other end of the resistor R8 is grounded, the inverting input terminal of the op amp AR1 is connected to one end of the resistor R9, the resistor R10, the resistor R11, and the capacitor C11, and the other end of the resistor R9 Connect the power supply +5V, the other end of the resistor R10 is connected to the base of the transistor Q2 and the collector of the transistor Q3, the emitter of the transistor Q2 is connected to the other end of the resistor R11, the collector of the transistor Q2 is connected to the positive of the transistor Q3 and the other of the capacitor C11. One end is connected to the negative pole of the Zener tube D3 and the positive pole of the diode D4, the positive pole of the Zener tube D3 is grounded, the emitter of the transistor Q3 is connected to the inverting input terminal of the operational amplifier AR5, and the other terminal of the resistor R2 is connected to the resistor R3 and the resistor R4. One end, the other end of the resistor R3 is connected to one end of the capacitor C8 and the non-inverting input end of the op amp AR2, the inverting input end of the op amp AR2 is connected to the other end of the resistor R4 and one end of the resistor R5, and the other end of the resistor R5 is connected to the triode The collector of Q1, the output terminal of the op amp AR2 is connected to the non-inverting input terminal of the op amp AR3 and the other end of the capacitor C8, the positive electrode of the thyristor VTL1, the emitter of the transistor Q1 is connected to the resistor R12, one end of the capacitor C10, the resistor R12, the other end of the capacitor C10 is grounded, the inverting input terminal of the operational amplifier AR3 is connected to the output terminal of the operational amplifier AR3 and the non-inverting input terminal of the operational amplifier AR4 and the operational amplifier AR4, and the control electrode of the thyristor VTL1 is connected to the diode The negative electrode of D4 is connected to one end of resistor R13 and capacitor C9, the other end of resistor R13 and capacitor C9 is connected to ground, the negative electrode of thyristor VTL1 is connected to one end of resistor R14 and the inverting input end of op amp AR4, and the other end of resistor R14 is connected to ground , the output terminal of the operational amplifier AR4 is connected to the output terminal of the operational amplifier AR5 and the non-inverting input terminal of the operational amplifier AR6, the inverting input terminal of the operational amplifier AR6 is connected to one end of the resistor R15 and the resistor R16, the other end of the resistor R15 is grounded, and the resistor The other end of R16 is connected to the output end of the operational amplifier AR6 and the signal transmitter E1.
由于以上技术方案的采用，本发明与现有技术相比具有如下优点；Due to the adoption of the above technical solutions, the present invention has the following advantages compared with the prior art;
1. 先运用电容C3、电容C4和电感L1组成LC振荡电路对频率采样模块输出信号振荡，增强信号频率，在增强信号频率时，需要运用电容C6滤除直流频率分量，同时运用电容C5为旁路电容，在信号振荡时，保证信号的稳定，然后运用运放器AR2和三极管Q1调节信号波形，为了进一步调节信号峰值，稳定信号波形，运用运放器AR1和电容C7组成噪声检测电路检测电容C6回路中的信号噪声，具有很大的实用性；1. First use capacitor C3, capacitor C4 and inductor L1 to form an LC oscillation circuit to oscillate the output signal of the frequency sampling module to enhance the signal frequency. When enhancing the signal frequency, it is necessary to use capacitor C6 to filter out the DC frequency component, and use capacitor C5 as a side When the signal oscillates, ensure the stability of the signal, and then use the operational amplifier AR2 and the transistor Q1 to adjust the signal waveform. In order to further adjust the signal peak value and stabilize the signal waveform, the operational amplifier AR1 and capacitor C7 are used to form a noise detection circuit to detect the capacitance. The signal noise in the C6 loop has great practicability;
