Tampilkan postingan dengan label NASA. Tampilkan semua postingan
Tampilkan postingan dengan label NASA. Tampilkan semua postingan

Senin, 16 Mei 2011

NASA's Commercial Crew/Cargo Market Assessment

NASA has released a 40-page Commercial Crew/Cargo Market Assessment for Low Earth Orbit.  RLV News pointed me to the softcopy – thanks Clark.

Here is NASA’s summary of the next ten years of projected commercial demand for cargo and crew to Low Earth Orbit (LEO) with commercial demand ranging from 7K-60K lbs of cargo and from 44 to 360 commercial astronauts.


Here are the Nuggets from NASA's assessment I found especially valuable:
  • Crew Transportation drives the overall market.
  • 4 Commercial Crew/Cargo Markets: (1) Countries lacking Space Programs, (2) Space Tourism, (3) Applied Research, (4) Other Markets – Satellite Servicing, Media, Education
  • Report looked at a ten year time horizon
  • Report excluded NASA Crew/Cargo usage - commercial usage only
  • The average ISS crew member uses 10.3 lb/cargo per day (based on historical NASA/Russian usage)
  • 4 Space Tourism Growth Constraints: (1) Crew Transport Availability, (2) Cost per customer, (3) lack of destinations besides ISS, (4) long training time
  • ISS’s Upmass Requirements 2011-2020 = 318K lbs: (1) Core Systems/Operations = 194,820 lbs, (2) Funded Research = 80,067 lbs, (3) National Lab Utilization (unfunded) = 43,266 lbs
  • Current ISS limitations as a research platform: (1) Inadequate HW/instruments to support research, (2) lack of frequent and affordable up/downmass to/from ISS
  • Report concludes that availability of up and downmass is “a major constraint to development of the market” and quotes the National Research Council as saying, “conditioned down mass of particular importance…”
  • Current research on ISS: Basic Research. Over next ten years, ISS research will gradually shift to governments paying for proof of concepts and private ventures pursuing commercialization of successful proof of concepts.
  • NASA is on contract to purchase 132K lbs of ISS cargo through 2015. According to the authors, NASA ISS cargo demand from 2016-2020 is currently flat for another 132K lbs
  • 4 Classes of Research conducted on ISS: (1) Biology/Biotech – 70% of ISS research to date, (2) Earth Observation, (3) Physical/Material Sciences, (4) Technology Development/Space Qualifying
  • United States does 36% of the research on ISS
  • But only 9% of all research on ISS to date is “Commercial” in nature – and even this “commercial” research to date has been subsidized by non-commercial sources.





Comments:
  • Although not presenting very much new data, the authors confirmed and consolidated a significant amount of commercial market data into one place
  • The authors relied heavily on industry values to determine the upper end of these markets.
  • The authors never exceeded industry's optimism.  The authors in every case established low end demand by extrapolating from history.
  • Although mentioning the critical importance of downmass to station research, the authors did not provide a downmass demand estimate for the next decade
  • I look forward to the day when commercial research on orbiting stations far exceeds the current 9%!
  • Overall, a very helpful report (if, perhaps conservative) that will stay on my shelf as a reference.

Minggu, 06 Maret 2011

NLV Market Analysis

Garvey's Prospector 7C
In October of 2004, I attended the Space Frontier Foundation’s conference in Southern California on the Queen Mary. There, Masten Space Systems made a big splash announcing it was joining Armadillo Aerospace in developing Suborbital RLV’s.

I remember thinking at the time, how did Masten have enough market data to make that decision? Masten, Armadillo, XCOR, Virgin, Blue Origin – these guys & gals threw their hat in the ring long before there were significant studies confirming suborbital RLV’s made “market sense”. They had vision. They had guts. Or if the data did exist, at the time, I did not know how to find it.

And now, NASA is offering a prize for a Nano-satellite Launch Vehicle (NLV) – “launching very small things quite often”. And as candidate NLV teams consider throwing their hats in this ring, the market data is a little more available for an NLV service than there was for suborbital service almost a decade ago.

