Earth Station: A Lunar Cruise Global ISS Marketing

Slides:



Advertisements
Similar presentations
Earth-Moon-Sun System
Advertisements

Teaching aims: 1.Learn about the moon exploration by reading. 2.To develop reading skills. 3.To inspire interest in English.
More Satellite Orbits Introduction to Space Systems and Spacecraft Design Space Systems Design.
Space conveyer Space conveyer Results of Advanced Research.
Return to Flight Status of Launch Window Changes Manager, Space Shuttle Systems Integration (Operations) – John Shannon Chief, Ascent/Descent Dynamics.
Possible Orbits for the First Russian/Brazilian Space Mission Alexander A. Sukhanov Space Research Institute (IKI) of Russian Academy of Sciences Moscow,
An insertion burn at local noon has the advantage that the spacecraft is kicked into a 11 resonant orbit, with an inexpensive recovery manoeuvre, if the.
AAE450 Spring 2009 Analysis of Trans-Lunar Spiral Trajectory [Levi Brown] [Mission Ops] February 12,
Morehead State University Morehead, KY Prof. Bob Twiggs Understanding Orbits Orbit Facts 1.
Lunar CRater Observation and Sensing Satellite Project LCROSS Site Selection Workshop Oct , 2006 NASA/ARC, Mountain View, California LCROSS Orbital.
Moon’s Phases.
Understand the factors and requirements associated with a spacecraft launch Understand the dynamics of Gravity Assist and the basic principles of placing.
Earth, Sun, & Moon By Ms. Ochoa. Science Science 4- I know that Earth orbits the Sun and that the Moon orbits Earth.
Mark Beckman - Flight DynamicsMB-1 Lunar Flight Dynamics Mark Beckman July 12, 2012.
Chapter 3 Eclipses and the Motion of the Moon The phases of the Moon were introduced in Section 1, but without discussion of eclipses of the Sun and Moon.
Kepler’s first law of planetary motion says that the paths of the planets are A. Parabolas B. Hyperbolas C. Ellipses D. Circles Ans: C.
SLS-RFM_14-18 Orbital Considerations For A Lunar Comm Relay
Orbital Mechanics & Other Fun Stuff Part I Basic Orbital Mechanics Tom Rudman Thursday Morning Space Odyssey Crew.
факс: +7 (846)
Eclipses 5/19/ c pgs IN: Which two planets do not have moons? Why not?
Sun, Moon, Earth, How do they work together to help life survive? Eclipses.
The Moon’s Phases. Sun The view from Earth I.Eclipses A. A solar eclipse only occurs at a _____________. B. A lunar eclipse only occurs at a ______________.
China National Space Administration Presented by: Ia Whiteley April 2, 2003.
Orbital Mechanics Principles of Space Systems Design U N I V E R S I T Y O F MARYLAND Orbital Mechanics Energy and velocity in orbit Elliptical orbit parameters.
8/8/2011 Physics 111 Practice Problem Statements 13 Universal Gravitation SJ 8th Ed.: Chap 13.1 – 13.6 Overview - Gravitation Newton’s Law of Gravitation.
AAE450 Spring 2009 Low Thrust Spiral Transfer Maneuvers and Analysis [Andrew Damon] [Mission Ops] February 5,
also known as “Luna” in Latin it orbits around the Earth at an angle of inclination of 5.14° from the ecliptic plane.
IRNCLAM – InteRNational CisLunar Ascension Module Brian Anderson ASTE /11/23.
ASEN 5050 SPACEFLIGHT DYNAMICS Orbit Transfers
Eclipses - Understanding Shadows

Phases of the Moon. The Moon The moon is the Earth’s only natural satellite. It is the second brightest object in the sky after the sun. It is reflection.
© 2014 Orbital Sciences Corporation. All Rights Reserved. SPRSA Excess Capacity Panel Carol P. Welsch Orbital Sciences Corporation June 10, Welsch.
Phases of the Moon and Eclipses LunarPhasesanhdEclipseAnimate.ppt.
Motions of Earth 26 The Earth–Moon–Sun System  Earth’s Axis and Seasons Because of the inclination of Earth’s axis to the plane of the ecliptic, Earth.
SSE-120 Understanding Orbits Questions 1. Why are the suns rays shown as parallel when reaching the earth? 2. Does the earth have the axis tilted all year.
Solar and Lunar Eclipses Which is lunar or solar? Why do we not have an eclipse every month? Why is the moon orange/ red? When will they happen next?
Satellite Climatology - Orbits Geostationary orbits Sun synchroneous orbits Precessing orbit Discussion.

