CN114204950A - High-performance broadband microwave receiving channel - Google Patents
High-performance broadband microwave receiving channel Download PDFInfo
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- CN114204950A CN114204950A CN202111449930.1A CN202111449930A CN114204950A CN 114204950 A CN114204950 A CN 114204950A CN 202111449930 A CN202111449930 A CN 202111449930A CN 114204950 A CN114204950 A CN 114204950A
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- H—ELECTRICITY
- H04—ELECTRIC COMMUNICATION TECHNIQUE
- H04B—TRANSMISSION
- H04B1/00—Details of transmission systems, not covered by a single one of groups H04B3/00 - H04B13/00; Details of transmission systems not characterised by the medium used for transmission
- H04B1/06—Receivers
- H04B1/16—Circuits
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- Y—GENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
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- Y02D—CLIMATE CHANGE MITIGATION TECHNOLOGIES IN INFORMATION AND COMMUNICATION TECHNOLOGIES [ICT], I.E. INFORMATION AND COMMUNICATION TECHNOLOGIES AIMING AT THE REDUCTION OF THEIR OWN ENERGY USE
- Y02D30/00—Reducing energy consumption in communication networks
- Y02D30/70—Reducing energy consumption in communication networks in wireless communication networks
Abstract
The invention discloses a high-performance broadband microwave receiving channel, which comprises a frequency division circuit, a mixing circuit and a local oscillator circuit, wherein the frequency division circuit is used for carrying out frequency division processing on an externally input radio frequency signal, outputting a high-frequency band radio frequency signal through a high-pass filter branch circuit, and outputting a low-frequency band radio frequency signal through a low-pass filter branch circuit; the mixer circuit includes: the low-frequency secondary mixing branch is used for carrying out twice mixing, amplification and filtering on the low-frequency signals and outputting intermediate-frequency signals corresponding to the low-frequency band; the high-frequency band primary mixing branch circuit is used for performing primary mixing, amplification and filtering on the high-frequency band signal and outputting a high-frequency band corresponding intermediate frequency signal; the local oscillation circuit provides each local oscillation source clock signal through an internal and external switching signal, outputs a two-stage local oscillation signal of a low-frequency band secondary frequency mixing branch and a local oscillation signal of a high-frequency band primary frequency mixing branch, and provides two paths of sampling clock signals to a rear-stage ultrahigh-speed receiving and sampling module. The invention has the advantages of high integration level, low stray, large dynamic range, ultra wide band and the like.
Description
Technical Field
The invention belongs to the technical field of microwaves, and particularly relates to a high-performance broadband microwave receiving channel.
Background
The broadband microwave receiving channel is core hardware equipment of broadband microwave communication, and is widely applied to the directions of broadband radar detection, satellite communication, electronic countermeasure, unmanned aerial vehicle reconnaissance and the like. The design of a broadband microwave receiving channel generally adopts a channelization technology, the bandwidth of a receiver is divided into a plurality of channels, then spurious and false signals are suppressed through up-down frequency conversion, and finally down-conversion is carried out to low intermediate frequency signals which can be demodulated by A/D sampling. With the rapid development of microwave technology, the microwave receiving channel is required to have the characteristics of high sensitivity, large dynamic, high reliability, small volume and the like.
However, the broadband microwave receiving channel has the following limitations:
1. the broadband microwave receiving channel is generally designed by adopting a channelization technology, the bandwidth of a receiver is divided into a plurality of channels, and different channels need corresponding filters for filtering, so that the broadband microwave receiving channel is large in size, complex in channel and high in cost. Meanwhile, compared with a channelized design, the system interception probability is lower, and the broadband microwave receiving channel is matched with a broadband receiver, such as a single-bit receiver, so that the performances of ultra-wideband, high sensitivity, large dynamic range, adaptability to simultaneously arriving signals and the like can be realized.
2. The input signal of the broadband microwave receiving channel back-level high-speed receiving sampling module needs to be within a certain small power range (the power range is small in quantization random jitter), the receiver input signal has a large dynamic range, and to achieve high sensitivity, the input signal needs to be compressed to a constant level range, and small signals and large signals are difficult to achieve undistorted.
