CN201773946U - Antenna beam tracking apparatus of satellite communication system realizing communication in motion - Google Patents
Antenna beam tracking apparatus of satellite communication system realizing communication in motion Download PDFInfo
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- CN201773946U CN201773946U CN2010202823918U CN201020282391U CN201773946U CN 201773946 U CN201773946 U CN 201773946U CN 2010202823918 U CN2010202823918 U CN 2010202823918U CN 201020282391 U CN201020282391 U CN 201020282391U CN 201773946 U CN201773946 U CN 201773946U
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Abstract
The utility model discloses an antenna beam tracking apparatus of a satellite communication system realizing communication in motion, which comprises a geographical position detecting unit, a carrier posture detecting unit, a signal strength detecting unit, a signal conditioning circuit and a master control computer. The geographical position detecting unit detects longitude and latitude of a mobile carrier at real time, the carrier posture detecting unit detects posture information of the mobile carrier at real time, the signal strength detecting unit detects strength of receiving signals transmitted to a communication equipment receiver from mobile ground station antennas at real time, the master control computer estimates gradient of mobile ground station antenna beams aligned to an objective satellite and correspondingly controls a servo driver, and the servo driver controls an orientation and pitching motor which drives an azimuth axis and a pitching axis of the mobile ground station antennas. The antenna beam tracking apparatus is simple in design, low in cost, simple and convenient in operation, high in tracking precision and fast in tracking speed, does not need to change a hardware structure of the original tracking system, and overcomes shortages that the existing antenna beam is inconvenient in operation, complex in tracking steps, lower in tracking precision, slow in tracking speed and the like when tracking objective satellites.
Description
Technical field
The utility model belongs to satellite communication system antenna beam tracking technique field, especially relates to a kind of communication in moving satellite communication system antenna beam tracking means.
Background technology
Along with economic globalization and informationalized development, people press for when reaching special circumstances on the road such as earthquake relief work etc. Anywhere, can both transmit or receive multimedia messagess such as broadband, jumbo voice, data, image, video in real time any time so as faster, grasp the fast changing current political situation more accurately.Satellite communication is unique communication system that the different business demand can be provided under varying environment simultaneously.But the bandwidth of distributing to mobile satellite service owing to ITU is lower, is difficult to satisfy the demand of wideband communications service." communication in moving " communication system based on fixed-satellite service provides possibility for this desirable realization.The communication in moving satellite communication system is meant that the mobile vehicle (as automobile, train, aircraft, steamer etc.) that satellite antenna is installed can set up communication link with fixed statellite (being geosynchronous satellite-target satellite) and can keep the unimpeded system with the realization real time communication of communication link in the process of carrier rapid movement.Because fixed statellite, therefore will be realized mobile vehicle apart from the distance on ground far (about 36000 kilometers) and communicate by letter with the wideband multimedia between fixed statellite, just must adopt the directional antenna of high-gain.Because the wave beam of this antenna is very narrow, guarantee that mobile vehicle can carry out normal continual communication with fixed statellite in the rapid movement process, then must make antenna beam all the time with certain precision to satelloid.
In the actual use, the main cause that influences communication in moving satellite communication system performance comprises the athletic posture and the system keeps track ability of mobile vehicle, want to realize satellite communication proper communication all the time in motion process, the antenna beam of communication in moving satellite communication system must be in the orientation, pitching and three axles of polarization carry out precision tracking control simultaneously.The tracking technique of fixed satellite communication ground station is widely known by the people, as manually/program tracking, stepping tracking, conical scanning tracking and single-pulse track etc., the three kinds of track algorithms in back are after capturing satellite-signal, energy is tracking satellite automatically, thereby be collectively referred to as automatic tracking technique, though these three kinds of automatic tracking techniques can be applied to the design of communication in moving tracking system, but restricting popularizing and using of system in varying degrees, realization as conical scanning and single-pulse track must be introduced extra device, will increase the complexity and the cost of system; Traditional stepping follow the tracks of have dynamic lag, tracking accuracy is lower, tracking velocity waits defective and deficiency more slowly.Disclosed a kind of tracking that is applicable to movable satellite ground station system among the disclosed utility application CN1469132A on January 21st, 2004 (number of patent application is 02126611.5) based on gradient method, for carrying out, yet the process of its tracking operates inconvenience in orientation and pitching hand-deliver.
