CN100566188C - A kind of ultra broadband method of reseptance and receiver thereof of peak value of pulse detection - Google Patents
A kind of ultra broadband method of reseptance and receiver thereof of peak value of pulse detection Download PDFInfo
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- CN100566188C CN100566188C CNB2006100859063A CN200610085906A CN100566188C CN 100566188 C CN100566188 C CN 100566188C CN B2006100859063 A CNB2006100859063 A CN B2006100859063A CN 200610085906 A CN200610085906 A CN 200610085906A CN 100566188 C CN100566188 C CN 100566188C
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Abstract
The ultra broadband method of reseptance and the receiver thereof of peak value of pulse detection of the present invention, feature is that comparator is quantified as digital signal with the peak envelope by antenna receiving signal that wave detector extracts, and the envelope signal sampling of code-element period to quantizing pressed on the every road of parallel duplex sample circuit; Number from small to large by the sampling sequencing, every road and frame head sequence are done relevant treatment, if wherein the relevant output at least one road is greater than thresholding, determine that then relevant output is that pulse signal is initial greater than the sampling of numbering minimum a tunnel in the thresholding constantly, this position is that frame signal is initial; Otherwise will import the parallel duplex signal to code-element period of front slide, repeat said process; More than or equal to 1, less than the sampling value addition of parallel sampling way, if greater than setting demodulation threshold, then judgement is " 1 " with this initial moment and follow-up several numbers, if less than thresholding, then judgement is " 0 ".The present invention makes super-broadband tech really become communication mode simple in structure, at a high speed in wireless near field communication.
Description
Technical field:
The invention belongs to the pulse ultra-broad band communication technical field, particularly the ultra broadband method of reseptance and the receiver thereof of peak value of pulse detection.
Background technology:
" microwave theory and technique proceedings " (IEEE Transaction on Microwave Theory and Technology, Vol.52, Issue 9, Sep.2004, p2087-2104) introduced the pulse ultra-broad band Progress in technique, because the nanosecond detection of pulse signal of subnanosecond width exists reception, analog-to-digital conversion and difficulty such as synchronous, the flank speed of present existing pulse ultra-broadband communication system only is 25Mbps.
At present in the physical layer implementation of ultra-wideband communications nanosecond subnanosecond width-pulse signal reception two kinds of coherent approach and non-coherent approaches are arranged usually.Disclosed a kind of correlation receiver of Chinese patent CN1561006 and method of reseptance thereof, receiving terminal is estimated template signal by maximum likelihood method, carry out correlation intergal with received pulse, coherent reception needs complicated synchronous circuit to guarantee that correlate template and received pulse are in time domain alignment., the method for reseptance that the disclosed a kind of difference of Chinese patent CN1615596 is relevant, its difference interlock circuit needs a broadband time delay device, and amount of delay is similar to a code-element period, realizes difficulty.In the incoherent reception method, adopt the method for energy measuring usually.United States Patent (USP) 3,755,396 propose a kind of circuit of the constant alert rate of mistake (CFAR) of tunnel diode detection.United States Patent (USP) 5,901 has been described a kind of ultra-wideband pulse detector of tunnel diode in 172, only begins to calibrate the bias state of tunnel diode in system.Tunnel diode all is operated in the multi-harmonic-oscillations pattern in the above-mentioned patent, and this need therefore need adjunct circuit, and the time of tunnel diode discharge also have been limited the speed that detects with the tunnel diode discharge after pulse of each detection.In Chinese patent CN1611011A, utilized tunnel diode exclusive disjunction amplifier (op-amp) to be operated in the controlled relaxation oscillations circuit that the negative resistance state constitutes, this method need detect the number of the waveform of controlled relaxation oscillations circuit output, therefore needs adjunct circuit.
