Large Lightweight Deployable Structures for Planetary Defence: Solar Sail Propulsion, Solar Concentrator Payloads, Large-scale Photovoltaic Power (1) DLR.

Slides:



Advertisements
Similar presentations
Dr. Jack Agee Rice University May 10, 2011 Hyatt Regency Crystal City
Advertisements

LightSail.
Experimental studies of low energy proton irradiation of thin vacuum deposited Aluminum layers T. Renger, M. Sznajder, U.R.M.E. Geppert Chart.
Prof. Paolo Gaudenzi - Aerospace Structures 1 Configuration of a satellite and of its structural system Prof. P. Gaudenzi Università di Roma La Sapienza,
2 nd SSS, July 2010, Christina Scholz Performance Analysis of an Attitude Control System for Solar Sails Using Sliding Masses Christina Scholz Daniele.
Babakin Space Center, Space Research Insitute, Makeev Rocket Design Bureau COSMOS ONE: THE FIRST SOLAR SAIL a project of The Planetary Society with Cosmos.
Payload Design Criteria for the Space Test Program Standard Interface Vehicle (STP-SIV) Mr. Mike Marlow STP-SIV Program Manager Payload Design Criteria.
SATELLITES What They Do and How They Work Michael J. Mackowski Aerospace Engineer October 2013 With Updates from Shawn Shepherd.
System Identification of a Nanosatellite Structure Craig L. Stevens, Jana L. Schwartz, and Christopher D. Hall Aerospace and Ocean Engineering Virginia.
Mission: Launch 2014/15; Deployment June-August 2019, release alt. 100m Mission duration: 16 hrs of on-asteroid operation Main functions: On-surface up-righting.
The Role of Suborbital Flights for Education and Technology Development within Penn State’s Student Space Programs Laboratory Allen T. Kummer Sven G. Bilén.
AAE450 Spring 2009 Mass Savings and Finite Element Analysis (FEA) Preparation for Orbital Transfer Vehicle (OTV) 100 gram Case Tim Rebold STRC [Tim Rebold]
Colorado Space Grant Consortium Gateway To Space ASEN / ASTR 2500 Class #02 Gateway To Space ASEN / ASTR 2500 Class #02.
Spacecraft Design and Sizing Dr Andrew Ketsdever MAE 5595 Lesson 14.
Icarus Student Satellite Project Hannah Goldberg Dr. Brian Gilchrist BT Cesul Student Space System Fabrication Lab (S 3 FL) University of Michigan, College.
EDGE™ Project Status Update P09141 – Satellite Thermal Heater Control System Anthony Berwin (Mechanical Engineer)
Icarus Student Satellite Project
André Weiß, DLR Institute of Space Systems Concurrent Evaluation – An Application for DLR’s Concurrent Engineering Facility SECESA 2010, October,
Aerospace Engineering By Patrick Ferrell. Aerospace Engineering is the main branch of engineering concerned with the research, design, development, construction,
SMART About NASA’s Magnetospheric Multiscale Mission (MMS) MAGNETIC RECONNECTION is a little-understood physical process at the heart of space weather.
Solar Power Marine Corps Expeditionary Power Systems.
Systems Engineering for Space Vehicles Bryan Palaszewski with the Digital Learning Network NASA Glenn Research Center Cleveland, OH.
1 Engineering the James Webb Space Telescope Paul Geithner JWST Deputy Project Manager - Technical March 26, 2011.
Light Weight Materials in Space Shuttle Presentation by Dr. Muhammad Kashif Khan Manager (Design & Development) SUPARCO October 2011.
Argus: SLU Core Bus Operational Test Steve Massey, Tyler Olson, Joe Kirwen, Wesley Gardner SHOT II Pre-Launch Presentation June 29, 2012.
Bernd Dachwald 1,*, Marco Feldmann 1, Clemens Espe 1, Engelbert Plescher 1, Changsheng Xu 1 and the Enceladus Explorer Collaboration 1 Faculty of Aerospace.