2.运用三极管Q2、三极管Q3和电容C11组成异常信号检测电路，将噪声检测电路输出信号中的异常信号反馈至运放器AR5反相输入端，运放器AR5比较信号，调节输出信号波形，同时进一步采用可控硅VTL1反馈运放器AR2输出信号和三极管Q2集电极信号差，微调反馈信号，最后运放器AR6和电阻R15、电阻R16组成加法电路对信号做加法处理，保证信号强度，由于对信号发射器E1的频率信号做了校准，能准确地发送至终端内，不孕不育大数据分析检测信号传输系统终端接收信号能实时监测数据传输状态，并作出调整。2. Using transistor Q2, transistor Q3 and capacitor C11 to form an abnormal signal detection circuit, the abnormal signal in the output signal of the noise detection circuit is fed back to the inverting input terminal of the operational amplifier AR5, and the operational amplifier AR5 compares the signal and adjusts the output signal waveform. At the same time, the thyristor VTL1 is further used to feedback the difference between the output signal of the op amp AR2 and the collector signal of the transistor Q2, and the feedback signal is fine-tuned. Finally, the op amp AR6, the resistor R15 and the resistor R16 form an addition circuit to add the signal to ensure the signal strength. Because the frequency signal of the signal transmitter E1 is calibrated, it can be accurately sent to the terminal, and the terminal can monitor the data transmission status in real time and make adjustments when receiving signals.
附图说明Description of drawings
图1为本发明一种不孕不育大数据分析检测信号传输系统的模块原理图。FIG. 1 is a schematic diagram of a module of an infertility big data analysis and detection signal transmission system according to the present invention.
具体实施方式Detailed ways
有关本发明的前述及其他技术内容、特点与功效，在以下配合参考附图1对实施例的详细说明中，将可清楚的呈现。以下实施例中所提到的结构内容，均是以说明书附图为参考。The foregoing and other technical contents, features and effects of the present invention will be clearly presented in the following detailed description of the embodiments with reference to FIG. 1 . The structural contents mentioned in the following embodiments are all referenced to the accompanying drawings.
实施例一，一种不孕不育大数据分析检测信号传输系统，包括频率采样模块、振荡比较模块，所述频率采样模块采集不孕不育大数据分析检测模块输出信号频率，频率采样模块连接振荡比较模块，振荡比较模块输出信号经信号发射器E1发送至不孕不育大数据分析检测信号传输系统终端内；Embodiment 1, an infertility big data analysis and detection signal transmission system, including a frequency sampling module and an oscillation comparison module, the frequency sampling module collects the frequency of the output signal of the infertility big data analysis and detection module, and the frequency sampling module is connected to Oscillation comparison module, the output signal of the oscillation comparison module is sent to the terminal of the infertility big data analysis and detection signal transmission system through the signal transmitter E1;
为了解决不孕不育大数据分析检测信号传输系统中因冗杂的医院环境导致网络传输很容易出现网络堵塞问题，需要先对不孕不育大数据分析检测模块输出信号频率实时监测，此信号为不孕不育大数据分析检测采集模块输出信号，也即是信号源，网络堵塞需要解决不同信道之间的信号频率相互干扰，前提需要保证采集的频率信号准确传输至不孕不育大数据分析检测信号传输系统终端内，因此先运用型号为SJ-ADC的频率采集器J1采集信号频率，同时运用电阻R1和电容C1、电容C2组成π型滤波电路对滤除信号杂波，为下一步振荡比较模块校准做预处理；In order to solve the problem of network congestion in network transmission due to the complicated hospital environment in the infertility big data analysis and detection signal transmission system, it is necessary to first monitor the output signal frequency of the infertility big data analysis and detection