4 edition of Power, propulsion, and communications for microspacecraft missions found in the catalog.
Power, propulsion, and communications for microspacecraft missions
by National Aeronautics and Space Administration, Lewis Research Center, National Technical Information Service, distributor in [Cleveland, Ohio], [Springfield, Va
Written in English
|Statement||W.A. de Groot, T.M. Maloney, and M.J. Vanderaar.|
|Series||[NASA contractor report] -- NASA/CR--1998-206607., NASA contractor report -- NASA CR-206607.|
|Contributions||Maloney, T. M., Vanderaar, M. J., Lewis Research Center.|
|The Physical Object|
Sercel JC, Hanks B, Boynton WV, Cassapakis C, Crawley E, Curcio M et al. Modular and multifunctional systems in the new millennium program. In 34th Aerospace Sciences Meeting and Exhibit. In 34th Aerospace Sciences Meeting and by: 8. NASA will probably need to develop superfast new propulsion technologies if it hopes to keep astronauts safe and healthy during the long journey to Mars, experts say.
Electric propulsion system scaling for asteroid capture-and-return missions Justin M. Little⇤ and Edgar Y. Choueiri† Electric Propulsion and Plasma Dynamics Laboratory, Princeton University, Princeton, NJ, The requirements for an electric propulsion system needed to maximize the return mass. Abstract —Electric propulsion (EP) technologies offer performance advantages compared to chemical systems. The implementation of electric thrusters in small spacecraft has been prohibited by the high power demands of conventional thrusters and the complexity of the required power conditioning units and propellant supply system.
(1) Performance upgrades to radioisotope power systems (2) Development of a nuclear reactor, ca kWe, to power an electric propulsion system and to provide large amounts of onboard power for scientific and exploration spacecraft. (3) Development of a kWe electric propulsion system (4) Does not include nuclear thermal propulsionFile Size: 1MB. As a federal agency, NASA has one of the federal government's three largest procurement budgets. The Department of Energy (DOE) and the Defense Department (DOD) round out the trio. With the subsequent proposal in Congress of "H Prize" funding for breakthroughs in hydrogen fuel-related technology, the Department of Energy is poised to join NASA and DARPA's Defense Department in fortifying this.
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Power, Propulsion, and Communications for Microspacecraft Missions. spacecraft power, propulsion, and communications. Possible synergies between these systems or between these systems and the payload are identified.
this value may increase for additional power. Microspacecraft are approximately defined as spacecraft smaller than W Cited by: 2.
Get this from a library. Power, propulsion, and communications for microspacecraft missions. [W A de Groot; T M Maloney; Mark J Vanderaar; Lewis Research Center.]. PROPULSION OPTIONS FOR PRIMARY THRUST AND ATTITUDE CONTROL OF MICROSPACECRAFT W.
de Groot Nyma Inc. Aerospace Parkway Brook Park, OHUSA ABSTRACT Order of magnitude decreases in the size of scientific satellites and spacecraft could provide propulsion decreases in mission costs because of lower launch and fabrication costs.
AlthoughFile Size: KB. Microsatellites as Research Tools Proceedings of COSPAR Colloquium on Microsatellites as Research Tools December • Tainan, Taiwan. Power Edited by Fei-Bin Hsiao. Power, Propulsion, and Communications for Microspacecraft Missions.
Wim De Groot, T.M. Maloney, M.J. Vanderaar. The Mars Reconnaissance Orbiter, or MRO, has studied the Red Planet's atmosphere and terrain from orbit since and also serves as a key data relay station for other Mars missions, including the Mars Exploration Rover Opportunity.
Propulsion systems, power systems, and missions are combined to show each power/propulsion system's range of performance. Each propulsion system's highest Isp, highest efficiency, and lowest specific mass is chosen from Table 1.
The two specific mass exuemes of photovoltaic ( and 10 kg/kW) and nuclear. The systems constraints on mass, power, maximum voltage, and volume with which microspacecraft will undoubtedly have to contend poses several challenges to the propulsion system designer.
In general, microspacecraft propulsion systems will need to be as efficient, or perhaps even more efficient, than their large spacecraft counterparts in order.