Generally be to adopt superfast modulus switching device at the ultra-broadband signal method for digitizing at present, " 58 vehicle-mounted technical conference collections of thesis of electric appliance and electronic Ssociety of engineers " (IEEE 58th Vehicular technology conferences, 2003, Vol.2, p1303-1307) introduced the digitlization that flash analog to digital converter (Flash ADC) at a high speed achieves a butt joint and collects mail number in, adopt frequency high more, the figure place of analog to digital conversion is big more, and the power consumption of flash analog to digital converter is just high more; Because the width of the pulse signal that ultra broadband work is used is in nanosecond subnanosecond level, still occupied the bandwidth of hundreds of million through its output pulse envelope after the energy detection to several GHzs, according to anti-Qwest (Nyquist) sampling theorem, the needed sampling rate of undistorted analog-to-digital conversion will be up to hundreds of million to several GHzs, and this has strengthened the realization difficulty and the power consumption of system.
At the synchronization scenario of pulse ultra-broad band incoherent reception system, generally be divided into two steps: impulsive synchronization and frame synchronization at present." radio ultra wide band system and technology international conference collection of thesis " (international workshop on Joint UWBST﹠amp; IWUWBS, 2004, p288-292) propose a code-element period is divided into a plurality of little intervals, adopt the size that compares each interval pulse energy to obtain impulsive synchronization, adjudicate the demodulated pulse signal then.This synchronization scenario adopts individual pulse signal decision impulsive synchronization, does not have the accumulative effect of a plurality of pulses, and synchronous precision is not high; Also need to carry out frame synchronization after finishing impulsive synchronization simultaneously, operand is big, and required lock in time is long.
Summary of the invention:
The ultra broadband method of reseptance and the receiver thereof that the purpose of this invention is to provide a kind of peak value of pulse detection to overcome the above-mentioned defective of prior art, make super-broadband tech really become communication mode simple in structure, at a high speed in wireless near field communication.
The radio ultra wide band system method of reseptance of peak value of pulse detection of the present invention is characterized in that: at first the signal that antenna is received extracts the peak envelope of pulse signal by the tunnel diode wave detector of oppositely installing; The peak envelope signal is quantified as single-bit or multiple bit digital signal by single or multiple high-speed comparators, realizes the envelope signal that quantizes is taken a sample by the parallel duplex sample circuit, and the sampling period on every road is identical with code-element period; Then the quantification envelope signal of parallel duplex is numbered from small to large by the sequencing of sampling, the frame head sequence of each road and setting is done relevant treatment, if wherein have one tunnel relevant output valve at least greater than threshold value, then determine relevant output valve greater than minimum a road the sampling of numbering in the threshold value constantly for receiving the initial moment of pulse signal, determine that a road minimum start bit of numbering is the initial moment of frame signal; If do not have one tunnel relevant output valve greater than threshold value, the quantification envelope signal that then will import parallel duplex repeats the process of the quantification envelope signal numbering beginning of above-mentioned parallel duplex to code-element period of front slide; Definite according to lock unit more initial moment that receives pulse signal, with this sampling value and follow-up number constantly is more than or equal to 1, several sampling values less than parallel sampling way are done addition, if additive value is greater than the demodulation threshold of setting, then judgement is " 1 ", if additive value is less than the thresholding of setting, then judgement is " 0 ".
The ultra wide band system receiver of peak value of pulse detection of the present invention, comprise: reception antenna connects the input of filter amplification circuit, the output of filter amplification circuit connects the input of peak-detector circuit, the output of peak-detector circuit connects the input that quantizes sample circuit, the output that quantizes sample circuit connects the input of lock unit and the data input pin of demodulating unit, the synchronous input end of the output coupling and demodulating unit of lock unit; It is characterized in that: described peak-detector circuit adopts the tunnel diode wave detector oppositely to install: its scope is 10 pico farads connect peak-detector circuit to coupling capacitance one end of 1000 pico farads input, other end join domain at 100 nanohenrys to the inductance of 1 microhenry and the negative pole of tunnel diode wave detector (the N utmost point), the other end ground connection of inductance, the positive pole of tunnel diode wave detector (the P utmost point) join domain in 300 ohm to 20000 ohm resistance and scope at the filter capacitor of 1 pico farad to 20 pico farads, the other end ground connection of resistance and filter capacitor, the output of peak-detector circuit connects the positive pole of tunnel diode wave detector, resistance and filter capacitor; Described quantification sample circuit comprises that output that the output of high speed comparison circuit connects the input of parallel sample circuit or high speed comparison circuit connects the input of pulse extensor, and the output of pulse extensor connects the input of parallel sample circuit.