In order to adapt to complex electromagnetic environment, a novel high-performance broadband microwave receiving channel with high integration level, low stray, large dynamic range and ultra-wide band is developed.
Disclosure of Invention
The invention aims to provide a high-performance broadband microwave receiving channel which is high in integration level, low in stray, large in dynamic range and ultra-wide in band.
The technical solution for realizing the purpose of the invention is as follows: a high-performance broadband microwave receiving channel comprises a frequency division circuit part, a mixing circuit part, a local oscillator circuit part and a control circuit part which are sequentially arranged, wherein:
the frequency division circuit part is used for amplifying, filtering and frequency shunting processing of externally input 2-18GHz radio frequency signals and outputting high-frequency band radio frequency signals and low-frequency band radio frequency signals;
the frequency mixing circuit part comprises a high-frequency band primary frequency mixing branch and a low-frequency band secondary frequency mixing branch, wherein the high-frequency band primary frequency mixing branch is used for carrying out primary frequency mixing, amplification and filtering on a high-frequency band radio-frequency signal and outputting a high-frequency band corresponding intermediate-frequency signal 1; the low-frequency secondary mixing branch circuit carries out secondary mixing, amplification and filtering on the low-frequency radio-frequency signal and outputs a low-frequency corresponding intermediate-frequency signal 2;
the local oscillation circuit part provides each local oscillation source clock signal through switching of internal and external 100MHz signals, and outputs a two-stage local oscillation signal of a low-frequency-band secondary frequency mixing branch and a local oscillation signal of a high-frequency-band primary frequency mixing branch;
the control circuit part provides a power supply and a control signal for the microwave circuit part.
Compared with the prior art, the invention has the remarkable advantages that: (1) the large dynamic radio frequency signal is compressed to a constant level range, and the signal stray in a channel is low, the amplitude fluctuation is small and the noise is low; (2) and simulating each stage of circuit by adopting corresponding microwave simulation design software to ensure that the link gain distribution of the whole channel is reasonable and the amplitude fluctuation is balanced. (3) The external 100MHz signal detection output judgment level is adopted to control the internal crystal oscillator or the external 100MHz signal switching. (4) The ultra-wideband, high-sensitivity, large dynamic range and adaptability to simultaneously arriving signals can be realized.
Drawings
Fig. 1 is a block diagram of a high-performance broadband microwave receiving channel according to the present invention.
Fig. 2 is a block diagram of the structure of the power supply circuit layer in the present invention.
Detailed Description
The invention relates to a high-performance broadband microwave receiving channel, which comprises a frequency division circuit part, a mixing circuit part, a local oscillator circuit part and a control circuit part which are sequentially arranged, wherein:
the frequency division circuit part is used for amplifying, filtering and frequency shunting processing of externally input 2-18GHz radio frequency signals and outputting high-frequency band radio frequency signals and low-frequency band radio frequency signals;
the frequency mixing circuit part comprises a high-frequency band primary frequency mixing branch and a low-frequency band secondary frequency mixing branch, wherein the high-frequency band primary frequency mixing branch is used for carrying out primary frequency mixing, amplification and filtering on a high-frequency band radio-frequency signal and outputting a high-frequency band corresponding intermediate-frequency signal 1; the low-frequency secondary mixing branch circuit carries out secondary mixing, amplification and filtering on the low-frequency radio-frequency signal and outputs a low-frequency corresponding intermediate-frequency signal 2;
the local oscillation circuit part provides each local oscillation source clock signal through switching of internal and external 100MHz signals, and outputs a two-stage local oscillation signal of a low-frequency-band secondary frequency mixing branch and a local oscillation signal of a high-frequency-band primary frequency mixing branch;
the control circuit part provides a power supply and a control signal for the microwave circuit part.
Furthermore, the frequency division circuit part comprises a first low noise amplifier, a first band pass filter and a first power divider which are connected in sequence, and two outputs of the first power divider are respectively connected with a first high pass filter and a first low pass filter; the first low-noise amplifier receives an externally input 2-18GHz radio frequency signal, performs first-stage amplification processing, and outputs the signal to the input end of the first power divider through the first band-pass filter; the first power divider performs frequency division processing on input signals, one output end outputs high-frequency-band radio-frequency signals through the first high-pass filter branch, and the other output end outputs low-frequency-band radio-frequency signals through the first low-pass filter branch.