module in real time. This signal is Infertility big data analysis and detection The output signal of the acquisition module is the signal source. Network congestion needs to solve the mutual interference of signal frequencies between different channels. The premise is to ensure that the collected frequency signals are accurately transmitted to infertility big data analysis. In the terminal of the detection signal transmission system, first use the frequency collector J1 of the model SJ-ADC to collect the signal frequency, and at the same time use the resistor R1, the capacitor C1, and the capacitor C2 to form a π-type filter circuit to filter out the signal clutter for the next oscillation. Compare module calibration for preprocessing;
所述振荡比较模块先运用电容C3、电容C4和电感L1组成LC振荡电路对频率采样模块输出信号振荡，增强信号频率，在增强信号频率时，需要运用电容C6滤除直流频率分量，同时运用电容C5为旁路电容，在信号振荡时，保证信号的稳定，然后运用运放器AR2和三极管Q1调节信号波形，利用三极管Q1的导通性质，当信号中含有尖峰信号时，此时通过电子R3-电阻R5的比值，调节运放器AR2输出端和三极管Q1基极电压分配比，从而检测信号中的异常信号，尖峰信号电压配比大于三极管Q1的导通电压，三极管Q1导通将尖峰信号过滤，反之，三极管Q1不导通，然后运用运放器AR3缓冲信号，防止信号在调频后直接输入运放器AR4同相输入端做比较会产生跳频现象，同时为了进一步调节信号峰值，稳定信号波形，运用运放器AR1和电容C7组成噪声检测电路检测电容C6回路中的信号噪声，然后运用三极管Q2、三极管Q3和电容C11组成异常信号检测电路，将噪声检测电路输出信号中的异常信号反馈至运放器AR5反相输入端，运放器AR5比较信号，调节输出信号波形，同时进一步采用可控硅VTL1反馈运放器AR2输出信号和三极管Q2集电极信号差，微调反馈信号，同时反馈至运放器AR4反相输入端，运放器AR4、运放器AR5同步对信号峰值信号调节，最后运放器AR6和电阻R15、电阻R16组成加法电路对信号做加法处理，保证信号强度，然后经信号发射器E1发送至不孕不育大数据分析检测信号传输系统终端，由于对信号发射器E1的频率信号做了校准，能准确地发送至终端内，不孕不育大数据分析检测信号传输系统终端接收信号能实时监测数据传输状态，并作出调整；The oscillation comparison module first uses the capacitor C3, the capacitor C4 and the inductor L1 to form an LC oscillation circuit to oscillate the output signal of the frequency sampling module to enhance the signal frequency. When enhancing the signal frequency, the capacitor C6 needs to be used to filter out the DC frequency component, and the capacitor is used at the same time. C5 is a bypass capacitor. When the signal oscillates, it ensures the stability of the signal, and then uses the operational amplifier AR2 and the transistor Q1 to adjust the signal waveform, and uses the conduction property of the transistor Q1. When the signal contains a spike signal, the electronic R3 is used at this time. - The ratio of the resistor R5, adjust the voltage distribution ratio between the output terminal of the op amp AR2 and the base of the transistor Q1, so as to detect abnormal signals in the signal, the voltage ratio of the peak signal is greater than the turn-on voltage of the transistor Q1, and the transistor Q1 is turned on to make the spike signal Filtering, on the contrary, the transistor Q1 is not turned on, and then the op amp AR3 is used to buffer the signal to prevent the signal from being directly input to the non-inverting input terminal of the op amp AR4 after frequency modulation, which will cause frequency hopping. Waveform, use op amp AR1 and capacitor C7 to form a noise detection circuit to detect the signal noise in the circuit of capacitor C6, and then use transistor Q2, transistor Q3 and capacitor C11 to form an abnormal signal detection circuit, and feedback the abnormal signal in the output signal of the noise detection circuit To the inverting input terminal of the operational amplifier AR5, the operational amplifier AR5 compares the signal, adjusts the output signal waveform, and further uses the thyristor VTL1 to feedback the difference between the output signal of the operational amplifier AR2 and the collector signal of the transistor Q2, fine-tune the feedback signal, and feedback