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    • 1. 发明专利
    • 將參考時標可信賴地傳播至使用者終端機之技術
    • 将参考时标可信赖地传播至用户终端机之技术
    • TW201921861A
    • 2019-06-01
    • TW107131735
    • 2018-09-10
    • 義大利商泰雷茲阿萊尼亞宇航義大利股份有限公司THALES ALENIA SPACE ITALIA S.P.A. CON UNICO SOCIO
    • 坎特摩 克勞迪歐CANTELMO, CLAUDIO布蘭奇 馬可BLANCHI, MARCO
    • H04B17/20G01S19/46
    • 一種參考時標(RTS)傳播系統(RTS-DS),其包含 l 一RTS傳播資料提供器(RTS-DDP),以及 l 一使用者終端機(UT); 該RTS傳播資料提供器(RTS-DDP)配有設計用來接收一無線電信號並基於所接收無線電信號來運算一RTS-DDP運算時標之一無線電接收器; 該使用者終端機(UT)配有設計用來接收無線電信號並基於所接收無線電信號來運算一UT運算時標之一無線電接收器,並且配有設計用來受鎖定至該UT運算時標並提供從而鎖定至該UT運算時標之一UT本地時標的一時脈裝置; 該RTS傳播資料提供器(RTS-DDP)係設計用來: l 接收一參考時標(RTS),以及 l 於一RTS-DDP運算時間,運算指出該RTS-DDP運算時標與該所接收參考時標之間的一差異之時間數量,並且包含: n 一時間散播,其指出該RTS-DDP運算時間與一對應參考時間之間的一差異,以及 n 一時間偏移,其指出RTS-DDP運算時間與對應參考時間之間的若干差異之一平均值,該平均值是在一時間跨距內運算的,以及 l 傳送RTS傳播資料,其含有所運算時間數量、運算該等時間數量時之該RTS-DDP運算時間、及傳送該RTS傳播資料時之該RTS-DDP運算時間; 該使用者終端機(UT)係設計用來: l 接收傳送之RTS傳播資料, l 於與運算該等時間數量時之該RTS-DDP運算時間對應之一UT運算時間運算: n 一第一數量,其指出該UT運算時間與一對應UT本地時間之間的一差異,以及 n 一第二數量,其指出含在該所接收RTS傳播資料中之該時間散播與該時間偏移之間的一差異, n 檢查該等第一與第二所運算數量是否符合一驗核準則, n 如果判定符合該驗核準則: u 基於該所接收RTS傳播資料中含有之該時間偏移,運算與參考時標時間對準之一UT RTS對準時標,以及 u 使該UT RTS對準時標曝露,連同該已曝露UT RTS對準時標與該參考時標時間對準之一指示一起曝露。
    • 一种参考时标(RTS)传播系统(RTS-DS),其包含 l 一RTS传播数据提供器(RTS-DDP),以及 l 一用户终端机(UT); 该RTS传播数据提供器(RTS-DDP)配有设计用来接收一无线电信号并基于所接收无线电信号来运算一RTS-DDP运算时标之一无线电接收器; 该用户终端机(UT)配有设计用来接收无线电信号并基于所接收无线电信号来运算一UT运算时标之一无线电接收器,并且配有设计用来受锁定至该UT运算时标并提供从而锁定至该UT运算时标之一UT本地时标的一时脉设备; 该RTS传播数据提供器(RTS-DDP)系设计用来: l 接收一参考时标(RTS),以及 l 于一RTS-DDP运算时间,运算指出该RTS-DDP运算时标与该所接收参考时标之间的一差异之时间数量,并且包含: n 一时间散播,其指出该RTS-DDP运算时间与一对应参考时间之间的一差异,以及 n 一时间偏移,其指出RTS-DDP运算时间与对应参考时间之间的若干差异之一平均值,该平均值是在一时间跨距内运算的,以及 l 发送RTS传播数据,其含有所运算时间数量、运算该等时间数量时之该RTS-DDP运算时间、及发送该RTS传播数据时之该RTS-DDP运算时间; 该用户终端机(UT)系设计用来: l 接收发送之RTS传播数据, l 于与运算该等时间数量时之该RTS-DDP运算时间对应之一UT运算时间运算: n 一第一数量,其指出该UT运算时间与一对应UT本地时间之间的一差异,以及 n 一第二数量,其指出含在该所接收RTS传播数据中之该时间散播与该时间偏移之间的一差异, n 检查该等第一与第二所运算数量是否符合一验核准则, n 如果判定符合该验核准则: u 基于该所接收RTS传播数据中含有之该时间偏移,运算与参考时标时间对准之一UT RTS对准时标,以及 u 使该UT RTS对准时标曝露,连同该已曝露UT RTS对准时标与该参考时标时间对准之一指示一起曝露。
    • 5. 发明申请
    • Method for Performing SAR Acquisitions with Increased Swath Size
    • US20220214449A1
    • 2022-07-07
    • US17602596
    • 2020-04-09
    • Thales Alenia Space Italia S.p.A. Con Unico Socio
    • Diego Calabrese
    • G01S13/90
    • The present invention concerns a method for performing SAR acquisitions, which comprises performing SAR acquisitions in Spotlight/Stripmap mode of areas/swaths of earth's surface by means of a SAR system carried by an air or space platform along a flight direction, whereby: an azimuth direction is defined by a ground track of the flight direction on the earth's surface, a nadir direction is defined that is orthogonal to the earth's surface, to the flight direction and to the azimuth direction, an across-track direction is defined that lies on the earth's surface and is orthogonal to the azimuth direction and to the nadir direction, and, for each acquired area/swath of the earth's surface, a respective range direction is defined that extends from the synthetic aperture radar system to said acquired area/swath. Performing SAR acquisitions in Spotlight/Stripmap mode of areas/swaths of earth's surface includes contemporaneously acquiring P areas or portions of P swaths in a pulse repetition interval having a predefined time length, P being an integer greater than one. Said P areas/swaths are separated along the across-track direction and are spaced apart from each other along the across-track direction and from the SAR system along the respective range direction by predefined distances. Said predefined time length and said predefined distances are such that to enable contemporaneous acquisition of said P areas or of portions of said P swaths in said pulse repetition interval.
    • 9. 发明授权
    • End-to-end on-orbit servicing
    • US12024314B2
    • 2024-07-02
    • US17769848
    • 2020-10-19
    • Thales Alenia Space Italia S.p.A. Con Unico Socio