Student Satellite Project University of Arizona Team Goals Design, Fabricate, and Analyze a Structure that will Support the Payload –Space Allocation of.
08/09/2015PSC 2009 Christmas Reception1 AMSAT-UK’s first satellite.
Space Engineering 2 © Dr. X Wu, 2012
Tielong Zhang On behalf of the CGS Team in the Institute of Geology and Geophysics, Chinese Academy of Science Spacecraft System and Payload China Geomagnetism.
Satellites and Launch Vehicles. “Gee Whiz” Facts Number of satellites currently in orbit is over 900 Satellites orbit at altitudes from 100 miles (Low.
ESA Technology Programmes Workshop on Space Technology Management and Innovation German Space Technology Strategy – Management of Innovation Process Uwe.
Principles of Engineering System Design Dr T Asokan
NASA PREFERRED TECHNICAL STANDARDS PUBLISHED
Carbon Fiber Mesh Carbon Fiber Mesh developed by ESLI Mesh is composed of a network of carbon fibers crisscross linked into a matrix that is mostly empty.
LUNAR ROVER Concept proposal meeting Dr. Ashish Dutta Indian Institute of Technology Kanpur Kanpur, INDIA ( *** for private circulation only)
M E T ROVER MSCD Engineering Technology Critical Design Review Metropolitan State College of Denver April 2004.
Mechanical SuperNova/Acceleration Probe SNAP Study Dave Peters George Roach June 28, a man who's willing to make a decision in the first place can.
Space Engineering 2 © Dr. X Wu, Space Engineering 2 Lecture 1.
Colorado Space Grant Consortium Gateway To Space ASEN 1400 / ASTR 2500 Class #17 Gateway To Space ASEN 1400 / ASTR 2500 Class #17 T-39.
Structures and Mechanisms Subsystems AERSP 401A. Introduction to Structural Estimation Primary Structure: load-bearing structure of the spacecraft Secondary.
Vanderbilt University Department of Mechanical Engineering The Vibro-Acoustics Laboratory Observation and Control with Embedded Systems Prof. Ken Frampton.
DINO PDR 23 October 2015 DINO Systems Team Jeff Parker Anthony Lowrey.
Problem Statement Overview of tasks Requirements for selection test.
1 Mission Discussion & Project Reviews 祝飛鴻 10/14/93.
III - 1 III. Solar Sail Flight System Technology Session Facilitator: Gregory P. Garbe.
NASA/Air Force Cost Model presented by Keith Smith Science Applications International Corporation 2002 SCEA National Conference June
Haripriya Head, Integration Team Pratham, IIT Bombay 19 th June, 2010.
1 System Architecture Mark Herring (Stephen Merkowitz Presenting)
Solar Probe Plus Fluxgate Magnetometer QSR – Oct SPF MAG Quarterly Report – Oct 2014 The MAG EM1 (EQM) (board and frame at right) was successfully.
PTAR Presentation Jonathan DeLaRosa, Jessica Nelson, Ivan Morin, JJ Rodenburg, & Tim Stelly Team Cronus.
RBSP Radiation Belt Storm Probes RBSP Radiation Belt Storm Probes RBSP/EFW I-PER 21 January EFW Systems Engineering Michael Ludlam Space Sciences.
Micro Arcsecond X-ray Imaging Mission Pathfinder (MAXIM-PF) Mechanical George Roach Dave Peters 17 May 2002 “Technological progress is like an axe in the.
QTYUIOP THERMIONIC SPACE POWER THE EMERGING SOURCE OF SPACE POWER IN THE NEXT DECADE AUBURN UNIVERSITY AUGUST 17, 1999.
 From SmallSat to CubeSat: Reducing Mass Size and Cost Jeremy Straub 1, Ronald Fevig 2, Todd Borzych 2, Chris Church 2, Curt Holmer 2, Martin Hynes 2,
EDGE™ Preliminary Project Plan P09102 – METEOR Stage Separation System JJ Guerrette (ME)
Engineering and Science Directorate Organization Structure June 2016.
