Index. Downloaded by on April 18, DOI: / Book DOI: /4.

Size: px
Start display at page:

Download "Index. Downloaded by on April 18, DOI: / Book DOI: /4."

Transcription

1 α thrusters, , 193, 195 ABL. See airborne laser. Absorber/receiver, assembly, Acceleration chamber materials, 242 double stage Hall effect thrusters and, Adaptive telescope, 379 Additives, 22 Airborne laser (ABL), 396 AL. See aluminum rocket fuel. Alcohols, properties of, 168 Alkali metals propellants, Altitude adaptation, Aluminum (AL), 21 as cryotank liner, 65 Americium, Ammonium dinitramide (AND), 29 Ammonium perchlorate (AP), 20 Ammonium-nitrate (AN) propellants, 26 AN. See ammonium-nitrate. AND. See ammonium dinitramide. AP. See ammonium perchlorate. Atmospheric drag, laser propulsions limitations and, Atmospheric transmission, laser propulsion limitations and, 372 Attitude control cryogenic propellant storage and, 213 laser propulsion and, 382 laser propulsion and, solar sails and, 447 Bardeen, Cooper and Schrieffer (BCS) theory, 291 BCS. See Bardeen, Cooper and Schrieffer theory. Bearings, hydrostatic supports, magnetic, monitoring and control of, 73 Bell type nozzle, 50 dual bell, 50 lightcraft, multibell, 386 Binder prepolymers, 29 Bipropellants, 156 Boost pumps, 69 Booster engines, 100 BSCCO phases, Index 481 C/C thrust-chamber liner, liner, transpiration cooling, CADB (Chemical Automation Design Bureau) liquid rocket engines, RD-0105, 135, 137 RD-0109, 137 RD-0110, RD-0107, Carbon fiber reinforced composites (CFRC), 61, 62 CFD. See computational-fluid-dynamics. CFRC. See carbon fiber reinforced composites. Chemical Automation Design Bureau. See CADB. Chemical propulsion, , 192, 193 Chemical rockets, 174 CL 2 O, 29 Cluster configurations, Hall effect thrusters and, CO 2 technology, in situ resource utilization and, 456 CO 2 /Mg powder engine, 466 Cold-gas thrusters, , 178, , , 194 Combustion chamber liners, optimization of, 60 Combustion cycles (SC), 48 Combustion-chamber liners, cooling channel geometry, high aspect ratio cooling, 56 Composite materials, solid rocket motors and, Computational-fluid-dynamics (CFD), 56 Concentrator, mirror assembly, 212 Constant power throttling (CPT), 333 Continuous casting process, Continuous casting propellants, double-screw extruding, 32 Continuous laser propulsion systems, Cooling channel geometry, computational-fluid-dynamics, 56 finite element method, 56 Cost analysis, VASIMR and, Costs green propellants, 160 laser propulsion systems and, , 398 Mars mission and, Rubbia s engine, Russian upper stage liquid rocket engines,150 solar thermal propulsion and, solid rocket motors, 38, 41

2 482 INDEX CPT. See constant power throttling. Cryocoolers, Cryogenic engines, advantages of, concepts of, launcher, 45 propulsion, cycles, future of, liquid rocket engines, system analysis, technology advanced nozzles, advanced nozzles, 60 bell-type nozzles, 50 C/C thrust-chamber liner, combustion-chamber liners, cryotanks, optimized combustion-chamber liners, 60 thermal barrier coatings, spray forming, 60 transpiration cooling, 59 turbopumps, 60 62, TBC, transpiration cooling, 49 type comparisons, Cryogenic propellant storage, multilayer insulation, 211 thermodynamic vent system, 211 Cryotanks, health monitoring, 65 inspection of, 65 manufacturing process, 65 technology, aluminum, 65 design of, development of, fluoro-elastomers, 64 fluoro-polymers, 64 operations of, silicon based rubbers, 65 Current distribution, 259 Data transmission, 327 Delrin, 390 Discharge cathode, Double stage Hall effect thrusters, Applications, GEO Telecom satellite applications, 278 scientific exploration, current models in use, principles of, systems, technologies, acceleration chamber materials, intermediate electrode, magnetic-circuit design, 279 spacecraft/thruster interaction, 281 thermal design, 279 Double-screw extruding propellants, 32 Dual bell type nozzles, 50 EC. See expander cycle. Electric fields, VASIMR and, 342 Electric propulsion, 175, double stage Hall effect thrusters, high power gridded ion thrusters, high power hall effect thrusters, MPD thrusters, superconductivity and, Electrical interface, Hall effect thrusters and, Electric-circuit designs, Electrolysis, 327 Electromagnetic acceleration, 407 Electromagnetic levitation and acceleration, technology, Electromagnetic propulsion, 175 Electrostatic propulsion, 175 ELV. See expendable launch-vehicle. ENEAS solar sail mission proposal, return planning, Energiya, Energomash, 119 Energy accumulators, 327 Engine cycles, 48 49, evaluations, 150 expander, 48 simple combustion, 48 gas generator, 48 Environmental safety, laser propulsion systems and, 395 Europe, laser propulsion systems and, Exhaust performance, VASIMR and, 346 Expander cycle (EC), 48 Expendable launch vehicles (ELV), 5, FEEP, , 193, FEM. See finite element method. Finite element method (FEM), 56 Flight caculations, laser propulsion systems and, Flight systems, in situ resource utilization (ISRU) and, 456 Fluoro-elastomers, 64 Fluoro-polymers, 64 FMMR. See free molecular microresistojet. Free molecular microresistojet (FMMR), 175, , 192, 193 Fuel requirements, Mars mission planning and, 459, 460 Gas fed MPD thrusters, propellant gas, 275 Gas generator (GG), 48

3 INDEX 483 GEO. See geostationary orbit. Geostationary orbit (GEO), 5 telecom satellite, 278 Germany, laser propulsion systems and, GG. See gas generator Glushko NPO, Green propellants, advantages of, 157 applications for, 170 benefits and uses of, 160 costs, 160 formulations, 31, 32 future of, 161 HAN, hydrogen peroxide, liquid hydrogen (LH2), 163 liquid oxygen (LOX), 163, manufacturers of, 160 market needs, nontoxic orbital maneuvering system/ reaction control systems (OMS/RCS), 160 properties of, alcohols, 168 hydrocarbon fuels, 167 kerosene, 167, 168 methane fuels, oil origin fuels, 167 Russian development of, technologies, 159 H 2 O 2, 159 HAN,159 Gridded ion thrusters, applications, 229 current uses, 224, key thruster technologies, materials, 231 principles of, ion acceleration, ionization mechanism, plume neutralization, system aspects, 234 Ground systems, in situ resource utilization (ISRU) and, 456 Guidance systems, laser propulsion and, 382 H 2 O 2. See hydrogen peroxide. Hall effect thrusters (HET), double stage, operating principles, Morozov, Zharinov, 239 Hall parameter, HAN propellants, Heating process, VASIMR and, HET. See Hall effect thrusters. High aspect ratio cooling, 56 High power electric propulsion (HiPEP) test ISS monitoring diagnostics, operational diagnostics, 353 VASIMR ISS flight experiment and, performance measurement diagnostics, 353 High power gridded ion thrusters, High power Hall effect thrusters, applications, current models in use, demonstrated use of, development tools, 250 system aspects, cluster architectures, electrical interface, mechanical interface, propellant feeding systems, 248 thruster control system, technologies, acceleration chamber materials, 242 electric-circuit design, health monitoring, 245 magnetic design, multimode operations, neutralizer reliability, 243 spacecraft/thruster interactions, thermal design, 241 High temperature superconductivity (HTSC), 292 applications, 295 low-temperature superconductivity vs., materials technology, BSCCO phases, YBCO coated phases, 294 MgB 2, 294 High-altitude propulsion, 46 HiPEP. See high power electric propulsion. HNF. See hydrazinium nitroformate. HTPB. See hydroxil-terminated polybutadiene. Hybrid laser/chemical propulsion system, Hydrazinium nitroformate (HNF), 29 Hydrocarbon fuels, properties of, 167 Hydrogen peroxide (H 2 O 2 ), liquid rocket fuel, propellants, 159 Hydrostatic supports, Hydroxil-terminated polybutadiene (HTPB), 21 ICRF (Ion cyclotron radio frequency), 337 IHPRP. See Integrated High Payoff Rocket Propulsion Technology. In situ propellant utilization (ISPU), 456

