Orion Multi-Purpose Crew Vehicle
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The document summarizes NASA's new Orion spacecraft, which will enable deep space human exploration missions. Orion consists of a crew module for the astronauts, a service module to provide power and environmental control, and a launch abort system for crew escape. Hardware and software development is ongoing, including testing of components. The first uncrewed flight test, called Exploration Flight Test-1, is scheduled for 2014 and will demonstrate Orion's systems during ascent and re-entry. Orion is being developed to implement the nation's space exploration program and complement commercial space activities.
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<a href="http://astronautical.org/vonbraun/vonbraun-2008/session2">http://astronautical.org/vonbraun/vonbraun-2008/session2</a>
Future directions
The document discusses a new strategy for human and robotic exploration that involves "stepping stones and flexible building blocks". It advocates for a robust and flexible approach driven by scientific discovery. Key aspects of the strategy include integrating human and robotic exploration to maximize discovery, pursuing capabilities and technologies in a timeframe paced by affordability, and making inspiration and education integral parts of the programs. The document contrasts this approach with the traditional "giant leap" Apollo approach and argues the new strategy is better suited to address current priorities and budget realities.
SpaceEd-ECLIPSE Design Proposal(1)
The document proposes a two-person Mars flyby mission in 2018 with the following key details:
1) The mission would launch on January 5th, 2018 on a free return trajectory that minimizes system loads and requires low energy. It would fly within 200 miles of Mars 228 days later, allowing the first humans to view Mars up close.
2) It would utilize a Dragon spacecraft assembled in low Earth orbit from commercially available launch vehicles and equipment for under $2 billion. The spacecraft would protect the crew from radiation and maintain life support systems.
3) Extensive measures are outlined to ensure crew health and safety during the 501-day mission, including preventative healthcare, telemedicine capabilities, stress-redu
Space Missions Design and Operations
This presentation will gives details about various types of space missions and their objectives.Space environment and spaceflight reliability
AAS National Conference 2008: Bernhard Hufenbach
Exploration – One Year On
19 November 2008, Pasadena California
Session 6: Exploration – One Year On
19 November 2008, Pasadena California
http://www.astronautical.org/conference/conference-2008
DrexelUniversity_PHAME_FinalPaper
This document provides a plan for establishing a human settlement on Mars called PHAME. It proposes sending crews of 4 astronauts every 2 years for a total of 24 settlers over 6 missions. Crews will travel in a modular Mars-Earth Transfer Spacecraft assembled in orbit. The settlement will be located in Hellas Planitia, Mars, which evidence suggests may be suitable for water and offers shelter. It outlines logistics for surface transportation using rovers and drones. A communication network called MAPIN will connect the settlers using telescoping towers, drones, balloons, and rovers to relay data through orbiting satellites back to Earth. The plan focuses on achieving sustainability through utilizing local resources and renewable energy.
Markets in Motion: Developing Markets in Low Earth Orbit
This document summarizes a panel discussion on developing markets in low Earth orbit. The panel included representatives from Sierra Nevada Corporation, Kentucky Space, Planet Labs, Alpha Space, and Blue Origin. They discussed current and potential commercial activities and markets in LEO, including materials testing on the International Space Station, Earth observation from small satellites, and plans for commercial suborbital and orbital transportation systems.
Designand developmentofanintelligentroverformarsexplorationupdated
This document describes the design and development of an intelligent rover for Mars exploration. Key points:
- The rover features an 8-wheeled drive mechanism that combines rocker wheels and spider-leg wheels to allow it to traverse rugged terrain and climb heights greater than three times the diameter of its wheels.
- Actuator-powered wheels allow the slope of the rover to be adjusted for stability over a wide range of inclinations. Springs and dampers provide traction over negatively sloped or vertically dropped surfaces up to 1m.
- Sensors and microcontrollers allow semi-autonomous operation to avoid hazards through automated reflexes. The system uses Arduino, Raspberry Pi, and other microprocessors for control
Astronaut hotelsjun01
This document presents a concept for cyclical visits to Mars using astronaut hotels (Astrotels). Key aspects of the concept include using cycler orbits between Earth and Mars to transport small crews in Astrotels, orbital spaceports, and small transfer vehicles (taxis). The concept aims to reduce costs and reliance on Earth resources through in-situ resource utilization and solar electric propulsion. An analysis estimated the total life cycle cost of developing and operating the system at approximately $90 billion over 15 years.
Olson iss overview 22 feb 12 v1-1
The International Space Station (ISS) serves as a scientific laboratory, technology test bed, and orbiting outpost for conducting research. Over 1,200 experiments have been conducted on the ISS supporting 1,600 scientists in 59 countries. This research is helping to develop the critical technologies and operational experience needed for long duration human space exploration beyond low Earth orbit to destinations like the Moon, asteroids, and Mars. The ISS also functions as a technology demonstration platform for testing exploration capabilities prior to missions farther into space. International cooperation is vital for supporting the long-term sustainability of human space exploration.
Exploration: An Industry Perspective
Presentation by Jim Chilton (Vice President and Program Manager, Exploration Launch Systems, Boeing) at the Von Braun Memorial Symposium in Huntsville, Alabama, 22 October 2008.