This post attempts to consolidate that NLV market analysis. Of course this will be incomplete, so I need your help. Add links to other NLV market data in the comments of this post to benefit the whole group. I will skip a discussion of NASA's NLV Challenge.  Here is NASA's NLV Challenge Page  for more details. 
I have broken the NLV market analysis down into the following categories:
  • NLV Market Sources
  • Market Overview
  • NLV Market Differentiators 
  • NLV Substitutes
  • Interesting NLV Market Nuggets
  • Potential Market Competitors
  • Market Demand Graph
  • NLV Pricing Discussion
  • Market Impactors

NLV Market Sources.  The authors of these study deserve your business. Buy their papers. They are doing good work. Instead of at the end of this post, I wanted these links near the top!

Market Overview.  The NLV market can be dissected in at least two ways: (1) by payload size and (2) by payload type.

Payload Size. I have heard various naming conventions for small payload launch vehicles.  For this blog post, I will use “Nano”, “Micro”, “Small” as three payload sizes to consider.  However, I will group them all together and use the name NLV most of the time.
  • Nano - Under 10kg
  • Micro - 10-100 kg
  • Small - 100-200 kg
NASA is focused on a 1kg payload for its NLV Challenge. The Army is interested in at least 20kg payloads. Even if first generation vehicles are only able to launch a few kg of payload, commercial NLV ventures would be wise to endeavor to grow to larger payload sizes over time. Current 200-400kg payloads launched currently on larger vehicles would surely be interested in "going on a diet" if an NLV launcher could carry 100-200Kg yet offer more frequent launches.

Payload Type. The second NLV market subdivision will be the option of (1) launching a functioning satellite or (2) delivering cargo to stations or depots. Of the two, cargo delivery may very well be the larger of the two sub-markets. It will take far less preparation to send the ISS an NLV-load of fresh apples than it would be to fund, develop, integrate, and launch a nanosat. Both satellite launches and cargo delivery will be sub-markets. Expect the satellite market to retain a diversified customer base. Expect the cargo delivery customer base to be dominated by station owners in the early days (ISS partners and Bigelow), but to expand to Space Station customers in the not so distant future (see: NanoRacks).












NLV Market Differentiators.  What makes an NLV unique? An NLV won’t be able to carry as much payload to orbit as its bigger cousins, why would any customers want to use an NLV?  Answer: Frequent launches, low integration time.
  • Cost: Higher Cost per LB than larger launchers but lower Cost per launch
  • Launch Frequency: Launch *much* more frequently than larger launchers (weekly? Daily?)
  • Launch Lead Time: Integrate payloads in less time to take advantage of more frequent launches
  • Payload Mass: a few kg (at first)
  • Orbit Choice: Customers can choose since not a secondary payload
  • Suborbit/LEO/GEO: Limited to LEO (at first) – Suborbital applications? Maybe.

NLV Substitutes.  Prices for NLV’s cannot be set independent of substitutes. Here’s a list of some big ones:
  • Launch as secondary payload. Spaceflight Services (Andrews Space) offers a turnkey solution for your payload to fly on the BIG rockets as a secondary payload.
  • Hosted payloads. Boeing just launched a new service to combine your payload with others on a single satellite bus thus reducing customer costs since they do not need to procure an entire satellite. Note: this would be a substitute only for satellite payloads, not for cargo payloads
  • Commercial RLV suborbital spaceflight. Masten, Armadillo, and Blue Origin are stuck at 100km for now, but not for long. Watch as future generations of their vehicles climb higher and higher giving customers a greater flight-time, frequent launches, and very low costs.
  • With COTS deliveries to ISS approaching, deliveries to station will be made by NASA several times per year with ISS partners also delivering cargo to station several times per year.