Described pulse extensor comprises integrated monostable multi resonant trigger or the pulse extension circuit that is made of by self-cleaning D flip-flop, the pulse extension circuit that preferred D flip-flop constitutes by self-cleaning.
Described parallel sample circuit comprises and the high-speed sampler of line output or the digital sampling latch of parallel duplex; The preferred also high-speed sampler of line output.
Because the present invention adopts the reception programme of peak detection pulse detection, with respect to the method for correlation reception and difference correlation reception, does not need to produce the delay circuit of correlate template circuit or ultra broadband, and is simple in structure; With respect to the incoherent reception method of energy measuring, the peak value of pulse detecting circuit need not plus outer discharge circuit or waveform detection circuit, can realize up to 200Mbps and above traffic rate; The peak value of pulse detecting circuit utilizes tunnel diode to be operated in reverse detection state, wave detector carries out envelope detection at-15dBm to the pulse signal between the 4dBm to peak power, but responding power is not less than narrow-band interference signal and the noise signal of-20dBm, the detection bandwidth is very wide, can be operated in the frequency range of hundreds of megahertz to tens GHzs, the response time of detection is very fast, can detect the pulse signal of pulse duration at nanosecond and subnanosecond width; Adopt the quantification sampler to be used for digitlization detection output signal, to quantize to separate with sample circuit, only need the speed of single channel sample circuit identical with pulse rate, total sampling rate is the product of single channel sampling rate and way, with respect to the sampling quantification speed of the easier realization of flash analog to digital converter up to several Jis; Adopt the quantification envelope signal of frame head sequence and parallel duplex to do the slip relevant treatment, realize the synchronous of pulse signal and frame signal simultaneously, reduced the computational complexity of signal Synchronization, by parallel processing, need not does not have feedback control loop, has reduced the synchronous required time.
The present invention utilizes the reverse detection of tunnel diode to realize that the pulse signals peak value detects, utilize and quantize the digitlization that sample circuit is realized rectified signal, and provide and corresponding signal Synchronization of receiver structure and demodulation method, make super-broadband tech in wireless near field communication, really become communication mode simple in structure, at a high speed.
Description of drawings:
Fig. 1 is a certain pulses ultra wideband receiver structured flowchart in the embodiment of the invention.
Fig. 2 is the peak value of pulse detecting circuit among the present invention.
Fig. 3 is the I-V characteristic curve diagram of tunnel diode in the peak value of pulse detecting circuit among the present invention.
Fig. 4 is based on the transmitted waveform and the testing process oscillogram of on-off keying modulation.
Fig. 5 quantizes the realization circuit that sample circuit contains the pulse extensor among the present invention.
Fig. 6 quantizes the realization circuit that sample circuit does not contain the pulse extensor among the present invention.
Fig. 7 is the parallel sample circuit that adopts the digital sampling latch of parallel duplex.
Fig. 8 adopts the also parallel sample circuit of the high-speed sampler of line output.
Fig. 9 is a synchronous and demodulation algorithm flow chart of the present invention.
Embodiment:
Below in conjunction with accompanying drawing the ultra wide band system receiver structure of peak value of pulse detection of the present invention and the embodiment of method are described in further detail.