The utility model content
Technical problem to be solved in the utility model is at above-mentioned deficiency of the prior art, a kind of communication in moving satellite communication system antenna beam tracking means is provided, the hardware configuration that its simplicity of design, cost be low, need not change original tracking system and easy and simple to handle, tracking accuracy is high, tracking velocity is fast, operation inconvenience, the tracking step that has existed when having overcome existing antenna beam tracking target satellite is loaded down with trivial details, tracking accuracy is lower and tracking velocity waits deficiency more slowly.
For solving the problems of the technologies described above, the technical solution adopted in the utility model is: a kind of communication in moving satellite communication system antenna beam tracking means, it is characterized in that: comprise the geographical position detecting unit that the longitude and latitude that carries mobile ground station antenna mobile vehicle of living in is detected in real time, the attitude of carrier detecting unit that the attitude information of described mobile vehicle is detected in real time, the mobile ground station antenna is sent to the signal strength detection unit that the intensity of the received signal of communication apparatus receiver detects in real time, respectively with described geographical position detecting unit, the signal conditioning circuit that attitude of carrier detecting unit and signal strength detection unit join and join with described signal conditioning circuit and utilize the stochastic approximation of disturbance simultaneously method that the gradient of the antenna beam target satellite of mobile ground station antenna is estimated and tackle the main control computer that servo-driver is controlled mutually, described servo-driver is controlled the azimuth axis that drives the mobile ground station antenna respectively and the azimuth-drive motor and the pitching motor of pitch axis, and described main control computer and servo-driver join.
Above-mentioned communication in moving satellite communication system antenna beam tracking means, it is characterized in that: described geographical position detecting unit is the GPS navigation system.
Above-mentioned communication in moving satellite communication system antenna beam tracking means, it is characterized in that: described attitude of carrier detecting unit is a gyroscope.
Above-mentioned communication in moving satellite communication system antenna beam tracking means, it is characterized in that: described signal conditioning circuit is the A/D change-over circuit.
Above-mentioned communication in moving satellite communication system antenna beam tracking means is characterized in that: the tuner that described signal strength detection unit pair and mobile ground station antenna join and the intensity of the received signal between the communication apparatus receiver detect in real time.
The utility model compared with prior art has the following advantages:
1, low, hardware configuration that need not change original tracking system of simplicity of design, easy-to-connect, cost and result of use good, be easy to apply
2, used tracking is reasonable in design, intelligent degree is high and easy and simple to handle, its tracing process is specially utilizes the stochastic approximation of disturbance simultaneously method that the gradient of communication in moving antenna beam satellite is estimated, and the measured value when estimating (each only be with for twice measured value of the signal strength signal intensity of noise to estimate) of the signal strength signal intensity of band noise during in conjunction with twice different sensing the in the front and back of antenna beam in the random perturbation adjustment process with front and back in the random disturbances adjustment process, form error signal by the main control computer inter-process, driving servo system, to make antenna beam be that gradient direction is adjusted and the tracking target satellite antenna beam at azimuth plane and pitching face with the steepest ascent direction of received signal simultaneously.
3, tracking effect is good, tracking accuracy is high, tracking velocity is fast and simple, realization convenience, after main control computer is finished initial acquisition, utilize the communication in moving satellite communication system antenna beam tracking tracking target satellite of the stochastic approximation of disturbance simultaneously method, and judge satellite-signal whether to lose and enter the reacquisition stage after signal recover to receive, reenter the tracking phase that adopts communication in moving satellite communication system antenna beam tracking again.System automaticallyes switch between two stages at initial acquisition or reacquisition sections and tracking phase, finishes the catching and following the tracks of target satellite of communication in moving satellite communication system antenna beam.
4, applied widely and be easy to apply, initial acquisition or reacquisition stage produce control voltage by main control computer according to the azimuth and the angle of pitch of the antenna beam that calculates, and drive servo system and carry out volume-search coverage; And the tracking error signal of tracking phase is obtained by the communication in moving satellite communication system antenna beam tracking calculating of main control computer by the stochastic approximation of disturbance simultaneously method, and simultaneously orientation and following in elevation are handled, thereby the utility model is specially adapted to the Satellite Tracking process in the mobile vehicles such as vehicle-mounted, airborne, boat-carrying.
In sum, the utility model simplicity of design, cost is low, need not change the hardware configuration of original tracking system and use easy and simple to handle, the tracking accuracy height, tracking velocity is fast, simple, it utilizes the stochastic approximation of disturbance simultaneously method that the gradient of antenna beam satellite in the communication in moving communication system is estimated, and the azimuth plane and the pitching face of antenna beam are adjusted simultaneously according to the value of estimating, make the steepest ascent direction tracking target satellite of antenna beam, existing use operation inconvenience when having overcome in the communication in moving communication system antenna beam tracking target satellite with received signal, the tracking complex steps, lower and the tracking velocity of tracking accuracy waits defective and deficiency more slowly.