Interesting NLV Market Nuggets.
  • Microcosm Inc, identified potential market-wide launch savings of more than $15B over a 12-year period, resulting from the development of a low-cost responsive launch vehicle focused on the SmallSat market (above 100Kg)
  • In a 2008 presentation, Pete Worden said there were ~80 universities with active cubesat (nanosat) programs 
  • A 2006 Futron Study identified over 30 markets in 6 principle areas for services provided by low-cost satellites in the 100-200 kilogram class
  • The US Army is interested in Nano Launch and had put a price point of $1M per launch.
  • My interview with the CEO of CubeSat component manufacturer Clyde Space revealed he thought $250K for a 3u is definitely too much for most customers.
  • My interview with Professor Jordi Puig-Suari from Cal Poly and professors from MIT, and St. Louis University who are currently active in either university satellite development or active in space research of some kind show they are targeting a price point under $50K per CubeSat with $20K being preferred. Relooking at my notes from those interviews, at a $20K price point, these professors thought the US demand for CubeSat launches would grow to 50-100 each year. Interesting they thought the low flight opps of the current “secondary payload” system a bigger problem than the high cost. Prof Michael Swartwout said in my interview with him, he waits 5-7 years to secure a spot on a rocket to launch his CubeSats. This is longer than an undergrads college career – not too inspiring for young engineers!

Potential Market Competitors.  Non-exhaustive – From the Paper: "Market Characterization: Launch of Very-Small and Nano Sized Payloads" by Christsensen, et all. 2010.






















Market Demand Graph:

This graph is incomplete but should convey the significant number of different areas where an NLV could gain market share. For an explanation of these categories I would encourage you to get a copy of the wonderful papers I list under the “sources” section of this post.







NLV Pricing Discussion.  A major portion of any market analysis is not just what the needs are but what are potential customers willing to pay to meet those needs. For the NLV market you have customers at different ends of a spectrum. Government customers like the Army have stated a willingness to pay $1M to place 20kg in LEO. Universities want to keep Cubesat costs (usually 1-3 kg) to under $20K per U.

Variable Pricing seems like the right answer, where Primary customers pay a premium to fly on their schedule to their orbit and others willing to fly “standby” get a much reduced price but operate on someone else’s schedule and flies to someone else’s orbit. Rather than rewrite the variable pricing details now, here is the post I wrote on variable NLV pricing a few months ago.

If you made me guess right now, I would assume the following prices per U would be acceptable by the market:
  • Government: $50-200K per U (with discounts per U for larger payloads)
  • Academia: $20K per U
  • Commercial: ???, perhaps somewhere between

Market Impactors.  Any market has externalities to the market that can help or hurt the industry. Here are just a few:

  • Of all of the substitutes available to the NLV market, the one that has most potential to steal market share is the second or third generation of suborbital RLV’s. As mentioned earlier in this post, a subset of the NLV market could be served with the extended micro-gravity offered by suborbital RLV’s flying to 500 or 1000 km. But the opposite is also true, a delay or accident affecting the un-manned portion of the suborbital RLV industry (primarily Masten, Armadillo, and Blue Origin) could make some customers consider launching on an NLV rather than waiting for the suborbital ride. 
  • One of the two key sub-markets for NLV’s will be package delivery. More successful space stations, more package delivery. The proliferation of commercial space stations will be a major driver of this sub-market
  • How the last mile problem gets solved will directly affect the viability of micro package delivery (one of my two submarkets). We need solutions for the last mile problem – the solution will be part technology, part policy, part management. If NLV packages can’t be routinely delivered to space stations, the NLV industry will be severely hampered and space stations will miss out on an enabling method to gain just-in-time deliveries.
  • NLV’s only work as a market if they can launch frequently with low integration turnarounds. Even if low costs had to come later, the ability to launch frequently with streamlined payload integration will be the driving force behind early NLV success stories. The question operators will need to ask is, “How do I design and manage NLV operations in such a way to achieve the goals of frequent flight opps and low integration turnarounds?”
  • Although depot development is still years down the road, the potential “match made in heaven” between depots need for frequent propellant deliveries and NLV’s ability to fly frequently should not be overlooked…but I would not build a business plan around depot assumptions just yet.
That is a good dataset to start.  I will add some commentary in future posts.  Here is the spreadsheet containing the tables used in this post. 

Now I welcome your additions.  Use the comments section to your links to even more NLV market data.