4 484 In situ resource utilization (ISRU), CO 2 technology, 456 flight systems, 456 ground systems, 456 life support technologies, 455 CO 2, 456 mass of materials, 461 Mars mission planning, cost estimates, development phases, propulsion systems, 461 settlement, mission planning, fuel requirements, 459, 460 power generation, 456 propellants, LOX/CH 2 propulsion, LOX/H 2 propulsion, technologies, zirconia cell process, technology readiness level, Inducers, supercavitating, 74 Integrated High Payoff Rocket Propulsion Technology (IHPRP), 48 Intermediate electrode, double stage Hall effect thrusters and, International space station (ISS), 5 flight experiment, VASIMR and, high-power electric propulsion test, Interplantery spacecraft, solar thermal propulsion and, Ion acceleration, Ion cyclotron radio frequency. See ICRF. Ionization mechanism, Ionization process, VASIMR and, ISPU. See in situ propellant utilization. ISRU. See in situ resource utilization. ISS. See international space station. Japan, laser propulsion systems and, 384 Keplerian orbits, Kerosene, 167, 168 Key thruster technology, discharge cathode, neutralizer, 233 optical system, RF-gridded ion thrusters, 233 Korolev rocket engines, Kuznetsov, 124, 127, Laser ablation, polymeric propellants and, Laser beam range, Laser micropropulsion, 359 INDEX Laser propulsion systems, applications, assessments, environmental safety, 395 lightcraft, military design, 396 orbital waste and debris, 395 weather factors, 395 attitude control, classifications, continuous laser, hybrid laser/chemical, laser micropropulsion, 359 laser sail (photon propulsion), laser/electric, microwave propulsion, 365 pulsed detonation, ram laser, concepts, costs, , 398 developmental steps, 398, 399 flight calculations, future of, Germany and Europe, Japan, 384 lightcraft architecture, bell-type nozzle, plug nozzle, limitations, atmospheric drag, transmission, 372 laser-beam range, power requirements, radiation, 373 mass loss per pulse, performance comparisons, polymeric propellants, pulsed, requirements, adaptive telescope, 379 attitude control, 382 guidance and tracking, 382 lightcraft, 378 power supply, repetitively pulsed type, 379 types, 380 Russia, 384 self-stabilization, United States, Laser radiation, laser propulsion limitations and, 373 Laser sail (photon) propulsion, Laser/electric propulsion, Launch vehicles, scenarios of, 5 Launchers, cyrogenic engines and, 45 LEO. See low Earth orbit.

5 INDEX 485 LFA (Lorentz force accelerator), LH 2. See liquid hydrogen. Life support technologies, in situ resource utilization and, 455 Lightcraft, 378, architecture, bell-type nozzle, plug nozzle, flight stability and control, performance data, pulsed lasers, 394 structure, telescope, Liquid hydrogen (LH2), 163 tank, 218 Liquid oxygen (LOX), 163, engines, booster/main, 100 costing of, future direction, hydrocarbon, kerosene, 91 key technologies, 103, 104 methane, needs for, 92 technological readiness level, 103, 105 type comparison, upper stages, propulsion LOX/CH LOX/H 2, properties of, Liquid propellant rockets, 174 Liquid rocket engines (LRE), Energomash, 119 Glushko NPO, Samara type, system analysis, design issues, expendable launch vehicles, reusable launch vehicles, 75 staged combustion cycles, system architecture, 76 Liquid rocket fuel, hydrogen peroxide (H 2 O 2 ), Liquid rocket motors (LRM), 20 Lithium fed LFA (Lorentz force accelerator), Long-life cathodes, Lorentz force accelerator. See LFA. Low attitude propulsion, Low Earth orbit (LEO), 5 Low temperature superconductivity (LTSC), high temperature superconductivity vs., LOX. See liquid oxygen. LRE. See liquid rocket engines. LRM. See liquid rocket motors. Maglev mass accelerator, power systems, technology, issues with, Magnet fields, VASIMR and, 342 Magnetic bearings, Magnetic circuit design, double stage Hall effect thrusters and, 279 Magnetic coils, permanent magnets, 266 solenoidal magnet, 266 superconductive magnets, Magnetic designs, Magnetic nozzle, VASIMR and, Magnetic resonance imaging, Mars mission planning cost estimates, development phases, in situ resource utilization and, mass of materials, 461 propulsion systems, 461 Rubbia s engine and, 321 spacecraft modules, 322 Mars settlements, in situ resource utilization and, Mass accelerators, analysis of, electromagnetic levitation and acceleration, future of, Maglev, moon-based mass drivers, near-vertical earth launching, railguns, uses of, Mass drivers, moon based, Mass loss per pulse, Mechanical interfaces, Hall effect thrusters and, Medium Earth orbit. MEMS, 195 MEO. See medium Earth orbit. Methane fuels, properties of, MgB 2, high temperature superconductivity (HTSC) materials technology, 294 Micropropulsion, laser, 359 Microspacecraft (MSC), Microvalves, Microwave propulsion, 365 Military laser design, 396 airborne laser, 396 tactical high-energy laser, 396 Miniaturized propulsion, future use of, marketing of, civil sector, 197 commercial, 197 military,

6 486 INDEX Miniaturized propulsion (Continued ) microspacecraft (MSC), microvalves, types, α thrusters, chemical propulsion, chemical rockets, 174 cold gas thrusters, , 178, electric, 175 electromagnetic, 175 electrostatic, 175 FEEP, free molecular microresistojet, 175, liquid-propellant, 174 unit integration, uses, chemical propulsion, 192, 193 cold-gas thrusters, , 194 FEEP, 193, FMMR, 192, 193 MEMS, 195 mission types, MLI. See multilayer insulation. Momentum coupling coefficient, Monopropellants, 156 Moon based mass drivers, Morozov type Hall thrusters, MPD thrusters, applications of, current models in use, gas fed, lithium-fed LFA, principles of, current distribution, 259 Hall parameter, system aspects, technologies, alkali metals, long-life cathodes, magnetic coil, numerical models, onset phenomena control, testing facilities, MSC. See microspacecraft. Multibell nozzle, 386 Multilayer insulation (MLI), 211 Multimode operation, Hall effect thrusters and, Near-vertical earth launching, Neutralized propellants, 26, 27 Neutralizers, 233 reliability, 243 Nitramine-added propellants, 27, 28 Non Keplerian orbits, Nontoxic orbital maneuvering system/reaction control systems (OMS/RCS), 160 Nozzles advanced design, 57 58, 60 bell type, 50 Nuclear magnetic resonance, 297 Nuclear propulsion, Americium, Rubbia s engine, use analysis, fuel production, 318 Numerical modeling, MPD thrusters and, ODISSEE solar sale mission proposal, Oil origin fuels, properties of, 167 OMS/RCS. See orbital maneuvering system/ reaction control systems. Onboard power, 327 Onset phenomena control, Operational diagnostics, high power electric propulsion (HiPEP) test and, 353 Optical systems, Optimized combustion-chamber liners, 60 Orbital maneuvering system/reaction control systems (OMS/RCS), 160 Orbital waste, 395 Orbit-transfer stage, solar thermal propulsion and, Oxidizers, ammonium dinitramide (AND), 29 CL 2 O, 29 hydrazinum nitroformate, 29 Oxidizing metallic powders, CO 2 /Mg powder engine, 466 Particle accelerators, 297 Patents, propulsion systems and, 4 Performance measurement diagnostics, high power electric propulsion (HiPEP) test and 353 Permanent magnets, 266 Photo propulsion, Plug nozzle lightcraft, Plume neutralization, Pointing controls, cryogenic propellant storage and, 213 Polymeric propellants, laser ablation of, Power generation In situ resource utilization (ISRU) and, 456 Rubbia s engine and, 327 Power losses, VASIMR and, Power requirements, laser propulsion limitations and, Power supply, laser propulsion systems and, Power systems, Maglev mass accelerators and,