at the same time To the inverting input terminal of the operational amplifier AR4, the operational amplifier AR4 and the operational amplifier AR5 adjust the signal peak signal synchronously. Finally, the operational amplifier AR6 and the resistor R15 and the resistor R16 form an addition circuit to add the signal to ensure the signal strength. Then it is sent to the terminal of the infertility big data analysis and detection signal transmission system through the signal transmitter E1. Since the frequency signal of the signal transmitter E1 is calibrated, it can be accurately sent to the terminal, and the infertility big data analysis and detection The terminal of the signal transmission system can monitor the data transmission status in real time by receiving signals and make adjustments;
所述振荡比较模块具体结构,电感L1的一端接电阻R2、电容C4的一端，电感L1的另一端接地，电容C4的另一端接电容C3的一端和频率采样模块输出端口，电容C3的另一端接电容C5、电容C6的一端，电容C6的另一端接电阻R6和二极管D2的正极，电容C5和电阻R6的另一端接地，二极管D2的负极接电容C7的一端，电容C7的另一端接电阻R8的一端和运放器AR1的同相输入端，电阻R8的另一端接地，运放器AR1的反相输入端接电阻R9、电阻R10、电阻R11、电容C11的一端，电阻R9的另一端接电源+5V，电阻R10的另一端接三极管Q2的基极和三极管Q3的集电极，三极管Q2的发射极接电阻R11的另一端，三极管Q2的集电极接三极管Q3的积极和电容C11的另一端和稳压管D3的负极、二极管D4的正极，稳压管D3的正极接地，三极管Q3的发射极接运放器AR5的反相输入端，电阻R2的另一端接电阻R3、电阻R4的一端，电阻R3的另一端接电容C8的一端和运放器AR2的同相输入端，运放器AR2的反相输入端接电阻R4的另一端和电阻R5的一端，电阻R5的另一端接三极管Q1的集电极，运放器AR2的输出端接运放器AR3的同相输入端和电容C8的另一端、可控硅VTL1的正极，三极管Q1的发射极接电阻R12、电容C10的一端，电阻R12、电容C10的另一端接地，运放器AR3的反相输入端接运放器AR3的输出端和运放器AR4、运放器AR4的同相输入端，可控硅VTL1的控制极接二极管D4的负极和电阻R13、电容C9的一端，电阻R13、电容C9的另一端接地，可控硅VTL1的负极接电阻R14的一端和运放器AR4的反相输入端，电阻R14的另一端接地，运放器AR4的输出端接运放器AR5的输出端和运放器AR6同相输入端，运放器AR6反相输入端接电阻R15、电阻R16的一端，电阻R15的另一端接地，电阻R16的另一端接运放器AR6的输出端和信号发射器E1。The specific structure of the oscillation comparison module, one end of the inductor L1 is connected to one end of the resistor R2 and one end of the capacitor C4, the other end of the inductor L1 is grounded, the other end of the capacitor C4 is connected to one end of the capacitor C3 and the output port of the frequency sampling module, and the other end of the capacitor C3 Connect one end of capacitor C5 and capacitor C6, the other end of capacitor C6 is connected to the anode of resistor R6 and diode D2, the other end of capacitor C5 and resistor R6 is grounded, the cathode of diode D2 is connected to one end of capacitor C7, and the other end of capacitor C7 is connected to the resistor One end of R8 is connected to the non-inverting input end of op amp AR1, the other end of resistor R8 is grounded, the inverting input end of op amp AR1 is connected to one end of resistor R9, resistor R10, resistor R11 and capacitor C11, and the other end of resistor R9 is connected to Power +5V, the other end of the resistor R10 is connected to the base of the transistor Q2 and the collector of the transistor Q3, the emitter of the transistor Q2 is connected to the other end of the resistor R11, the collector of the transistor Q2 is connected to the positive of the transistor Q3 and the other end of the capacitor C11 And the cathode of the Zener tube D3, the anode of the diode D4, the anode of the Zener tube D3 is grounded, the emitter of the transistor Q3 is connected to the inverting input terminal of the operational amplifier AR5, and the other end of the resistor R2 is connected to one end of the resistor R3 and the resistor R4. , the other end of the resistor R3 is connected to one end of the capacitor C8 and the non-inverting input end of the op amp AR2, the inverting input end of the op amp AR2 is connected to the other end of the resistor