Electric Propulsion System Setup S 1 1 2 2 3 3 4 4 5 5 6 6 7 7 8 8 10 11 From PCDU S/C Communication 9 9 Xenon System Thermal System Power / Intercomm.

Slides:



Advertisements
Similar presentations
HUMIDIFICATION/COOLING TOWER
Advertisements

Main Steam Cycle Let the fun begin….
Part B4: Storage. B4.1Storage B4.1Storage Types Sensible heat –Water –Pebble bed –Ground Latent heat of phase change Chemical reaction.
MAE 5391: Rocket Propulsion Overview of Propulsion Systems
Pistonless Dual Chamber Rocket Fuel Pump Steve Harrington, Ph.D Joint Propulsion Conference.
AAE450 Senior Spacecraft Design Poliskie - 1 T.J. Poliskie Week 5: February 15, 2007 Propulsion Earth Taxi, Mars Taxi Group Zero Boil-Off Cryogenic Propulsion.
NEO Surveyor Thomas M. Randolph Jet Propulsion Laboratory
EGR 4347 Analysis and Design of Propulsion Systems
An Introduction to Rocket
The Lander is at a 25 km Lunar altitude and an orbital period of approximately 110 minutes. After separation occurs the Lander is completely self sufficient.
AAE450 Spring 2009 Slide 1 of 7 Orbital Transfer Vehicle (OTV) Thermal Control Ian Meginnis February 26, 2009 Group Leader - Power Systems Phase Leader.
AAE450 Spring 2009 Slide 1 of 8 Orbital Transfer Vehicle (OTV) Masses and Costs Ian Meginnis March 12, 2009 Group Leader - Power Systems Phase Leader -
AAE450 Spring 2009 Kelly Leffel 3/26/09 Structures and Thermal Lunar Descent Phase Lander Integration Lander Thermal Control (Day) Kelly Leffel Structures.
AAE450 Spring 2009 Project X pedition Final slides outline for Orbital Transfer Vehicle Propulsion Week 11 Presentation Thursday, March 26, 2009 Brad Appel.
AAE450 Spring 2009 Translunar Orbit Transfer Vehicle (OTV): Propulsion System Setup for 100g & 10 kg Case Launch Vehicle Selection for Arbitrary Case Thermal.
AAE450 Spring 2009 Descent Trajectory Hover Trajectory LD Code Integration John Aitchison March 5 th, 2009 [John Aitchison] [Mission Ops]
AAE450 Spring Gram Mission Integration and Model Korey LeMond STRC/THM/INTEG GL [Korey LeMond] [STRC/THM/INTEG/CAD GL, OTV Phase] 1.
Project X pedition Spacecraft Senior Design – Spring 2009
Week 13 Presentation Thursday, April 9 th, 2009 Saad Tanvir Propulsion Group 1 Lunar Descent – Hybrid Propulsion System Propulsion System Inert Mass Finals.
Part-Time Scientists An opportunity for connections By Wesley Faler.
Spacecraft Propulsion Dr Andrew Ketsdever Lesson 13 MAE 5595.
AAE450 Senior Spacecraft Design Fred Ricchio Week 2: January 25 th, 2007 Propulsion Team Magnetoplasmadynamic (MPD) Thruster Performance Projections.
A Comparison of Nuclear Thermal to Nuclear Electric Propulsion for Interplanetary Missions Mike Osenar Mentor: LtCol Lawrence.
Electricity from Geothermal. Developing the Geothermal Resource for Power Generation  Geothermal Well Characteristics  Vapor Dominated  Dry Steam 
Conservation of Mass, Flow Rates
In-Space Propulsion Systems Low Thrust Micropropulsion Michael M. Micci The Pennsylvania State University Presented at the NASA Technology Roadmaps: Propulsion.
Course Summary Session: Trajectories, Chemical Rockets, Plasma Propulsion, Fusion Propulsion John F Santarius Lecture 43 Resources from Space NEEP 533/
EXTROVERTSpace Propulsion 12 Electric Propulsion Continued.
Component Properties ComponentProductMax Operating Pressure ∆P, FlowratePower Consumption Max Response Time Fuel Tank385.3 psia --- Fuel Filter585.3 psia5.
AAE450 Spring 2009 Kelly Leffel 3/0509 Structures and Thermal Lunar Descent Phase Lander Integration Lander Thermal Control Kelly Leffel Structures and.
Comprehend the different types of rockets Comprehend the propulsion and flight of rockets Comprehend the types of launch vehicles Comprehend the factors.
Electric Propulsion.
AAE450 Spring 2009 Slide 1 of 7 Final Presentation Slides Ian Meginnis April 9, 2009 Group Leader - Power Systems Phase Leader - Translunar Injection OTV.
AAE450 Spring 2009 Slide 1 of 8 Final Presentation Back-up Slides Orbital Transfer Vehicle (OTV) Power and Thermal Control Ian Meginnis Ian Meginnis Power.
Competition Sensitive Dennis Asato June 28, 2001 XSuperNova / Acceleration Probe (SNAP) Propulsion.
Low Thrust Transfer to Sun-Earth L 1 and L 2 Points with a Constraint on the Thrust Direction LIBRATION POINT ORBITS AND APPLICATIONS Parador d'Aiguablava,
ROCKET PROPULSION LECTURE 1: INTRODUCTION Propulsion Lecture 1 - INTRODUCTION.
AGUS HARYANTO 01 March  Examine the moving boundary work or P.dV work.  Identify the first law of thermodynamics for closed (fixed mass) systems.
So Far: Mass and Volume Flow Rates Reynolds No., Laminar/Turbulent Pressure Drop in Pipes Flow Measurement, Valves Total Head, Pump Power, NPSH This Week:
Nuclear Propulsion Allen May. What is it?  Any Propulsion Method that uses some form of nuclear reaction.
Ion Energetics of the Modes of the CubeSat Ambipolar Thruster Timothy A. Collard 1, J. P. Sheehan 1, and Alec D. Gallimore 1 1 Aerospace Engineering, University.
Thermodynamics and Energy The First Law The Second Law Dimensions and Units Dimensions Units – English and SI Example: In Europe, many tanks are rated.
AAE450 Spring 2009 Lander Phase: Hybrid Propulsion System Propellant Tank Sizing and Pressure Analysis Thermodynamic analysis on Hydrogen peroxide Tanks.
20c - 1 NASA’s Goddard Space Flight Center Propulsion Chuck Zakrwski NASA/GSFC Code 597 August 16-17, 2005.
Final Version Gary Davis Robert Estes Scott Glubke Propulsion May 13-17, 2002 Micro Arcsecond X-ray Imaging Mission, Pathfinder (MAXIM-PF)
Spacecraft Systems Henry Heetderks Space Sciences Laboratory, UCB.
Propulsion Trade Study for Translational Motion Main ThrustersIsp (s)FuelCatalystOxidizerPower ReqThrust rangeExample Flight HistoryComplexity solid rocket.
Wayfarer Ryan Stelzer Dr. David Gaylor April 16 th, 2016 Arizona Space Grant Symposium.
How much wood… ? U -W Q.
Date of download: 6/27/2016 Copyright © ASME. All rights reserved. From: Determination of Heat Transfer Characteristics of Solar Thermal Collectors as.
Phase I STTR Principal Investigator: Christopher Davis, PhD ElectroDynamic Applications, Inc. Ann Arbor, Michigan University Principal Investigator: Professor.
From: Thermal-Hydraulic Performance of MEMS-based Pin Fin Heat Sink
Date of download: 10/14/2017 Copyright © ASME. All rights reserved.
Integrated Thermal Analysis of the Iodine Satellite (iSAT) from Preliminary to Critical Design Review October 20th 2016 Stephanie Mauro NASA Marshall Space.
Vacuum chamber for experiment HIHEX at FAIR
ELECTRIC PROPULSION OVERVIEW
Week 6 Presentation Thursday, Feb 19, 2009
Ian Meginnis January 29, 2009 Group Leader - Power Systems
Matthew Prevallet 4/26/16 Arizona/NASA Space Grant Symposium
John Beasley 3/20/2008 Propulsion Group Contact: Black Boxes and Code Flowchart AAE 450 Spring 2008.
High Power Electric Propulsion for Space Exploration
Inputs on HPM EPS, SEP Stage Block II configuration, and comments on 10/2 presentation package Tim Sarver-Verhey 10/1/2001.
Week 4 Presentation Thursday, Feb 5, 2009
Team A Propulsion 1/16/01.
THERMAL CONTROL SYSTEM
ENERGY Energy J Kinetic Energy J Elastic potential energy J Ek Ee E
Stephan Shurn 20 March 2008 Propulsion Final Slides Rail Guns and LITVC AAE 450 Spring 2008.
Ian Meginnis January 29, 2009 Group Leader - Power Systems
Propulsion Jon Lewis Mike Rhee 8/19/99
Presentation transcript:

Electric Propulsion System Setup S From PCDU S/C Communication 9 9 Xenon System Thermal System Power / Intercomm 0.2 m No redundancies, no integration costs

Electric Propulsion System Specifications Specifications for the Hall Thruster – 100g Mission VariableValueUnits Thrust78.5mN Specific Impulse1950s Mass Flow Rate4.1mg/s Power Input1526W Efficiency Input Voltage350VDC Mass5.7kg Propulsion System Totals – 10kg Mission VariableValueUnits Wet Mass215kg Dry Mass30kg Required Power2,043Watts Burn time365days Thrust104mN Specific Impulse1964s Mass flow Rate5.4mg/s Specifications for the BHT-8000 Hall Thruster – Large Mission VariableValueUnits Thrust424mN Specific Impulse2250s Mass Flow Rate19.2mg/s Power Input7,600W Efficiency Mass25kg Propulsion System Totals - Large Mission VariableValueUnits Wet Mass3,810kg Dry Mass520kg Required Power38,773Watts Burn time365days Payload Capability4,545kg

LOx/LH2 would require an extra 600 kg, costing an extra $2.6M An ion thruster could accomplish the mission, but would require much more power than the HET Current technology places HET lifetime over 1 year Other Propulsion Options

Xenon Storage Thermal Analysis Allowed temperature path of propellant Maximize storage pressure for volume efficiency (~ 150 bar) Maintain tank temperature for gaseous Xenon phase:  Balance heat due to radiation and pressure drop with a 5 watt resistance heater Curve data from National Institute of Standards and Technology Temperature (K)