Further, the low-frequency secondary mixing branch comprises a first mixer, a second band-pass filter, a first amplifier, a second amplifier, a third band-pass filter, a third amplifier, a fourth amplifier, a second low-pass filter, a second mixer, a third low-pass filter and a fifth amplifier, which are sequentially arranged;
the low-frequency band radio frequency signal input by the frequency division circuit part passes through the first mixer to be mixed to a millimeter wave band, then passes through the second band-pass filter to filter harmonic signals, then passes through the first amplifier and the second amplifier to be amplified in a multi-stage mode, the output power is limited within the power range required by the rear-end receiver, then passes through the third band-pass filter to filter harmonic signals, then passes through the third amplifier, the fourth amplifier and the second low-pass filter to be transmitted to the second mixer, and is down-converted to an intermediate frequency signal of the low-frequency band, and then passes through the third low-pass filter and the fifth amplifier to output a low-frequency band corresponding intermediate frequency signal 2.
Further, the high-frequency-band primary mixing branch comprises sixth to eighth amplifiers, a fourth low-pass filter, a ninth amplifier, a second high-pass filter, a tenth amplifier, a fifth low-pass filter, a third mixer, a sixth low-pass filter and an eleventh amplifier which are sequentially arranged;
the high-frequency band radio frequency signal input by the frequency division circuit part passes through sixth to eighth amplifiers, a fourth low-pass filter, a ninth amplifier, a second high-pass filter and a tenth amplifier, the output power is limited within the power range required by a rear-end receiver, a harmonic signal is filtered by a fifth low-pass filter, the harmonic signal is transmitted to a third mixer, the harmonic signal is down-converted to a high-frequency band intermediate frequency signal, and then the high-frequency band intermediate frequency signal is output to a high-frequency band corresponding intermediate frequency signal 1 through the sixth low-pass filter and an eleventh amplifier.
Furthermore, the local oscillator circuit part comprises a 100MHz crystal oscillator, a first switch and a second power divider which are sequentially arranged, and two outputs of the second power divider are respectively connected to a local oscillator point frequency source and a second local oscillator point frequency source;
the internal of the component is internally provided with a 100MHz crystal oscillator, and simultaneously can receive an externally input 100MHz clock signal, and the reference clock control switch is controlled by comparing the power of an external clock through a comparator, so that the switching of the internal clock and the external clock is realized;
the clock signal is transmitted to a local oscillator point frequency source and a second local oscillator point frequency source, the output end of the local oscillator point frequency source is connected to a third power divider, and the power divider is divided into two paths which are respectively used as the local oscillator signal of a high-frequency band primary frequency mixing branch and the local oscillator signal of first frequency mixing in a low-frequency band secondary frequency mixing branch; the output end of the second local oscillator point frequency source is connected with a fourth power divider, the power is divided into two paths, one path is used as a local oscillator signal of second frequency mixing in a low-frequency-band secondary frequency mixing branch, and the other path is divided into two paths by the fifth power divider as sampling clock signals of a high-frequency-band receiver and a low-frequency-band receiver.
Furthermore, the control circuit part accesses an external power supply and a control signal into the component through a J30J connector, processes the externally input power supply and the control signal, converts the input voltage into a required voltage value by using a plurality of DC-DC power supply chips and low-dropout linear voltage stabilization, receives an external parallel control signal by using a CPLD, decodes and outputs a +3.3V control signal, outputs a +5V, -5V or GND signal after transformation or inversion processing, and provides the power supply and the control signal for the microwave circuit part.