7 INDEX 487 Power transmission, 297 Pressure, VASIMR and, Propellant consumption, specific, Propellant feeding systems, 248 Propellant gases, MPD thrusters and, 275 Propellants advanced solid type, binder prepolymers, 29 continuous casting process, green formulations, 31, 32 groups of, 25 in situ resource utilization (ISRU) and, LOX/CH 2 propulsion, LOX/H 2 propulsion, new materials, oxidizers, semicontinuous casting process, types, ammonium-nitrate, 26 neutralized, 26, 27 nitramine-added, 27, 28 scavengers, 26, 27 sodium-nitrate, 26 Propulsion cyrogenic engines and, altitude adaptation, high-altitude, 46 low altitude, miniaturizing of, systems applicability matrix, 7, 8, 9 in situ resource utilization and, 461 launch vehicle scenarios, 5 mission scenarios, 5 7 patents, 4 satellite scenarios, 6 spacecraft scenarios, 7 tradeoffs re, 9 14 types, 1 2 Pulsed detonation propulsion system, Pulsed laser lightcraft and, 394 propulsion, momentum coupling coefficient, specific propellant consumption, repetitively, 379 Radiation, laser propulsion limitations and, 373 Railguns, technology, TRL evaluation, Ram laser propulsion system, RD-0105 rocket engine, 135, 137 RD-0107 rocket engine, RD-0109 rocket engine, 137 RD-0110 rocket engine, Reactor chamber design, Rubbia s engine and, Receiver subsystem test, Repetitively pulsed type laser, 379 Reusable launch vehicles (RLV), 75 RF gridded ion thrusters, 233 RLV. See reusable launch vehicles. Rocket engines RD-0105, 135, 137 RD-0107, RD-0109, 137 RD-0110, Rocket fuels additives, 22 aluminum, 21 hydroxil-terminated polybutadiene, 21 Rubbia s engine, current status, 328 development costs and time frame, efficiency of, evaluation, 320 future development of, data transmission, 327 electrolysis, 327 energy accumulators, 327 onboard power, 327 superconductive MPD, 327 Mars missions, 321 spacecraft modules, 322 performance data, 321 reactor chamber design, power generation, 327 Russian green propellants, Russian laser propulsion systems and, 384 Russian LOX-hydrocarbon engines, cost evaluation, cycles of, development of, future of, liquid, problems, upper stage liquid rocket engines, Russian upper stage liquid rocket engines, CADB, costs, 150 cycle evaluations, 150 design issues, development stages, future of, Korolev types, Samara types, Sabatier/water electrolysis, Samara liquid rocket engines, , Satellites, scenarios of, 6 Scavenger propellants, 26, 27

8 488 Semicontinuous casting process, Silicon based rubbers, 65 Simple combustion cycles (SC), 48 Simple gas generator (GG), 48 SMES. See superconducting magnetic energy storage. SN. See sodium-nitrate. Sodium-nitrate (SN) propellants, 26 Solar sails, attitude control, 447 background, demonstration missions, 448 demonstration of, first generation types, materials, mission proposals, ENEAS, escape missions, non-keplerian orbits, ODISSEE, performance definitions, principles, sizing, Solar system escape missions, Solar thermal propulsion, application synergies, 215 applications, interplanetary spacecraft, orbit-transfer stage, concepts, absorber/receiver, concentrator, performance, 206 cost estimations, cost benefits, development costs, development of, LH 2 tank 218 receiver subsystem test, future of, 221 requirements, 210 technologies, absorber/receiver assembly, attitude control, 213 concentrator/mirror assembly, 212 cryogenic propellant storage, pointing and attitude control, 213 technology readiness level (TRL), uses, 202 Solenoidal magnet, 266 Solid rocket motors (SRM), countries using, composite materials, case technology, design and development, current status of, 23 development costs, 38, 41 INDEX disadvantages, propellant groups, 25 Spacecraft, scenarios of, 7 Spacecraft/thruster interaction, double stage Hall effect thrusters and, 281 Specific propellant consumption, Spray forming, TBC and, 55 SRM. See solid rocket motors. Stabilization, laser propulsion and, Staged combustion cycles, Supercavitating inducers, 74 Superconducting electric motors, 297 Superconducting magnetic energy storage (SMES), 297 Superconducting magnets, applications, nuclear magnetic resonance, 297 magnetic resonance imaging, particle accelerators, 297 power transmission, 297 superconducting electric motors, 297 superconducting magnetic energy storage, 297 thermonuclear fusion, 297 Superconductive MPD, 327 Superconductivity, Bardeen, Cooper and Schrieffer (BCS) theory, 291 cryocoolers, electric propulsion, future use of, high temperature superconductivity (HTSC), materials technology, superconducting magnets, technology, 296 use in thrusters, Tactical high-energy laser (THEL), 396 TBC, functional principle, operational issues, spray forming, 55 Technology readiness level (TRL), in situ resource utilization and, Telescope adaptive, 379 lightcraft and, THEL. See tactical high-energy laser. Thermal analysis, VASIMR and, Thermal barrier coatings, Thermal designs, 241 double stage Hall effect thrusters and, 279 Thermal spray forming, 60 Thermodynamic vent system (TVS), 211 Thermonuclear fusion, 297 Thrust range capability (TRC), 10 Thruster control systems, Thruster health monitoring, 245

9 INDEX 489 Thruster/Spacecraft interaction, double stage Hall effect thrusters and, 281 TPU. See turbopump unit. Tracking systems, laser propulsion and, 382 Transpiration cooling, 49, 51 52, 59 TRC. See thrust range capability. TRL. See technology readiness level. TRL evaluation, Turbopump unit (TPU), 118 Turbopumps, 60 62, supercavitating inducers, 74 technology of, bearings, boost pump, 69 inducers, TVS. See thermodynamic vent system. United States, laser propulsion systems and, Upper stage engines, liquid rocket engines, Variable specific impulse magnetoplasma rocket. See VASIMR. VASIMR (variable specific impulse magnetoplasma rocket), analysis of, constant-power-throttling (CPT), 333 cost analysis, exhaust performance, 346 future development, heating process, ICRF (ion cylcotron radio frequency), 337 ionization process, ISS flight experiment, high-power electric propulsion test, magnet and electric fields, 342 magnetic nozzle, power losses, pressure, technical readiness level, thermal analysis, Weather, laser propulsion systems and, 395 YCBO coated phases, 294 Zharinov type Hall thrusters, 239 Zirconia cell module, 464 Zirconia cell process, oxidizing metallic powders, Sabatier/water electrolysis,

10 This page intentionally left blank

Rocket Propulsion Overview

Rocket Propulsion Overview Rocket Propulsion Overview Seitzman Rocket Overview-1 Rocket Definition Rocket Device that provides thrust to a vehicle by accelerating some matter (the propellant) and exhausting it from the rocket Most

More information

IV. Rocket Propulsion Systems. A. Overview

IV. Rocket Propulsion Systems. A. Overview IV. Rocket Propulsion Systems A. Overview by J. M. Seitzman for AE 4451 Jet and Rocket Propulsion Seitzman Rocket Overview-1 Rocket Definition Rocket Device that provides thrust to a vehicle by accelerating

