How Much Does a Mars Mission Cost? Brian Enke SwRI Boulder, CO AUTHOR: Shadows of Medusa.

Slides:



Advertisements
Similar presentations
Brian Enke Southwest Research Institute (SwRI), Boulder, CO ANOTHER ORDER OF MAGNITUDE CHEAPER? (AI, Simulations, Integration, Complexity)
Advertisements

Lecture 26. Exploration, the Federal and NASA Budgets, and Politics.
Space Exploration Past, Present, Future. Space Exploration The Big Picture Space exploration is still very new. Although we have learned a lot, we still.
Should the US begin a new program of manned space exploration? Lila Cummings.
NASA AGENCY REPORT Dr. Eric J. Lindstrom Physical Oceanography Program Scientist Earth Science Division Science Mission Directorate MARCH 12, 2007.
Modern Exploration Mars Pathfinder  “NASA’s Mars Pathfinder mission – the first spacecraft to land on Mars in more than 20 years and the first ever to.
Mars By: Nathan Brown. Overview of Mars -It is the fourth planet from the Sun. -From orbit, it looks red, which gives it the nickname, “Red Planet”. -You.
Mars & Venus: Space Exploration. INTRODUCTION  Humans have been curious about nature  Scientists send machines to explore other planets  Planets that.
TMS logo THE MARS SOCIETY Life on Mars? ALH84001 Could There Be Life On Mars?
Mars By Chelsea Hoyle. Mars Exploration Mars is mainly explored by rovers. The rovers are called Spirit, curiosity and Opportunity. They were put on mars.
Space Exploration: Should It Be Done? Nishith Patel.
Educator Resources in Space Sciences Caitlin Nolby North Dakota Space Grant Consortium.
Jet Propulsion Laboratory California Institute of Technology National Aeronautics and Space Administration National Aeronautics and Space Administration.
American Public Perception of Mars Mission Economics: Establishing a Proper Context Brian Enke SwRI Boulder, CO AUTHOR: Shadows.
Financial Reasons Economic Recession – The United States is currently in one of the worst economic positions since the Great Depression. If we have enough.
Astronomy in the President’s 2007 Budget David Trinkle, Amy Kaminski, and Joel Parriott February 13, 2006.
Science 9 Unit E Section 4.0 Society and the Environment are Affected by Space Exploration and Technologies.
Public Perception of Mars Mission Economics: Separating Fact from Fiction Brian Enke SwRI Boulder, CO
SPACE TRAVEL Space, the final frontier Astronaut  A person that is trained to be a pilot, navigator or scientist in space.
Hampton Black – 11/5/12 MARS ONE. WHAT IS MARS ONE? Mars One is a private, apolitical organization whose intent is to establish a colony on Mars by 2023.
RASC-AL 2010 Topics. TECHNOLOGY-ENABLED HUMAN MARS MISSION NASA is interested in eventual human mission to the Martian surface. Current Mars design reference.
Minimalist Mars Mission Establishing a Human Toehold on the Red Planet Executive Summary DevelopSpace MinMars Team.
Mars Today 1 An immediate and inexpensive program for manned Mars visitation.
COST VS KNOWLEDGE VS RISK Space Missions. Moon First Then Mars 1 st the Moon then Mars - moon is closer - practice living, working and doing science on.
The Constellation Program. Benefits vs. Costs Persuasion: That there is currently little benefit that can be gained from the program. Benefits: – Broaden.
Introduction Five hundred years curiosity led Europeans to explore new places on earth. We want to learn more about the other planets. Venus and Mars.
Why I Chose Space Elevators Implementation of a “space elevator” would revolutionize man’s accessibility to space the same way the automobile changed our.
America will send a new generation of explorers to the moon aboard NASA’s Orion crew exploration vehicle. After that, on to MARS!!!
Chapter 13 Section 3 – pg 515 Exploring Space Today.
Challenge: Creating a Mars Cargo Landing System (CMLS) Major Randy Carlson, PhD Air Force Scientist 27 September 2013 Graphic by NASA.
National Aeronautics and Space Administration (NASA) A History.
Space Timeline.
 Understand how our view of the solar system has changed over time and how discoveries made have led to our changing our view of the solar system. 
Educator Resources in Space Sciences Caitlin Nolby North Dakota Space Grant Consortium.
Cutting the Space Program By: Aubree Orton. Money that is spent Focus on problems on Earth The risk of human life No major scientific breakthroughs have.
The Apollo Moon Landings
Curiouser and curiouser! Lecture and a Mars Landing The Mars Curiosity Rover.
MARS EXPLORATION PROGRAM NSTA Robotics E-Class MARS EXPLORATION PROGRAM NSTA Robotics E-Class Sheri Klug Mars Space Flight Facility Arizona State University.
National Aeronautics and Space Administration February 27, 2013 Defining Potential HEOMD Instruments for Mars 2020 A Work in Progress... NOTE ADDED BY.
1 June 10, 2004 Gary L. Wentz, Jr. Deputy Manager, MSFC Office of Exploration Systems MSFC Office for Exploration Systems.
The History Of Space Exploration Chapter 6 Lesson 2 Page 214.
 Understand how our view of the solar system has changed over time and how discoveries made have led to our changing our view of the solar system.
Michael.Wassef Mars. Mars timeline of NASA Launch dateMissionOutcome 5 November 1964Flyby-Mariner 3Launch failure 28 November 1964Flyby-Mariner 4 Successful-returned.
Wednesday, January 28, 2015 Do Now: What do you know about the Challenger Space Shuttle of 1986? Write a brief paragraph detailing your prior knowledge.
A&AE 450 – Senior Design Team ERV Science and communication January 23, 2000 Christopher Burnside.
Brittany Grinner Paul Lim PATHFINDER & SOJOURNER.
Educator Resources in Space Sciences Caitlin Nolby North Dakota Space Grant Consortium.
MINING ON MOON "So many resources which are extremely rare on Earth are abundant on the Moon," Jain says. "We shouldn't only be mining the Earth, we should.
The Year in Review 2016 Humans to Mars Report. Mars Science Paving the Way Notable Discoveries – The Past 5 Years Mars was once a habitable environment.
THE SoM PARADIGM Brian Enke (AI, Simulations, Systems Integration)
Astronomy and Planetary Science
National Goals and Objectives
The Future of Human Spaceflight *** A Journey to Mars
Extended Learning Trevin Myers
Please copy your homework into your assignment book
Educator Resources in Space Sciences
SPACE A Journey To Mars Part 2: and Software Development
Science and Environment
Space, the final frontier
Mission to Mars STEM/Robotics Project
Thursday 5/25/17 Notebook Entry: “NASA is developing the capabilities needed to send humans to an asteroid by 2025 and Mars in the 2030s. Engineers and.
Please turn this in to the basket by the door! 
SHUTTLE LAUNCHES Directions.
Measurements and Their Uncertainty 3.1
AAE 450- Propulsion LV Stephen Hanna Design Review 02/19/01.
Curious about Curiosity?
Space Plasma Physics Yi-Jiun Su
Kevin Dahya Critical Design Review 3/6/01
Mars Society at Georgia Tech
Michael R. Bristow et al. BTS 2018;3:1-8
Presentation transcript:

How Much Does a Mars Mission Cost? Brian Enke SwRI Boulder, CO AUTHOR: Shadows of Medusa

Brainstorming.... Follow any thread of thought. Never ridicule or dismiss any idea. Write everything down!!

How Much Does A Mars Mission Cost? Paul Recer (AP), Gregg Easterbrook (New Republic), et al: ONE TRILLION DOLLARS “Huh???”

How Much Does A Mars Mission Cost? Bob Zubrin, et al: ABOUT TWO BILLION DOLLARS PER YEAR* * INVESTMENT per YEAR!

How Much Does A Mars Mission Cost? President Bush, Sean O'Keefe, et al: PAY AS YOU GO ➢ $6 billion per year?

How Much Does a Mars Mission Cost? $2b / year? $6b / year? More? Less? Somewhere inbetween?

All of these estimates are possible. ➢ US deficit spending ➢ (PAYG = PWCWA) ➢ CHEAPER MISSIONS ARE EASIER TO SELL ➢ What IS a Mars Mission, anyway?

How Low Can We Go?

Well, What Do You Want To Do?

We Need.... A Baseline Mission!! ➢ Goals/Capabilities/Benefits (Return on Investment)

We Need.... A Baseline Mission!! ➢ Goals/Capabilities/Benefits (Return on Investment) ➢ Risk assessment

We Need.... A Baseline Mission!! ➢ Goals/Capabilities/Benefits (Return on Investment) ➢ Risk assessment ➢ Timeframe

We Need.... A Baseline Mission!! ➢ Goals/Capabilities/Benefits (Return on Investment) ➢ Risk assessment ➢ Timeframe ➢ Investment per year

Baseline Mission: Mars Direct (NASA estimates from 2003) ➢ ROI: Good science ➢ Crew of 4 for 2 years ➢ 500 km surface range ➢ Payload: 54 tonnes ➢ Risk: Medium ➢ 7 years to develop ➢ $3.5 billion / year

Mars Direct $$ Assumptions (from NASA/ESA study, Hunt & van Pelt, 2003)

Baseline Mission: Assumptions ● Ongoing investment vs. development investment ● Divide mission investment by 2 for ongoing (per year) ● $25m/tonne-to-Mars per launch (or $1b/Ares) ● $250m/lander, $1b/ERV

How Low Can We Go?

