On the origin of satellite swarms

C.J.M. Verhoeven, Marinus Jan Bentum, G.L.E. Monna, J. Rotteveel

Research output: Chapter in Book/Report/Conference proceedingConference contributionAcademicpeer-review

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Abstract

For a species to develop in nature, two basically two things are needed: an enabling technology and a "niche". In spacecraft design the story is basically the same. Both a suitable technology and a niche application need to be there before a new generation of spacecraft can be developed. Last century two technologies have emerged that had and still have a huge impact on the development of technical systems: Micro-Electronics (ME) and Micro-Systems Technology (MST). Both are ruled by Moore's Law that indicates that considerable technology updates appear at the pace of years or even months instead of decades. Systems that need a development time of more than a few years will inevitably be based on "out-dated" and thereby difficult to maintain and repair technology unless during the development constant redesigns are made. This makes the development of the system at least very expensive. Although expenses do not seem to be a frequent show stopper in the design of spacecraft, it is still very interesting to investigate what system architectures might evolve when the specific properties of the new technologies ME and MST are fully exploited. ME presently offers more than 2 billion transistors on a chip and MST offers mechanical systems like resonators, mechanical switches, propulsions units, gyroscopes and many other sensors that _t in a volume of a few square millimeters to a few centimeters. So it is possible to fit a lot of signal processing power together with the necessary sensors and actuators in a volume that is really very small compared to any know space system. Of course state-of-the art spacecraft will immediately outperform these units in all aspects apart from cost and quantity. For the _rst time it makes sense to envisage the operation of formations of tens to hundreds of satellites that are cheap because they are based on standard commercial COTS technology and system designs. These satellite swarms will not be the systems that replace all other space systems. But, like in nature, there is a niche where swarms are the optimal solution. It's time to start occupying this niche. Typical properties of a swarm in nature are robustness, redundancy, large area coverage, the lack a hierarchical command structure, limited processing power per unit and self-organization ("swarm-intelligence"). This paper discusses the technological trends that lead to satellite swarms, where they can go and what new science they can create.
Original languageUndefined
Title of host publication60th International Astronautical Congress
Place of PublicationDaejon
PublisherPress IAC
Pages1-5
Number of pages5
ISBN (Print)1995-6258
Publication statusPublished - 14 Oct 2009
Event60th International Astronautical Congress, IAC 2009 - Daejeon, Korea, Republic of
Duration: 12 Oct 200916 Oct 2009
Conference number: 60

Publication series

Name
PublisherPress IAC
ISSN (Print)1995-6258

Conference

Conference60th International Astronautical Congress, IAC 2009
Abbreviated titleIAC
CountryKorea, Republic of
CityDaejeon
Period12/10/0916/10/09

Keywords

  • METIS-264155
  • EWI-16519
  • IR-68513

Cite this

Verhoeven, C. J. M., Bentum, M. J., Monna, G. L. E., & Rotteveel, J. (2009). On the origin of satellite swarms. In 60th International Astronautical Congress (pp. 1-5). Daejon: Press IAC.
Verhoeven, C.J.M. ; Bentum, Marinus Jan ; Monna, G.L.E. ; Rotteveel, J. / On the origin of satellite swarms. 60th International Astronautical Congress. Daejon : Press IAC, 2009. pp. 1-5
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Verhoeven, CJM, Bentum, MJ, Monna, GLE & Rotteveel, J 2009, On the origin of satellite swarms. in 60th International Astronautical Congress. Press IAC, Daejon, pp. 1-5, 60th International Astronautical Congress, IAC 2009, Daejeon, Korea, Republic of, 12/10/09.

On the origin of satellite swarms. / Verhoeven, C.J.M.; Bentum, Marinus Jan; Monna, G.L.E.; Rotteveel, J.

60th International Astronautical Congress. Daejon : Press IAC, 2009. p. 1-5.

Research output: Chapter in Book/Report/Conference proceedingConference contributionAcademicpeer-review

TY - GEN

T1 - On the origin of satellite swarms

AU - Verhoeven, C.J.M.

AU - Bentum, Marinus Jan

AU - Monna, G.L.E.

