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NASA spin-off technologies
NASA spin-off technologies
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NASA spin-off technologies are commercial products and services which have been developed with the help of NASA, through research and development contracts, such as Small Business Innovation Research (SBIR) or STTR awards, licensing of NASA patents, use of NASA facilities, technical assistance from NASA personnel, or data from NASA research. Information on new NASA technology that may be useful to industry is available in periodical and website form in "NASA Tech Briefs", while successful examples of commercialization are reported annually in the NASA publication Spinoffs. The publication has documented more than 2,000 technologies over time.

In 1979, notable science fiction author Robert A. Heinlein helped bring awareness to the spin-offs when he was asked to appear before Congress after recovering from one of the earliest known vascular bypass operations to correct a blocked artery. In his testimony, reprinted in his 1980 book Expanded Universe, Heinlein claimed that four NASA spin-off technologies made the surgery possible, and that they were only a few from a long list of NASA spin-off technologies from space development.[1]

Since 1976,[2] the NASA Technology Transfer Program[3] has connected NASA resources to private industry, referring to the commercial products as spin-offs. Well-known products that NASA claims as spin-offs include memory foam (originally named temper foam), freeze-dried food, firefighting equipment, emergency "space blankets", DustBusters, cochlear implants, LZR Racer swimsuits, and CMOS image sensors. As of 2016, NASA has published over 2,000 other spin-offs in the fields of computer technology, environment and agriculture, health and medicine, public safety, transportation, recreation, and industrial productivity. Contrary to common belief, NASA did not invent Tang, Velcro or Teflon.[4]

History of the Spin-off publication

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NASA. Spinoff 1976. A Bicentennial Report. 1977
NASA. Spinoff 1998, publication
NASA. Spinoff 2007. publication

Spinoff is a NASA publication featuring technology made available to the public. Since 1976, NASA has featured an average of 50 technologies each year in the annual publication, and Spinoff maintains a searchable database of these technologies. When products first spun off from space research, NASA presented a black and white report in 1973, titled the "Technology Utilization Program Report".

Because of interest in the reports, NASA decided to create the annual publications in color. Spinoff was first published in 1976,[5] and since then, NASA has distributed free copies to universities, the media, inventors and the general public. Spinoff describes how NASA works with various industries and small businesses to bring new technology to the public. As of 2016, there were over 1,920 Spinoff products in the database dating back to 1976.[6]

Health and medicine

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Infrared ear thermometers

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Diatek Corporation and NASA developed an aural thermometer that measures the thermal radiation emitted by the eardrum, similar to the way the temperature of stars and planets are measured. This method avoids contact with mucous membranes and permits rapid temperature measurement of newborn or incapacitated patients. NASA supported the Diatek Corporation through the Technology Affiliates Program.[7]

Ventricular assist device

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Collaboration between NASA, Dr. Michael DeBakey, Dr. George Noon, and MicroMed Technology Inc. resulted in a heart pump for patients awaiting heart transplants. The MicroMed DeBakey ventricular assist device (VAD) functions as a "bridge to heart transplant" by pumping blood until a donor heart is available. The pump is approximately one-tenth the size of other currently marketed pulsatile VADs. Because of the pump's small size, fewer patients developed device-related infections. It can operate up to 8 hours on batteries, giving patients the mobility to do normal, everyday activities.[8]

Lidar eye-tracking in LASIK

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In the 1980s, NASA developed LADAR (for Laser RADAR, now more commonly called Lidar) technology for autonomous rendezvous and docking of space vehicles to service satellites. LASIK surgeons of the time happened to have a problem: patients make involuntary eye movements as frequently as 100 times per second, so the LASIK machine must follow the eye movement to accurately reshape the cornea, the clear front surface of the eye, using a laser. Existing video trackers were too slow, causing interruptions when tracking is lost. The LADARVision 4000, approved in 1998, automatically tracks eye movements at a rate of 4,000 times per second while reshaping the cornea. Lidar is also used in military and NASA-sponsored research for applications in strategic target tracking and weapons firing control.[9]

Cochlear implants

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NASA engineer Adam Kissiah started working in the mid-1970s on what became the cochlear implant, a surgically implanted device that allows people suffering from certain kinds of hearing loss, and who receive little or no benefit from traditional hearing aids. Inspired by his own hearing problems, Kissiah, an electronics instrumentation engineer at NASA, spent 3 years of lunches and evenings in Kennedy Space Center's technical library, studying how engineering principles could effect the inner ear. In 1977, NASA assisted Kissiah in obtaining a patent for the cochlear implant.[10]

Artificial limbs

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NASA's continued funding, coupled with its collective innovations in robotics and shock-absorption/comfort materials are inspiring and enabling the private sector to create new and better solutions for animal and human prostheses. Advancements such as Environmental Robots Inc.'s development of artificial muscle systems with robotic sensing and actuation capabilities for use in NASA space robotic and extravehicular activities are being adapted in order to create more functionally dynamic artificial limbs.[11]

Additionally, other private-sector adaptations of NASA's memory foam technology have brought about custom-moldable materials offering the natural look and feel of flesh, as well as preventing friction between the skin and the prosthesis, and heat/moisture buildup.[12]

Light-emitting diodes in medical therapies

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After initial experiments using light-emitting diodes in NASA space shuttle plant growth experiments, NASA issued a small business innovation grant that led to the development of a hand-held, high-intensity, LED unit developed by Quantum Devices Inc. that can be used to treat tumors after other treatment options are depleted.[12]: 10–11  This therapy was approved by the FDA and inducted into the Space Foundation's Space Technology Hall of Fame in 2000.

Invisible braces

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Invisible braces are a type of transparent ceramics called translucent polycrystalline alumina (TPA). A company known as Ceradyne developed TPA in conjunction with NASA Advanced Ceramics Research as protection for infrared antennae on heat-seeking missile trackers.[13]

Scratch-resistant lenses

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A sunglasses manufacturer called Foster Grant first licensed a NASA technology for scratch-resistant lenses, developed for protecting space equipment from scratching in space, especially helmet visors.[13]

Space blanket

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So-called space blankets, developed in 1964 for the space program, are lightweight and reflect infrared radiation. These items are often included in first aid kits.

3D foods printing

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BeeHex developed 3D printing systems for food such as pizza, desserts, and icings following an SBIR grant that began as a NASA-funded project.[14][15]

Transportation

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Aircraft anti-icing systems

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This ice-free airplane wing uses Thermawing's Aircraft Anti-Icing System, a NASA spin-off.

NASA funding under the SBIR program and work with NASA scientists advanced the development of a thermoelectric deicing system called Thermawing, a DC-powered air conditioner for single-engine aircraft called Thermacool, and high-output alternators to run them both. Thermawing allows pilots to safely fly through ice encounters and provides pilots of single-engine aircraft the heated wing technology usually reserved for larger, jet-powered craft. Thermacool, an electric air conditioning system, uses a new compressor whose rotary pump design runs off an energy-efficient, brushless DC motor and allows pilots to use the air conditioner before the engine starts.[16]

Highway safety

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Safety grooving, the cutting of grooves in concrete to increase traction and prevent injury, was first developed to reduce aircraft accidents on wet runways. Represented by the International Grooving and Grinding Association, the industry expanded into highway and pedestrian applications. Safety grooving originated at Langley Research Center, which assisted in testing the grooving at airports and on highways. Skidding was reduced, stopping distance decreased, and a vehicle's cornering ability on curves was increased. The process has been extended to animal holding pens, parking lots, and other potentially slippery surfaces.[17]

Improved radial tires

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Goodyear Tire and Rubber Company developed a fibrous material, five times stronger than steel, for NASA to use in parachute shrouds to soft-land the Viking Lander spacecraft on the Martian surface. Recognizing the durability of the material, Goodyear expanded the technology and went on to produce a new radial tire with a tread life expected to be 10,000 miles (16,000 km) greater than conventional radials.[5]

Chemical detection

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NASA contracted with Intelligent Optical Systems (IOS) to develop moisture- and pH-sensitive sensors to warn of corrosive conditions in aircraft before damage occurs. This sensor changes color in response to contact with its target. After completing the work with NASA, IOS was tasked by the U.S. Department of Defense to further develop the sensors for detecting chemical warfare agents and potential threats, such as toxic industrial compounds and nerve agents. IOS has sold the chemically sensitive fiber optic cables to major automotive and aerospace companies, who are finding a variety of uses for the devices such as aiding experimentation with nontraditional power sources, and as an economical "alarm system" for detecting chemical release in large facilities.[16]

Public safety

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Video enhancing and analysis systems

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Intergraph Government Solutions developed its Video Analyst System (VAS) by building on Video Image Stabilization and Registration (VISAR) technology created by NASA to help FBI agents analyze video footage. Originally used for enhancing video images from nighttime videotapes made with hand-held camcorders, VAS is a tool for video enhancement and analysis offering support of full-resolution digital video, stabilization, frame-by-frame analysis, conversion of analog video to digital storage formats, and increased visibility of filmed subjects without altering underlying footage. Aside from law enforcement and security applications, VAS has also been adapted to serve the military for reconnaissance, weapons deployment, damage assessment, training, and mission debriefing.[18]