    • Giorgio FasanoEnrico GaiaStefano FerroniMario Pessana
    • B64G1/10B64G1/24B64G1/26B64G1/64
    • B64G1/1078B64G1/244B64G1/26B64G1/646B64G1/245
    • An on-orbit servicing spacecraft includes an engagement system to engage a space vehicle or object to be serviced or tugged, so as to form a space system, and an electronic reaction control system to cause the spacecraft to rotate about roll, yaw, and pitch axes to control attitude and displacement along given trajectories to cause the spacecraft to carry out given maneuvers. The electronic reaction control system includes (i) a sensory system to directly sense physical quantities or allow physical quantities to be indirectly computed based on sensed physical quantities, including one or more of position, attitude, angular rates, available fuel, geometrical features, and on-board systems state, (ii) attitude control thrusters mounted so as to allow their positions and orientations to be adjustable, and (iii) an attitude control computer in communication with the sensory system and the attitude control thrusters and programmed to receive data from the sensory system and to control, based on the received data, positions, orientations, and operating states of the attitude control thrusters so as to control attitude and position of the spacecraft. The attitude control computer is programmed to cause the spacecraft to carry out a given mission including an engagement step, in which the engagement system and the attitude control thrusters are controlled by the attitude control computer to engage a space vehicle or object to be serviced or tugged, and one or more operating steps, in each of which the attitude control thrusters are controlled by the attitude control computer to meet one or more requirements established for the operating step.
    • 10. 发明公开
    • Capacitive Feedthrough for Hybrid Hermetic Modules for Space Applications
    • US20230291191A1
    • 2023-09-14
    • US18017310
    • 2021-07-20
    • Thales Alenia Space Italia S.p.A Con Unico Socio
    • Paolo RanieriAntonio SalvatoElio PicchioneAndrea Cafaggi
    • H02G3/22H01G4/30B64G1/22
    • H02G3/22B64G1/22H01G4/30
    • A capacitive feedthrough hermetically sealable to a hybrid module for space applications is provided that includes a multilayer ceramic structure including, on the top face, a metallized top central region designed to receive an input electrical signal to be filtered, a dielectric top region extending around the metallized top central region, and a metallized top peripheral region extending around the dielectric top region up to joining the metallized external closed side walls to act therewith as electrical ground; and, on the bottom face, a metallized bottom central region designed to provide an output filtered electrical signal, a dielectric bottom region extending around the metallized bottom central region, and a metallized bottom peripheral region extending around the dielectric bottom region up to joining the metallized external closed side walls to act therewith as electrical ground. The multilayer ceramic structure further includes ceramic layers, first metallized layers and one or more second metallized layers stacked on one another such that: each first metallized layer is interposed between two respective ceramic layers arranged immediately on and below said first metallized layer; each/the second metallized layer is interposed between two respective ceramic layers arranged immediately on and below said second metallized layer; the first and second metallized layers are vertically alternated such that each/the second metallized layer has a respective upper first metallized layer arranged above said second metallized layer, and a respective lower first metallized layer arranged below said second metallized layer; and two ceramic layers are respectively arranged immediately below the top face and immediately above the bottom face.