AU - Rotteveel, J.

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N2 - For a species to develop in nature, two basically two things are needed: an enabling technology and a "niche". In spacecraft design the story is basically the same. Both a suitable technology and a niche application need to be there before a new generation of spacecraft can be developed. Last century two technologies have emerged that had and still have a huge impact on the development of technical systems: Micro-Electronics (ME) and Micro-Systems Technology (MST). Both are ruled by Moore's Law that indicates that considerable technology updates appear at the pace of years or even months instead of decades. Systems that need a development time of more than a few years will inevitably be based on "out-dated" and thereby difficult to maintain and repair technology unless during the development constant redesigns are made. This makes the development of the system at least very expensive. Although expenses do not seem to be a frequent show stopper in the design of spacecraft, it is still very interesting to investigate what system architectures might evolve when the specific properties of the new technologies ME and MST are fully exploited. ME presently offers more than 2 billion transistors on a chip and MST offers mechanical systems like resonators, mechanical switches, propulsions units, gyroscopes and many other sensors that _t in a volume of a few square millimeters to a few centimeters. So it is possible to fit a lot of signal processing power together with the necessary sensors and actuators in a volume that is really very small compared to any know space system. Of course state-of-the art spacecraft will immediately outperform these units in all aspects apart from cost and quantity. For the _rst time it makes sense to envisage the operation of formations of tens to hundreds of satellites that are cheap because they are based on standard commercial COTS technology and system designs. These satellite swarms will not be the systems that replace all other space systems. But, like in nature, there is a niche where swarms are the optimal solution. It's time to start occupying this niche. Typical properties of a swarm in nature are robustness, redundancy, large area coverage, the lack a hierarchical command structure, limited processing power per unit and self-organization ("swarm-intelligence"). This paper discusses the technological trends that lead to satellite swarms, where they can go and what new science they can create.

AB - For a species to develop in nature, two basically two things are needed: an enabling technology and a "niche". In spacecraft design the story is basically the same. Both a suitable technology and a niche application need to be there before a new generation of spacecraft can be developed. Last century two technologies have emerged that had and still have a huge impact on the development of technical systems: Micro-Electronics (ME) and Micro-Systems Technology (MST). Both are ruled by Moore's Law that indicates that considerable technology updates appear at the pace of years or even months instead of decades. Systems that need a development time of more than a few years will inevitably be based on "out-dated" and thereby difficult to maintain and repair technology unless during the development constant redesigns are made. This makes the development of the system at least very expensive. Although expenses do not seem to be a frequent show stopper in the design of spacecraft, it is still very interesting to investigate what system architectures might evolve when the specific properties of the new technologies ME and MST are fully exploited. ME presently offers more than 2 billion transistors on a chip and MST offers mechanical systems like resonators, mechanical switches, propulsions units, gyroscopes and many other sensors that _t in a volume of a few square millimeters to a few centimeters. So it is possible to fit a lot of signal processing power together with the necessary sensors and actuators in a volume that is really very small compared to any know space system. Of course state-of-the art spacecraft will immediately outperform these units in all aspects apart from cost and quantity. For the _rst time it makes sense to envisage the operation of formations of tens to hundreds of satellites that are cheap because they are based on standard commercial COTS technology and system designs. These satellite swarms will not be the systems that replace all other space systems. But, like in nature, there is a niche where swarms are the optimal solution. It's time to start occupying this niche. Typical properties of a swarm in nature are robustness, redundancy, large area coverage, the lack a hierarchical command structure, limited processing power per unit and self-organization ("swarm-intelligence"). This paper discusses the technological trends that lead to satellite swarms, where they can go and what new science they can create.

KW - METIS-264155

KW - EWI-16519

KW - IR-68513

M3 - Conference contribution

SN - 1995-6258

SP - 1

EP - 5

BT - 60th International Astronautical Congress

PB - Press IAC

CY - Daejon

ER -

Verhoeven CJM, Bentum MJ, Monna GLE, Rotteveel J. On the origin of satellite swarms. In 60th International Astronautical Congress. Daejon: Press IAC. 2009. p. 1-5