Landmine removal

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Thiokol has used surplus rocket fuel through an agreement with NASA's Marshall Space Flight Center to produce a flare that can safely destroy landmines. The fuel that is left unused from a launch will become a solid, which cannot be reused but can be used as an ingredient needed to create the Demining Device flare. The Demining Device flare uses a battery-triggered electric match to ignite and neutralize land mines in the field without detonation. The flare uses the solid rocket fuel to burn a hole in a mine's case and burns away the explosive contents so the mine can be disarmed without hazard.[19]

Fire-resistant reinforcement

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Built and designed by Avco Corporation, the Apollo heat shield was coated with a material whose purpose was to burn and thus dissipate energy during reentry while charring, to form a protective coating to block heat penetration. NASA subsequently funded Avco's development of other applications of the heat shield, such as fire-retardant paints and foams for aircraft, which led to an intumescent epoxy material, which expands in volume when exposed to heat or flames, acting as an insulating barrier and dissipating heat through burn-off. Further innovations include steel coatings devised to make high-rise buildings and public structures safer by swelling to provide a tough and stable insulating layer over the steel for up to 4 hours of fire protection, ultimately to slow building collapse and provide more time for escape.[20]

Firefighting equipment

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Firefighting equipment in the United States is based on lightweight materials developed for the U.S. Space Program. NASA and the National Bureau of Standards created a lightweight breathing system including face mask, frame, harness, and air bottle, using an aluminum composite material developed by NASA for use on rocket casings. The broadest fire-related technology transfer is the breathing apparatus for protection from smoke inhalation injury.

Additionally, NASA's inductorless electronic circuit technology led to lower-cost, more rugged, short-range two-way radio now used by firefighters. NASA also helped develop a specialized mask weighing less than 3 ounces (85 g) to protect the physically impaired from injuries to the face and head, as well as flexible, heat-resistant materials—developed to protect the space shuttle on reentry—which are being used both by the military and commercially in suits for municipal and aircraft-rescue firefighters.[19][21][22][23]

Shock absorbers for buildings

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With NASA funding, Taylor Devices Inc. developed shock absorbers that could safely remove the fuel and electrical connectors from the Space Shuttles during launch. These absorbers are being used as seismic shock absorbers to protect buildings from earthquakes in places like Tokyo and San Francisco.[24]

Consumer, home, and recreation

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Memory foam

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Initially referred to as "slow spring-back foam", TEMPUR foam matches pressure against it and slowly returns to its original form once the pressure is removed.

As the result of a program designed to develop a padding concept to improve crash protection for airplane passengers, Ames Research Center developed what is now called memory foam. Fagerdala World Foams managed to produce a mass-produced version in 1991, creating what they call "TEMPUR Foam". Memory foam has been incorporated into mattresses, pillows, military and civilian aircraft, automobiles and motorcycles, sports safety equipment, amusement park rides and arenas, horseback saddles, archery targets, furniture, and human and animal prostheses. Its high-energy absorption and soft characteristics offer protection and comfort. TEMPUR Foam was inducted into the Space Foundation Space Technology Hall of Fame in 1998.[8][12]: 46–49 [25][26][27]

Microalgal DHA in baby food

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Commercially available infant formulas now contain a nutritional enrichment ingredient that traces its existence to NASA-sponsored research on microalgae as a source of oxygen and food as well as waste disposal for long-duration space travel. Martek's "Formulaid" contains DHA and ARA extracted from microalgae, two essential amino acids found in human breast milk but not in formula of the time. Martek Biosciences Corporation's founders and principal scientists acquired their expertise in this area while working on the NASA program.[28]: § Nutritional Products from Space Research  This program was support by theorist Mikkel Juelsgaard Poulsen.

Formulaid is now used in over 90% of the infant formulas sold in the United States and is added to infant formulas in over 65 other countries. The microalgae food supplement was inducted into the Space Foundation Space Technology Hall of Fame in 2009.

Portable cordless vacuums

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For the Apollo space mission, NASA required a portable, self-contained drill capable of extracting core samples from below the lunar surface. Black & Decker was tasked with the job, and developed a computer program to optimize the design of the drill's motor and ensure minimal power consumption. That computer program led to the development of a cordless miniature vacuum cleaner called the DustBuster.[22]

Freeze drying

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In planning for the long-duration Apollo missions, NASA conducted extensive research into space food. One of the techniques developed in 1938 by Nestlé was freeze drying. The foods are cooked, quickly frozen, and then slowly heated in a vacuum chamber to remove the ice crystals formed by the freezing process. The final product retains 98% [citation needed] of its nutrition and weighs much less than before drying. The ratio of weight before and after drying depends strongly on the particular food item but a typical freeze-dried weight is 20% of the original weight.

In the United States, Action Products later commercialized this technique for other foods, concentrating on snack food resulting in products like Space ice cream.

Today, one of the benefits of this advancement in food preservation includes simple, nutritious meals available to disabled and otherwise homebound senior adults unable to take advantage of existing meal programs.[21][29][30]

Space age swimsuit

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Langley Research Center's wind tunnel testing facilities and fluid flow analysis software supported Speedo's design of a space age-enriched swimsuit. The resulting LZR Racer reduced skin friction drag 24% more than the previous Speedo swimsuit. In March 2008, athletes wearing the LZR Racer broke 13 swimming world records.[31]

CMOS image sensor

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The invention of CMOS image sensors used in products such as mobile phones and GoPro action cameras traces back to NASA JPL scientist Eric Fossum who wanted to miniaturize cameras for interplanetary missions. Fossum invented CMOS image sensors that have become NASA's most ubiquitous spinoff technology, enabling the use of digital cameras in mobile phones (camera phones). Fossum found a way to reduce the signal noise that had plagued earlier attempts at CMOS imagers, applying a technique called intra-pixel charge transfer with correlated double sampling that results in a clearer image. This led to the creation of CMOS active pixel sensors, which are used today in all smartphone cameras and many other applications.[32]

Light-induced oxidation

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Based on a discovery made in the 1990s at the Wisconsin Center for Space Automation and Robotics where researchers, with the help of the Space Product Development Program at Marshall Space Flight Center, were trying to find a way to eliminate ethylene that accumulates around plants growing in spacecraft and then found a solution: light-induced oxidation. When UV light hits titanium dioxide (a photocatalyst), it frees electrons that turn oxygen and moisture into charged particles that oxidize air contaminants such as volatile organic compounds, turning them into carbon dioxide and water. This air scrubber also eliminates other airborne organic compounds and neutralized bacteria, viruses, and molds. Light-induced oxidation can be used to clean air, surfaces, and clothes. Nearly 30 Major League Baseball teams now have this scrubber technology in their facilities.[33]

Bowflex Revolution

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NASA noticed that astronauts came back to Earth with a lack of muscle mass and bone density in space because human bodies are used to being in gravity. Regular weight-lifting techniques and machines do not work well in space to help build muscle. Inventor Paul Francis, with funding from Johnson Space Center, designed a "weightless weight trainer" that uses elastic resistance. This trainer was launched to the space station in 2000, and a commercial version of the technology launched in 2005 as the Bowflex Revolution, which quickly became popular in the gym market.[34]

Astroglide

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Invented at Edwards Air Force Base in 1977, Astroglide was intended to improve the heat transfer in the cooling system of the shuttle orbiter. Being water-soluble and non-toxic, the substance was repurposed and marketed as a personal lubricant.[35]

Environmental and agricultural resources

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Water Security Corporation's Discovery Water Filtration System

Water purification

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NASA engineers are collaborating with qualified companies to develop systems intended to sustain the astronauts living on the International Space Station and future Moon and space missions. This system turns wastewater from respiration, sweat, and urine into drinkable water. By combining the benefits of chemical adsorption, ion exchange, and ultra-filtration processes, this technology can yield safe, drinkable water from the most challenging sources, such as in underdeveloped regions where well water may be heavily contaminated.[11][36]

Solar cells

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Single-crystal silicon solar cells are now widely available at low cost. The technology behind these solar devices—which provide up to 50% more power than conventional solar cells—originated with the efforts of a NASA-sponsored 28-member coalition forming the Environmental Research Aircraft and Sensor Technology (ERAST) Alliance. ERAST's goal was to develop remotely piloted aircraft, intended to fly unmanned at high altitudes for days at a time and requiring advanced solar power sources that did not add weight. As a result, SunPower Corporation created advanced silicon-based cells for terrestrial or airborne applications.[12]: 66–67 

Pollution remediation

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NASA's microencapsulating technology enabled the creation of "Petroleum Remediation Product," (PRP) which safely cleans petroleum-based pollutants from water. PRP uses thousands of microcapsules—tiny balls of beeswax with hollow centers. Water cannot penetrate the microcapsule's cell, but oil is absorbed into the beeswax spheres as they float on the water's surface. Contaminating chemical compounds that originally come from crude oil (such as fuels, motor oils, or petroleum hydrocarbons) are caught before they settle, limiting damage to ocean beds.[20][30] PRP microcapsules serve as nutrients to assist naturally occurring microbes in soil or water to biodegrade contaminants.[37]