Below by drawings and Examples, the technical solution of the utility model is described in further detail.
Description of drawings
Fig. 1 is a schematic block circuit diagram of the present utility model.
Fig. 2 is a using method flow chart of the present utility model.
Description of reference numerals:
The 1-GPS navigation system; The 2-gyroscope; 3-mobile ground station antenna;
The 4-satellite television; 5-communication apparatus receiver; 6-signal strength detection unit;
The 7-main control computer; The 8-A/D change-over circuit; The 9-servo-driver;
The 10-azimuth-drive motor; The 11-pitching motor; The 12-tuner.
Embodiment
A kind of communication in moving satellite communication system antenna beam tracking means as shown in Figure 1, comprise the geographical position detecting unit that the longitude and latitude that carries mobile ground station antenna 3 mobile vehicles of living in is detected in real time, the attitude of carrier detecting unit that the attitude information of described mobile vehicle is detected in real time, mobile ground station antenna 3 is sent to the signal strength detection unit 6 that the intensity of the received signal of communication apparatus receiver 5 detects in real time, respectively with described geographical position detecting unit, the signal conditioning circuit that attitude of carrier detecting unit and signal strength detection unit 6 join and join with described signal conditioning circuit and utilize the stochastic approximation of disturbance simultaneously method that the main control computer 7 that servo-driver 9 is controlled is estimated and tackled mutually to the gradient of the antenna beam target satellite of mobile ground station antenna 3,9 pairs of described servo-drivers drive the azimuth axis of mobile ground station antenna 3 respectively and the azimuth-drive motor 10 and the pitching motor 11 of pitch axis carries out drive controlling, and described main control computer 7 joins with servo-driver 9.The power output shaft of described azimuth-drive motor 10 and pitching motor 11 joins with the azimuth axis and the pitch axis of described mobile ground station antenna 3 respectively by transmission mechanism, and described servo-driver 9 joins with azimuth-drive motor 10 and pitching motor 11 respectively.
In the present embodiment, described geographical position detecting unit is a GPS navigation system 1, and described attitude of carrier detecting unit is a gyroscope 2, and described signal conditioning circuit is an A/D change-over circuit 8.The tuner 12 that 6 pairs of described signal strength detection unit and mobile ground station antenna 3 join and the intensity of the received signal between the communication apparatus receiver 5 detect in real time.
In conjunction with Fig. 2, the course of work of the present utility model may further comprise the steps:
101, information detects and synchronous driving in real time: described geographical position detecting unit, attitude of carrier detecting unit and signal strength detection unit 6 detect in real time to the intensity that the attitude and the mobile ground station antenna 3 of the longitude and latitude of described mobile vehicle, described mobile vehicle is sent to the received signal of communication apparatus receiver 5 respectively, and with institute's detection signal synchronous driving to after described signal conditioning circuit handles, be uploaded to main control computer 7 more synchronously;
102, the azimuth of target of antenna direction target satellite and the target angle of pitch calculate: main control computer 7 calls the angle calculation module and according to formula
Synchronometer is calculated the azimuth of target Az and the target angle of pitch El of the antenna beam target satellite of mobile ground station antenna 3, and azimuth of target Az and the target angle of pitch El that is calculated deposited in the memory cell synchronously, and azimuth of target and target angle of pitch information that memory cell is stored are carried out real-time update; In the formula, Δ φ=φ
S-φ
G, r is earth radius and r=6378km, R is height and the R=42218km of target satellite apart from earth the earth's core; Wherein, φ
SBe the substar longitude of target satellite, φ
GAnd ψ
GBe respectively the longitude and the latitude of the detected current present position of described mobile vehicle of the detecting unit of geographical position described in the step 101; In azimuth of target Az and the target angle of pitch El computational process, azimuth of target Az is zero degree and clockwise direction for just with positive north, and target angle of pitch El is zero degree and horizontal plane top with the horizontal direction for just;
103, search: main control computer 7 according to the azimuth of target Az that calculates with the angle of target angle of pitch El and after the inter-process computing, tackle servo-driver 9 mutually and control, and carry out drive controlling by 9 pairs of azimuth-drive motors 10 of servo-driver and pitching motor 11, the sensing of the antenna beam of mobile ground station antenna 3 is adjusted and is made near the spatial domain of antenna beam azimuth of target Az and target angle of pitch El of mobile ground station antenna 3 search for, and in the search procedure, main control computer 7 calls the difference comparison module in real time to the output voltage U of communication apparatus receiver 5
IoCarry out difference relatively, work as output voltage U
Io＞predeterminated voltage U
0The time, mobile ground station antenna 3 the antenna beam satellite that aimed at the mark this moment is described, then change step 2 over to and enter tracking phase.