Kamis, 03 Maret 2011

Funding your "Game Changing" Space Innovation

NASA’s Game Changing Technology Division (GCT) within NASA’s Office of the Chief Technologist (OCT) announced this week it is looking for “Unique and Innovative Space Technologies” that helps achieve one of the fourteen Technology Areas (TA’s) on NASA’s Space Technology Roadmap:
  • TA01 Launch Propulsion Systems
  • TA02 In-Space Propulsion Technologies
  • TA03 Space Power and Energy Storage
  • TA04 Robotics, Tele-Robotics and Autonomous Systems
  • TA05 Communication and Navigation
  • TA06 Human Health, Life Support and Habitation Systems
  • TA07 Human Exploration Destination Systems
  • TA08 Science Instruments, Observatories and Sensor Systems
  • TA09 Entry, Descent and Landing Systems
  • TA10 Nanotechnology
  • TA11 Modeling, Simulation, Information Technology and Processing
  • TA12 Materials, Structures, Mechanical Systems and Manufacturing
  • TA13 Ground and Launch Systems Processing
  • TA14 Thermal Management Systems
The GCT is offering five to ten awards up to $5M per year with no individual award valued at more than $3M over three years ($1M per year max?). GCT is looking for technologies at a TRL of 3-4 and wants to mature them to a TRL of 5-6.

One of the challenges facing a new company with an idea is how to fund development of that idea. Seeking external capital too early usually results in interested investors taking a sizeable chunk of ownership for a relatively small investment since the company valuation is so low. And in many cases, these companies don’t even find interested investors. NASA’s GCT is offering an alternative method to jump start development to bring these innovations to market faster.

Here were some of the solicitation quotes I found interesting:

  • "This solicitation is focused upon these types of sudden and unexpected innovations that hold a potential for providing a “game changing” impact on the efficiency and effectiveness of space capability"
  • Speaking of the DARPA-like proposal process, “NASA expects this process to prevent unproductive proposal preparation for technology concepts that are unsuitable for unsuitable under this particular BAA"
  • "While other technology development activities seek the steady and deliberate evolution of well-understood systems, GCT focuses on developing radically new approaches to the Agency’s future space missions and the nation’s significant aerospace needs. Successful products of GCT will provide or lead to revolutionary advances in capability."
  • "Appropriateness for GCT: Does the proposed technology or concept have the potential to make radical improvement s in the way NASA accomplishes its missions?"
The GCT proposal process is also innovative (more DARPA-like). Instead of requiring these innovators to submit a full proposal up front (consuming precious time that could otherwise be devoted to innovating), the GCT contracting process starts small:

  1. A one-page exec summary. If NASA GCT likes it then…
  2. A White-paper describing the technology in more detail. If NASA GCT likes it then…
  3. A full proposal.
And all along the way GCT is offering feedback and improvements.  All you need right now is a “game changing” innovation and an executive summary. Let’s get to work.

Sabtu, 22 Januari 2011

11 Space Business Ideas from NASA JSC

"Bottle Suit" Concept
Last Thursday, NASA’s Johnson Space Center published the presentation, Human Spaceflight Affordability: Advanced In-house Development, a series of projects…space problems, that they would like to go solve (or work toward solving) using “primarily civil servants” but willing to “engage non-traditional partnerships” when needed.

On the one hand, JSC is looking to keep its workforce busy on value-add projects, so it is not surprising they are seeking to accomplish these projects primarily in-house.

But more importantly for an entrepreneur, JSC has just published eleven problems they believe are worth spending money to go solve. Can you close a business case around all of them…no. Will JSC solve them all...no.  But some of these ideas could be developed and offered commercially. 