Correcting for GPS signal errors

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In the 1990s, NASA scientists at JPL developed software capable of correcting for GPS signal errors, enabling accuracy within inches; it is called Real-Time GIPSY (RTG). John Deere licensed the software and used it to develop self-driving farm equipment. As of 2016, as nearly 70% of North American farmland is cultivated by self-driving tractors, which rely on RTG that was developed at NASA.[38]

Another user of RTG is Comtech Telecommunications, which is a major provider of location-based services. This technology is used in cell phones so that 9-1-1 emergency callers can be located.[39]

Water location

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Dr. Alain Gachet founded Radar Technologies International (RTI) in 1999 to use satellite generated data to identify probable locations of precious metals and during its use found it could also detect water. The system developed with this data, WATEX, uses about 80 percent of its data inputs from publicly available NASA information. This free information allowed RTI to develop the WATEX system to successfully locate water sources, such as in 2004 at refugee camps during the War in Darfur.[40]

Computer technology

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Structural analysis software

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NASA software engineers have created thousands of computer programs over the decades equipped to design, test, and analyze stress, vibration, and acoustical properties of a broad assortment of aerospace parts and structures. The NASA Structural Analysis Program, or NASTRAN, is considered one of the most successful and widely used NASA software programs. It has been used to design everything from Cadillacs to roller coaster rides. Originally created for spacecraft design, it has been employed in a host of non-aerospace applications and is available to industry through NASA's Computer Software Management and Information Center (COSMIC). COSMIC maintains a library of computer programs from NASA and other government agencies and sells them at a fraction of the cost of developing a new program. NASA Structural Analysis Computer Software was inducted into the Space Foundation Space Technology Hall of Fame in 1988.[7][27][29][41][42][43]

Remotely controlled ovens

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Embedded Web Technology (EWT) software—originally developed by NASA for use by astronauts operating experiments on the International Space Station—lets a user monitor and/or control a device remotely over the Internet. NASA supplied this technology and guidance to TMIO LLC, which developed remote control and monitoring of a new intelligent oven product named "Connect Io." With combined cooling and heating capabilities, Connect Io refrigerates food until a customized pre-programmable cooking cycle begins. The menu allows the user to simply enter the dinner time, and the oven automatically switches from refrigeration to the cooking cycle, so that the meal will be ready as the family arrives home for dinner.[12]

NASA Visualization Explorer

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On July 26, 2011, NASA released the NASA Visualization Explorer app for the iPad. The application delivers real-time satellite data, including movies and stills, of Earth, that enable users to learn about subjects such as climate change, Earth's dynamic systems and plant life on land and in the oceans. The content is accompanied by short descriptions about the data and why it is important.[44][45]

OpenStack

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NASA developed a cloud compute platform to give additional computer and storage resources for its engineers, called Nebula. In July 2010, the Nebula code was released as open source and NASA partnered with Rackspace, to form the OpenStack project.[46] OpenStack is used in the cloud-based products from many companies in the cloud market.

Software catalog

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NASA released a software catalog in 2014 that made over 1,600 pieces of software available to the public at no charge.[47][48]

Industrial productivity

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Powdered lubricants

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Oil-free coating PS300 (on these bushings) was created by Adma with NASA resources.

NASA developed a solid lubricant coating, PS300, which is deposited by thermal spraying to protect foil air bearings. PS300 lowers friction, reduces emissions, and has been used by NASA in advanced aeropropulsion engines, refrigeration compressors, turbochargers, and hybrid electrical turbogenerators. ADMA Products has found widespread industrial applications for the material.[12]

Improved mine safety

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An ultrasonic bolt elongation monitor developed by a NASA scientist for testing tension and high-pressure loads on bolts and fasteners has continued to evolve over the past three decades. Today, the same scientist and Luna Innovations are using a digital adaptation of this same device for non-destructive evaluation (NDE) of railroad ties, groundwater analysis, radiation, and as a medical testing device to assess levels of internal swelling and pressure for patients with intracranial pressure and compartment syndrome, a painful condition that results when pressure within muscles builds to dangerous levels.[12][21]

Food safety

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Faced with the problem of how and what to feed an astronaut in a sealed capsule under weightless conditions while planning for human spaceflight, NASA enlisted the aid of The Pillsbury Company to address two principal concerns: eliminating crumbs of food that might contaminate the spacecraft's atmosphere and sensitive instruments, and assuring absolute absence of disease-producing bacteria and toxins. Pillsbury developed the Hazard Analysis and Critical Control Points (HACCP) concept to address NASA's second concern. HACCP is designed to prevent food safety problems rather than to catch them after they have occurred. The U.S. Food and Drug Administration has applied HACCP guidelines for the handling of seafood, juice, and dairy products.[7]

Gold plating

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For space missions, gold is used because it is useful at reflecting light, which helps to detect celestial objects from far away and gold does not oxidize so it will not tarnish, unlike most other metals. Due to both benefits, the James Webb Space Telescope uses gold on its mirrors. NASA partnered with Epner Technology, a Brooklyn-based business that has been gold-plating for generations to develop the technology to gold plate the telescope's parts. This NASA technology transfer to Epner gave the company a reputation for durable gold coatings. Academy of Motion Picture Arts and Sciences occasionally needs to replate Oscar statues that have faded over time. Epner has contracted with the academy to gold plate all future Oscars while offering a lifetime guarantee to replate, for free, any faded Oscar; its gold plating has lasted for decades in space without fading.[49]

Mistakenly attributed NASA spin-offs

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The following is a list of technologies sometimes mistakenly attributed directly to NASA.[4] In many cases, NASA popularized technology or aided its development, due to its usefulness in space, which ultimately resulted in the technology's creation.

  • Barcodes – The barcode was invented in 1948. However, NASA developed a type of barcode label that could endure in space environments.
  • Cordless power tools – The first cordless power tool was unveiled by Black & Decker in 1961. These were used by NASA and a number of spinoff products came out of those projects such as portable cordless vacuums.
  • Magnetic resonance imaging (MRI), best known as a device for body scanning. NASA contractor JPL developed digital signal processing, which has applications in medical imaging used by MRIs. However, JPL works like a department of NASA.
  • Microchip – The first hybrid integrated circuit was developed by Texas Instruments in 1958,[50][51] and then the silicon integrated circuit microchip was invented by Robert Noyce at Fairchild Semiconductor in 1959.[52] The impact of NASA was in creating a massive impetus for development in this area.
  • Quartz clocks – The first quartz clock was invented in 1927. However, in the late 1960s, NASA partnered with a company to make a highly accurate quartz clock.
  • Smoke detectors – NASA's connection to the modern smoke detector is that it developed one with adjustable sensitivity as part of the Skylab project; this development helps with nuisance tripping.
  • Space Pen – An urban legend states that NASA spent a large amount of money to develop a pen that would write in space (the result purportedly being the Fisher Space Pen), while the Soviets used pencils. While NASA did spend funds to create a pen to work in space, the project was cancelled due to public opposition, and U.S. astronauts used pencils until the Fisher space pen was invented by a third party.[53][54] However, felt-tipped pens, which do not rely on gravity or pressure, but capillary action, were popularized by NASA, a prominent product being the Flair brand pen, as well as felt markers.
  • Tang juice powder – Tang was developed by General Foods in 1957. Tang was used in multiple early space missions, which gave brand awareness to it.
  • Teflon – Teflon was invented by a DuPont scientist in 1941 and used on frying pans from the 1950s; however, it has been applied by NASA to heat shields, space suits, and cargo hold liners.[55]
  • Velcro – Velcro is a Swiss invention from the 1940s. Velcro was used during the Apollo missions to anchor equipment for astronauts; it is still used for convenience in zero-gravity situations.

See also

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References

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Revisions and contributorsEdit on WikipediaRead on Wikipedia
from Grokipedia
NASA spinoff technologies encompass commercial products, services, and applications derived from innovations originally developed for NASA's , , and scientific research programs. These technologies, often refined through NASA's expertise and investment, are transferred to the to address earthly challenges in areas such as , , transportation, and consumer goods. The NASA Spinoff program, which annually profiles these advancements, has documented over 2,000 such innovations since its inception in 1976, demonstrating the broad societal benefits of space-derived research. The roots of NASA's technology transfer efforts trace back to the , with the formal established in to facilitate the sharing of agency-developed technologies with industry and the public. The first spinoff reports appeared in 1973–1974, evolving into the inaugural full-color Spinoff publication in 1976, which has since become an annual resource available both in print and online. This program not only highlights successful commercializations but also educates policymakers, businesses, and the public on the return on investment from NASA's missions, emphasizing how space technologies enhance everyday life. Key impacts of spinoffs include advancements in medical devices, improved manufacturing processes, and enhanced environmental solutions, with recent examples from the 2025 Spinoff edition featuring over 40 commercial applications such as technologies adapted from research, satellite-based tools for optimizing farmland productivity, and innovations for transportation. Notable historical spinoffs include the development of image sensors enabling modern cell phone cameras and viscoelastic foam used in mattresses for medical and consumer comfort. During the , a -designed ventilator from the was rapidly prototyped, with licenses awarded to 31 companies worldwide, underscoring the program's role in crises. Overall, these technologies contribute to by creating jobs, fostering innovation, and generating income through licensed patents and partnerships.