Power propulsion and communications for microspacecraft missions (W.A. de Groot, T.M. Maloney, M.J. Vanderaar). Propulsion options for primary thrust and attitude control of microspacecraft (W.A. de Groot). Comparison of magnetic and aerodynamic stabilization for a microsatellite (Z.-C. Hong et al.).
Session VII: Scientific Applications (I). The systems constraints on mass, power, maximum voltage, and volume with which microspacecraft will have to contend pose several challenges to the propulsion system designer.
Micropropulsion concepts that address these limitations in unique and beneficial ways, will be Cited by: NASA has selected five U.S. companies to conduct four-month studies for a power and propulsion element that could be used as part of the deep space gateway : Kelly Heidman.
JPL's Dawn mission is en route to rendezvous with the main-belt asteroids Vesta and Ceres, and is using ion propulsion to get there. Above: The power and propulsion element of NASA's Gateway is a high-power, kilowatt solar electric propulsion spacecraft – three times more powerful than current capabilities.
Spacecraft design will be completed during the base period, after which the exercise of options will provide for the development, launch, and in-space flight.
PALO ALTO, Calif. – Novem – SSL, a business unit of Maxar Technologies (formerly MacDonald, Dettwiler and Associates Ltd.) (NYSE: MAXR; TSX: MAXR) and a leading provider of innovative satellites and spacecraft systems, announced today it was selected by NASA to conduct a four-month study for a module that will provide power and control for NASA’s deep space gateway.
he objective of the Advanced In-Space Propulsion (AISP) project is to develop a portfolio of advanced chemical and electric propulsion systems to support future NASA Science Mission Directorate (SMD) and Human Exploration Mission Directorate (HEOMD) missions.
The project will typically advance propulsion concepts from technology readiness level (TRL) 3 to a TRL of 5 or greater, with the. A Microspacecraft Platform for Missions in Earth Orbit and Beyond LEO power and propulsion capabilities.
Because of that high power (up to hundreds of kW-tens of MW) space tug with electric. Microspacecraft Platform with Bipropellant Propulsion System and 3-Axis Stabilization for Missions in Earth Orbit and Beyond LEO P.
Eckart 1, S. Angelucci 1, *, L. Appolloni 1, *, H. Baier 2, M. Canales 1, A. da Silva-Curiel 6. A Breakthrough Propulsion Architecture for Interstellar Precursor MissionsAuthor: Loura Hall. Book Chapters. Saenz-Otero, A., S. Nolet, R.
Sedwick and D. Miller, “Developing and Maturing Micro-Satellite Formation Flight Technology,” Small Satellites: Past. Panel P2: Trends and Needs in Power Generation with a Focus on Asia: Chair: Prof. Seung Jin Song, Seoul National University Keynote: Dr. Abbas Aliabadi, MAPNA Group, Chairman and CEO Panelists: • Dr.
Stefan Florjancic, Ansaldo Energia, CTO. Advanced Propulsion, Power, & Comm. for Space, Sea, & Air SunMill™ Deployable, Steerable Solar Array For 3U Cubesat Structures High power, highly capable missions: Enabled • U system volume (incl.
controller) • Spectrolab CIC laydown heritage • Fully customizable panel length • Available for order • Full hemispherical pointing. Microspacecraft design regime, power densities for microspacecraft have been estimated at IW/kg, resulting in 10 W and 20W onboard power for the two Class I type microspacecraft (10 kg and 20 kg) listed in Table 1.
Low-and high-mass versions of a Class I microspacecraft will be considered. Microspacecraft with masses between 1 and 5 kgCited by: Space Propulsion Analysis and Design 1st Edition by Ronald Humble (Author) out of 5 stars 5 ratings.
ISBN ISBN Why is ISBN important? ISBN. This bar-code number lets you verify that you're getting exactly the right version or edition of a book.
Cited by: Wireless Sensors for Space Applications. 1 William WILSON, et al., Power, Propulsion, and Communications for Microspacecraft Missions, in Scientific.
Book. Oct ; Steering Committee.