In the high-performance broadband microwave receiving channel, the mixing circuit comprises a low-frequency band secondary mixing branch and a high-frequency band primary mixing branch;
after 2-18GHz full-band signals pass through the low-noise amplifier, harmonic waves can be generated, but due to the fact that the gain of the first low-noise amplifier of the frequency division circuit is small, the generated harmonic signals are better than-40 dBc. After passing through the power divider and the high-low band-pass filter, the signals respectively enter the high-low band and the low band for processing. Because the low-frequency band signal covers a plurality of octaves, the low-frequency band signal is directly subjected to amplitude limiting amplification, a large amount of harmonic signals can be generated, and the harmonic signals can only be controlled to be about-13 dBc. In order to improve the spurious and harmonic waves of the frequency band, the frequency is up-converted to a millimeter wave frequency band through a first-stage mixer, and then is down-converted to a corresponding intermediate frequency which can be processed by a receiver through a second-stage mixer after filtering, amplitude limiting and amplification, and the harmonic signals can be controlled below-30 dBc by the scheme; the high frequency band does not span an octave, and is directly subjected to amplitude limiting amplification and filtering, and then is subjected to down-conversion to a corresponding intermediate frequency which can be processed by a post-stage receiver through a first-stage mixer, and harmonic signals can be controlled below-30 dBc. Meanwhile, the scheme ensures that the signal stray in the channel is low and the noise is low under the condition that the large dynamic radio frequency signal is compressed to a constant power range.
In the high-performance broadband microwave receiving channel, the gain of a low-frequency-band secondary mixing branch circuit included in the mixing circuit is about 2dB higher than that of a high-frequency-band primary mixing branch circuit. When harmonic signals and fundamental wave signals brought by a front-end microwave link respectively enter the high-band frequency conversion branch circuit and the low-band frequency conversion branch circuit, the rear-end receiver can output fundamental wave signals with amplitudes larger than the amplitudes of the harmonic signals, and the harmonic signal screening function is achieved according to the matching condition of the arrival time of the two signals.
In the high-performance broadband microwave receiving channel, the local oscillation circuit part detects an external input 100MHz signal through a detector and outputs the signal to the comparator, the output level of the comparator is connected to the control bit of the switch, and the internal crystal oscillator is selected to output the 100MHz signal or the external input 100MHz signal as a clock signal of each local oscillation source according to the power of the external input 100MHz signal. When the external 100MHz signal is not accessed, the switch gates the internal crystal oscillator signal, so that the number of external input signal ports is reduced, and the number of interconnection lines among devices is reduced.
In the high-performance broadband microwave receiving channel, the broadband microwave channel adopts a two-channel frequency conversion scheme, the number of channels is small, and a clock signal required by a post-stage receiver is used as a low-frequency-band second-stage local oscillation signal, so that the number of local oscillation sources is reduced. Meanwhile, a proper amplifier is selected, and high-band and low-band frequency conversion branch signals are gradually pushed to saturation output through a multi-stage amplifier, so that the phenomenon that the in-band flatness is poor due to signal power back-off in the saturation output process can be prevented. The invention realizes a miniaturized and high-performance broadband microwave channel.
The invention is described in further detail below with reference to the figures and the specific embodiments.
Examples
A high-performance broadband microwave receiving channel of the present embodiment, as shown in fig. 1, includes a frequency division circuit portion, a frequency mixing circuit portion, a local oscillation circuit portion, and a control circuit portion, which are sequentially arranged;
the frequency division circuit part comprises a first low noise amplifier, a first band-pass filter, a first power divider and a high-low band frequency division filter circuit part, and is used for amplifying, filtering and frequency shunting processing of externally input 2-18GHz radio frequency signals and outputting two high-low band radio frequency signals;
the mixing circuit part comprises a low-frequency band secondary mixing branch and a high-frequency band primary mixing branch;
the local oscillation circuit part provides each local oscillation source clock signal through internal and external 100MHz switching, and outputs a low-frequency band secondary frequency mixing branch two-stage local oscillation signal and a high-frequency band primary frequency mixing branch local oscillation signal;
the control circuit part provides a power supply and a control signal for the microwave circuit part.
Furthermore, the frequency division circuit part comprises a first low noise amplifier, a first band pass filter, a first power divider and a high-low band frequency division filter circuit part which are sequentially arranged, receives an externally input 2-18GHz radio frequency signal and performs first-stage amplification processing, and the first-stage low noise amplifier has low noise coefficient and large gain and can reduce the noise coefficient of a receiving channel. Then, after filtering pretreatment, the power is divided into two paths, and high and low band filtering is respectively carried out, so that frequency division processing is realized.
Further, the low-frequency secondary mixing branch comprises a first mixer, a first band-pass filter, a first amplifier, a second band-pass filter, a third amplifier, a fourth amplifier, a first low-pass filter, a second mixer, a second low-pass filter and a fifth amplifier, which are sequentially arranged.
