Station for Exploratory Analysis and Research Center for Humanity (SEARCH)

Similar documents
Adrestia. A mission for humanity, designed in Delft. Challenge the future

NASA Glenn Research Center Intelligent Power System Control Development for Deep Space Exploration

OMOTENASHI. (Outstanding MOon exploration TEchnologies demonstrated by NAno Semi-Hard Impactor)

Next Steps in Human Exploration: Cislunar Systems and Architectures

Suitability of reusability for a Lunar re-supply system

ASTRIUM. Lunar Lander Concept for LIFE. Hansjürgen Günther TOB 11. Bremen, 23/

Seminar 12! The Future of Space Flight! Spacecraft Power & Thermal Control!

What do we Know? Concepts

THE KOREASAT5 PROGRAM

LUNAR INDUSTRIAL RESEARCH BASE. Yuzhnoye SDO proprietary

Lunette: A Global Network of Small Lunar Landers

NASA s Choice to Resupply the Space Station

The GHOST of a Chance for SmallSat s (GH2 Orbital Space Transfer) Vehicle

Lunar Cargo Capability with VASIMR Propulsion

European Lunar Lander: System Engineering Approach

Solar Electric Propulsion Benefits for NASA and On-Orbit Satellite Servicing

Modular Spacecraft with Integrated Structural Electrodynamic Propulsion

Martin J. L. Turner. Expedition Mars. Published in association with. Chichester, UK

Light-Lift Rocket II

Mars Surface Mobility Proposal

Future NASA Power Technologies for Space and Aero Propulsion Applications. Presented to. Workshop on Reforming Electrical Energy Systems Curriculum

A Scalable Orbital Propellant Depot Design

Lunar Architecture and LRO

SMARTSat. Shape Memory Alloy Research Technology Satellite. Allison Barnard Alicia Broederdorf. Texas A&M University Space Engineering Institute

MARS-OZ: A Design for a Simulated Mars Base in the Arkaroola Region

The Role of Electric Propulsion in a Flexible Architecture for Space Exploration

Lunar Surface Access from Earth-Moon L1/L2 A novel lander design and study of alternative solutions

Lunar Robotics. Dr. Rob Ambrose, NASA JSC December Dr. Robert O. Ambrose

Preliminary Design of the Electrical Power Subsystem for the European Student Moon Orbiter Mission

Analysis of Power Storage Media for the Exploration of the Moon

Human Exploration of the Lunar Surface

Cygnus Payload Accommodations: Supporting ISS Utilization

ELECTRIC PROPULSION MISSION TO GEO USING SOYUZ/FREGAT LAUNCH VEHICLE M.S. Konstantinov *, G.G. Fedotov *, V.G. Petukhov ±, G.A.

High Performance Green Propulsion (HPGP): A Flight-Proven Capability and Cost Game-Changer for Small and Secondary Satellites Aaron Dinardi

CONTENTS Duct Jet Propulsion / Rocket Propulsion / Applications of Rocket Propulsion / 15 References / 25

A LEO Propellant Depot System Concept for Outgoing Exploration

BIMODAL NUCLEAR THERMAL ROCKET (BNTR) PROPULSION FOR FUTURE HUMAN MARS EXPLORATION MISSIONS

BIMODAL NUCLEAR THERMAL ROCKET (BNTR) PROPULSION FOR FUTURE HUMAN MARS EXPLORATION MISSIONS

ENERGIA 1. IDENTIFICATION. 1.1 Name. 1.2 Classification Family : K Series : K-1/SL-17 Version : 4 strap-ons

FEDERAL SPACE AGENCY OF RUSSIAN FEDERATION LAVOCHKIN ASSOCIATION PROGRAM OF THE MOON EXPLORATION BY AUTOMATIC SPACE COMPLEXES

Transportation Options for SSP

General spacecraft conceptual designs

Li-ion battery and super-capacitor Hybrid energy system for low temperature SmallSat applications

Conceptual Design Review of an Orbital Transfer Vehicle

Industrial-and-Research Lunar Base

THE FALCON I LAUNCH VEHICLE Making Access to Space More Affordable, Reliable and Pleasant

Europa Lander. Mission Concept Update 3/29/2017

Travel: Detailed Flight Plan

Additively Manufactured Propulsion System

CALL FOR IDEAS FOR THE RE-USE OF THE MARS EXPRESS PLATFORM PLATFORM CAPABILITIES. D. McCoy

The European Lunar Lander Mission

Development of a Low Cost Suborbital Rocket for Small Satellite Testing and In-Space Experiments