201, initial parameter setting, object vector value generate automatically and the parameter storage with upgrade: azimuth of target Az and target angle of pitch El that main control computer 7 calls vectorial generation module and calculated according to main control computer 7 in this moment step 102 generate the vector value at the antenna beam target directing angle of mobile ground station antenna 3 automatically
And with the vector value at the antenna beam target directing angle that generates
Deposit in the memory cell synchronously; Simultaneously, main control computer 7 call parameters computing modules and respectively according to formula a
k=a/ (A+k+1)
αAnd c
k=c/ (k+1)
γTo step-length controlling elements a
kWith small size disturbed value c
kCalculate, and result of calculation is deposited in the memory cell synchronously, in the formula, k is that interior tracking step number of being stored of current memory cell and the initial value of k get 0, and parameter a, c, A, α and γ all set in advance.
Wherein, parameter a and c have influenced step-length controlling elements a
kWith small size disturbed value c
kSize, value is being for just, and the value of parameter a and c can not obtain too big and can not make the adjustment amount of antenna beam and the half beam width that disturbed value exceeds antenna, otherwise the adjustment amount of antenna beam and disturbed value will exceed the half beam width of antenna; A is the algorithm stability constant, also be taken as on the occasion of; α and γ generally are taken as 0.602 and 0.101 or 1 and 1/6.
202, the random vector of disturbance simultaneously Δ
kGenerate: main control computer 7 calls the perturbation vector generation module and adopts Monte Carlo method to generate a n dimension disturbance simultaneously random vector Δ
k=(Δ
K1, Δ
K2Δ
Kn)
T, the random vector of the disturbance simultaneously Δ that generates
kIn n element independent mutually and its be the zero-mean vector, i.e. E{ Δ
Ki}=0, i=1 wherein, 2...n.
203, controlling antenna wave beam to point disturbance driving and received signal intensity synchro measure: main control computer 7 is disturbance random vector Δ when generating in the step 202
kWith small size disturbed value c
kFront and back twice disturbance carried out in the sensing of mobile ground station antenna 3 antenna beams driven, and controlling antenna wave beam to point is carried out the disturbance adjustment amount that twice disturbance drive be respectively+Δ
kC
kWith-Δ
kC
kIn the controlling antenna wave beam to point disturbance driving process, main control computer 7 carries out disturbance to the controlling antenna wave beam to point of mobile ground station antenna 3 and drives according to the disturbance adjustment amount that calculates and by servo-driver 9 being controlled realization; Simultaneously, in the controlling antenna wave beam to point disturbance driving process, drive the intensity that back mobile ground station antenna 3 is sent to the received signal of communication apparatus receiver 5 by twice disturbance in 6 pairs of front and back, signal strength detection unit
With
Detect, and deposit testing result in memory cell synchronously, in the formula
The vector value at the current sensing of antenna beam angle when following the tracks of for the k step of being stored in the current memory cell.
204, gradient is estimated: main control computer 7 is according to formula
To needing in next step tracing process the Grad that the antenna beam of mobile ground station antenna 3 is adjusted is estimated.
205, tracking error signal is determined and the controlling antenna wave beam to point adjustment: main control computer 7 is according to formula
And a that obtains in the integrating step 201
kWith obtained in the step 204
Calculate the tracking error signal of mobile ground station antenna 3 in this step tracing process
In the formula
With
Be respectively the vector value of in this step controlling antenna wave beam to point being adjusted controlling antenna wave beam to point angle, front and back; And the tracking error signal that main control computer 7 corresponding bases are calculated
And the controlling antenna wave beam to point of mobile ground station antenna 3 being adjusted, and the feasible vector value of adjusting aft antenna beam position angle by servo-driver 9 is controlled realization
Level off to the vector value at the antenna beam target directing angle described in the step 201
206, received signal is judged: after treating in the step 205 the controlling antenna wave beam to point adjustment of mobile ground station antenna 3 finished, main control computer 7 judges whether exist on the mobile ground station antenna 3 and the corresponding received signal of target satellite according to 6 detection signals in signal strength detection unit this moment: when judgement draws when having received signal on the mobile ground station antenna 3, then with k+1 and
Respectively unloading be k and
After deposit memory cell in, to the tracking number of times k in the memory cell and the vector value of controlling antenna wave beam to point
Carry out real-time update, and return step 201 and carry out next step tracking; Otherwise, change step 3 over to and carry out reacquisition.