<a href="http://astronautical.org/vonbraun/vonbraun-2008/session5">http://astronautical.org/vonbraun/vonbraun-2008/session5</a>
NASA Strategic Plan - 2011
This strategic plan outlines NASA's long-term goals as an agency and describes how we will accomplish these goals during the next decade or more.
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Station for NASA will deliver more than 7,300 pounds of science and research, crew
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The Future of Human Spaceflight
2011 American Astronautical Society Robert H. Goddard Memorial Symposium--Cleon Lacefield, Lockheed Martin Space Systems Company
Long_Alexandra-8900_final
This document summarizes a trade study conducted to determine the best design for a deployable drag device to accelerate the orbital decay of upper stage launch vehicles. The trade study compared different device types (drag sails, inflatables, tethers, propulsive), launch vehicles, target orbit altitudes, desired decay times, and packaging constraints. A drag sail design was proposed as the baseline option due to its lower cost and mass efficiency compared to a propulsive option, while still meeting the design requirement of deorbiting within 25 years. A stability analysis was then conducted to determine the optimal drag sail configuration before preliminary component selection and structural analysis.
Lunar Lavatube AIAA Presentation_Final
The document proposes a mission to survey lunar lava tubes using an orbiter/lander combination delivered by a SHERPA 2200 tug. The mission objectives are to map the depth, volume and extent of subsurface empty lava tubes using ground penetrating radar on the orbiter and lander. Tensegrity landing technology allows precise landing of the payload-carrying lander. Characterizing lava tubes could identify potential sites for future human habitation under lunar surface. The proposal outlines the mission design, spacecraft and payloads, and organizational roles to conduct the low-cost survey.
Ames Overview
The document provides an overview of NASA Ames Research Center, including its history, missions, programs, facilities, and educational activities. It notes that NASA Ames conducts applied research and develops critical technologies to enable NASA missions. Some key areas of focus include space, Earth, and life sciences; astrobiology; small satellites; aviation and aeronautics; exploration systems; and educational outreach. It also summarizes several past and current NASA Ames missions.
Activities at Wallops Flight Facility
Wallops Flight Facility conducts frequent low-cost rocket and balloon missions supporting NASA science and technology research. Sounding rockets and scientific balloons are used for over 20 missions annually across various fields like heliophysics, astrophysics, and planetary physics. Wallops is developing new balloon and small satellite technologies and will support upcoming missions like LADEE and HS-3.
MarsSpaceMission (1)
The document proposes a program called FIERCE to help facilitate human colonization of Mars. FIERCE stands for Futuristic, Intelligent, Efficient, Robust, and Cost Effective. The initial mission involves sending a rover to Mars to scout and prepare a site for habitation at Hebrus Valles. A team of 5 people with engineering backgrounds would execute the mission. The rover would be delivered via a rocket launched from a high altitude location using a balloon and quadcopter to reduce fuel needs and costs. Upon reaching Mars, the rover would deploy parachutes and quadcopter rotors to land safely and begin surface operations, with the goal of reusing parts for future missions.
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18 cd 32
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The Mars Ice Challenge (RASC-AL)
The document discusses the Mars Ice Challenge competition hosted by NASA's Revolutionary Aerospace Systems Concepts - Academic Linkage (RASC-AL) division. The competition challenges university teams to design and build systems to extract water from a simulated Martian surface, with a $10,000 budget. A senior mechanical engineering student formed a team from the University of Tennessee, Knoxville to compete, despite challenges such as it being the school's first entry and lack of experience. The team worked to design and build a system to extract water for the competition.
Beyond Disruption
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- 1. 1 America’s New Human Exploration Spacecraft NASA's Multi-Purpose Crew Vehicle by Lockheed Martin
- 2. Orion and SLS: Implementing the Nation’s Space Exploration Program • Enables new deep space human exploration missions • Utilizes capabilities across the country to enhance leadership in human space operations • Complements and supports commercial space activities
- 3. The Orion Spacecraft Launch Abort System Provides crew escape during launch pad and ascent emergencies Service Module Power, propulsion and environmental control support to the Crew Module Crew Module Human habitat from launch through landing and recovery Spacecraft Adapter Orion-to-Space Launch System (SLS) structural interface
- 4. Orion Flight Manifest FY 13 FY 14 FY 15 FY 16 FY 17 FY 18 FY 19 FY 20 FY 21 FY 22 EFT-1 July - Sept 2014 AA2 Dec 2018 EM-1 Dec 2017 Uncrewed EM-2 Aug 2021 Crewed
- 5. Exploration Flight Test 1 - 2014 A two-orbit, high energy entry test flight that will demonstrate Orion systems associated with 8 of the 11 biggest risk drivers
- 6. Pad Abort 1 Launch Abort System Demonstration White Sands Missile Range, New Mexico
- 7. COMPLETED COMPLETED COMPLETED COMPLETED Vibration Testing for Ascent/Abort Loads Lockheed Martin - Denver, Colorado
- 8. Water Drop Testing for Landing Loads Langley Research Center – Langley, Virginia
- 9. Parachute Drop Testing U.S. Army Yuma Proving Ground – Yuma, Arizona
- 10. Avionics Hardware and Software Integration Lockheed Martin - Denver, Colorado and Johnson Space Center - Houston, Texas
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- 13. EFT-1 Service Module Manufacturing Michoud Assembly Facility – New Orleans, Louisiana
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