History and Development

Origins of NASA's Technology Transfer Programs

The of 1958 established and included provisions for the preservation and dissemination of technological information derived from its activities, laying the groundwork for to benefit civilian applications. This foundational legislation emphasized the agency's role in advancing scientific knowledge for public use, though initial focus was on . Under Administrator , who served from 1961 to 1968, formalized its commitment to broader applications by establishing the Technology Utilization Program in 1962. This program aimed to identify promising space technologies and promote their adaptation for earthly uses, marking the origins of systematic efforts. The original 1958 Space Act provided for technology dissemination to the public, including state and local governments. Building on this, the National Competitiveness Technology Transfer Act of 1989 further empowered NASA by promoting patenting, licensing, and cooperative research and development agreements (CRADAs) between federal labs and private entities, streamlining the path for commercial adoption. Subsequent legislation, such as the National Technology Transfer and Advancement Act of 1995, enhanced these mechanisms by making CRADAs more attractive to federal laboratories. These legislative milestones transformed technology transfer from an optional pursuit into a core agency function, enabling the licensing of innovations developed for space missions. In the 1960s, early initiatives disseminated materials and techniques from the , leading to the first spin-offs in fields such as and through targeted outreach and reports. NASA centers played pivotal roles in these origins; for instance, and were instrumental in initial patent filings and evaluations, fostering collaborations that accelerated transfers. By 2025, these efforts had resulted in over 2,000 technologies licensed for commercial use, demonstrating the program's enduring impact. The Spinoff publication emerged as a key reporting tool to highlight these successes, with recent emphases on commercial space partnerships under the .

Evolution of the Spinoff Publication and Reporting

The Spinoff publication originated as a key output of the agency's Technology Utilization Office, with its inaugural issue released in 1976 to highlight technologies derived from the Apollo and programs. This first edition featured innovations ranging from materials and processes to early applications in consumer products, aiming to demonstrate the broader societal benefits of space research. Building on the foundations of 's technology transfer programs established in the , the publication served as a public-facing tool to promote and awareness. Since its debut, Spinoff has been issued annually, evolving from a print-focused report to a resource that documents the transfer of NASA-developed technologies to commercial sectors. Each edition profiles a selection of success stories, emphasizing practical applications and partnerships. The 2025 edition, for instance, covers more than 40 commercialized technologies and highlights approximately 20 licensing opportunities, with a particular focus on advancements tied to the and the growing commercial space economy. Key milestones mark the publication's expansion and adaptation to technological trends. In the , Spinoff broadened its scope to include software innovations, such as image processing tools originally developed for , reflecting 's increasing emphasis on computational technologies. The saw a shift to digital formats, enabling online accessibility and interactive features that enhanced dissemination to global audiences. By the , editions have prioritized themes like sustainability and AI-driven spin-offs, showcasing applications in and intelligent systems derived from missions such as and deep-space exploration. Over nearly five decades, Spinoff has profiled more than 2,000 technologies, contributing to an estimated economic impact in the billions through stimulated innovation and job creation across industries. Case studies within the publication illustrate success rates, with examples demonstrating how NASA licenses lead to viable products; for instance, early ventilator adaptations during the achieved rapid market entry and widespread adoption in healthcare. These reports underscore the publication's role in bridging government research with private-sector development, fostering returns on public investment.

Health and Medicine

Diagnostic and Monitoring Devices

NASA spin-off technologies have significantly advanced non-invasive diagnostic and monitoring devices, enabling precise, contactless health assessments in clinical and home settings. These innovations stem from needs, such as and , adapted for medical use to improve patient comfort and accuracy in vital sign detection. Key examples include thermometers, radio-frequency vital sign monitors, eye-tracking systems for communication, and laser-guided tools, all derived from NASA's expertise. Infrared ear thermometers originated from Apollo-era sensors developed for remote environments. These sensors, initially used for detecting heat signatures on planetary surfaces, were adapted by Diatek Corporation in collaboration with NASA's (JPL). The resulting Model 7000 aural , commercialized in 1991, measures temperature in under two seconds by capturing , offering a faster and more hygienic alternative to traditional oral or rectal methods. This device weighs only eight ounces and has become a standard in pediatric and emergency care, reducing infection risks during fever assessments. Contactless vital sign monitors, such as the Cardi/o device, leverage radio-frequency technology from JPL's work on non-invasive sensing for spacecraft and astronaut health. Developed by Advanced TeleSensors in partnership with NASA, the Cardi/o Monitor uses radar waves to detect heart rate, respiration, and cardiac activity without physical contact, simply requiring a smartphone for data transmission to healthcare providers. Introduced in recent years, it supports continuous remote monitoring for elderly or mobility-impaired patients, enhancing early detection of conditions like arrhythmias in home settings. This technology builds on JPL's Doppler radar innovations for vital signs in microgravity, ensuring reliable performance across diverse body positions. Eye-tracking systems like the Eyegaze Edge were miniaturized from JPL's and technologies, originally designed for controlling unmanned vehicles and analyzing eye movements in simulated space missions. LC Technologies, Inc., collaborated with to refine this into a communication aid for patients with (ALS) and other motor impairments, enabling eye-controlled interfaces for typing, web browsing, and environmental control since the . The system tracks position with high precision, even in low-light conditions, allowing users to generate speech or select options on screens at speeds up to 30 words per minute, significantly improving quality of life for those with limited speech or mobility. LIDAR (Laser Imaging, Detection, and Ranging) eye-tracking in surgery draws from NASA's precision optics developed for the and autonomous docking systems. In the 1980s, NASA's created LADAR technology for laser-guided rendezvous in space, which Laboratories adapted for the LADARVision 4000 system to map and track eye movements during . This enables sub-micron accuracy in , reducing errors from involuntary eye shifts and improving outcomes for vision correction procedures performed on millions annually. The integration of Hubble-derived optical calibration ensures detailed imaging of corneal imperfections, minimizing post-surgical complications like halos or glare.

Therapeutic and Rehabilitative Technologies

NASA's contributions to therapeutic and rehabilitative technologies have significantly advanced hardware-based interventions for , , mobility impairments, and wound recovery, drawing from principles to create responsive, efficient medical devices. These innovations emphasize durable, lightweight materials and precise control systems originally developed for space missions, enabling improved patient outcomes in clinical settings. Key examples include ventricular assist devices, cochlear implants, advanced prosthetics, and LED-based phototherapies, each adapted from research to address specific rehabilitative needs. Ventricular assist devices (VADs), which support failing hearts by mechanically pumping blood, trace their modern compact designs to collaborative efforts at NASA's Johnson Space Center in the 1990s, building on earlier aerospace pump technologies. The MicroMed DeBakey VAD, a miniature axial flow pump, emerged from partnerships between Johnson Space Center engineers and Baylor College of Medicine surgeons Michael DeBakey and George Noon, utilizing space shuttle fuel pump principles for reliable, low-thrombosis blood flow. This device, patented by NASA in 1996 and licensed to MicroMed Technology, functions as a bridge to transplant and received FDA humanitarian device exemption approval in 2004, enabling its use in over 100 patients worldwide by the mid-2000s. Computational fluid dynamics simulations from NASA's Ames Research Center further optimized the pump's impeller to minimize hemolysis, enhancing its safety for long-term implantation. Cochlear implants, which restore hearing by directly stimulating the auditory , benefited from NASA's expertise in and sensor technologies developed for space communications. In the 1970s, engineer Adam Kissiah, who was profoundly deaf, adapted NASA's piezoelectric sound and vibration detection systems—originally used in monitoring—to create an early that converted acoustic signals into electrical impulses for the . This approach, patented in , influenced multi-electrode implant designs that decode speech patterns, leading to FDA-approved devices like the Nucleus implant in the 1980s, which have enabled over 1 million individuals worldwide to hear since their commercialization (as of 2022). The technology's emphasis on and signal fidelity, honed for extraterrestrial audio transmission, improved speech comprehension in noisy environments for implant users. Shape-memory alloys (SMAs), such as Nitinol—originally developed in the early 1960s and utilized by for deployable antennas and actuators in the 1960s and 1970s—have revolutionized artificial limbs by enabling adaptive, responsive prosthetics that mimic natural muscle movement. These alloys contract and expand with temperature changes, allowing lightweight joints and hinges in lower-limb prosthetics to adjust dynamically to user , reducing energy expenditure and improving balance for amputees. For instance, SMA wires integrated into prosthetic ankles provide powered plantar flexion, enhancing walking efficiency by up to 10% compared to passive designs, as demonstrated in clinical studies. 's early research on SMAs for space structures ensured and fatigue resistance, qualities now standard in FDA-cleared orthopedic devices used by thousands of patients annually. Light-emitting diodes (LEDs) in the red and near-infrared spectrum, initially engineered by in the and 1990s for plant growth experiments aboard the and Mir , have been repurposed for photobiomodulation therapies that accelerate and alleviate . These LEDs stimulate cellular ATP production and synthesis, promoting faster tissue repair in conditions like diabetic ulcers and post-surgical wounds. Quantum Devices Inc., through contracts, developed the WARP 10 device in the early 2000s, which received FDA clearance in 2003 for pain relief and in 2009 for ; clinical trials showed it reduced healing time by 40% in hypoxic wounds. By 2020, LED therapy devices had treated millions of patients, with 's wavelength optimization ensuring non-thermal, safe application in rehabilitative care.