In the actual use, the mobile ground station antenna 3 described in the step 1 is parabolic antenna or phased array antenna.In the present embodiment, described mobile ground station antenna 3 is a parabolic antenna, and communication apparatus receiver 5 is a satellite television receiver, and corresponding target satellite is No. 9 satellites of culminant star, and described satellite television receiver and satellite television 4 join.
In the present embodiment, disturbance random vector Δ when generating in the step 203
kDimension n=2, disturbance random vector Δ when then generating
k=(Δ
K1, Δ
K2)
T, and the two dimension disturbance simultaneously random vector Δ that is generated
kIn 2 elements independent mutually and its be the zero-mean vector, i.e. E{ Δ
Ki}=0, i=1 wherein, 2.And, described two dimension disturbance simultaneously random vector Δ
kFor probability is that 1/2 Bernoulli Jacob ± 1 distributes, promptly described two dimension disturbance simultaneously random vector Δ
kBe two elements be respectively ± probability of 1 and two element is 1/2 Bernoulli Jacob and distributes.In the actual application, can also be according to the concrete needs of reality, to while disturbance random vector Δ
kDimension n adjust and disturbance random vector generation method when can select other type for use.
In the present embodiment, when correspondingly carrying out controlling antenna wave beam to point disturbance driving and received signal intensity synchro measure in the step 204, main control computer 7 is disturbance random vector Δ according to generation the time
kThe branch both sides time are adjusted simultaneously to the sensing of mobile ground station antenna 3 antenna beams, twice adjustment blanking time length and system itself very big relation is arranged, when parabolic antenna adopted mechanically operated mode, the time interval will be longer; Phased array antenna adopts the mode of electric drive, and the time interval is just very short.
In the present embodiment, when carrying out controlling antenna wave beam to point disturbance driving and received signal intensity synchro measure in the step 203, the controlling antenna wave beam to point of mobile ground station antenna 3 is carried out 2 disturbances drive and adjust by servo-driver 9 being controlled realization, the disturbance of controlling antenna wave beam to point is driven adjustment amount is corresponding to be respectively+Δ
kC
kWith-Δ
kC
kWhen adjusting, main control computer 7 drives adjustment amount+Δ according to the disturbance of calculating
kC
kWith-Δ
kC
kControlling antenna wave beam to point to mobile ground station antenna 3 carries out the disturbance driving.In the controlling antenna wave beam to point disturbance driving process, drive by the signal strength detection unit 6 pairs of first time and disturbance for the second time and to move the intensity E that earth station antenna 3 is sent to the received signal of communication apparatus receiver 5 when finishing
K1And E
K2Detect, and testing result is deposited in the memory cell synchronously.And carrying out gradient in the step 205 when estimating, main control computer 7 is according to formula
To need the Grad that the antenna beam of mobile ground station antenna 3 is adjusted is estimated in the tracing process next time.
The above; it only is preferred embodiment of the present utility model; be not that the utility model is imposed any restrictions; everyly any simple modification that above embodiment did, change and equivalent structure are changed, all still belong in the protection range of technical solutions of the utility model according to the utility model technical spirit.
Claims (5)
1. communication in moving satellite communication system antenna beam tracking means, it is characterized in that: comprise the geographical position detecting unit that the longitude and latitude that carries mobile ground station antenna (3) mobile vehicle of living in is detected in real time, the attitude of carrier detecting unit that the attitude information of described mobile vehicle is detected in real time, mobile ground station antenna (3) is sent to the signal strength detection unit (6) that the intensity of the received signal of communication apparatus receiver (5) detects in real time, respectively with described geographical position detecting unit, the signal conditioning circuit that attitude of carrier detecting unit and signal strength detection unit (6) join and join with described signal conditioning circuit and utilize the stochastic approximation of disturbance simultaneously method that the main control computer (7) that servo-driver (9) is controlled is estimated and tackled mutually to the gradient of the antenna beam target satellite of mobile ground station antenna (3), described servo-driver (9) carries out drive controlling to the azimuth axis that drives mobile ground station antenna (3) respectively and the azimuth-drive motor (10) and the pitching motor (11) of pitch axis, and described main control computer (7) joins with servo-driver (9).