Embodiment 1:
Present embodiment provides a ultra wideband receiver that detects based on peak value of pulse, its concrete structure block diagram is as shown in Figure 1: reception antenna ANT connects the input of filter FIL, the output of filter FIL connects the input of amplifier AMP, the output of amplifier AMP connects the input of detecting circuit DET, the output of detecting circuit DET connects the input that quantizes sample circuit QUASAM, the output that quantizes sample circuit QUASAM connects the input of lock unit SYN and the input of demodulating unit MOD, another input of the output coupling and demodulating unit MOD of lock unit SYN.
Fig. 2 has provided the realization circuit of detecting circuit DET among Fig. 1, and Fig. 3 has provided the indicatrix of the electric current of tunnel diode (I)-voltage (V) among Fig. 2.In the present embodiment, detecting circuit DET adopts tunnel diode wave detector TD oppositely to install, circuit structure is as shown in Figure 2: the end of coupling capacitance C1 is the input of detecting circuit DET, the other end connects the negative pole (the N utmost point) of tunnel diode wave detector TD and an end of inductance L, the other end ground connection of inductance L, the positive pole of tunnel diode wave detector TD (the P utmost point) connection electrical resistance R1 and filter capacitor C2 one end, the other end ground connection of resistance R 1 and filter capacitor C2, the positive pole of tunnel diode wave detector TD (the P utmost point) is the output of detecting circuit DET.The scope of described coupling capacitance C1 be 10 pico farads to 1000 pico farads, the scope of inductance L be 100 nanohenrys to 1 microhenry, the scope of resistance R 1 is 300 ohm to 20,000 ohm.The scope of filter capacitor C2 is that 1 pico farad is to 20 pico farads; When the repetition rate of received pulse signal is higher than 100 megahertzes, resistance R 1 desirable 300 ohm; When the repetition rate of received pulse signal is lower than 20 megahertzes, resistance R 1 desirable 20,000 ohm.
The electric current (I) of tunnel diode wave detector TD among the detecting circuit DET-voltage (V) characteristic curve comprises reverse low-resistance region 301, forward low-resistance region 302, forward high resistance area 303 and forward second low-resistance region 304, as shown in Figure 3.In general, do not require that curve is piecewise linear, unique requirement is that the indicatrix that circuit has comprises at least three obviously districts: reverse low-resistance region 301, forward low-resistance region 302 and forward high resistance area 303.When input power hour, be generally less than-20dBm, the tunnel diode wave detector does not show non-linear, leads directly to for signal; When input signal power is big, generally at-15dBm between the 4dBm, the tunnel diode wave detector shows strong non-linear, output signal is the peak envelop detection to the signal of coming in and going out; Therefore as long as the gain of design receiver amplifier AMP makes the power of noise signal of narrow-band continuous wave interference signal and stable state less, be generally less than-20dBm, make useful pulse signal power at-15dBm between the 4dBm; During through detecting circuit DET, narrow-band continuous wave interference signal and steady-state noise signal will not be detected, and useful pulse signal will be by peak envelop detection, shown in detecting circuit DET input waveform 402 and detecting circuit DET output waveform 403 among Fig. 4.By detecting circuit DET, useful pulse signal has been carried out peak envelop detection, to disturbing and noise suppresses, thereby improved the signal to noise ratio of output signal.