Spacecraft Technology Structure
USNA Standard CubeSat Bus USNA-P1 CubeSat (USNA-14)
Liquid LVs propellant consumption control terminal system
Overview 3 2 Introduction Design Analysis Fabrication Testing
A Study of Wireless Virtual Network Computing
Fast Facts Innovative deployable systems, structures, and solar arrays for spacecraft applications State-of-the-art products that draw on years of flight.
Composites Composites form a class of materials that satisfy such rigid, often contradictory requirements as ensuring minimum construction mass, maximum.
University of Colorado at Boulder January 21, 2004 Boulder, Colorado
Spacecraft Structures
System Identification of a Nanosatellite Structure
Inputs on HPM EPS, SEP Stage Block II configuration, and comments on 10/2 presentation package Tim Sarver-Verhey 10/1/2001.
Structural Optimization Design ( Structural Analysis & Optimization )
IlliniSat-3 Power Board
Presentation transcript:

Large Lightweight Deployable Structures for Planetary Defence: Solar Sail Propulsion, Solar Concentrator Payloads, Large-scale Photovoltaic Power (1) DLR Institute of Space Systems, Robert-Hooke-Strasse 7, Bremen – (2) +49-(0) , – (3) +49-(0) , – (4) +49-(0) , – (5) +49-(0) , – (6) +49-(0) , – (7) Faculty of Aerospace Engineering, FH Aachen University of Applied Sciences, Hohenstaufenallee 6, Aachen, Germany, / , – (8) DLR Institute of Composite Structures and Adaptive Systems – Composite Design, Lilienthalplatz 7, Braunschweig, Germany – (9) +49-(0) , – (10) +49-(0) , – (11) Technical University of Braunschweig, Institute of Adaptronics and Function Integration, Langer Kamp 6, Braunschweig, Germany, +49-(0) , Patric Seefeldt (1,2), Waldemar Bauer (1,3), Bernd Dachwald (7), Jan Thimo Grundmann (1,4), Marco Straubel (8,9), Maciej Sznajder (1,5), Norbert Tóth (1,6), Martin E. Zander (8,10,11) IAA-PDC15-P-20 Gossamer-1 Deployment Technology Ultra light weight deployable membrane structures –Launch mass saving –Mission propellant saving –Basis for re-thinking existing and new mission concepts –Scalable technology –Controlled Deployment Realisation, the 3-Step Gossamer Roadmap –Gossamer-1 5x5 m 2 Deployment demonstrator (LEO) –Gossamer-2 20x20 m 2 Validation of attitude control for solar sails –Gossamer-3 50x50 m 2 Fully functional solar sail Gossamer 1 hardware development and an artist’s impression of the spacecraft Sails –Aluminum coated polyimide foil –Additional protective oxide coatings –Load introduction analysis and interface design –Embedded thin film photovoltaics Booms –Two 8m booms to provide stiffness for the deployed sail –Coilable carbon composite booms –Lightweight: Mass contribution of only 530 gram (~35g/m) Deployment Mechanisms –Four independent deployment units wireless connected to the bus system –Deploying simultaneously booms and sails –Jettison of Mechanism for solar sailing mode DLR’s Gossamer Structures Know How Use Cases –Solar sailing, highly specific new mission targets –Ultra-lightweight solar power generation for mass critical systems –Possible deorbit technology from LEO Configuration –4 sail segment, crossed booms (see main picture), 4 independent deployment units –On board wireless communication between independent units Electronics –Each deployment unit is equipment with an own board computer, power subsystem, motor, … –The central unit command the deployment units –On-Board Wireless System (OWCS) realized with Bluetooth PICONET Qualification Testing -Boom characterization test rig -Vibration Testing -Centrifuge Testing -Fast Decompression, -Thermal Vacuum -Laboratory Deployment