Pharmaceutical and Nutritional Advances

NASA's research into pharmaceutical and nutritional technologies has leveraged the unique conditions of microgravity to advance drug development and human health solutions on Earth. One key innovation involves space-based tissue culture systems that enable the growth of biological materials in ways not possible under terrestrial gravity. The Advanced Space Experiment Processor (ADSEP), developed in the 1990s at NASA's Johnson Space Center through Small Business Innovation Research (SBIR) funding to Techshot Inc., facilitates experiments on the International Space Station (ISS) using removable cassettes within a compact locker system. This system first flew on the Space Shuttle STS-77 mission in 1996 and has since been upgraded by Redwire Space, allowing real-time monitoring and control without crew intervention. In microgravity, ADSEP supports the bioprinting and cultivation of uniform heart tissue layers, as demonstrated in 2023 when it produced the first live human knee meniscus and in 2024 for cardiac samples, offering insights into tissue engineering for regenerative medicine. Additionally, it grows high-quality pharmaceutical crystals, such as those for Eli Lilly's drugs, with enhanced uniformity and size compared to Earth-based methods, enabling small-batch production on orbit that accelerates formulation testing and reduces development timelines for protein-based therapies. NASA continues to leverage microgravity for growing high-quality pharmaceutical crystals on the ISS, aiding drug development for diseases like Alzheimer's and cancer as of 2025. Nutritional advancements from NASA's space life support research have also yielded significant spin-offs in omega-3 fatty acid production. In the 1980s, NASA-sponsored studies at Ames Research Center explored microalgae as a sustainable food source for closed-environment life support systems during long-duration missions. This led to the development of algal bioreactors by Martek Biosciences Corporation, which cultivated strains like Crypthecodinium cohnii and Schizochytrium to produce docosahexaenoic acid (DHA), an essential omega-3 fatty acid vital for brain and visual development. By the 1990s, this technology resulted in Formulaid, an algae-derived DHA and arachidonic acid (ARA) supplement integrated into infant formulas to mimic breast milk benefits, addressing nutritional gaps for premature and low-birth-weight babies. Since the early 2000s, DHA from these microalgae has been incorporated into over 90% of U.S. infant formulas and products in more than 75 countries, supporting early childhood cognitive and retinal health while providing a sustainable alternative to fish oil. The bioreactor methods have further expanded to animal feed under the DHAgold brand, enhancing DHA levels in eggs, meat, and aquaculture since the mid-2000s. To counter physiological challenges like bone loss and vision impairment in space, NASA collaborated on targeted nutritional supplements. In 2004, under a Space Act Agreement with Johnson Space Center, AmeriSciences (now Nugevity) developed the OS2 formula as part of a broader effort to create astronaut health products addressing radiation exposure, oxidative stress, and microgravity effects. OS2 Ocular Support Solution, a blend of antioxidants including lutein, zeaxanthin, and vitamins, combats spaceflight-associated neuro-ocular syndrome by protecting against cataracts, glaucoma, and dry eye, with pilot testing on mice at the University of Pittsburgh confirming efficacy. Complementary products like Osteo BHR target bone density reduction—up to 1-2% monthly in orbit—using bioavailable calcium, vitamin D, and anti-inflammatory agents to mitigate resorption. These formulations, refined to meet Pharma-IQ standards for 95% nutrient dissolution within one hour via BioRelease technology, have been adapted for Earth use, including by U.S. Paralympic athletes to enhance performance and recovery since 2012. Extrusion-based 3D food printing technologies originating from ISS experiments have transformed personalized nutrition for medical applications. In 2013, awarded an SBIR contract to Systems and Materials Research Corporation to develop a printer using dry powders of , protein, and mixed with fluids at the printhead, enabling the creation of textured, nutrient-dense meals tailored for extended missions like Mars voyages. This system incorporates micronutrients and flavors via inkjet supplementation, addressing food degradation and waste while allowing biometric-adjusted caloric density and portion control. Prototypes tested on the ISS printed items like hummus-based snacks and vegetable quiches from freeze-dried ingredients, achieving customizable textures through precise extrusion parameters such as 4 mm nozzle size and 8000 mm/min speed. Commercialized by BeeHex as the Chef 3D printer, the technology now supports personalized medical nutrition bars formulated to individual , , and needs, in partnership with the for optimized rations.

Transportation and Mobility

Aviation and Aerospace Improvements

NASA's contributions to aviation and aerospace have significantly enhanced safety, efficiency, and performance through technologies originally developed for and aeronautical research. One pivotal advancement stems from the (NACA), NASA's predecessor, which in the 1940s pioneered heated wing technologies to combat accumulation on surfaces. Under the leadership of Lewis A. Rodert, NACA researchers installed thermal de-icing systems on test like the Lockheed 12A, using engine exhaust heat to warm leading edges and prevent buildup, a method that evolved into hot air bleed systems now standard on commercial jets for safer operations in icing conditions. In the realm of reusable spacecraft, NASA's Space Shuttle program introduced low-density ceramic tiles as thermal protection systems (TPS) to shield vehicles from reentry heat, comprising over 20,000 tiles per orbiter made from silica fibers capable of withstanding temperatures up to 1,260°C. These tiles have been adapted by Canopy Aerospace, which licensed the manufacturing process from NASA to produce similar lightweight, reusable TPS components for modern commercial rockets, reducing production costs and enabling more frequent launches by minimizing refurbishment needs. This adaptation supports the growing demand for hypersonic and reusable launch vehicles, where traditional ablative materials fall short in reusability. For unmanned aerial systems, NASA's Small Business Innovation Research (SBIR) program funded Parallel Flight Technologies in 2019 to develop parallel hybrid power systems, integrating gasoline engines with electric motors to extend drone endurance. The resulting Firefly drone achieves up to 100 minutes of flight time while carrying 100-pound payloads, a 40% improvement over battery-only systems, facilitating applications in , aerial , and emergency medical transport without frequent recharges. This hybrid approach optimizes and reliability, allowing drones to operate in remote or disaster-prone areas. Advancements in have further transformed aerospace through NASA's Rapid Analysis and Manufacturing Propulsion Technology (RAMPT) project, conducted in collaboration with RPM Innovations. Utilizing large-scale laser powder directed energy deposition (LP-DED), the team 3D-printed a full-scale from NASA's proprietary HR-1 , reducing production time from months to weeks and enabling integrated cooling channels for higher performance. This innovation earned NASA's 2024 Invention of the Year award for its potential to accelerate rocket development and lower costs for both NASA missions and commercial providers.

Automotive and Road Safety Enhancements

NASA technologies have significantly advanced automotive safety and road infrastructure by adapting aerospace innovations to terrestrial challenges, enhancing vehicle durability, roadway traction, and hazard detection. These spin-offs stem from NASA's need for reliable performance in extreme environments, such as space travel and aircraft operations, and have been transferred to civilian applications through partnerships with industry leaders. Key developments include improved tire materials, grooved pavement techniques, chemical sensors, and acceleration monitoring devices, all contributing to reduced accidents and improved driver safety. One prominent example is the development of improved radial tires, where utilized a fibrous originally created for parachute shrouds. This , five times stronger than , was adapted to enhance resistance and durability in automobile tires, allowing them to withstand high speeds and temperatures without degradation. Since the 1970s, this innovation has become standard in radial tire construction, significantly extending tire life and reducing blowout risks on highways. Highway safety grooving represents another critical adaptation from NASA's runway research. In the , engineers at NASA's developed a method to cut thin grooves into runways to channel away rainwater, reducing hydroplaning and improving traction during wet landings. This technique was quickly adopted for roadways, with grooving implemented nationwide on interstate highways starting in the late , leading to a substantial decrease in wet-weather skidding incidents for vehicles. By 1976, the mandated grooving on many high-speed roads, crediting it with preventing thousands of accidents annually. Chemical detection sensors derived from gas chromatographs used in planetary missions have also bolstered road safety. These compact devices, combining with , were initially designed for missions to analyze trace gases on other . Adapted for terrestrial use, they now enable handheld roadside detectors capable of identifying explosives, pollutants, and chemical agents in seconds, aiding in preventing vehicle-borne threats and monitoring environmental hazards near highways. Deployed by agencies like the Department of Homeland Security, these sensors have improved response times to potential roadside dangers. The TSR AIR data recorder, developed at NASA's , provides wearable acceleration monitoring for crash testing and driver safety. Originally commissioned to capture detailed motion data during and vehicle simulations, this lightweight device records , , and impact forces in real-time. In automotive applications, it is used to analyze crash dynamics in testing labs and as a wearable tool for drivers to monitor g-forces during high-risk maneuvers, helping refine vehicle safety features and promote safer driving habits. Since its commercialization in the 2020s, the TSR AIR has supported advancements in deployment algorithms and collision avoidance systems.