Quantification sample circuit QUASAM among the embodiment can be the input that detecting circuit DET output meets high-speed comparator CAMP, the output of high-speed comparator CAMP connects the input of pulse extensor TRC, the output of pulse extensor TRC connects the input of parallel sample circuit SAMP, as shown in Figure 5; Also can be the input that detecting circuit DET output meets high-speed comparator CAMP, the output of high-speed comparator CAMP connects the input of parallel sample circuit SAMP, as shown in Figure 6.Parallel sample circuit SAMP can comprise the digital sampling latch of parallel duplex, as shown in Figure 7: it is the clock signal of 2 π/N that clock CLK is assigned as by clock distributor CDIS that the N road differs, wherein N is the output way of multipath clock distributor C DIS, scope is a few to tens of, the output of this multipath clock distributor C DIS and the input of parallel sample circuit SAMP connect input end of clock and the signal input part of parallel trigger group TRIS respectively, described multi-phase clock distributor comprises DPLL digital phase-locked loop clock distributor or time delay network, digit preference phase-locked loop clock distributor, the phase difference of the two-way clock that the output of multi-phase clock distributor is adjacent is 2 π/N; Parallel sample circuit SAMP also can comprise the also high-speed sampler of line output, as shown in Figure 8: clock CLK connects the input of frequency multiplier MUT, and the input of the output of frequency multiplier MUT and parallel sample circuit SAMP connects also input end of clock and the signal input part of the high-speed sampler HSAMP of line output respectively.The output signal of detecting circuit DET is quantified as single-bit signal after sending into high-speed comparator CAMP, when the width of working pulse with respect to symbol width 1/tens when following, the single-bit signal after the quantification is sent into behind the pulse extensor TRC stretched pulse width quantized signal by the parallel sampling of parallel sample circuit SAMP output.Wherein said pulse extensor TRC comprises integrated monostable multi resonant trigger or the pulse extension circuit that is made of by self-cleaning D flip-flop, the pulse extension circuit that preferred D flip-flop constitutes by self-cleaning, the scope of the extension width of pulse is the code-element period greater than 2/N, less than a code-element period, N is the output way of multipath clock distributor C DIS or the frequency multiplication number of times of frequency multiplier MUT; When the width of working pulse with respect to symbol width during greater than the code-element period of 2/N, wherein N is the frequency multiplication number of times of frequency multiplier, the detecting circuit DET output signal that high-speed comparator CAMP quantizes is directly sent into parallel sample circuit SAMP, the parallel sampled signal of output.By parallel sampling, reduced the frequency of sampling clock.Make sampling clock identical with pulse rate, the way N of parallel sampling and the pulse duration of reception are irrelevant, and be only relevant in the pulse duration of pulse duration extension TRC output.Reduced the realization difficulty.The multi bit quantization sample circuit can realize that by the combination of the proportional single-bit quantification sample circuit of quantization threshold the ratio of adjacent quantizer threshold level is twice.
The job step of this pulse ultra wideband receiver is: at first through reception antenna ANT the space electromagnetic wave signal is received and convert to the signal of telecommunication, then the signal of telecommunication that obtains is input to the filter FIL of receiving terminal, the input of its output termination amplifier AMP after the filter FIL filtering out of band signal, amplifier AMP is output as the signal after amplifying, include with pulse signal and narrow band interference and in-band noise, waveform is shown among Fig. 4 402, the input of its output termination detecting circuit DET, detecting circuit DET will detect the peak envelope of input pulse signal, its output waveform is shown among Fig. 4 403, become Serial No. after the output of detecting circuit DET quantizes to take a sample through quantification sampler QUASAM and be input to lock unit SYN and demodulating unit MOD, lock unit SYN determines the initial moment of pulse in the received signal and the original position of frame, and demodulating unit MOD is by the quantification sampled signal and the synchronizing signal data message that recovers transmission of input.
Fig. 9 has provided synchronously and the demodulation algorithm flow chart.Its synchronously and demodulating process be: the multichannel of parallel duplex sample circuit SAMP output quantizes sampled signal and numbers from small to large by the sequencing of taking a sample, the frame head FRA of each road and setting carries out related calculation by correlator COR, relevant output valve is input to decision device ADJ, if wherein have one tunnel relevant output valve at least greater than threshold value, then determine relevant output valve greater than minimum a road the sampling of numbering in the threshold value constantly for receiving the initial moment of pulse signal, determine that this is the initial moment of frame signal, the peak envelope signal of this synchronizing information and quantification sampling is sent into demodulator MOD recover transmission information; If do not have one tunnel relevant output valve greater than threshold value, the quantification envelope signal that then will import parallel duplex repeats said process to code-element period of front slide.The demodulating process of described demodulator is: the initial moment that receive pulse signal definite according to lock unit, the sampling value and a follow-up K sampling value in this moment are done addition, the scope of K is more than or equal to 1, way less than parallel sampling, if additive value is greater than the demodulation threshold of setting, then judgement is " 1 ", is " 0 " if additive value less than the thresholding of setting, is then adjudicated; When lock unit SYN determines initial moment of received frame signal, counter COU zero clearing; Code element information of every demodulation, counter COU adds one, when expiring a frame to counter COU meter, returns the initial of lock unit, unison counter COU zero clearing.Do the slip relevant treatment owing to adopt the quantification envelope signal of frame head sequence and parallel duplex, realize the synchronous of pulse signal and frame signal simultaneously, reduced the computational complexity of signal Synchronization, by parallel processing, need not does not have feedback control loop, the synchronously required time is few, repetition rate for pulse is 200 megahertzes, and frame head is the Barker code of 13 bits, and parallel sampling way is 12 typical receiving system, only need do 13 XOR 12 times, also only need for 65 nanoseconds lock in time.