Here is my summary of the eleven ideas, but do read JSC's full presentation.  For some of the ideas JSC goes into significant detail of their development plans or their proposed final solution.
  1. Dual purpose EVA suits: for space and surface work. Focused on grit tolerant joints. 
  2. Suit-Port: Half a space suit, rear-entry, easy access, eliminates pre-breathing, low risk of contaminating habitable environment.
  3. Man-In-A-Can/Bottle Suit: personal space pods for extended Astronaut EVA’s (see the image at the beginning of this post)
  4. Low-Mass/Low-Volume Exercise equipment. Perhaps wearable robotics to simulate the gravity’s effects on muscles (the opposite of what such exoskeleton projects are used for on earth).
  5. Free-Flying Cameras: Remote controlled cameras for inside and outside space stations. Deployable through the JEM airlock.
  6. Down Mass from ISS: capsule to return low-mass, high-value payloads down to earth from the ISS. Deployable through the JEM airlock.
  7. Demonstrate Earth aerocapture prior to using technique for future human missions
  8. “The Multi-Mission Space Exploration Vehicle (MMSEV, or just SEV) is a pressurized robotic vehicle designed to carry two astronauts to various destinations in space.” When in space, the MMSEV is similar to idea number 3. Put wheels on the MMSEV and it drives around the moon. (page 163 of this NASA document for an MMSEV overview)
  9. Advanced Environment Control and Life Support System (ECLSS) – develop now for when humans need to travel a long way from home.  Significant work could be done advancing this idea without the need for rocket launch.
  10. Beyond LEO Habitats.
  11. Use ISS Waste to make propellant (maybe to fuel Free-Flying Cameras listed in number 5).
Eleven ideas. Thanks JSC. Entrepreneurs, sharpen those calculators.

Senin, 13 Desember 2010

25 SBIR Winners to Watch

The Small Business Innovation Research (SBIR) Program was created by Congress in 1985 as a tool to promote small business, commercialization, innovation and US competitiveness.

NASA’s version of an SBIR (similar to programs run by other agencies) awards a series of contract “Phases” to small business helping them demonstrate their technologies.  Upon completion of these phases, small businesses would be empowered to independently pursue commercialization of their technologies.

Good for the company: marketable product.
Good for NASA: access to technologies at commercial-off-the-shelf prices

Phase I contracts: $100K (or less) over 6mo.
Phase II contracts: $600K over 24mo.

The SBIR program continues to show great potential, but sadly produces far fewer commercializations then anyone would like. The low commercialization success is driven by several factors (I am sure there are more than these):
  • NASA chooses SBIR technologies that they want commercialized , not necessarily ones that have been analyzed to thrive in the marketplace (SBIRs are more tech development than business development). Check out #24 on my list below for a firm attempting to change this for NASA's biomedical SBIRs.
  • The SBIR program has some companies that win and execute an SBIR through all of its phases, but never commercialize anything preferring the low-risk approach of perpetually submitting new SBIRs without taking the high risk/high reward attempt at commercialization. Have you heard of the term, “SBIR Shop”?
  • Aerospace components don't sell nearly as well as integrated products.  Since SBIRs focus on components (usually), it may take the integration of several SBIR contracts to gain enough components to turn into an integrated product slowing the path to commercialization.

But let’s talk about the good news. Wow, there are a lot of cool ideas in this batch of NASA SBIR Phase I winners. Below is my summary of 25 SBIR Ideas to watch.  To make my list, the SBIR idea had to meet these loose standards:
  • Have a market (I could easily think of) beyond NASA
  • Be hypothetically commercialized by a small firm
  • Demonstrate a space focus (sorry to all of the air-traffic control and UAV SBIR winners, you did not make the list)
Forgive me if I missed the market opportunity from your firm’s SBIR submittal (there were many more winners than the twenty-five I chose):
  1. Advanced Scientific Concepts, Inc. 3D Flash LIDAR real time embedded processing  
  2. Altius Space Machines, Inc. Attractive docking technology
  3. Aspen Aerogels, Inc. Ablative Flexible Aerogel TPS Materials for Mars Aerocapture and Entry
  4. Aurora Flight Sciences Corporation Rendezvous and Docking Technologies for Orbiting Sample Capture
  5. Composite Technology Development, Inc. De-orbit Devices/Technologies for Small Spacecraft
  6. EM Photonics Compressed Sensing for Space-Based High-Definition Video Technologies
  7. Firestar Engineering, LLC Low Cost Carbon-Carbon Rocket Nozzle Development
  8. Gloyer-Taylor Laboratories LLC Reliable, Reusable Cryotank
  9. HKM Enterprises Inc. Interface for grouping multiple secondary payloads into a primary mission
  10. Honeybee Robotics Ltd. Magnetic Bearings for Small Satellite CMG’s & Other Miniature Spacecraft Mechanisms
  11. Hyper-Therm High-Temperature Composites Novel Fabrication Approach for SiC/SiC Thermal Protection System Elements
  12. Innoflight, Inc. CubeSat Power Management Controller and Solar Array Articulation System
  13. Materials Technologies Corporation Durable and Conductive IR witness coatings for High Accuracy IR Thermography
  14. Pacific Design Technologies, Inc. High Performance Space Pump (mentions re-fueling hydrazine on orbit)
  15. Picometrix, LLC Miniaturized Non Destructive Evaluation for In-Orbit Inspection.
  16. Pioneer Astronautics Nitrous Oxide Micro Engines
  17. Powdermet, Inc. Aerogel Modified Structural Thermal Protection System
  18. Rocketstar Robotics Inc Modular Actuators for Space Applications
  19. Sierra Lobo, Inc. A CubeSat-Scale Testbed for Cryogenic Fluid Management Technologies
  20. Technology Applications, Inc. Lightweight Inflatable Cryogenic Tank
  21. Techshot, Inc. Life Science Research Sample Transfer Technology for On Orbit Analysis.
  22. Tethers Unlimited PowerCube: Integrated Power, Propulsion, and Pointing for CubeSats
  23. Tethers Unlimited High Thrust Efficiency MPD Thruster
  24. Virtual Incubation Company, LLC A venture capitalist market assessment of NASA’s Human Research Program Technologies
  25. XCOR Aerospace Cryogenic Composite Tank Fabrication for Reusable Launch Vehicles
Promising Innovations...yes.  But it's long road to commercialization.  Good luck to all of these companies in implementing both their technology and business solutions.