Zero Risk, Zero Investment Mission (Procrastinator's Paradise) ● Do Nothing ● Cancel the whole space program ● Donate space shuttles to museums ● Reduce the US federal deficit by $16 billion (to 429 billion) ➢ ROI: No investment ➢ Crew of 0 for (Inf) years ➢ 0 km surface range ➢ Payload: 0 tonnes ➢ Risk: Zero ➢ 0 years to develop ➢ $0 billion / year

Robotic Missions (Goodlife) ● Repeat the past 30 years ● Do Mars exploration solely with robotics ● Develop lots of human mission plans and theories ● Give talks at seminars ● Do some remote science to satisfy pesky scientists ➢ ROI: Minimal Science ➢ Crew of 0 for (inf) years ➢ 1 km surface range (now) ➢ Payload: < 5 tonnes ➢ Risk: Low ➢ 0 years to develop ➢ $1 billion / year

Find The Robot

Absolute Minimal Human Mission (Millionaire Burial) ● Send 1 person, crash landing ● No equipment ● No life support ● No return: Dead On Arrival ➢ ROI: RIP ➢ Crew of 1 for 0 years ➢ 0 km surface range ➢ Payload: <1 tonne ➢ Risk: Low to (Inf) ➢ 0 years to develop ➢ $0.1 billion / year

Minimal Living-Human Mission (Lonely Planets) ● Send 1 person safely ● No equipment ● Minimal life support for 1 year ($300m hab, no CELSS, 4 tonnes food/water) ● No return: Die On Mars ● Per Mission: $700m ➢ ROI: Tech demonstration ➢ Crew of 1 for 2 years ➢ 0 km surface range ➢ Payload: 12 tonnes ➢ Risk: Low (volunteer) ➢ 5 years to develop ➢ $0.35 billion / year

Long Term Minimal Mission (Settlement) ● Send 3 people safely ● Base building equipment ● CELSS life support for 6 years ($1b hab, 2 Ares) ● No return: Die On Mars ● Per Mission: $4b ➢ ROI: Mars settlement ➢ Crew of 3 for (Inf) years ➢ 500 km surface range ➢ Payload: 50 tonnes ➢ Risk: Medium (volunteer) ➢ 7 years to develop ➢ $2 billion / year

Minimal Return Mission (Lonely Science) ● Send 1 scientist safely ● Science equipment, ATV ● Minimal life support for 2 years ($300m hab, no CELSS, 4 tonnes food/water, 2 Ares) ● Return: ERV ● Per Mission: $4b ➢ ROI: Minimal Science ➢ Crew of 1 for 2 years ➢ 10 km surface range ➢ Payload: 40 tonnes ➢ Risk: High ➢ 7 years to develop ➢ $2 billion / year

Mars Direct ● Send 4 people safely ● Science equipment, Rover ● CELSS life support for 2 years ($700m hab, 2 Ares) ● Return: ERV ● Per Mission: $7b ➢ ROI: Good science ➢ Crew of 4 for 2 years ➢ 500 km surface range ➢ Payload: 54 tonnes ➢ Risk: Medium ➢ 7 years to develop ➢ $3.5 billion / year

NASA Mars Reference Mission (Nuclear Propulsion is our Best Friend) ● Send 6 or more people safely ● Science equipment, Rover ● CELSS life support for 2 years ($1.5b hab, 3 Ares) ● Return: ERV (orbit+surface) ● Per Mission: $12b (assume $2b for propulsion) ➢ ROI: Good science, tech ➢ Crew of 6+ for 2 years ➢ 500 km surface range ➢ Payload: 100 tonnes ➢ Risk: High ➢ 10 years to develop ➢ $6 billion / year

How Much Does a Mars Mission Cost? How Low Can We Go?

Well, What Do You Want To Do?

We Need.... A Baseline Mission!! ➢ Goals/Capabilities/Benefits (Return on Investment) ➢ Risk assessment ➢ Timeframe ➢ Investment per year

This presentation may be freely distributed. Please contact the author with any suggestions or corrections. Brian Enke Southwest Research Institute Author: Shadows of Medusa