The low-frequency band signal input by the frequency division circuit passes through the first mixer to be mixed to a millimeter wave band, then passes through the first band-pass filter to filter harmonic signals, then passes through multi-stage amplification and filtering to limit the output power within a small power range required by a rear-end receiver, then passes through the first band-pass filter to filter harmonic signals, and is transmitted to the second mixer to be down-converted to a low-frequency band intermediate frequency signal 2.
Further, the high-frequency-band primary mixing branch comprises a first amplifier, a first low-pass filter, a second amplifier, a first high-pass filter, a third amplifier, a second low-pass filter, a first mixer, a third low-pass filter and a fourth amplifier which are sequentially arranged.
High-frequency band signals input by the frequency division circuit are subjected to multistage amplification and filtering, the output power is limited within a small power range required by a rear-end receiver, harmonic signals are filtered by a low-pass filter, transmitted to a first mixer and down-converted to high-frequency band intermediate frequency signals 1.
Further, the local oscillator circuit part comprises a 100MHz crystal oscillator, a first switch, a first power divider, a first local oscillator frequency source, a second local oscillator frequency source, an amplifier, a power divider, and the like, which are sequentially arranged. The internal 100MHz crystal oscillator of this subassembly, also can receive external input 100MHz clock signal simultaneously, compare external clock power size control reference clock control switch through the comparator, realize inside and outside clock switching. And the clock signal is transmitted to a local oscillator point frequency source and a second local oscillator point frequency source to generate two-stage local oscillator signals, and the two-stage local oscillator signals are output to the low-frequency-band secondary frequency mixing branch as local oscillator signals corresponding to two-stage frequency conversion and a high-frequency-band primary frequency mixing branch as local oscillator signals corresponding to one-stage frequency mixing. Meanwhile, the two local oscillator point frequency source is divided into two paths through a one-to-two power divider, and the two paths are used as sampling clock signals of the high-low frequency band receiver.
Further, the control circuit portion, as shown in fig. 2, accesses an external power supply and a control signal into the inside of the component through a J30J connector, processes the externally input power supply and control signal, converts the input voltage into a required voltage value using a plurality of DC-DC power chips and low dropout linear voltage regulation, receives an external parallel control signal using a CPLD, decodes and outputs a +3.3V control signal, outputs a +5V, -5V or GND signal after transformation or inversion, and provides the power supply and control signal for the microwave circuit portion.
In summary, the circuit of the invention divides the frequency of the 2-18GHz signal into two sections through the design of the broadband receiving channel, and respectively outputs the frequency-divided signals from the two sections to the low-intermediate frequency signal through down conversion, and has the advantages of high integration level, low stray, large dynamic range, high reliability and the like. The above description is only for the preferred embodiment of the present invention, and is not intended to limit the scope of the present invention. Any modification, equivalent replacement, or improvement made within the spirit and principle of the present invention should be included in the protection scope of the present invention.
Claims (6)
1. The utility model provides a high performance broadband microwave receiving channel which characterized in that, includes frequency division circuit part, mixing circuit part, local oscillator circuit part and the control circuit part that sets up in order, wherein:
the frequency division circuit part is used for amplifying, filtering and frequency shunting processing of externally input 2-18GHz radio frequency signals and outputting high-frequency band radio frequency signals and low-frequency band radio frequency signals;
the frequency mixing circuit part comprises a high-frequency band primary frequency mixing branch and a low-frequency band secondary frequency mixing branch, wherein the high-frequency band primary frequency mixing branch is used for carrying out primary frequency mixing, amplification and filtering on a high-frequency band radio-frequency signal and outputting a high-frequency band corresponding intermediate-frequency signal 1; the low-frequency secondary mixing branch circuit carries out secondary mixing, amplification and filtering on the low-frequency radio-frequency signal and outputs a low-frequency corresponding intermediate-frequency signal 2;
the local oscillation circuit part provides each local oscillation source clock signal through switching of internal and external 100MHz signals, and outputs a two-stage local oscillation signal of a low-frequency-band secondary frequency mixing branch and a local oscillation signal of a high-frequency-band primary frequency mixing branch;
the control circuit part provides a power supply and a control signal for the microwave circuit part.