Because the present invention adopts the reception programme of peak detection pulse detection, with respect to the method for correlation reception and difference correlation reception, does not need to produce the delay circuit of correlate template circuit or ultra broadband, and is simple in structure; With respect to the incoherent reception method of energy measuring, the peak value of pulse detecting circuit need not plus outer discharge circuit or waveform detection circuit, can realize up to 200Mbps and above traffic rate.The peak value of pulse detecting circuit that the present invention adopts utilizes tunnel diode to be operated in reverse detection state, made full use of nanosecond subnanosecond pulse signal and noise and the different qualities of narrow-band interference signal on time domain, pulse signal has been separated with narrow-band interference signal with noise; This detecting circuit detection bandwidth is very wide, can be operated in the frequency range of tens megahertzes to tens GHzs, the response time of detection is very fast, can detect the pulse signal of pulse duration, make this peak-detector circuit be applicable to that working frequency range is at the pulse ultra-broad band receiving system of tens megahertzes in tens GHzs at nanosecond and subnanosecond width.Adopt the quantification sampler to be used for digitlization detection output signal, to quantize to separate with sample circuit, only need the speed of single channel sample circuit identical with pulse rate, total sampling rate is the product of single channel sampling rate and way, with respect to the sampling quantification speed of the easier realization of flash analog to digital converter up to several GHzs.Adopt the quantification envelope signal of frame head sequence and parallel duplex to do the slip relevant treatment, realize the synchronous of pulse signal and frame signal simultaneously, reduced the computational complexity of signal Synchronization, by parallel processing, need not does not have feedback control loop, reduce the synchronous required time, be particularly useful for burst communication.
The present invention utilizes the reverse detection of tunnel diode to realize that the pulse signals peak value detects, utilize and quantize the digitlization that sample circuit is realized rectified signal, and the synchronous and demodulation method with the corresponding quick simple signal of receiver structure is provided, realized pulse ultra wideband receiver simple in structure, at a high speed.
Claims (6)
1, a kind of radio ultra wide band system method of reseptance of peak value of pulse detection is characterized in that: at first the signal that antenna is received extracts the peak envelope of pulse signal by the tunnel diode wave detector of oppositely installing; The peak envelope signal is quantified as single-bit or multiple bit digital signal by single or multiple high-speed comparators, realizes the envelope signal that quantizes is taken a sample by the parallel duplex sample circuit, and the sampling period on every road is identical with code-element period; Then the quantification envelope signal of parallel duplex is numbered from small to large by the sequencing of sampling, the frame head sequence of each road and setting is done relevant treatment, if wherein have one tunnel relevant output valve at least greater than threshold value, then determine relevant output valve greater than minimum a road the sampling of numbering in the threshold value constantly for receiving the initial moment of pulse signal, determine that a road minimum start bit of numbering is the initial moment of frame signal; If do not have one tunnel relevant output valve greater than threshold value, the quantification envelope signal that then will import parallel duplex repeats the process of the quantification envelope signal numbering beginning of above-mentioned parallel duplex to code-element period of front slide; Definite according to lock unit more initial moment that receives pulse signal, with this sampling value and follow-up number constantly is more than or equal to 1, several sampling values less than parallel sampling way are done addition, if additive value is greater than the demodulation threshold of setting, then judgement is " 1 ", if additive value is less than the thresholding of setting, then judgement is " 0 ".