More information

11.1 Survey of Spacecraft Propulsion Systems

11.1 Survey of Spacecraft Propulsion Systems 11.1 Survey of Spacecraft Propulsion Systems 11.1 Survey of Spacecraft Propulsion Systems In the progressing Space Age, spacecrafts such as satellites and space probes are the key to space exploration,

More information

Propulsion Systems Design MARYLAND. Rocket engine basics Survey of the technologies Propellant feed systems Propulsion systems design

Propulsion Systems Design MARYLAND. Rocket engine basics Survey of the technologies Propellant feed systems Propulsion systems design Design Rocket engine basics Survey of the technologies Propellant feed systems Propulsion systems design 2005 David L. Akin - All rights reserved http://spacecraft.ssl.umd.edu Overview of the Design Process

More information

MARYLAND. Rocket engine basics Survey of the technologies Propellant feed systems Propulsion systems design U N I V E R S I T Y O F

MARYLAND. Rocket engine basics Survey of the technologies Propellant feed systems Propulsion systems design U N I V E R S I T Y O F Rocket engine basics Survey of the technologies Propellant feed systems Propulsion systems design 2004 David L. Akin - All rights reserved http://spacecraft.ssl. umd.edu Overview of the Design Process

More information

Propulsion Systems Design

Propulsion Systems Design Propulsion Systems Design Rocket engine basics Survey of the technologies Propellant feed systems Propulsion systems design 1 2011 David L. Akin - All rights reserved http://spacecraft.ssl.umd.edu Propulsion

More information

Propulsion Systems Design MARYLAND. Rocket engine basics Survey of the technologies Propellant feed systems Propulsion systems design

Propulsion Systems Design MARYLAND. Rocket engine basics Survey of the technologies Propellant feed systems Propulsion systems design Propulsion Systems Design Rocket engine basics Survey of the technologies Propellant feed systems Propulsion systems design 2008 David L. Akin - All rights reserved http://spacecraft.ssl.umd.edu 1 Propulsion

More information

Electric Propulsion Research and Development at NASA-MSFC

Electric Propulsion Research and Development at NASA-MSFC Electric Propulsion Research and Development at NASA-MSFC November 2014 Early NEP concept for JIMO mission Dr. Kurt Polzin (kurt.a.polzin@nasa.gov) Propulsion Research and Development Laboratory NASA -

More information

Multiple Thruster Propulsion Systems Integration Study. Rusakol, A.V..Kocherpin A.V..Semenkm A.V.. Tverdokhlebov S.O. Garkusha V.I.

Multiple Thruster Propulsion Systems Integration Study. Rusakol, A.V..Kocherpin A.V..Semenkm A.V.. Tverdokhlebov S.O. Garkusha V.I. IEPC-97-130 826 Multiple Thruster Propulsion Systems Integration Study Rusakol, A.V..Kocherpin A.V..Semenkm A.V.. Tverdokhlebov S.O. Garkusha V.I. Central Research Institute of Machine Building (TsNIIMASH)

More information

Contents. Preface... xvii

Contents. Preface... xvii Contents Preface... xvii CHAPTER 1 Idealized Flow Machines...1 1.1 Conservation Equations... 1 1.1.1 Conservation of mass... 2 1.1.2 Conservation of momentum... 3 1.1.3 Conservation of energy... 3 1.2

More information

Alberto Garbayo - MEng (hons) CEng Business Development Manager

Alberto Garbayo - MEng (hons) CEng Business Development Manager www.a-v-s.uk.com SME Engineering company with headquarters near Bilbao, Spain and Harwell Campus, Oxfordshire, UK. Founded in 2006, formed by highly qualified personnel (80% MEng, MSc and Doctors) with

More information

Electric Propulsion Survey: outlook on present and near future technologies / perspectives. by Ing. Giovanni Matticari

Electric Propulsion Survey: outlook on present and near future technologies / perspectives. by Ing. Giovanni Matticari Electric Propulsion Survey: outlook on present and near future technologies / perspectives by Ing. Giovanni Matticari Electric Propulsion: a concrete reality on many S/C GOCE ARTEMIS ARTEMIS SMART-1 EP

More information

Technology of Rocket

Technology of Rocket Technology of Rocket Parts of Rocket There are four major parts of rocket Structural system Propulsion system Guidance system Payload system Structural system The structural system of a rocket includes

More information

SOLAR ROCKET PROPULSION Ground and Space Technology Demonstration. Dr. Michael Holmes, AFRL/PRSS

SOLAR ROCKET PROPULSION Ground and Space Technology Demonstration. Dr. Michael Holmes, AFRL/PRSS SOLAR ROCKET PROPULSION Ground and Space Technology Demonstration Dr. Michael Holmes, AFRL/PRSS Solar Thermal Propulsion Concept Parabolic Mirror Sun Create thrust by collecting and focusing sunlight to

More information

ESSE Payload Design. 1.2 Introduction to Space Missions

ESSE Payload Design. 1.2 Introduction to Space Missions ESSE4360 - Payload Design 1.2 Introduction to Space Missions Earth, Moon, Mars, and Beyond Department of Earth and Space Science and Engineering Room 255, Petrie Science and Engineering Building Tel: 416-736

More information

(b) Analyzed magnetic lines Figure 1. Steady state water-cooled MPD thruster.

(b) Analyzed magnetic lines Figure 1. Steady state water-cooled MPD thruster. A. MPD thruster In this study, as one of the In-Space Propulsion projects by JAXA (Japan Aerospace exploration Agency), a practical MPD propulsion system was investigated. We planned to develop MPD thrusters

More information

Rockets, Missiles, and Spacecrafts

Rockets, Missiles, and Spacecrafts 36 1 Rockets, Missiles, and Spacecrafts 2 Chinese used rockets in the 12 th century AD against the Mongol attacks. In India Tipu Sultan used rockets against the British army in the 18 th century. The modern

More information

Applied Thermodynamics - II

Applied Thermodynamics - II Gas Turbines Sudheer Siddapureddy sudheer@iitp.ac.in Department of Mechanical Engineering Jet Propulsion - Classification 1. A heated and compressed atmospheric air, mixed with products of combustion,

More information

Electric Rocket Engine System R&D

Electric Rocket Engine System R&D Electric Rocket Engine System R&D In PROITERES, a powered flight by an electric rocket engine is planed; that is, orbital transfer will be carried out with a pulsed plasma thruster (PPT). We introduce

More information

Propulsion means for CubeSats

Propulsion means for CubeSats Propulsion means for CubeSats C. Scharlemann and D. Krejci 2009 CubeSat Developers Workshop, San Louis Obispo, CA Welcome to the Austrian Research Centers Space Propulsion & Advanced Concepts Staff: 11

More information

IAC-13,C4,P,44.p1,x17254 THE DYNAMIC OPERATON OF A HIGH Q EMDRIVE MICROWAVE THRUSTER. Roger Shawyer C.Eng. MIET. FRAeS. SPR Ltd UK

IAC-13,C4,P,44.p1,x17254 THE DYNAMIC OPERATON OF A HIGH Q EMDRIVE MICROWAVE THRUSTER. Roger Shawyer C.Eng. MIET. FRAeS. SPR Ltd UK IAC-13,C4,P,44.p1,x1754 THE DYNAMIC OPERATON OF A HIGH Q EMDRIVE MICROWAVE THRUSTER Roger Shawyer C.Eng. MIET. FRAeS SPR Ltd UK sprltd@emdrive.com ABSTRACT The static operation of an EmDrive microwave

More information

Electric Propulsion. An short introduction to plasma and ion spacecraft propulsion. S. Barral. Instytut Podstawowych Problemów Techniki - PAN

Electric Propulsion. An short introduction to plasma and ion spacecraft propulsion. S. Barral. Instytut Podstawowych Problemów Techniki - PAN Electric Propulsion An short introduction to plasma and ion spacecraft propulsion S. Barral Instytut Podstawowych Problemów Techniki - PAN sbarral@ippt.gov.pl S. Barral (IPPT-PAN) Electric Propulsion 1

More information

Chapter 4: Spacecraft Propulsion System Selection

Chapter 4: Spacecraft Propulsion System Selection S.1 Introduction - 1 - Chapter 4: Spacecraft Propulsion System Selection The selection of the best propulsion system for a given spacecraft missions is a complex process. Selection criteria employed in

More information

Propulsion Systems Design MARYLAND. Rocket engine basics Solid rocket motors Liquid rocket engines. Hybrid rocket engines Auxiliary propulsion systems

Propulsion Systems Design MARYLAND. Rocket engine basics Solid rocket motors Liquid rocket engines. Hybrid rocket engines Auxiliary propulsion systems Propulsion Systems Design Rocket engine basics Solid rocket motors Liquid rocket engines Monopropellants Bipropellants Propellant feed systems Hybrid rocket engines Auxiliary propulsion systems 2004 David

More information

Characteristics of some monopropellants (Reprinted from H. Koelle, Handbook of Astronautical Engineering, McGraw-Hill, 1961.)