Rabu, 01 Desember 2010

Airplanes or Automobiles?

Is Human Space Flight more like the airline industry or the automobile industry?

In a recent post at Space News, guest-blogger Gordon Smith, Ph.D., acknowledges  the reality that Human Space Flight has not been truly commercialized while other highly complicated and risky industries have flourished privately.  Smith believes those attempting to commercialize human spaceflight utilizing an airline industry business model could be more successful by changing models.

Might the automobile industry provide a better business model for Human Space Flight to be patterned after? Cars and trucks are specialized for the needs of their users and onboard redundancies are minimized through the use of AAA, tow trucks, gas stations, and other readily available "emergency services" that are easily accessible to motorists on the road. Smith argues in favor of:
  • Rescue craft capable of reaching both space stations and free-flying spacecraft on short notice (perhaps already on-orbit)
  • Maintenance craft (think spare parts)
  • Rendezvous craft (think tugs)
  • and of course depots
NASA could provide the rescue service or perhaps such a rescue service could be offered as a private venture:

  • Added redundancy for NASA
  • Like COTS, another way for NASA to stimulate the industry
  • Lower Insurance premiums for Bigelow
  • Lower Insurance premiums for all private manned launches
Note: for these to be a help to humans in space, these vehicles do not necessarily need to be manned themselves. This quote from his blog post sums up Smith’s position:

“The automotive industry operates similarly to human spaceflight, if one looks at the broad operational behaviors. A vehicle departs from a certain location, travels for a period of time that may be limited or indefinite (but the car may pause as needed), and can return to any number of locations. However, the automotive industry prevents DTD and redundancy costs from growing prohibitive using government or private means to render assistance in the form of ambulances and tow trucks.

We gain so much by adjusting the human spaceflight industry model to better support their operations. Creating a means by which aid may quickly be dispatched to space stations or vehicles on orbit is within the scope of the 2010 National Space Policy, reduces the costs associated with human spaceflight and makes it easier for private commercialization to grow. Instead of having to counter every possibility, known and unanticipated, private vehicles and stations need only ensure that if something goes wrong, their occupants will be able to safely wait for help. This is an improved response over escape pods currently under consideration, as it does not leave an abandoned asset worth billions of dollars to drift unattended in orbit, where it may easily be lost.”
Gordon Smith has also written this paper on the macro-economic impacts on the space industry where he strikes similar tones.  This paper warrants closer scrutiny.  Perhaps in an upcoming post.  For now, I like this quote from the paper:
"This emergency response capability, then, should be made a priority in forthcoming policy so that the long promised commercial sector may finally develop."