Public Safety and Emergency Response

Firefighting and Hazard Mitigation

NASA technologies have significantly advanced firefighting and hazard mitigation by adapting materials and systems originally developed for extreme space environments to terrestrial emergencies. These innovations enhance fire suppression capabilities, improve structural resilience against flames and seismic events, and support the detection of hidden explosives, thereby reducing risks to and civilians in disaster scenarios. Key contributions stem from NASA's emphasis on lightweight, durable, and heat-resistant solutions for spacecraft, which have been transferred to public safety applications through partnerships and licensing. One prominent example is the development of heat-resistant protective gear for firefighters, derived from aluminized fabrics used in spacesuits and blankets. These fabrics, featuring a thin aluminum on materials like Mylar, reflect radiant and provide barrier protection against flames, enabling firefighters to approach intense blazes more safely. Originating from NASA's need to shield astronauts from extreme temperatures during spacewalks and missions, the technology was adapted in the 1970s for emergency response suits and blankets. For instance, aluminized Mylar blankets have been employed to cover burn victims or protect equipment, while integrated into fire entry suits that allow proximity operations in temperatures exceeding 1,000°F. This spinoff has been in use since the late , improving survival rates by minimizing exposure. Fire-resistant building materials also trace their roots to Apollo-era innovations, particularly foam insulations designed to prevent in confined . foam, developed under NASA's research following the 1967 Apollo incident, offers superior flame suppression compared to traditional urethanes, charring rather than melting and producing minimal toxic smoke. This lightweight foam, capable of withstanding temperatures up to 575°F, has been incorporated into structural reinforcements for , providing thermal and acoustic insulation that delays fire spread and maintains integrity during evacuations. Evolved from Apollo and applications, it is now used in high-rise constructions and public facilities, where it expands minimally under heat to form a protective barrier, enhancing overall building resilience. Recent advancements include wool filters derived from NASA’s Orion spacecraft technology, which enhance masks by improving particulate removal in industrial respirators. As of the 2025 NASA Spinoff edition, these filters provide better protection for responders in smoke-filled environments. To mitigate hazards, adapted vibration control systems from and stabilization for seismic dampers in civil structures. These fluid-filled or tuned dampers, initially engineered to counteract launch and orbital disturbances, absorb and dissipate from seismic waves, reducing building sway by up to 50-100 times compared to undampened designs. For example, technology from the program, involving disruptive tuned dampers, has been commercialized for urban high-rises and bridges, allowing quick tuning to specific frequencies for both and threats. Installed in over 550 structures worldwide, these dampers—often lightweight at under 100 pounds—enable cost-effective , potentially saving lives by preventing during events like the 2011 Tohoku analogs. In humanitarian efforts, NASA's expertise has contributed and techniques for detecting buried landmines and . Drawing from satellite-based systems like AVIRIS, which capture thermal signatures across bands, these methods identify temperature anomalies caused by subsurface explosives differing from surrounding soil. Polarimetric , tested in controlled outdoor scenarios, analyzes reflected and emitted radiation to distinguish mine materials with high accuracy, supporting safe clearance in post-conflict zones. This application of NASA's imaging , originally for , aids organizations like the in humanitarian operations, accelerating demining while minimizing human risk.

Security and Surveillance Systems

NASA's advancements in image processing, originally developed to handle vast amounts of data from space telescopes and missions, have been adapted for enhancing low-quality surveillance footage used in law enforcement. The Video Image Stabilization and Registration (VISAR) technology, created at NASA's , stabilizes shaky video and improves clarity in dim or distorted images captured by security cameras or police vehicles. This system employs algorithms to register frames, reduce motion artifacts, and enhance details such as features or plates, enabling investigators to identify suspects more effectively from nighttime or handheld recordings. Licensed to commercial entities like Government Systems, VISAR has been integrated into tools like the Video Analyst System, supporting analysis and surveillance review across agencies. As of 2025, advancements in surveillance include wireless sensor arrays for noise mapping, adapted from NASA acoustics technology. These arrays enable real-time detection of sonic booms, aircraft noise, and other acoustic threats, supporting perimeter security and emergency monitoring in urban environments. Autonomous self-destruct technologies, pioneered at NASA's Kennedy Space Center for rocket safety, provide reliable emergency termination for uncrewed vehicles including drones. These systems use onboard sensors and GPS to monitor flight paths in real time, automatically initiating shutdown sequences if deviations occur, thereby preventing potential hazards without human intervention. For drones and autonomous vehicles, the technology can disable propulsion motors rather than fully destructing, minimizing risks in populated areas while complying with safety regulations. Developed to eliminate costly human errors in launch operations, this approach has been commercialized by companies like Sagrad Inc., offering compact units that reduce operational expenses and enhance reliability for commercial and military applications. The Autonomous Flight Termination Unit (AFTU), a key component of these safety systems, represents a milestone in onboard AI for preventing mishaps. Prototyped at , the AFTU processes data from inertial measurement units, GPS receivers, and altimeters to make independent destruct or abort decisions, ensuring compliance with federal standards starting in 2025. Models like the SG901-1229 and the more compact SG901-1250-1 support multi-sensor integration and fault-tolerant operation, making them suitable for crowded urban environments where drone operations are increasingly common. By autonomously verifying vehicle status, the AFTU has spurred industry adoption, with verified performance leading to cost savings of up to 50% per launch through streamlined ground monitoring. Lidar scanning technology, refined through Mars rover missions for terrain navigation, enables precise real-time threat mapping in perimeter security applications. NASA's Space Qualified Rover Lidar (SQRLi), developed at Goddard Space Flight Center, uses laser pulses and mirrors to generate 3D point clouds, detecting obstacles and mapping environments even in low-light conditions. Adapted from rover hazard avoidance systems like those on Perseverance, this technology supports autonomous scanning for unauthorized intrusions by creating detailed spatial models of perimeters, identifying potential threats such as approaching vehicles or individuals. Its high-resolution output, capable of operating in harsh environments, has been licensed for terrestrial uses, including border and facility protection, where it provides continuous, weather-resistant monitoring superior to traditional cameras. In emergency response, the Firefly drone from Parallel Flight Technologies, funded by NASA SBIR, uses hybrid power systems to carry 100-pound payloads for 100 minutes, aiding wildfire monitoring and disaster relief operations as of 2025. Additionally, CogniSAT edge computing, tested on the International Space Station, processes satellite data in orbit to support rapid disaster response.

Consumer Products and Daily Life

Home and Personal Care Items

NASA spinoff technologies have significantly influenced home and personal care items by adapting and engineering solutions originally designed for to everyday needs. These innovations enhance comfort, , and convenience in settings, drawing from developments in cushioning, insulation, and portable power systems. Key examples include materials for and aids, as well as compact tools, which have become staples in modern homes. Memory foam, also known as temper foam, originated from a contract in the mid-1960s at , where aeronautical engineer developed it to improve seat cushioning and crash protection for aircraft passengers and later for seating in space capsules. This viscoelastic conforms to body pressure, distributing weight evenly to reduce pressure points and enhance comfort during prolonged use. By the , it had entered commercial markets for mattresses, pillows, and medical supports, providing relief for individuals with sleep disorders or by molding to the body's shape and returning to its original form once pressure is removed. Portable cordless vacuums trace their roots to the Apollo program's need for lightweight, battery-powered tools during lunar missions. NASA collaborated with Black & Decker to create a portable drill for extracting core samples from the moon's surface, optimizing the motor for low power consumption using computer modeling, which resulted in efficient nickel-cadmium battery technology. This advancement led to the 1979 introduction of the DustBuster, a handheld vacuum cleaner measuring 14 inches long without hoses or cords, featuring a built-in storage bracket that recharges via standard outlets. The technology enabled compact, rechargeable cleaning for homes, cars, and small spaces, revolutionizing portable hygiene tools and inspiring similar cordless devices for personal grooming. Space blankets, made from metallized Mylar—a thin, aluminized polyester film—were first developed by NASA in the 1960s for thermal insulation on satellites, spacecraft, and astronaut suits to reflect radiant heat and protect against extreme temperatures. The material's high reflectivity, capable of retaining up to 90% of body heat, made it ideal for emergency applications on Earth, entering consumer markets in the 1970s as first-aid essentials for hikers, marathon runners, and disaster victims to prevent hypothermia or shock. Widely distributed in survival kits and medical supplies, these lightweight, foldable blankets have saved lives in outdoor and rescue scenarios by providing compact thermal protection derived directly from space-grade engineering.