Characteristics of some monopropellants (Reprinted from H. Koelle, Handbook of Astronautical Engineering, McGraw-Hill, 1961.) 16.522, Space Propulsion Prof. Manuel Martinez-Sanchez Lecture 7: Bipropellant Chemical Thrusters and Chemical Propulsion Systems Considerations (Valving, tanks, etc) Characteristics of some monopropellants

More information

3. Write a detailed note on the following thrust vector control methods:

3. Write a detailed note on the following thrust vector control methods: Code No: R05322103 Set No. 1 1. Starting from the first principles and with the help of neatly drawn velocity triangles obtain the following relationship: Ψ = 2 Φ (tan β 2 + tan β 3 ) where Ψ is the blade

More information

EVOLUTION OF POTENTIAL FUTURE SPACECRAFT PROPULSION SYSTEMS

EVOLUTION OF POTENTIAL FUTURE SPACECRAFT PROPULSION SYSTEMS EVOLUTION OF POTENTIAL FUTURE SPACECRAFT PROPULSION SYSTEMS Peter Erichsen April 2005 1 PROPULSION SYSTEM SELECTION CONSIDERATIONS The most fundamental criteria for the propulsion system to be selected

More information

Helicon Plasma Thruster Persepective and At University of Padua

Helicon Plasma Thruster Persepective and At University of Padua Helicon Plasma Thruster Persepective and Development status and future development At University of Padua D.Pavarin, M.Manente, F.Trezzolani, A.Selmo, M.Magarotto, E.Toson Outline Helicon Thruster overview

More information

Electric Propulsion System using a Helicon Plasma Thruster (2015-b/IEPC-415)

Electric Propulsion System using a Helicon Plasma Thruster (2015-b/IEPC-415) Electric Propulsion System using a Helicon Plasma Thruster (2015-b/IEPC-415) Presented at Joint Conference of 30th International Symposium on Space Technology and Science 34th International Electric Propulsion

More information

ACTIVITY OF RUSSIAN FEDERATION ON SPACE DEBRIS PROBLEM

ACTIVITY OF RUSSIAN FEDERATION ON SPACE DEBRIS PROBLEM ACTIVITY OF RUSSIAN FEDERATION ON SPACE DEBRIS PROBLEM 51-th session of the UN Committee on the Peaceful Uses of Outer Space (COPUOS) 1 Federal Space Agency of Russia continues consecutive activity in

More information

Development of Microwave Engine

Development of Microwave Engine Development of Microwave Engine IEPC-01-224 Shin SATORI*, Hiroyuki OKAMOTO**, Ted Mitsuteru SUGIKI**, Yoshinori AOKI #, Atsushi NAGATA #, Yasumasa ITO** and Takayoshi KIZAKI # * Hokkaido Institute of Technology

More information

Prospects for the use of nuclear power sources in outer space. Working document submitted by the Russian Federation

Prospects for the use of nuclear power sources in outer space. Working document submitted by the Russian Federation United Nations A/AC.105/C.1/L.265 General Assembly Distr.: Limited 19 February 2003 English Original: Russian Committee on the Peaceful Uses of Outer Space Scientific and Technical Subcommittee Fortieth

More information

Low Cost Helicon Propulsion System for CubeSat future mission scenarios. T4i - University of Padova D.Pavarin

Low Cost Helicon Propulsion System for CubeSat future mission scenarios. T4i - University of Padova D.Pavarin Low Cost Helicon Propulsion System for CubeSat future mission scenarios T4i - University of Padova D.Pavarin Centro di Ateneo Studi e Attività Spaziali University of Padova Padova, Italy Technology for

More information

LAUNCHES AND LAUNCH VEHICLES. Dr. Marwah Ahmed

LAUNCHES AND LAUNCH VEHICLES. Dr. Marwah Ahmed LAUNCHES AND LAUNCH VEHICLES Dr. Marwah Ahmed Outlines 2 Video (5:06 min) : https://youtu.be/8t2eyedy7p4 Introduction Expendable Launch Vehicles (ELVs) Placing Satellite into GEO Orbit Introduction 3 Introduction

More information

Rocket Propulsion. Combustion chamber Throat Nozzle

Rocket Propulsion. Combustion chamber Throat Nozzle Rocket Propulsion In the section about the rocket equation we explored some of the issues surrounding the performance of a whole rocket. What we didn t explore was the heart of the rocket, the motor. In

More information

Fusion-Enabled Pluto Orbiter and Lander

Fusion-Enabled Pluto Orbiter and Lander Fusion-Enabled Pluto Orbiter and Lander Presented by: Stephanie Thomas DIRECT FUSION DRIVE Team Members Stephanie Thomas Michael Paluszek Princeton Satellite Systems 6 Market St. Suite 926 Plainsboro,

More information

High Pulse Repetition Frequency Operation of Low-power short-pulse Plasma Thruster

High Pulse Repetition Frequency Operation of Low-power short-pulse Plasma Thruster High Pulse Repetition Frequency Operation of Low-power short-pulse Plasma Thruster IEPC-2015-91035 Presented at Joint Conference of 30th International Symposium on Space Technology and Science 34th International

More information

Plasma Propulsion in Space Eduardo Ahedo

Plasma Propulsion in Space Eduardo Ahedo Plasma Propulsion in Space Eduardo Ahedo Professor of Aerospace Engineering Plasmas and Space Propulsion Team Universidad Carlos III de Madrid, Spain Outline Space propulsion has been the domain of chemical

More information

MagBeam: R. Winglee, T. Ziemba, J. Prager, B. Roberson, J Carscadden Coherent Beaming of Plasma. Separation of Power/Fuel from Payload

MagBeam: R. Winglee, T. Ziemba, J. Prager, B. Roberson, J Carscadden Coherent Beaming of Plasma. Separation of Power/Fuel from Payload MagBeam: R. Winglee, T. Ziemba, J. Prager, B. Roberson, J Carscadden Coherent Beaming of Plasma Separation of Power/Fuel from Payload Fast, cost-efficient propulsion for multiple missions Plasma Propulsion

More information

Ulrich Walter. Astronautics. The Physics of Space Flight. 2nd, Enlarged and Improved Edition

Ulrich Walter. Astronautics. The Physics of Space Flight. 2nd, Enlarged and Improved Edition Ulrich Walter Astronautics The Physics of Space Flight 2nd, Enlarged and Improved Edition Preface to Second Edition Preface XVII Acknowledgments XIX List of Symbols XXI XV 1 Rocket Fundamentals 1 1.1 Rocket

More information

IEPC Glushko etc. 3 One of the most attractive transport problems seemed to be a manned Mars mission with