2. according to the described communication in moving satellite communication system of claim 1 antenna beam tracking means, it is characterized in that: described geographical position detecting unit is GPS navigation system (1).
3. according to claim 1 or 2 described communication in moving satellite communication system antenna beam tracking means, it is characterized in that: described attitude of carrier detecting unit is gyroscope (2).
4. according to claim 1 or 2 described communication in moving satellite communication system antenna beam tracking means, it is characterized in that: described signal conditioning circuit is A/D change-over circuit (8).
5. according to claim 1 or 2 described communication in moving satellite communication system antenna beam tracking means, it is characterized in that: described signal strength detection unit (6) to and the tuner (12) that joins of mobile ground station antenna (3) and the intensity of the received signal between the communication apparatus receiver (5) detect in real time.
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| CN101916915A (en) * | 2010-08-04 | 2010-12-15 | 中国人民解放军第二炮兵工程学院 | Antenna beam tracking device and method of moving communication satellite communication system |
| CN103022692A (en) * | 2012-11-14 | 2013-04-03 | 广东隆伏通讯设备有限公司 | Communication-in-motion satellite pointing, capturing and tracking method and system thereof |
| CN103022691A (en) * | 2012-11-14 | 2013-04-03 | 广东隆伏通讯设备有限公司 | Novel communication-in-motion low-profile planar antenna system |
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| CN106443738A (en) * | 2016-09-06 | 2017-02-22 | 广东高云半导体科技股份有限公司 | Tracking method for communication in moving antenna |
| CN106597473A (en) * | 2015-12-22 | 2017-04-26 | 中国电子科技集团公司第二十研究所 | Antenna tracking and self-calibration apparatus and method for satellite communications among stations |
| CN106899334A (en) * | 2017-04-13 | 2017-06-27 | 北京墨丘科技有限公司 | A kind of communication means and device |
| CN109075442A (en) * | 2016-05-04 | 2018-12-21 | 康普技术有限责任公司 | The system and method for adjusting the antenna beam on mast |
| CN109547094A (en) * | 2018-12-06 | 2019-03-29 | 安徽站乾科技有限公司 | A kind of ground station tracking based on satellite communication |
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| CN101916915A (en) * | 2010-08-04 | 2010-12-15 | 中国人民解放军第二炮兵工程学院 | Antenna beam tracking device and method of moving communication satellite communication system |
| CN101916915B (en) * | 2010-08-04 | 2013-06-19 | 中国人民解放军第二炮兵工程学院 | Antenna beam tracking device and method of moving communication satellite communication system |
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| CN103022692B (en) * | 2012-11-14 | 2014-09-17 | 广东隆伏通讯设备有限公司 | Communication-in-motion satellite pointing, capturing and tracking method and system thereof |
| CN103022691B (en) * | 2012-11-14 | 2014-10-29 | 广东隆伏通讯设备有限公司 | Novel communication-in-motion low-profile planar antenna system |
| CN104506227A (en) * | 2014-11-28 | 2015-04-08 | 南京中网卫星通信股份有限公司 | Automatic satellite searching and network accessing device and method for IP-star satellite system |
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| CN106443738A (en) * | 2016-09-06 | 2017-02-22 | 广东高云半导体科技股份有限公司 | Tracking method for communication in moving antenna |
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| CN111224240A (en) * | 2020-01-13 | 2020-06-02 | 深圳市星网荣耀科技有限公司 | Satellite antenna automatic satellite alignment method capable of achieving rapid convergence |
| CN113300757A (en) * | 2021-05-27 | 2021-08-24 | 上海埃威航空电子有限公司 | Vehicle-mounted satellite communication terminal equipment of low-orbit broadband communication satellite and control method thereof |
| CN113794497A (en) * | 2021-08-24 | 2021-12-14 | 西安大衡天成信息科技有限公司 | Mobile satellite communication antenna terminal with anti-interference positioning function |
| CN113794497B (en) * | 2021-08-24 | 2023-02-28 | 西安大衡天成信息科技有限公司 | Mobile satellite communication antenna terminal with anti-interference positioning function |
| CN116679327A (en) * | 2023-04-20 | 2023-09-01 | 西安恒达微波技术开发有限公司 | Antenna feed opportunistic electric axis calibration method based on fixed satellite |
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