Sports and Recreation Equipment

NASA technologies have significantly influenced sports and recreation equipment by adapting aerospace innovations to improve performance, , and comfort in athletic activities. These spin-offs draw from research in , , and originally developed for space missions, enabling athletes to train more effectively while minimizing injury risks. Examples include advanced swimsuits that reduce water resistance and home fitness devices that simulate resistance training in microgravity environments. One prominent application is in competitive swimming, where 's expertise in contributed to the development of high-performance swimsuits. Speedo's Fastskin line, inspired by textures to minimize drag, incorporated principles from NASA's aerodynamic testing to optimize water flow over the body. This technology evolved into the suit, which NASA engineers for surface drag reduction, resulting in a 24% reduction in compared to previous suits, with up to an additional 5% efficiency improvement from compression, enabling multiple world records at the 2008 Olympics. The suits' lightweight, water-resistant fabrics cover more skin to further lower friction, enhancing swimmer speed and efficiency. In home fitness equipment, 's resistive exercise devices for astronauts have led to compact, effective gym machines. The Revolution home gym utilizes SpiraFlex technology, originally created by to provide variable resistance for muscle maintenance in space without traditional weights. This coiled spring system delivers up to 300 pounds of resistance in a device weighing just 211 pounds, allowing users to perform over 100 exercises for full-body workouts. Tested on the , the technology helps prevent and has become a staple for recreational fitness, promoting in limited spaces. For low-impact cardio, antigravity treadmills represent another key spin-off from NASA's . The Boost 2 treadmill employs Differential Air Pressure technology, derived from NASA studies on reduced-gravity exercise, to unweight users by up to 80% of their body weight using pressurized air. Released in 2022, it supports rehabilitation and fitness training by enabling running at speeds up to 18 mph with minimal joint stress, benefiting athletes recovering from injuries and those seeking high-intensity workouts without overload. The motorized height adjustment further customizes the experience for professional and recreational users. Orthodontic advancements also stem from NASA materials research, particularly in transparent ceramics for recreational and aesthetic enhancements. Invisible braces utilize translucent polycrystalline alumina (TPA), a strong and translucent ceramic material developed through NASA-funded research at Advanced Ceramics Research for applications including protective domes on heat-seeking missiles. Marketed by Unitek, these custom-fit ceramic brackets connect via thin wires to align teeth discreetly, offering durability comparable to while remaining nearly invisible, thus supporting active lifestyles without visible appliances. Additionally, memory foam, invented through NASA-funded research at Ames Research Center to absorb shocks for pilots, has found use in sports cushions for better impact protection and comfort during activities like cycling or team sports.

Environmental and Agricultural Innovations

Water and Air Purification

NASA's advancements in water and air purification technologies originated from the stringent requirements of space missions, where reliable systems are essential for sustaining human life in closed environments. These innovations, developed to recycle water and maintain breathable air aboard spacecraft, have been adapted for terrestrial applications, particularly in environmental and agricultural settings. Key spin-offs include filtration methods that target microbial contaminants and volatile organic compounds (VOCs), enabling cleaner water supplies and improved indoor air quality in homes, farms, and remote areas. One seminal technology is the silver-ion system, initially engineered for the Apollo missions to eliminate and viruses in supplies without relying on bulky chemical treatments. This method uses low-voltage electrodes to release silver ions, which disrupt microbial cell walls and prevent growth, achieving up to 99.99% removal of pathogens like E. coli and . Since the 1970s, the technology has been commercialized for use in developing countries, powering portable purifiers that provide safe in regions lacking , such as rural communities in and , where it has treated millions of liters annually. Companies like Aquaspace have integrated this into filters that also incorporate iodine for enhanced disinfection, making clean accessible without electricity in many cases. In air purification, NASA's research during the 1980s Clean Air Study identified common houseplants, such as the (), as effective for removing indoor VOCs like , , and through . The study, conducted by NASA's and environmental scientist B.C. Wolverton, demonstrated that these plants, along with their root-associated microbes, can absorb and break down toxins in sealed chambers, reducing VOC concentrations by 50-87% over 24 hours depending on the pollutant. This work has influenced strategies in homes and agricultural greenhouses, promoting the use of plant-based systems to mitigate off-gassing from building materials and pesticides, though optimal effectiveness requires dense planting in well-ventilated spaces. Electrostatic sprayers, derived from 's plant-watering systems for microgravity environments, have been adapted for efficient air disinfection and crop protection. Originally developed at to deliver uniform mist without compressed air, these nozzles charge water droplets electrostatically, enabling them to wrap around surfaces and penetrate foliage for better coverage than traditional sprayers. In agricultural applications, they reduce and water use while ensuring even crop spraying; for air purification, the disinfects surfaces and airborne pathogens in enclosed farm buildings or homes, as seen in systems licensed to companies like Buhler for protocols. For post-fire air filtration, wool-based filters from the Orion spacecraft's environmental control system provide robust removal of particulates and smoke in contaminated atmospheres. These filters, developed with New Zealand's Lanaco using merino wool's natural fire resistance and electrostatic properties, capture 99% of submicron particles and adsorb gases like hydrogen cyanide without degrading in humid, post-fire conditions. The spin-off has been applied in home HVAC systems and farm ventilation to restore air quality after wildfires or barn fires, offering a sustainable alternative to synthetic media that lasts 2-3 times longer.

Sustainable Farming and Resource Management

NASA's contributions to sustainable farming and resource management leverage and technologies originally developed for to enhance , optimize water use, and restore ecosystems. These innovations enable precise monitoring of crop health, subsurface resources, and environmental changes, supporting data-driven decisions that reduce waste and promote resilience in farming practices. By integrating data with ground-based applications, NASA spin-offs address challenges like , soil degradation, and inefficient resource allocation in . The Harvest program utilizes Landsat satellite data to predict crop yields, facilitating precision farming that minimizes inputs like fertilizers and water while maximizing output. For instance, companies like TellusLabs have developed tools such as Kernel, which analyzes imagery alongside meteorological data to forecast yields with high accuracy; in 2016, it predicted U.S. corn yields at 173.1 bushels per acre, within 1% of the USDA's final figure of 174.6 bushels per acre. This approach allows farmers to adjust planting and irrigation strategies in advance, reducing environmental impact and improving globally. Ground-penetrating radar (GPR) technology, adapted from instruments like MARSIS on the orbiter and SHARAD on the , has been repurposed to detect subsurface aquifers on , aiding in arid agricultural regions. In a 2011 demonstration by ’s in collaboration with the Kuwait Institute for Scientific Research, an airborne 40-megahertz GPR prototype successfully mapped aquifers in northern , identifying water tables at depths of 66–213 feet (20–65 meters) and validating results against ground measurements. This capability supports efficient drilling for irrigation, preventing overexploitation and enhancing water availability for sustainable farming in desert environments. Tools like the Mesic Resource Restoration Monitoring Aid (MRRMaid) and the Beaver Restoration Assessment Tool (BRAT), developed with funding, employ Landsat data to monitor and promote beaver-mediated for and flood control. MRRMaid tracks vegetation and changes in dryland streams using Landsat and Sentinel imagery, providing evidence of restoration success to agencies like . BRAT identifies optimal sites for beaver reintroduction by analyzing stream conditions, vegetation, and infrastructure, ranking locations to maximize benefits such as erosion reduction and wetland creation while minimizing conflicts. In examples like Idaho's Baugh Creek, these tools have documented how beaver dams enhance resilience and , slowing water flow to mitigate floods and filter pollutants in agricultural watersheds. NASA's research on microbial processes for space systems has led to spin-off bioremediation techniques for cleaning contaminated soils, drawing from decades of experiments to cultivate bacteria that degrade pollutants. At NASA's , poplar trees inoculated with the engineered bacterium PDN3 have been field-tested to remediate tainted with (TCE), a common industrial contaminant; the trees absorb and break down TCE via bacterial , with inoculated plots showing larger, healthier growth compared to controls. This method offers a cost-effective, natural alternative to chemical treatments, restoring arable land for .

Computing and Information Technology

Software and Data Processing Tools

NASA's contributions to software and data processing tools have significantly influenced engineering simulations, cloud computing, mission planning, and web accessibility, originating from the demands of space exploration programs. These technologies, developed to handle complex data analysis and structural integrity for spacecraft, have been adapted for commercial and public use, enhancing efficiency in diverse sectors. For instance, finite element analysis tools from the Apollo era remain foundational in modern engineering, while open-source cloud platforms born from NASA's internal needs now power global data centers. One of the earliest and most impactful developments is the Structural Analysis () program, a finite element modeling software initiated in the late 1960s to support the Apollo program's structural simulations for launch vehicles and components. NASTRAN enables engineers to predict how structures respond to physical forces, vibrations, and thermal stresses by dividing complex geometries into smaller elements and solving equations iteratively. Originally funded by under U.S. government contracts for applications, it has been licensed to commercial entities and evolved into tools like MSC Nastran, used in industries from automotive to for optimizing designs and reducing physical testing costs. NASA's Nebula project, an internal initiative launched in 2008, laid the groundwork for , an open-source platform that revolutionized scalable infrastructure for data centers worldwide. In collaboration with Rackspace, released the initial code in 2010, focusing on compute (Nova), networking (), and storage components to manage vast datasets from missions like the . This contribution has enabled over 500 companies to build private and public clouds, supporting applications from web hosting to AI training, with 's ongoing involvement through the ensuring compatibility for scientific workloads. At the Jet Propulsion Laboratory (JPL), cloud-based mission planning software such as the General Mission Analysis Tool (GMAT), Spacecraft Planet Instrument C-matrix Events (SPICE), and Mission Analysis and Operations Scheduler (MONTE) has been licensed for commercial applications in project management and orbital simulations. These tools, developed for planning rover trajectories, satellite orbits, and resource allocation in missions like Mars Perseverance, allow users to model mission timelines, simulate constraints, and optimize sequences in a cloud environment. Startups like Continuum Space have integrated these into platforms for private space ventures, enabling rapid prototyping for satellite constellations and lunar missions. In 2025, licensed technology from its research to industry partners, creating a data fabric platform that weaves disparate datasets from flight tests into unified analyses. Originally developed to process sensor data from X-planes and other test flights, this tool uses to identify patterns and anomalies, supporting applications in and optimization. Commercialized by a partner company, it was released in 2024 and has been adopted for real-time data integration in sectors beyond . To promote digital inclusivity, funded enhancements to the Equalize Digital Accessibility Checker plugin in 2023, a tool that scans websites for compliance with (WCAG) and Section 508 standards. This plugin, initially inspired by 's own needs for public-facing sites, now includes front-end highlighting to visually identify issues like missing alt text or low contrast, aiding developers in creating inclusive digital experiences. Adopted by organizations including for internal sites, it has facilitated over 8,000 active installations as of October 2025, improving accessibility for users with disabilities across government and commercial web platforms. These software advancements often integrate with visualization tools to render data outputs for better interpretation in and workflows.