IEPC Glushko etc. 3 One of the most attractive transport problems seemed to be a manned Mars mission with 3-69 - EPC-95-08 NTP'S ACTVTY N THE FELD OF ELECTRC PROPULSON A S Koroteev. V. A. Petrosov NTP was established in 1933. t is a first rocket nstitute in USSR. Here worked all the outstanding scientists

More information

A review of plasma thruster work at the Australian National University

A review of plasma thruster work at the Australian National University A review of plasma thruster work at the Australian National University IEPC-2015-90850 Presented at Joint Conference of 30th International Symposium on Space Technology and Science 34th International Electric

More information

1. (a) Describe the difference between over-expanded, under-expanded and ideallyexpanded

1. (a) Describe the difference between over-expanded, under-expanded and ideallyexpanded Code No: R05322106 Set No. 1 1. (a) Describe the difference between over-expanded, under-expanded and ideallyexpanded rocket nozzles. (b) While on its way into orbit a space shuttle with an initial mass

More information

VASIMR Plasma Rocket Technology. Andrew Petro Advanced Space Propulsion Laboratory NASA JSC Houston, Texas May 2002

VASIMR Plasma Rocket Technology. Andrew Petro Advanced Space Propulsion Laboratory NASA JSC Houston, Texas May 2002 VASIMR Plasma Rocket Technology Andrew Petro Advanced Space Propulsion Laboratory NASA JSC Houston, Texas May 2002 Introduction VASIMR Plasma Rocket Technology OUTLINE Development Roadmap Flight Demonstration

More information

Propulsion and Energy Systems. Kimiya KOMURASAKI, Professor, Dept. Aeronautics & Astronautics, The University of Tokyo

Propulsion and Energy Systems. Kimiya KOMURASAKI, Professor, Dept. Aeronautics & Astronautics, The University of Tokyo Propulsion and Energy Systems Kimiya KOMURASAKI, Professor, Dept. Aeronautics & Astronautics, The University of Tokyo Schedule Space propulsion with non-chemical technologies 10/5 1) Space Propulsion Fundamentals

More information

Characterization of an adjustable magnetic field, low-power Hall Effect Thruster

Characterization of an adjustable magnetic field, low-power Hall Effect Thruster Characterization of an adjustable magnetic field, low-power Hall Effect Thruster IEPC-2011-143 Presented at the 32nd International Electric Propulsion Conference, Wiesbaden Germany S. Oslyak 1, C. Ducci

More information

Flight Demonstration of Electrostatic Thruster Under Micro-Gravity

Flight Demonstration of Electrostatic Thruster Under Micro-Gravity Flight Demonstration of Electrostatic Thruster Under Micro-Gravity Shin SATORI*, Hiroyuki MAE**, Hiroyuki OKAMOTO**, Ted Mitsuteru SUGIKI**, Yoshinori AOKI # and Atsushi NAGATA # * Hokkaido Institute of

More information

The division of energy sources and the working substance in electric propulsioncan determines the range of applicability of electro jet propulsion sys

The division of energy sources and the working substance in electric propulsioncan determines the range of applicability of electro jet propulsion sys Vacuum Arc thruster development for Horyu-4 satellite KaterynaAheieva, Shingo Fuchikami, Hiroshi Fukuda, Tatsuo Shimizu, Kazuhiro Toyoda, Mengu Cho Kyushu Institute of Technology1 N589502a@mail.kyutech.jp

More information

Rocket Dynamics. Forces on the Rocket

Rocket Dynamics. Forces on the Rocket Rocket Dynamics Forces on the Rockets - Drag Rocket Stability Rocket Equation Specific Impulse Rocket otors F Thrust Forces on the Rocket Equation of otion: Need to minimize total mass to maximize acceleration

More information

A BATCH LAUNCH FOR THE O3b CONSTELLATION

A BATCH LAUNCH FOR THE O3b CONSTELLATION A BATCH LAUNCH FOR THE O3b CONSTELLATION For the fifth Soyuz launch from the Guiana Space Center, Arianespace will orbit the first four satellites in the O3b constellation. These satellites are built by

More information

Advancing the Utility of Small Satellites with the Development of a Hybrid Electric-Laser Propulsion (HELP) System

Advancing the Utility of Small Satellites with the Development of a Hybrid Electric-Laser Propulsion (HELP) System Advancing the Utility of Small Satellites with the Development of a Hybrid Electric-Laser Propulsion (HELP) System Dr. Rachel Leach, Gerry Murphy & Tom Adams Design_Net Engineering LLC August 12, 2004

More information

INTRODUCTION. Simple electron emitters for space. Simple mechanism of electron emission. Demand for electron sources in space

INTRODUCTION. Simple electron emitters for space. Simple mechanism of electron emission. Demand for electron sources in space R E S E A R C H INTRODUCTION Simple electron emitters for space Demand for electron sources in space Asteroid explorer "Hayabusa" returned to Earth on June 13, 2010 after a seven-year space flight using

More information

HTS Magnets for Advanced Magnetoplasma Space Propulsion Applications*

HTS Magnets for Advanced Magnetoplasma Space Propulsion Applications* lthe=bm M m anusxipthas been autho= by a contzacbrof the U S. G ovemm ent under contzact N o. DE*c05+360R22464. Accmdtigly, the U S. G ovemm ent I&&Is a nonexcbstie, myaliy-k licen=inpublishor reproducethepublkhd

More information

Plasma Behaviours and Magnetic Field Distributions of a Short-Pulse Laser-Assisted Pulsed Plasma Thruster

Plasma Behaviours and Magnetic Field Distributions of a Short-Pulse Laser-Assisted Pulsed Plasma Thruster Plasma Behaviours and Magnetic Field Distributions of a Short-Pulse Laser-Assisted Pulsed Plasma Thruster IEPC-2015-91325 Presented at Joint Conference of 30th International Symposium on Space Technology

More information

EPIC Draft ROADMAP Incremental line

EPIC Draft ROADMAP Incremental line EPIC Draft ROADMAP Incremental line PSA Consortium Workshop Stockholm 11/02/2015. Call 2016 COMMISSION PROCESS OPEN TECHNOLOGY-BASED SYSTEMS HALL EFFECT THRUSTER (HET) GRIDDED ION ENGINE (GIE) HEMP THRUSTER

More information

Abstract. Objectives. Theory

Abstract. Objectives. Theory A Proposal to Develop a Two-Stage Gridless Ion Thruster with Closed Electron Drift Richard R. Hofer Plasmadynamics and Electric Propulsion Laboratory (PEPL) Department of Aerospace Engineering University

More information

Conceptual Design of Manned Space Transportation Vehicle (MSTV) Using Laser Thruster in Combination with H-II Rocket

Conceptual Design of Manned Space Transportation Vehicle (MSTV) Using Laser Thruster in Combination with H-II Rocket Conceptual Design of Manned Space Transportation Vehicle (MSTV) Using Laser Thruster in Combination with H-II Rocket Laser Thruster Yoshinari Minami Advanced Sci.-Tech. Rsch. Orgn. (Formerly NEC Space

More information

Miniature Vacuum Arc Thruster with Controlled Cathode Feeding

Miniature Vacuum Arc Thruster with Controlled Cathode Feeding Miniature Vacuum Arc Thruster with Controlled Cathode Feeding Igal Kronhaus and Matteo Laterza Aerospace Plasma Laboratory, Faculty of Aerospace Engineering, Technion - Israel Institute of Technology,

More information

Geometry optimization and effect of gas propellant in an electron cyclotron resonance plasma thruster

Geometry optimization and effect of gas propellant in an electron cyclotron resonance plasma thruster Geometry optimization and effect of gas propellant in an electron cyclotron resonance plasma thruster IEPC-2017-378 Presented at the 35th International Electric Propulsion Conference Georgia Institute