Instruction Manual: Space Launch System Payload Transfer Module (PTM)

EPIC Gap analysis and results

SPACE STATIONS USING THE SKYLON LAUNCH SYSTEM

Ares V: Supporting Space Exploration from LEO to Beyond

Massachusetts Space Grant Consortium

lights on, down 2 ½ 40 feet, down 2 ½ Kickin up some dust 30 feet, 2 ½ down faint shadow

Cable Dragging Horizontal Takeoff Spacecraft Air Launch System

HYDROS Development of a CubeSat Water Electrolysis Propulsion System

Fly Me To The Moon On An SLS Block II

High Power Solar Electric Propulsion for Human Space Exploration Architectures

Spacecraft Power Systems

Hypersonic Airplane Space Tether Orbital Launch (HASTOL) System

The Common Spacecraft Bus and Lunar Commercialization

ReachMars 2024 A Candidate Large-Scale Technology Demonstration Mission as a Precursor to Human Mars Exploration

INTERNATIONAL LUNAR NETWORK ANCHOR NODES AND ROBOTIC LUNAR LANDER PROJECT UPDATE

Initial Concept Review Team Alpha ALUM Rover (Astronaut Lunar Utility Mobile Rover) Friday, October 30, GMT

Planetary Surface Transportation and Site Development

On Orbit Refueling: Supporting a Robust Cislunar Space Economy

WhirliGig Transfer Vehicle for motor-driven, restartable A.G. Tom Sullivan June, 2002

SCHEDULE. Presentation Schedule

Mass Estimating Relations

Solar Electric Propulsion: Introduction, Applications and Status

RDT&E BUDGET ITEM JUSTIFICATION SHEET (R-2 Exhibit) June 2001

Building an Economical and Sustainable Lunar Infrastructure To Enable Lunar Science and Space Commerce

r bulletin 96 november 1998 Figure 1. Overall ATV configuration (ESA/D. Ducros)

ULA Briefing to National Research Council. In-Space Propulsion Roadmap. March 22, Bernard Kutter. Manager Advanced Programs. File no.

'ELaNa XIX' press Kit DECEMBER 2018

apply to all. space because it is an air-breather. Although from the atmosphere to burn its fuel. This limits

Artemis: A Reusable Excursion Vehicle Concept for Lunar Exploration

ORBITAL EXPRESS Space Operations Architecture Program 17 th Annual AIAA/USU Conference on Small Satellites August 12, 2003

Mass Estimating Relations

Cal Poly CubeSat Workshop 2014

Exomars Orbiter Module Bus OMB

Paper Session III-B - The 1998 Mars Surveyor Lander and Orbiter Project


OLEV AN ON-ORBIT SERVICING PROGRAM FOR COMMERCIAL SPACECRAFTS IN GEO

LUNAR WHEEL TEAM TEAM: ADAM ANDERSON DAN BARRET RICHARD FREDRICKSON KRISTINA LYNN RAMOS ERIC SOLIS. ADVISORS: Dr. COLIN BRITCHER Dr.

ELECTRIC PROPULSION: EUTELSAT STANDPOINT

Safety Assessment for secondary payloads launched by Japanese Expendable Launch Vehicle

Lunar Science and Infrastructure with the Future Lunar Lander

Baseline Concepts of the Kayser-Threde Team

Utilizing Lunar Architecture Transportation Elements for Mars Exploration

FlexCore Low-Cost Attitude Determination and Control Enabling High-Performance Small Spacecraft

Space Propulsion. An Introduction to.

Capabilities Summary and Approach to Rideshare for 20 th Annual Small Payload Rideshare Symposium NASA Ames Research Center June 12-14, 2018

Europa Lander Mission Overview and Update

Affordable Exploration Architectures Using the Space Launch System and High Power Solar Electric Propulsion

The DoD Space Test Program Standard Interface Vehicle (ESPA) Class Program

Transcription:

Station for Exploratory Analysis and Research Center for Humanity (SEARCH) Authors: Jasmine Wong, Matthew Decker, Joseph Lewis, Megerditch Arabian, and Dr. Peter Bishay California State University, Northridge Region VI Student Conference, April 1-3 2016 Oregon State University, Corvallis, OR

Need Permanent Human Expansion Microgravity Space Flight Muscle and Bone Atrophy Visual Impairment Embryo Development More Research 1G Environment Extended Earth-Resupply Independence Required for Future Missions 2

Proposed Design Mission Architecture Mission Timeline Budget Spacecraft Design and Mission Specifications Technology Readiness Suggested Secondary Missions 3