R4 and one end of the resistor R5, and the other end of the resistor R5 is connected to the transistor Q1 The collector of the operational amplifier AR2, the output terminal of the operational amplifier AR2 is connected to the non-inverting input terminal of the operational amplifier AR3 and the other end of the capacitor C8, the positive electrode of the thyristor VTL1, the emitter of the transistor Q1 is connected to the resistor R12, one end of the capacitor C10, the resistor R12 , The other end of capacitor C10 is grounded, the inverting input terminal of operational amplifier AR3 is connected to the output terminal of operational amplifier AR3 and the non-inverting input terminal of operational amplifier AR4 and operational amplifier AR4, and the control pole of thyristor VTL1 is connected to diode D4 The negative electrode of the resistor R13 and one end of the capacitor C9, the other end of the resistor R13 and the capacitor C9 are grounded, the negative electrode of the thyristor VTL1 is connected to one end of the resistor R14 and the inverting input of the op amp AR4, and the other end of the resistor R14 is grounded. The output terminal of the operational amplifier AR4 is connected to the output terminal of the operational amplifier AR5 and the non-inverting input terminal of the operational amplifier AR6. The inverting input terminal of the operational amplifier AR6 is connected to one end of the resistor R15 and the resistor R16, the other end of the resistor R15 is grounded, and the resistor R16 The other end is connected to the output end of the operational amplifier AR6 and the signal transmitter E1.
所述频率采样模块具体结构，频率采集器J1的电源端接电源+5V，频率采集器J1的接地端接地，频率采集器J1的输出端接稳压管D1的负极和电阻R1、电容C1的一端，稳压管D1的正极接地，电阻R1的另一端接电容C2的一端和振荡比较模块输入端口，电容C1的另一端接地，电容C2的另一端接地。The specific structure of the frequency sampling module, the power supply terminal of the frequency collector J1 is connected to the power supply +5V, the ground terminal of the frequency collector J1 is grounded, and the output terminal of the frequency collector J1 is connected to the negative electrode of the voltage regulator tube D1 and the resistor R1 and the capacitor C1. One end, the positive pole of the voltage regulator tube D1 is grounded, the other end of the resistor R1 is connected to one end of the capacitor C2 and the input port of the oscillation comparison module, the other end of the capacitor C1 is grounded, and the other end of the capacitor C2 is grounded.
本发明具体使用时，一种不孕不育大数据分析检测信号传输系统，包括频率采样模块、振荡比较模块，所述频率采样模块采集不孕不育大数据分析检测模块输出信号频率，频率采样模块连接振荡比较模块，所述振荡比较模块先运用电容C3、电容C4和电感L1组成LC振荡电路对频率采样模块输出信号振荡，增强信号频率，在增强信号频率时，需要运用电容C6滤除直流频率分量，同时运用电容C5为旁路电容，在信号振荡时，保证信号的稳定，然后运用运放器AR2和三极管Q1调节信号波形，利用三极管Q1的导通性质，当信号中含有尖峰信号时，此时通过电子R3-电阻R5的比值，调节运放器AR2输出端和三极管Q1基极电压分配比，从而检测信号中的异常信号，尖峰信号电压配比大于三极管Q1的导通电压，三极管Q1导通将尖峰信号过滤，反之，三极管Q1不导通，然后运用运放器AR3缓冲信号，防止信号在调频后直接输入运放器AR4同相输入端做比较会产生跳频现象，同时为了进一步调节信号峰值，稳定信号波形，运用运放器AR1和电容C7组成噪声检测电路检测电容C6回路中的信号噪声，然后运用三极管Q2、三极管Q3和电容C11组成异常信号检测电路，将噪声检测电路输出信号中的异常信号反馈至运放器AR5反相输入端，运放器AR5比较信号，调节输出信号波形，同时进一步采用可控硅VTL1反馈运放器AR2输出信号和三极管Q2集电极信号差，微调反馈信号，同时反馈至运放器AR4反相输入端，运放器AR4、运放器AR5同步对信号峰值信号调节，最后运放器AR6和电阻R15、电阻R16组成加法电路对信号做加法处理，保证信号强度，然后经信号发射器E1发送至不孕不育大数据分析检测信号传输系统终端，由于对信号发射器E1的频率信号做了校准，能准确地发送至终端内，不孕不育大数据分析检测信号传输系统终端接收信号能实时监测数据传输状态，并作出调整。