More information

AAE SOLID ROCKET PROPULSION (SRP) SYSTEMS

AAE SOLID ROCKET PROPULSION (SRP) SYSTEMS 7. SOLID ROCKET PROPULSION (SRP) SYSTEMS Ch7 1 7.1 INTRODUCTION 7.1 INTRODUCTION Ch7 2 APPLICATIONS FOR SRM APPLICATIONS FOR SRM Strap-On Boosters for Space Launch Vehicles, Upper Stage Propulsion System

More information

PROGRESS ON THE DEVELOPMENT OF A PULSED PLASMA THRUSTER FOR THE ASTER MISSION

PROGRESS ON THE DEVELOPMENT OF A PULSED PLASMA THRUSTER FOR THE ASTER MISSION PROGRESS ON THE DEVELOPMENT OF A PULSED PLASMA THRUSTER FOR THE ASTER MISSION IEPC-2013-318 Presented at the 33rd International Electric Propulsion Conference, The George Washington University Washington,

More information

Development and qualification of Hall thruster KM-60 and the flow control unit

Development and qualification of Hall thruster KM-60 and the flow control unit Development and qualification of Hall thruster KM-60 and the flow control unit IEPC-2013-055 Presented at the 33rd International Electric Propulsion Conference, The George Washington University Washington,

More information

Zack Schools Thomas Foulds Drew Staples Geetesh Devineni. Helium-3 Mining Ops

Zack Schools Thomas Foulds Drew Staples Geetesh Devineni. Helium-3 Mining Ops Helium-3 Mining Ops The primary purpose of this mission to Titan is to mine He-3 from the atmosphere of Saturn. He-3 is an essential piece in a specific fusion process that, when reacted with Deuterium,

More information

Radiation exposure and mission strategies for interplanetary manned missions and interplanetary habitats.

Radiation exposure and mission strategies for interplanetary manned missions and interplanetary habitats. Radiation exposure and mission strategies for interplanetary manned missions and interplanetary habitats. P. Spillantini, INFN and University, Firenze, Italy Vulcano Workshop 2010 May 23-29, Vulcano, Italy

More information

TAU Extensions for High Enthalpy Flows. Sebastian Karl AS-RF

TAU Extensions for High Enthalpy Flows. Sebastian Karl AS-RF TAU Extensions for High Enthalpy Flows Sebastian Karl AS-RF Contents Motivation Extensions available in the current release: Numerical schemes for super- and hypersonic flow fields Models for gas mixtures,

More information

SSC01-IX th Annual/USU Conference on Small Satellites

SSC01-IX th Annual/USU Conference on Small Satellites An RF Plasma Thruster for Use in Small Satellites New England Space Works, Inc., 24 Swift Road, Framingham, MA 01702 (508)620-6667 LynnOlson@compuserve.com SSC01-IX-7 Abstract. New England Space Works

More information

Pico-Satellite Orbit Control by Vacuum Arc Thrusters as Enabling Technology for Formations of Small Satellites

Pico-Satellite Orbit Control by Vacuum Arc Thrusters as Enabling Technology for Formations of Small Satellites 1/25 Pico-Satellite Orbit Control by Vacuum Arc Thrusters as Enabling Technology for Formations of Small Satellites Igal Kronhaus, Mathias Pietzka, Klaus Schilling, Jochen Schein Department of Computer

More information

Satellite Components & Systems. Dr. Ugur GUVEN Aerospace Engineer (P.hD) Nuclear Science & Technology Engineer (M.Sc)

Satellite Components & Systems. Dr. Ugur GUVEN Aerospace Engineer (P.hD) Nuclear Science & Technology Engineer (M.Sc) Satellite Components & Systems Dr. Ugur GUVEN Aerospace Engineer (P.hD) Nuclear Science & Technology Engineer (M.Sc) Definitions Attitude: The way the satellite is inclined toward Earth at a certain inclination

More information

The development of a family of Resistojet Thruster Propulsion Systems for Small Spacecraft

The development of a family of Resistojet Thruster Propulsion Systems for Small Spacecraft The development of a family of Resistojet Thruster Propulsion Systems for Small Spacecraft D.Gibbon, I.Coxhill, A.Baker, M.Sweeting Surrey Satellite Technology Ltd, University of Surrey, Guildford, England

More information

Lunar Flashlight Project

Lunar Flashlight Project ABSTRACT Recent observations of the Moon with the Moon Mineralogy Mapper (M3), Lunar Crater Observation and Sensing Satellite (LCROSS), the Lunar Reconnaissance Orbiter (LRO) and other evidence suggest

More information

Propulsion Systems Design

Propulsion Systems Design Propulsion Systems Design Rocket engine basics Survey of the technologies Propellant feed systems Propulsion systems design 1 2016 David L. Akin - All rights reserved http://spacecraft.ssl.umd.edu Liquid

More information

ROCKET PROPULSION. the pressure of the ambient atmosphere, P e. their ejection speed. Thrust is specified either at sea level or in a vacuum.

ROCKET PROPULSION. the pressure of the ambient atmosphere, P e. their ejection speed. Thrust is specified either at sea level or in a vacuum. Page 1 ROCKET PROPULSION Thrust Conservation of Momentum Impulse & Momentum Combustion & Exhaust Velocity Specific Impulse Rocket Engines Power Cycles Engine Cooling Solid Rocket Motors Monopropellant

More information

A New Propulsion Concept for Interplanetary Missions

A New Propulsion Concept for Interplanetary Missions r bulletin 108 november 2001 A New Propulsion Concept for Interplanetary Missions C. Dujarric Directorate of Launchers, ESA, Paris Introduction Today s propulsion-technology know-how makes it possible

More information

A Regional Microsatellite Constellation with Electric Propulsion In Support of Tuscan Agriculture

A Regional Microsatellite Constellation with Electric Propulsion In Support of Tuscan Agriculture Berlin, 20 th - 24 th 2015 University of Pisa 10 th IAA Symposium on Small Satellites for Earth Observation Student Conference A Regional Microsatellite Constellation with Electric Propulsion In Support

More information

BravoSat: Optimizing the Delta-V Capability of a CubeSat Mission. with Novel Plasma Propulsion Technology ISSC 2013

BravoSat: Optimizing the Delta-V Capability of a CubeSat Mission. with Novel Plasma Propulsion Technology ISSC 2013 BravoSat: Optimizing the Delta-V Capability of a CubeSat Mission with Novel Plasma Propulsion Technology Sara Spangelo, NASA JPL, Caltech Benjamin Longmier, University of Michigan Interplanetary Small

More information

Space Travel on a Shoestring: CubeSat Beyond LEO

Space Travel on a Shoestring: CubeSat Beyond LEO Space Travel on a Shoestring: CubeSat Beyond LEO Massimiliano Vasile, Willem van der Weg, Marilena Di Carlo Department of Mechanical and Aerospace Engineering University of Strathclyde, Glasgow 5th Interplanetary

More information

New 2d Far Field Beam Scanning Device at DLR s Electric Propulsion Test Facility

New 2d Far Field Beam Scanning Device at DLR s Electric Propulsion Test Facility New 2d Far Field Beam Scanning Device at DLR s Electric Propulsion Test Facility IEPC-2015-b/IEPC-388 Presented at Joint Conference of 30th International Symposium on Space Technology and Science 34th

More information

Development of stationary plasma thruster SPT-230 with discharge power of kw

Development of stationary plasma thruster SPT-230 with discharge power of kw Development of stationary plasma thruster SPT-230 with discharge power of 10...15 kw IEPC-2017-548 Presented at the 35th International Electric Propulsion Conference Georgia Institute of Technology Atlanta,

More information

Cold Gas Thruster Qualification for FORMOSAT 5

Cold Gas Thruster Qualification for FORMOSAT 5 Cold Gas Thruster Qualification for FORMOSAT 5 By Hans-Peter HARMANN 1), Tammo ROMBACH 2) and Heiko DARTSCH 1) 1) AST Advanced Space Technologies GmbH, Stuhr, Germany 2) SpaceTech GmbH, Immenstaad, Germany