2. The high-performance broadband microwave receiving channel of claim 1, wherein the frequency division circuit portion comprises a first low noise amplifier, a first band pass filter, and a first power divider connected in sequence, and two outputs of the first power divider are respectively connected to a first high pass filter and a first low pass filter; the first low-noise amplifier receives an externally input 2-18GHz radio frequency signal, performs first-stage amplification processing, and outputs the signal to the input end of the first power divider through the first band-pass filter; the first power divider performs frequency division processing on input signals, one output end outputs high-frequency-band radio-frequency signals through the first high-pass filter branch, and the other output end outputs low-frequency-band radio-frequency signals through the first low-pass filter branch.
3. The high-performance broadband microwave receiving channel of claim 1, wherein the low-band secondary mixing branch comprises a first mixer, a second band-pass filter, a first amplifier, a second amplifier, a third band-pass filter, a third amplifier, a fourth amplifier, a second low-pass filter, a second mixer, a third low-pass filter and a fifth amplifier, which are arranged in sequence;
the low-frequency band radio frequency signal input by the frequency division circuit part passes through the first mixer to be mixed to a millimeter wave band, then passes through the second band-pass filter to filter harmonic signals, then passes through the first amplifier and the second amplifier to be amplified in a multi-stage mode, the output power is limited within the power range required by the rear-end receiver, then passes through the third band-pass filter to filter harmonic signals, then passes through the third amplifier, the fourth amplifier and the second low-pass filter to be transmitted to the second mixer, and is down-converted to an intermediate frequency signal of the low-frequency band, and then passes through the third low-pass filter and the fifth amplifier to output a low-frequency band corresponding intermediate frequency signal 2.
4. The high-performance broadband microwave receiving channel of claim 1, wherein the high-frequency band primary mixing branch comprises sixth to eighth amplifiers, a fourth low-pass filter, a ninth amplifier, a second high-pass filter, a tenth amplifier, a fifth low-pass filter, a third mixer, a sixth low-pass filter and an eleventh amplifier, which are sequentially arranged;
the high-frequency band radio frequency signal input by the frequency division circuit part passes through sixth to eighth amplifiers, a fourth low-pass filter, a ninth amplifier, a second high-pass filter and a tenth amplifier, the output power is limited within the power range required by a rear-end receiver, a harmonic signal is filtered by a fifth low-pass filter, the harmonic signal is transmitted to a third mixer, the harmonic signal is down-converted to a high-frequency band intermediate frequency signal, and then the high-frequency band intermediate frequency signal is output to a high-frequency band corresponding intermediate frequency signal 1 through the sixth low-pass filter and an eleventh amplifier.
5. The high-performance broadband microwave receiving channel according to claim 1, wherein the local oscillator circuit portion includes a 100MHz crystal oscillator, a first switch, and a second power divider, which are sequentially arranged, and two outputs of the second power divider are respectively connected to a local oscillator frequency source and a second local oscillator frequency source;
the internal of the component is internally provided with a 100MHz crystal oscillator, and simultaneously can receive an externally input 100MHz clock signal, and the reference clock control switch is controlled by comparing the power of an external clock through a comparator, so that the switching of the internal clock and the external clock is realized;
the clock signal is transmitted to a local oscillator point frequency source and a second local oscillator point frequency source, the output end of the local oscillator point frequency source is connected to a third power divider, and the power divider is divided into two paths which are respectively used as the local oscillator signal of a high-frequency band primary frequency mixing branch and the local oscillator signal of first frequency mixing in a low-frequency band secondary frequency mixing branch; the output end of the second local oscillator point frequency source is connected with a fourth power divider, the power is divided into two paths, one path is used as a local oscillator signal of second frequency mixing in a low-frequency-band secondary frequency mixing branch, and the other path is divided into two paths by the fifth power divider as sampling clock signals of a high-frequency-band receiver and a low-frequency-band receiver.
6. The high-performance broadband microwave receiving channel according to claim 1, wherein the control circuit portion accesses an external power supply and a control signal into the inside of the component through a J30J connector, processes the externally input power supply and control signal, converts the input voltage into a required voltage value using a plurality of DC-DC power supply chips and low-dropout linear regulator, receives an external parallel control signal using a CPLD, decodes and outputs a +3.3V control signal, and outputs a +5V, -5V or GND signal after transformation or inversion processing, thereby providing the power supply and control signal for the microwave circuit portion.
