business models for space
play

Business Models for Space An Engineering Firm Specializing In - PowerPoint PPT Presentation

Business Models for Space An Engineering Firm Specializing In Fluid Dynamics and Thermodynamics Solutions . Flometrics, Inc. provides engineering services, skills and expertise for applications involving fluid dynamics and thermodynamics.


  1. Business Models for Space An Engineering Firm Specializing In Fluid Dynamics and Thermodynamics Solutions .

  2. Flometrics, Inc. provides engineering services, skills and expertise for applications involving fluid dynamics and thermodynamics. Supersonic Land Speed Industries served: Record car • Aerospace • Medical Device • Consumer Products • Electronics & Semiconductor Liquid fuel Rocket

  3. 2014, 2016 UCSD Student Project : Design, build and test Rocket test stand. Funded in part by NASA Space Grant 3

  4. Rocket Pump Development Pump is easier to develop than turbopump, reliable and lightweight. Built pump for NASA Glenn, met all technical milestones, plus demonstrated operation in Zero gee plane. Patent on technique to reduce boiling in space 7611333 Pump works fine, no technical issues, need customers . Potential Customers. Pump could be used for Air Force Reusable Booster, easy preflight, PMD in pump chamber helps for restart. LOX-Methane Pump Could be used for all composite For RCS system for pressure stabilized vehicle with Lundar Lander composite pump chamber molded into the tank

  5. Student Experiment: Space Urinal Flow Vis Pump test. Flown on zero gee plane as a secondary experiment run at the Microgravity University at JSC

  6. Phase two proposal included additional development for in- space propulsion and a test with a 100 lbf LOX Methane thruster NASA liked it: “The Phase 1 effort successfully demonstrated an innovative high-pressure, low flow rate pump design. The use of resources is very effective, leveraging industry experience and a university sponsored rocket test facility.” But it was not funded. NASA does not need this technology, which was intended for the now canceled moon program. Next Step: DARPA may fund it to help with their scalable vehicle development. Leverage DARPA investment to sell to new launch vehicle companies, or do government sponsored demonstration projects with thrust chambers from Air Force, NASA or commercial companies. Pump Technology spin-off: supercomputer cooling system.

  7. Chilldyne Liquid Cooling…what is it? Low Profile Direct To Chip liquid cooling  Removes up to 90% of the heat from the CPU/GPU via a cold plate Negative pressure operation for minimum risk  Only air can leak into the system rather than coolant leaking out  No Drip Hot Swap Connector automatically drains server when disconnected Pistonless pump technology  No positive pressure anywhere in the system…inexpensive  Slow moving valves…for longer lifetime Central CDU for up to 1000 servers or GPUs  Distributes cost over many servers….low cost per watt

  8. 115 KW Production Test with CDU Production Test with Pistonless Pump Cooling Delivery Unit (CDU) 350 Kw system up at Customer site with 11 racks 8

  9. Some thoughts on entrepreneurial space : Project needs: •Solid management team: executive, financial, marketing and engineering •Good idea that relieves customer pain. Potential IP protection. •Unfair competitive advantage, nobody else can do it. •Plan to make money delivering solution to customer. •Understanding of the competition, how do they get customers, what will they do to keep them? •Plan to get into the market. Who will buy? Do they have money? •Plan to repay your investors. •It will cost twice as much as you think and your profits will be half, your business case must still close in this case. “There is nothing more difficult to take in hand, more perilous to conduct Or more uncertain in its success, than to take the lead in the introduction of a new order of things” Machiavelli

  10. Foolish Spacecraft/Rocket Design Sketch out cool design, issue press release, find investors or government funded suckers Project Phases: 1) Enthusiasm (I’m a rocket scientist!) 2) Disillusionment (wait…this is hard) 3) Panic (Uh-oh we’re out of money) 4) Search for the guilty( whose idea was this?) 5) Punishment of the innocent (why can’t you test the part that doesn’t work?) 6) Praise for the non-participants (I’d like to thank my wife for not leaving me) *Not enough room for propellant 7) Develop project requirements (next pg) 8) Back to step 1 ^

  11. Failed government rocket projects Stated/Actual Goal: Improved access to space/ Improved re-election prospects Reality: burn taxpayer money, create temporary jobs, make politicians popular Why did these all fail? Excess technical risk. Sold on OML Insufficient budget Unrealistic schedule Result Angry taxpayers Suspicious legislators Indifferent engineers No significant progress Solution NASA only works on Leo and above. Propellant Depots Space assembly Infrastructure pre-postioning Unmanned dry runs.

  12. Real Spacecraft design •Develop requirements •Determine components •Determine specifications •Preliminary design • Determine realistic budget •e.g. Cassini (right): $3B Adjust specifications/requirements to fit budget (no cheating yourself ) •Underestimate budget > •Angry investors (private) •Angry taxpayers (government) •Less credibility next time for everyone •Can a private company do it cheaper than a Gov Agency? •X-15 500 flights, $300M in 1968 dollars, $3M/flight (2007 $)* •SpaceShip 1 Six flights, $20M $3M/flight •Delta 2 $50M/launch (not including development) •SpaceX $100M, 7 yrs 2 launches, $50M/launch (not yet successful) •Answer: Maybe, but not 10x cheaper * All costs approximate. Note: CPI is BS, but that’s another story

  13. Failed Private rocket projects Stated/Actual Goal: Improved access to space/ Show everyone how smart we are Reality: Burn investor money, Loss of credibility, But: respect from peers Why did these all fail? Excess technical risk Insufficient market Sold on OML Insufficient budget Unrealistic schedule Results Angry investors Suspicious customers Industry-wide lack of credibility Harder to get money next time

  14. Typical Development Budgets 787 $10B Supersonic BizJet $1-2B Subsonic trainer (India) $47M Regional Jet (Brazil) $300M

  15. Proposed Development Budgets: SS2 $.5B EADS $1B Xcor $.01B Rocketplane $.04B

  16. Goal: Access to space, for more than just astronauts and wealthy people. Need more realistic budgets, you can’t reduce the cost by lowering the estimate. Quote half of realistic budget, not pennies on the dollar, otherwise investors walk. If you can’t do it for the budget, change the project. Larger, less efficient organization required for major project Complex R&D projects are difficult to estimate. Less technology development in house Buy, don’t make, Use strategic partnerships with vendors. Government buy in (free money is not free) Warning: DCAA audits can be painful. Share risks (that’s how Boeing and Airbus do it) Combine skills and capital of various companies to achieve a shared goal

Download Presentation
Download Policy: The content available on the website is offered to you 'AS IS' for your personal information and use only. It cannot be commercialized, licensed, or distributed on other websites without prior consent from the author. To download a presentation, simply click this link. If you encounter any difficulties during the download process, it's possible that the publisher has removed the file from their server.

Recommend


More recommend