When the present invention is used specifically, an infertility big data analysis and detection signal transmission system includes a frequency sampling module and an oscillation comparison module. The frequency sampling module collects the frequency of the output signal of the infertility big data analysis and detection module, and the frequency sampling The module is connected to the oscillation comparison module. The oscillation comparison module first uses the capacitor C3, the capacitor C4 and the inductor L1 to form an LC oscillation circuit to oscillate the output signal of the frequency sampling module to enhance the signal frequency. When the signal frequency is enhanced, the capacitor C6 needs to be used to filter out the DC Frequency component, and use capacitor C5 as a bypass capacitor to ensure the stability of the signal when the signal oscillates, and then use the op amp AR2 and the transistor Q1 to adjust the signal waveform, using the conduction property of the transistor Q1, when the signal contains a spike signal , at this time, through the ratio of the electronic R3-resistor R5, the voltage distribution ratio between the output terminal of the op amp AR2 and the base of the transistor Q1 is adjusted to detect abnormal signals in the signal. The voltage ratio of the peak signal is greater than the on-voltage of the transistor Q1. Q1 is turned on to filter the spike signal. On the contrary, the transistor Q1 is not turned on, and then the op amp AR3 is used to buffer the signal to prevent the signal from being directly input to the non-inverting input of the op amp AR4 after frequency modulation, which will cause frequency hopping. Adjust the signal peak value, stabilize the signal waveform, use the op amp AR1 and capacitor C7 to form a noise detection circuit to detect the signal noise in the capacitor C6 loop, and then use transistor Q2, transistor Q3 and capacitor C11 to form an abnormal signal detection circuit, and output the noise detection circuit The abnormal signal in the signal is fed back to the inverting input terminal of the operational amplifier AR5. The operational amplifier AR5 compares the signal and adjusts the output signal waveform. At the same time, the thyristor VTL1 is further used to feedback the difference between the output signal of the operational amplifier AR2 and the collector signal of the transistor Q2. The feedback signal is fine-tuned, and fed back to the inverting input terminal of the op amp AR4 at the same time. The op amp AR4 and the op amp AR5 adjust the signal peak signal synchronously. Finally, the op amp AR6 and the resistor R15 and the resistor R16 form an addition circuit to add the signal. Process, ensure the signal strength, and then send it to the terminal of the infertility big data analysis and detection signal transmission system through the signal transmitter E1. Because the frequency signal of the signal transmitter E1 is calibrated, it can be accurately sent to the terminal. Infertility big data analysis and detection signal transmission system terminal receiving signals can monitor the data transmission status in real time and make adjustments.
以上所述是结合具体实施方式对本发明所作的进一步详细说明，不能认定本发明具体实施仅局限于此；对于本发明所属及相关技术领域的技术人员来说，在基于本发明技术方案思路前提下，所作的拓展以及操作方法、数据的替换，都应当落在本发明保护范围之内。The above is a further detailed description of the present invention in conjunction with the specific embodiments, and it cannot be considered that the specific implementation of the present invention is limited to this; , the expansion and the replacement of the operation method and data should all fall within the protection scope of the present invention.
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