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Cited By (2)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN115225106A (en) * | 2022-05-16 | 2022-10-21 | 河北东森电子科技有限公司 | Ultra-wideband Ka frequency band transceiving method |
| CN115441938A (en) * | 2022-09-07 | 2022-12-06 | 中国电子科技集团公司第五十四研究所 | Miniaturized Q frequency channel dual-channel down converter |
Citations (8)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| US20110244820A1 (en) * | 2008-11-25 | 2011-10-06 | Ramin Khoini-Poorfard | Integrated Receivers and Integrated Circuit Having Integrated Inductors |
| CN103731170A (en) * | 2013-12-19 | 2014-04-16 | 天津光电通信技术有限公司 | High-performance monitoring receiver radio frequency front end design method |
| CN104320150A (en) * | 2014-10-24 | 2015-01-28 | 上海无线电设备研究所 | Ultra-wideband microwave receiver and signal segment processing method thereof |
| CN206629051U (en) * | 2017-03-10 | 2017-11-10 | 南京特艺科技有限公司 | A kind of frequency synthesizer |
| CN112564627A (en) * | 2020-11-26 | 2021-03-26 | 扬州船用电子仪器研究所(中国船舶重工集团公司第七二三研究所) | Integrated multifunctional up-conversion assembly |
| CN213783247U (en) * | 2020-12-31 | 2021-07-23 | 扬州健行电子科技有限公司 | Four-channel frequency conversion assembly |
| CN113225021A (en) * | 2021-04-30 | 2021-08-06 | 西南电子技术研究所（中国电子科技集团公司第十研究所） | Ultra-wideband constant-temperature down converter |
| CN113225022A (en) * | 2021-04-30 | 2021-08-06 | 西南电子技术研究所（中国电子科技集团公司第十研究所） | Ultra-wideband up-converter |
-
2021
- 2021-11-30 CN CN202111449930.1A patent/CN114204950B/en active Active
Patent Citations (8)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| US20110244820A1 (en) * | 2008-11-25 | 2011-10-06 | Ramin Khoini-Poorfard | Integrated Receivers and Integrated Circuit Having Integrated Inductors |
| CN103731170A (en) * | 2013-12-19 | 2014-04-16 | 天津光电通信技术有限公司 | High-performance monitoring receiver radio frequency front end design method |
| CN104320150A (en) * | 2014-10-24 | 2015-01-28 | 上海无线电设备研究所 | Ultra-wideband microwave receiver and signal segment processing method thereof |
| CN206629051U (en) * | 2017-03-10 | 2017-11-10 | 南京特艺科技有限公司 | A kind of frequency synthesizer |
| CN112564627A (en) * | 2020-11-26 | 2021-03-26 | 扬州船用电子仪器研究所(中国船舶重工集团公司第七二三研究所) | Integrated multifunctional up-conversion assembly |
| CN213783247U (en) * | 2020-12-31 | 2021-07-23 | 扬州健行电子科技有限公司 | Four-channel frequency conversion assembly |
| CN113225021A (en) * | 2021-04-30 | 2021-08-06 | 西南电子技术研究所（中国电子科技集团公司第十研究所） | Ultra-wideband constant-temperature down converter |
| CN113225022A (en) * | 2021-04-30 | 2021-08-06 | 西南电子技术研究所（中国电子科技集团公司第十研究所） | Ultra-wideband up-converter |
Cited By (4)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN115225106A (en) * | 2022-05-16 | 2022-10-21 | 河北东森电子科技有限公司 | Ultra-wideband Ka frequency band transceiving method |
| CN115225106B (en) * | 2022-05-16 | 2023-12-01 | 河北东森电子科技有限公司 | Ultra-wideband Ka frequency band receiving and transmitting method |
| CN115441938A (en) * | 2022-09-07 | 2022-12-06 | 中国电子科技集团公司第五十四研究所 | Miniaturized Q frequency channel dual-channel down converter |
| CN115441938B (en) * | 2022-09-07 | 2023-11-14 | 中国电子科技集团公司第五十四研究所 | Miniaturized Q frequency channel down converter |
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