2, a kind of ultra wide band system receiver of peak value of pulse detection, comprise: reception antenna connects the input of filter amplification circuit, the output of filter amplification circuit connects the input of peak-detector circuit, the output of peak-detector circuit connects the input that quantizes sample circuit, the output that quantizes sample circuit connects the input of lock unit and the data input pin of demodulating unit, the synchronous input end of the output coupling and demodulating unit of lock unit; It is characterized in that: described peak-detector circuit adopts the tunnel diode wave detector oppositely to install: its scope is 10 pico farads connect peak-detector circuit to coupling capacitance one end of 1000 pico farads input, other end join domain at 100 nanohenrys to the inductance of 1 microhenry and the negative pole of tunnel diode wave detector (the N utmost point), the other end ground connection of inductance, the positive pole of tunnel diode wave detector (the P utmost point) join domain in 300 ohm to 20000 ohm resistance and scope at the filter capacitor of 1 pico farad to 20 pico farads, the other end ground connection of resistance and filter capacitor, the output of peak-detector circuit connects the positive pole of tunnel diode wave detector, resistance and filter capacitor; Described quantification sample circuit comprises that output that the output of high speed comparison circuit connects the input of parallel sample circuit or high speed comparison circuit connects the input of pulse extensor, and the output of pulse extensor connects the input of parallel sample circuit.
3, as the ultra wide band system receiver of peak value of pulse detection as described in the claim 2, be characterised in that described pulse extensor comprises integrated monostable multi resonant trigger or the pulse extension circuit that is made of by self-cleaning D flip-flop.
4,, be characterised in that the pulse extension circuit of described pulse extensor for constituting by self-cleaning by D flip-flop as the ultra wide band system receiver of peak value of pulse detection as described in the claim 2.
5,, be characterised in that described parallel sample circuit comprises and the high-speed sampler of line output or the digital sampling latch of parallel duplex as the ultra wide band system receiver of peak value of pulse detection as described in the claim 2.
6, as the ultra wide band system receiver of peak value of pulse detection as described in the claim 2, be characterised in that described parallel sample circuit for and the high-speed sampler of line output.
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Citations (3)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| US5337054A (en) * | 1992-05-18 | 1994-08-09 | Anro Engineering, Inc. | Coherent processing tunnel diode ultra wideband receiver |
| CN1559108A (en) * | 2001-10-02 | 2004-12-29 | �¼��¹�����ѧ | Method and apparatus for ultra wide-band communication system using multiple detectors |
| CN1611011A (en) * | 2001-05-01 | 2005-04-27 | 赛勒尼克斯私立公司 | Method and apparatus for signal detection in ultra wide-band communications |
-
2006
- 2006-05-27 CN CNB2006100859063A patent/CN100566188C/en not_active Expired - Fee Related
Patent Citations (3)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| US5337054A (en) * | 1992-05-18 | 1994-08-09 | Anro Engineering, Inc. | Coherent processing tunnel diode ultra wideband receiver |
| CN1611011A (en) * | 2001-05-01 | 2005-04-27 | 赛勒尼克斯私立公司 | Method and apparatus for signal detection in ultra wide-band communications |
| CN1559108A (en) * | 2001-10-02 | 2004-12-29 | �¼��¹�����ѧ | Method and apparatus for ultra wide-band communication system using multiple detectors |
Non-Patent Citations (1)
| Title |
|---|
| 一种高灵敏度的超宽带脉冲信号包络检测方法. 邱昕，樊孝明，郑继禹.电讯技术，第2005年卷第4期. 2005 * |
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| CN101079647A (en) | 2007-11-28 |
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