More information

Electric Propulsion Activity in Russia *

Electric Propulsion Activity in Russia * Electric Propulsion Activity in Russia * Vladimir Kim, Garri Popov Research Institute of Applied Mechanics and Electrodynamics of Moscow Aviation Institute (RIAME MAI) 5, Leningradskoye shosse, P.O.box

More information

Research and Development of Very Low Power Cylindrical Hall Thrusters for Nano-Satellites

Research and Development of Very Low Power Cylindrical Hall Thrusters for Nano-Satellites Research and Development of Very Low Power Cylindrical Hall Thrusters for Nano-Satellites IEPC--39 Presented at the 3nd International Electric Propulsion Conference, Wiesbaden Germany Tomoyuki Ikeda, Kazuya

More information

An introduction to the plasma state in nature and in space

An introduction to the plasma state in nature and in space An introduction to the plasma state in nature and in space Dr. L. Conde Departamento de Física Aplicada E.T.S. Ingenieros Aeronáuticos Universidad Politécnica de Madrid The plasma state of condensed matter

More information

Rationale for a European Space Weather Programme

Rationale for a European Space Weather Programme Rationale for a European Space Weather Programme Hannu Koskinen Finnish Meteorological Institute ESWS Final Presentation ESTEC, 6 December, 2001 Scope WP 300 of ESWS: Establishment of detailed rationale

More information

Full Electric Mission to Moon (SMART-1) and Technologies: Electric propulsion, rendez-vous, formation flying

Full Electric Mission to Moon (SMART-1) and Technologies: Electric propulsion, rendez-vous, formation flying The Space Congress Proceedings 2016 (44th) The Journey: Further Exploration for Universal Opportunities May 25th, 10:45 AM Full Electric Mission to Moon (SMART-1) and Technologies: Electric propulsion,

More information

Operating Envelopes of Thrusters with Anode Layer

Operating Envelopes of Thrusters with Anode Layer Operating Envelopes of Thrusters with Anode Layer Semenkin A.V., Tverdokhlebov S.O., Garkusha V.I., Kochergin A.V., Chislov G.O., Shumkin B.V., Solodukhin A.V., Zakharenkov L.E. ABSTRACT The operational

More information

SENTINEL-1A LAUNCH CONTENTS. CONTACT & LINKS Press Contact Mario de Lepine

SENTINEL-1A LAUNCH CONTENTS. CONTACT & LINKS Press Contact Mario de Lepine SENTINEL-1A LAUNCH Arianespace s seventh Soyuz launch from the Guiana Space Center will orbit Sentinel-1A, the first satellite in Europe s Earth observation program, Copernicus. The European Space Agency

More information

LAUNCH SYSTEMS. Col. John Keesee. 5 September 2003

LAUNCH SYSTEMS. Col. John Keesee. 5 September 2003 LAUNCH SYSTEMS Col. John Keesee 5 September 2003 Outline Launch systems characteristics Launch systems selection process Spacecraft design envelope & environments. Each student will Lesson Objectives Understand

More information

ETS-Ⅷ Ion Engine and its Operation on Orbit

ETS-Ⅷ Ion Engine and its Operation on Orbit ETS-Ⅷ Ion Engine and its Operation on Orbit IEPC-2009-048 Presented at the 31st International Electric Propulsion Conference, University of Michigan Ann Arbor, Michigan USA Kenichi Kajiwara 1, Masafumi

More information

Learn From The Proven Best!

Learn From The Proven Best! Applied Technology Institute (ATIcourses.com) Stay Current In Your Field Broaden Your Knowledge Increase Productivity 349 Berkshire Drive Riva, Maryland 21140 888-501-2100 410-956-8805 Website: www.aticourses.com

More information

Mass Estimating Relationships MARYLAND. Review of iterative design approach Mass Estimating Relationships (MERs) Sample vehicle design analysis

Mass Estimating Relationships MARYLAND. Review of iterative design approach Mass Estimating Relationships (MERs) Sample vehicle design analysis Mass Estimating Relationships Review of iterative design approach Mass Estimating Relationships (MERs) Sample vehicle design analysis 2006 David L. Akin - All rights reserved http://spacecraft.ssl.umd.edu

More information

High-impulse SPT-100D thruster with discharge power of kw

High-impulse SPT-100D thruster with discharge power of kw High-impulse SPT-D thruster with discharge power of 1.0 3.0 kw IEPC-2017-40 Presented at the 35th International Electric Propulsion Conference Georgia Institute of Technology Atlanta, Georgia USA R. Gnizdor

More information

Learning Lab Seeing the World through Satellites Eyes

Learning Lab Seeing the World through Satellites Eyes Learning Lab Seeing the World through Satellites Eyes ESSENTIAL QUESTION What is a satellite? Lesson Overview: Engage students will share their prior knowledge about satellites and explore what satellites

More information

Power, Propulsion and Thermal Design Project ENAE483 Fall 2012

Power, Propulsion and Thermal Design Project ENAE483 Fall 2012 Power, Propulsion and Thermal Design Project ENAE483 Fall 2012 Team B8: Josh Sloane Matt Rich Rajesh Yalamanchili Kiran Patel Introduction This project is an extension of Team A2's Crew Systems Project

More information

Initial Experiments of a New Permanent Magnet Helicon Thruster

Initial Experiments of a New Permanent Magnet Helicon Thruster Initial Experiments of a New Permanent Magnet Helicon Thruster J. P. Sheehan 1, B. W. Longmier 1, I. M. Reese 2, T. A. Collard 1, F. H. Ebersohn 1, E. T. Dale 1, B. N. Wachs 1, and M. E. Ostermann 1 1

More information

THIRD VEGA LAUNCH FROM THE GUIANA SPACE CENTER

THIRD VEGA LAUNCH FROM THE GUIANA SPACE CENTER THIRD VEGA LAUNCH FROM THE GUIANA SPACE CENTER On the third Vega launch from the Guiana Space Center (CSG) in French Guiana, Arianespace will orbit Kazakhstan s first Earth observation satellite, DZZ-HR.

More information

The Integrated Structural Electrodynamic Propulsion (ISEP) Experiment

The Integrated Structural Electrodynamic Propulsion (ISEP) Experiment The Integrated Structural Electrodynamic Propulsion (ISEP) Experiment Nestor Voronka, Robert Hoyt, Tyrel Newton, Ian Barnes Brian Gilchrist (UMich( UMich), Keith Fuhrhop (UMich) TETHERS UNLIMITED, INC.

More information

Plasma Modeling with COMSOL Multiphysics

Plasma Modeling with COMSOL Multiphysics Plasma Modeling with COMSOL Multiphysics Copyright 2014 COMSOL. Any of the images, text, and equations here may be copied and modified for your own internal use. All trademarks are the property of their

More information

SECOND VEGA LAUNCH FROM THE GUIANA SPACE CENTER

SECOND VEGA LAUNCH FROM THE GUIANA SPACE CENTER SECOND VEGA LAUNCH FROM THE GUIANA SPACE CENTER On the second Vega launch from the Guiana Space Center (CSG) in French Guiana, Arianespace will orbit three satellites: PROBA-V, VNREDSat-1 and ESTCube-1.

More information

Design of an Earth-to-Mars Tether Launch System

Design of an Earth-to-Mars Tether Launch System AOE 4065 Space Design Design of an Earth-to-Mars Tether Launch System 12 December 2001 Submitted by AOE All-Stars Michael P. Belcher Ann W. Bergquist Joseph G. Bidwell Douglas B. Firestone Jessica M. Jensen

More information

Development of VASIMR Helicon Source

Development of VASIMR Helicon Source Development of VASIMR Helicon Source Verlin T. Jacobson, Franklin R. Chang Díaz, Jared P. Squire, Greg E., McCaskill, James E. McCoy, Andrew J. Petro, D. Scott Winter and Hugh M. Jamison Advanced Space

More information