Presentation Content Mission Architecture Mission Timeline Budget Spacecraft Design and Mission Specifications 1G Method Structural Design Propulsion Orbit Selection Power 4

Presentation Content Spacecraft Design and Mission Specifications - Continued Thermal Radiation Life Support Communications Robotic Maintenance 5

Mission and Timeline Artificial 1G Space Station 16-24 people 30 year Earth-Resupply Independent Experiment R&D Mfg. & Assy. Verification at 1G Independence First Launch to LEO Transfer to Lunar Orbit First Baby Born in Space 6

Budget Derived from NASA FY 2016 budget Assumptions and exceptions Launch schedule and design drive budget allocation 7

Artificial Gravity Rotation chosen for creating 1G environment Speed: 4 rpm Radius: 56 m 8

Structure Design 24 Linear Structural Modules 6 Inflatable Habitats Central Hub Truss Stabilization Cables Robotic Arm Track 9

Structure Design Structural Modules 3 Layer Wall Flexible Coupling Stabilization Cables Restrain Radial motion 6x25 IWRC Filler Cable 10

Structure Design Inflatable HABs 5 Layer Wall Nextel Polyurethane open cell foam Kevlar Combitherm Nomex 180 Rotation HAB Motor 11

LEO Assembly International Space Station Assembly Platform Friction-Stir Welding Launch Vehicles SLS Block 2B, Falcon Heavy, and Falcon 9 12

Orbit Selection Stable Polar Lunar Orbit 56.2 Inclination Highly elliptical Dark time Daily interaction with planned NASA Lunar outpost 13

Rotation & Orbit Maintenance Systems Initial spin-up: MR-107N engines Fuel: Hydrazine Spin-up time NSTAR Engines Fuel: Xenon Rotation maintenance Lunar Orbit Station Keeping VASIMR Fuel: Xenon Lunar Orbit Altitude Maintenance 14

Hohmann Transfer Two impulse orbital transfer maneuver Total ΔV = 3.42 km/s ΔV Earth = 3.18 km/s ΔV Moon = 0.24 km/s TOF = 183 days 15

Engine Selection RL-10 Engines 5.8:1 oxidizer to fuel ratio 465s Specific Impulse LOX/LH 2 Tsiolkovsky Rocket Equation 16

Power Power Generation Solar Arrays Life Support System Recharge Energy Storage Devices 17

Power Energy Storage Flywheel System Dark Time Power Fused Silica Fiber Composite Structural Battery Walls HAB Motor and Robotic Maintenance System Lithium-Ion Polymer 18

Power Power Distribution Solar Arrays Life Support HAB Motor Flywheels Battery Walls Day Time Dark Day with Time Motor Nominal Running 19

Power Power Transmission Wired Transmission for Nominal Functions Laser Transmission For Robotic Maintenance and Repair System 20

Thermal Management Dual loop cooling system Carbon Fiber Radiators Micrometeoroid / Orbital Debris Integrated Multilayer Insulation 21

Radiation Passive Protection Hydrogen heavy composite layer Active Protection External Magnets Medical Protection Regiment of drugs 22

Human Systems Aquaponic food growing system Primarily focusing on tilapia, beans, corn, and squash Water recycled through Vapor Phase Catalytic Ammonia Removal (VPCAR) system Projected 98% recycling rate Waste removed using Plasma Arc Waste Destruction System(PAWDS) 23

Human Systems CO 2 Removal Carbon Dioxide and Moisture Removal Amine Swing-Bed (CAMRAS) System Series-Bosch system turns CO 2 into Water and Carbon Atmosphere monitored in real time by Spacecraft Atmosphere Monitoring (SAM) system 24

Communications High Gain Antenna (HGA) Primary source of communication, large data transfer. Low Gain Antennas (LGA) Emergency backup communications Ultra-High Frequency (UHF) Antennas Communication with vehicles on moon s surface NASA Deep Space Network (DSN) 25

Communications Cassegrain design Sub reflector, feed horn 8 meter dish Frequencies X band Ka band Two Axis Gimbal Mounted on the Habitat ring Maintain LOS with DSN ground terminal 26

Robotics Provides maintenance for solar arrays, antennas, HAB motors, Composition AL 7075-T6 Mass 2023 kg Length 16 m Power Peak Power: 8 kw 27

Continued Work Power, Fuel, and Consumables Fuel Tank Configuration Solar Array Area 28

Conclusion Artificial 1G Space Station 16-24 people 30 year Earth-Resupply Independent Experiment Lunar Orbit 29