The Tides. Tides on Earth A tidal force is the difference in gravity from one side of a body to the other that is exerted by a 2nd object. The Moon exerts.
Chapter 4: Eclipse © BRIEF
Lunar CRater Observation and Sensing Satellite Project LCROSS Astronomer Workshop Feb. 29, 2008 NASA/ARC, Mountain View, California Mission Design & Observation.
AAE450 Spring 2009 Landing Site Topography Time in Earth and Moon Shadow During Transfer [Kara Akgulian] [Mission Ops] February 11,
Mark Beckman NASA/GSFC Code 595 August 16-17, 2005
More Examples About Gravity Stuff Answers 1. Find the value of g at an altitude of m above Earth’s surface. ReRe r g = G M e r2r m r =
Solar and Lunar Eclipses
Lunar Trajectories.
Moonshot Three Letter Acronyms (TLA) + others
LRO Mission Baseline Ephemeris v10.0
[Andrew Damon] [Mission Ops]
The Moon Expectations: D2.1, D2.5, D3.5.
Solar and Lunar Eclipses
The Moon Earths largest satellite
Eclipses Occur when the shadow of one object blocks the view of another object Two types: Solar Lunar.
Lunar Descent Analysis
Rotate or Revolve? GLE Explain how the positional relationships among the earth, moon, and sun control the length of the day, lunar cycle, and.
Rotate or Revolve? GLE Explain how the positional relationships among the earth, moon, and sun control the length of the day, lunar cycle, and.
Sun – Earth System Questions
Sun – Earth System Understanding Orbits Earth’s rotation axis Equator
Lunar Observation Data for GIRO Landsat–8 Operational Land Imager
ARTEMIS: Lunar Orbit Geometry
The nature of eclipses But first… Orbits in solar System really
1. What is the force of gravity between a 3
Deep Space Exploration Requires the best from all of us
The Changing Moon.
Preliminary Lunar Swingby Calculations
Unique Advantages of ‘ISS Orbitology’
What do we know? Fg = 78.6 N Fg = mg = (8)(9.8) = 78.4 N 1.
Eclipses and Earth’s Moon
What do we know? Fg = 78.6 N Fg = mg = (8)(9.8) = 78.4 N 1.
Presentation transcript:

Earth Station: A Lunar Cruise Global ISS Marketing Future of Human Spaceflight A Lunar Cruise Michael Barrucco ASTE 527 Space Exploration Architectures Concept Synthesis Studio Team Project, Fall 2010, Astronautical Engineering Department, Viterbi School of Engineering, University of Southern California

Problem: Limit of Last Frontier to Government Agencies Government astronauts only ones to explore the last frontier regularly We can give the world public opportunity to tour the Earth like never before via ISS Proposed Solution The Ultimate Vacation Give private multi-national tourists the opportunity to visit the moon Extreme opportunity High inclination of ISS effects maneuver windows, not DV

Mission Architecture LOI Return Launch aboard a Soyuz/Kliper from Wallops, Baikonur, or Jiuquan Utilization of IRNCLAD Cis-Lunar vehicle pre-assembled at ISS Coast and Dock with ISS, high inclination no DV impact ISS Activities Consumables module Undock/TLI Coast LOI Return

Concept of Operations To the Sun 1. Launch from Wallops (US), Baikonur launch (Russia), Jiuquan Satellite Launch Center (China) LOI~700 m/s To the Sun 2. Dock with ISS during sunrise 6. Coast for ~ 7 days View Starfields, and Heritage Sites 3. Coast for 2-3 days until next TLI opportunity 5. Trajectory correction ~80 m/s 4. TLI-3107 m/s

Cis-Lunar Cruise TEI Day 11 Moon re-aligned with ISS Orbital Plane z TEI Day 11 Moon re-aligned with ISS Orbital Plane LOI Day 4 Moon aligned with ISS orbit plane Moon at EOI 7 day cruise in orbit ISS Nodal Regression 5o per day TLI from ISS 2nd Cycle 2 Cis-Lunar Cruise

Training for the Vacation of a Lifetime! Train under guidance of International Commercial Astronaut Office G-Load training Safety Training Neutral Buoyancy Instrument training Launch simulations

The Launch, Coast, and Docking with ISS Lunar geometry matches ISS once every 10 days Each mission will be accompanied by a trained astronaut Launch From one of three sites Dock with ISS at night opportunity Coast, allow patrons to view night earth See sunrise over earth horizon

Aboard ISS, Earth as You have Never Seen Before! Tour given by astronauts aboard Tour of Earth from Cupola Zero-G exercising Communications Dining in Zero-G

Coasting to the Moon, the Solar System as you’ve never seen Trans-Lunar Injection, the ride of your life! Viewing Star fields Large scale view of the moon Injection into Polar Lunar Orbit 4-5 day transfer depending on launch epoch

Our closest neighbor, an in depth tour Lunar Orbit Insertion, 90 degrees 1000 km allows viewing of all sites on the moon! Observation of Heritage Sites Apollo 11 Lunakhod Surveyor View Craters, lunar farside View star fields from farside 7 days in orbit!

The Return Trip Earth rise View of the sun View of Mercury/Venus An earth without boundaries Re-dock with ISS and board return vehicle Reentry, the ride of your life!

Merits and Concerns Open up Space to citizens Safety! Radiation Incident training Etc. Large enough vehicle Comfort Return on Investment Maneuver windows Start-up capital Policy issues with ISS, ITAR Development timeline Business Case, cost

Future Studies Develop full window analysis Launch TLI TEI Design/Development Timelines ISS Policy studies Reentry capabilities, Landing at airports? Analysis of docking capabilities for Kliper Injection into elliptical lunar orbit, low perigee?

Conclusions Physics are feasible! Timeframe doable Orbit design maximizes experience, while minimizing parameters Opportunity to change the way space is explored Gives commercial customers the Opportunity to visit the heavens Element of Orbit Lunar Altitude 1000 KM Inclination 90 Degrees Time of Flight 5 Days DeltaV TLI 3107 m/sec DeltaV LOI 700 m/s

Resources http://en.wikipedia.org/wiki/International_Space_Station Farquhar, R.W., and Dunham, D.W., "A New Trajectory Concept for Exploring the Earth's Geomagnetic Tail," Journal of Guidance and Control, Vol. 4, No. 2, March-April 1981, pp. 192- 196. http://ccar.colorado.edu/asen5519/cma/documents/ASPapercosIOK.pdf

Questions?