Warden: W-band advanced radar for debris early notification form ISS

Battaglia, R.; Ferri, Massimo; Dainelli, V.; Sarullo, F.; Demeo, Martha E.

doi:10.1109/aero.2003.1235042

Cited by 6 publications

(8 citation statements)

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“…This means that any transmitter or receiver has a certain amount (at least one) of transmit or receive antennas depending on the antenna type and design. Suitable antenna types include, but are not limited to, horn antenna [64], [65], [68], [74], [102], [109], [116]- [119], [142]- [155], yagi antenna [149], lens antenna [59], [105], reflectarray antenna [85], [86], cassegrain antenna [88], [113], (on-chip integrated) patch antenna [49], [54], [82], [127], [128], [139], [151], [156], [157], and parabolic antenna [110], [112]. Suitable antenna designs include, but are not limited to, phased array antenna design [144], [145], [147], [158]- [162], frequency scanned antenna design [87], fan and pencil beam antenna design [119], gaussian beam antenna design [100], and omni-directional antenna design [146].…”

Section: A Collection Systemsmentioning

confidence: 99%

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Millimeter Wave Sensing: A Review of Application Pipelines and Building Blocks

et al. 2021

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The increasing bandwidth requirement of new wireless applications has lead to standardization of the millimeter wave spectrum for high-speed wireless communication. The millimeter wave spectrum is part of 5G and covers frequencies between 30 and 300 GHz that correspond to wavelengths ranging from 10 to 1 mm. Although millimeter wave is often considered as a communication medium, it has also proved to be an excellent 'sensor', thanks to its narrow beams, operation across a wide bandwidth, and interaction with atmospheric constituents. In this paper, which is to the best of our knowledge the first review that completely covers millimeter wave sensing application pipelines, we provide a comprehensive overview and analysis of different basic application pipeline building blocks, including hardware, algorithms, analytical models, and model evaluation techniques. The review also provides a taxonomy that highlights different millimeter wave sensing application domains. By performing a thorough analysis, complying with the systematic literature review methodology and reviewing 165 papers, we not only extend previous investigations focused only on communication aspects of the millimeter wave technology and using millimeter wave technology for active imaging, but also highlight scientific and technological challenges and trends, and provide a future perspective for applications of millimeter wave as a sensing technology.

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Section: A Collection Systemsmentioning

confidence: 99%

“…Further details, including the long version of POSP, are not present. Frequency compression is not explained in [88].…”

Section: Time Domain Frequency Domainmentioning

confidence: 99%

Millimeter Wave Sensing: A Review of Application Pipelines and Building Blocks

et al. 2021

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“…For example, the millimetre wave band radar set up at the Kwajalein Atoll, USA, has both a 35 and 95 GHz capability [9]. For space application, Battaglia et al [5] had demonstrated the feasibility of radar working at 3 mm placed on ISS to detect small debris. So far, millimetre‐wave radars working at 35 GHz have been successfully used on the space‐based platforms in the world.…”

Section: Systemic Parameters Design and Debris Selectionmentioning

confidence: 99%

“…Battaglia et al [5] analysed the applicability of millimetre wave radar in space environment and feasibility of a radar instrument working at 95 GHz placed on ISS for small debris detection. Li et al [6] investigated the relative velocity and location between the radar and the debris by the radar imaging method.…”

Section: Introductionmentioning

confidence: 99%

Research on the visibility of low‐orbit debris using space‐borne radar

Zhao

Gao

et al. 2015

IET Radar, Sonar & Navigation

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Space debris with size larger than 1 cm poses a threat to spacecraft. Recently, space debris surveillance, tracking and early warning become far more urgent than ever before owing to the explosive growth of the number of debris. At the base of these problems is how to determine the visibility of debris to observation equipment, which will be discussed in this study. The statistics related to the orbital altitude, inclination and eccentricity of space debris are presented first, and then the principles of orbital parameter design of the space-borne radar (SBR) are given. Next, systemic parameters of SBR, such as wavelength, antenna type, are determined upon the observation aim. Detectable debris subset is preliminarily selected in accordance with some constraints. At last, based on the simplified general perturbations (SGP4) model, the range and velocity vectors of debris to SBR at specific time are calculated. Another expression form of relative position between debris and radar, range, azimuth and elevation (RAE) course is obtained by means of coordinate rotation which can be accomplished by directing projection or rotational matrix. The RAE data guide file can be used to carry on guidance tracking. Furthermore, the conversion accuracy of two different coordinate transformation methods is also analysed.

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“…It has recently dedicated efforts in conceiving and bringing the Data and Video Interactive Distribution (DAVID) scientific satellite mission in W-band to an advanced definition phase [4] [5] in addition to other applications for the International Space Station [6] [7] and for on-ground Air Traffic Control (ATC) [8] [9]. The large bandwidth availability in the W-band range allows proposal of future scenarios that could meet highquality requirements for a large number of users [10].…”

Section: Introductionmentioning

confidence: 99%

WAVE - a new satellite mission in W-band

Jebril

Lucente

Ruggieri

et al. 2005

2005 IEEE Aerospace Conference

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WAVE 1,2 (W-Band Analysis and VErification) is a new project proposed for the Italian Space Agency (ASI) to design and develop a W-band geostationary payload aimed at the experimental studies of the W-band channel and possible utilization in satellite data communications.In this paper, an overall description of this mission is presented, in addition to the different atmospheric parameters that affect signal propagation. The overall attenuation at both uplink (81-86 GHz) and downlink (71-76 GHz) frequencies is briefly discussed introducing also the simulation results at the earth stations of Rome and Spino D'Adda.

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Warden: W-band advanced radar for debris early notification form ISS

Cited by 6 publications

References 0 publications

Millimeter Wave Sensing: A Review of Application Pipelines and Building Blocks

Millimeter Wave Sensing: A Review of Application Pipelines and Building Blocks

Research on the visibility of low‐orbit debris using space‐borne radar

WAVE - a new satellite mission in W-band

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