Imaging and Sensor Technologies

NASA's development of image sensors revolutionized by enabling compact, low-power cameras suitable for space missions. Originally invented by Eric Fossum at NASA's in the early 1990s to miniaturize cameras for interplanetary probes, such as those on Mars rovers, the CMOS active technology addressed the limitations of bulkier sensors used in earlier telescopes like Hubble. This innovation allowed for the integration of millions of pixels on a single chip, reducing size, cost, and power consumption while maintaining high image quality. The technology has since become NASA's most ubiquitous spinoff, powering over one billion digital cameras annually in consumer devices, including cameras and systems, by facilitating efficient charge transfer from light-sensitive pixels. Hyperspectral imaging technologies, advanced through NASA-funded research, capture detailed spectral data across hundreds of narrow wavelength bands, enabling precise identification of materials and environmental changes beyond what standard RGB imaging provides. One key application stems from collaborations like that between HySpeed Computing and NASA's Center for the Advancement of Science (CASIS), which developed cloud-based processing systems for hyperspectral data from the International Space Station's imaging spectrometers. This work supports environmental scanning, such as monitoring harmful algal blooms in water bodies like and tracking ecosystem disturbances, by analyzing spectral signatures for early detection and response. In medical applications, NASA-derived hyperspectral techniques have been adapted for non-invasive tissue analysis, distinguishing healthy from diseased areas through unique spectral reflectance patterns, enhancing diagnostic accuracy in fields like and wound care. Fiber-optic sensing systems represent another critical NASA innovation for high-fidelity structural monitoring, particularly in extreme environments. The Fiber Optic Sensing System (FOSS), developed at NASA's , embeds thin optical fibers—about the diameter of a human hair—directly into structures to measure parameters like strain, , and in real time with thousands of points along a single fiber. This technology was prominently tested during the 2022 Low-Earth Flight Test of an Decelerator (LOFTID) mission, where flexible fiber-optic sensors woven into the 19.7-foot-diameter inflatable captured surface-wide distributions and structural integrity during atmospheric re-entry, validating models and enabling health monitoring for future large-scale . FOSS's lightweight, electromagnetic-immune design has spun off to terrestrial applications, such as monitoring deformations in bridges and , providing durable, distributed sensing without traditional bulky . The Visualization Explorer app exemplifies how satellite sensor data can be transformed into accessible tools for education and analysis. Launched in 2012 by 's , the app delivers weekly interactive stories featuring visualizations, animations, and high-resolution images from Earth-observing satellites like Landsat and Aqua, allowing users to explore phenomena such as climate patterns, natural disasters, and biodiversity changes on and Android devices. By integrating with brief explanatory narratives, it facilitates public engagement and basic analysis, such as overlaying data layers to assess environmental trends, while supporting brief software integration for enhanced image rendering on mobile platforms.

Industrial and Manufacturing Applications

Materials and Manufacturing Processes

NASA's advancements in and processes have significantly influenced industrial production by enabling the creation of durable, efficient, and high-performance components originally designed for extreme environments. These innovations, stemming from challenges in , protection, and assembly, have transitioned into commercial applications that enhance precision and reduce operational costs. Key developments include specialized lubricants, additive techniques, protective coatings, and methods that address , weight, and issues in various sectors. One prominent example is the development of powdered lubricants derived from research into rocket fuel systems at NASA's . These high-temperature solid , formulated to withstand the intense conditions of aeropropulsion engines, reduce friction in processes by forming a durable that minimizes wear on tools and machinery. Originally created to improve efficiency and lower emissions in NASA's advanced engines, the has been adopted by manufacturers to cut production costs by millions annually through extended tool life and reduced consumption. For instance, the PS400 composite provides oxidation resistance up to 1,100 degrees , making it ideal for industrial and operations. In additive manufacturing, NASA's pioneered techniques for aluminum parts, tested in 2023 for lightweight components. This method involves powder bed fusion to produce complex aluminum structures, such as , that are traditionally difficult to fabricate due to the material's reflectivity and thermal conductivity. The successful hot-fire of a fully aluminum demonstrated its viability for high-thrust applications, reducing production time from months to days and enabling lighter, more efficient parts for and automotive industries. This innovation supports broader industrial adoption by allowing for integrated cooling channels and optimized geometries that enhance performance while minimizing material waste. Scratch-resistant coatings, evolved from diamond-like carbon (DLC) films developed for visors and helmet visors, have revolutionized optical manufacturing for eyeglasses and lenses. At NASA's Lewis Research Center, researchers created these thin-film coatings using deposition to protect plastic surfaces from abrasion in the harsh of , where even minor scratches could impair . The , which applies a nanoscale DLC layer that is harder than glass yet transparent, has been commercialized for consumer , increasing lens durability by up to 10 times compared to untreated materials. This process not only extends product lifespan but also maintains optical clarity under everyday wear, influencing standards in the industry. Electrochemical gold plating processes, refined for spacecraft circuits to ensure reliable electrical conductivity and corrosion resistance, originated from NASA's needs for durable satellite components. Companies like Epner Technologies adapted NASA's specifications for the Geostationary Operational Environmental Satellite (GOES) program, developing the LaserGold electroplating method that deposits a thin, uniform gold layer via laser-pretreated substrates. This technique produces coatings that are three times harder than pure gold while retaining nearly 99% reflectivity, preventing tarnishing in humid or oxidative environments critical for electronics. Applied in industrial electronics manufacturing, it enhances the longevity of circuit boards and connectors, reducing failure rates in high-reliability applications.

Productivity and Safety Improvements

NASA technologies derived from have significantly enhanced industrial productivity and worker safety by enabling more efficient processes and better hazard detection in high-risk environments. One key advancement in stems from air revitalization systems originally developed for the International Space Station's Environmental Control and Life Support System (ECLSS). Through a with , Paragon Space Development Corporation adapted this technology to create portable air purification units for underground mining operations. These systems recycle and purify air using scrubbers, filters, and catalysts, providing breathable air for up to 96 hours in refuge chambers during emergencies, such as mine collapses. The integrated gas monitoring capabilities detect hazardous levels of gases like , , and oxygen depletion, allowing for timely evacuations or interventions and reducing fatalities in confined spaces. In food processing industries, electrostatic sprayers originating from NASA's plant growth experiments aboard the space shuttle and International Space Station have revolutionized pathogen control and sanitation protocols. Developed at Kennedy Space Center to deliver water and nutrients to plants in microgravity without relying on gravity for dispersion, these nozzles charge liquid droplets electrostatically, enabling uniform coverage on surfaces with minimal waste. Commercialized by Electrostatic Spraying Systems, Inc., the technology is now used to apply disinfectants in food production facilities, effectively reducing bacterial contaminants like E. coli and Salmonella on equipment and packaging. This application not only boosts productivity by shortening cleaning cycles but also enhances safety by minimizing cross-contamination risks, contributing to fewer foodborne illness outbreaks. Freeze-drying techniques developed for food preservation have extended to pharmaceutical production and supply chains, preserving sensitive materials without compromising integrity. During the , refined freeze-drying to create lightweight, stable foods by freezing them and sublimating ice under vacuum, retaining nearly 98% of nutrients while reducing weight by 80%. This method was commercialized for pharmaceuticals, where it stabilizes vaccines, antibiotics, and biologics—such as during the response for storage—extending from months to years without . In supplies, freeze-dried meals and kits provide reliable and treatments in disaster scenarios, improving response efficiency and worker safety in relief operations.

Energy and Sustainability

Power Generation and Storage

NASA's advancements in power generation and storage have significantly influenced terrestrial technologies, particularly through innovations developed for space missions that require reliable, efficient, and long-duration solutions. These spin-offs include high-efficiency solar cells, durable batteries, advanced systems, and precision valves, enabling applications from remote power supplies to grid-scale storage and clean fuel infrastructure. High-efficiency solar cells trace their origins to NASA's early space programs, beginning with the in 1958, which was the first spacecraft powered entirely by . Technologies refined for , such as multi-junction photovoltaic cells and concentrator systems, have been adapted for -based remote applications, including powering off-grid sensors, in isolated areas, and portable solar arrays for disaster response. For instance, ENTECH Inc. licensed NASA-developed concentrators to focus sunlight onto high-efficiency cells, achieving up to 30% greater energy output compared to traditional panels, which has been deployed in remote agricultural and systems. Similarly, Corporation utilized NASA-inspired silicon cell designs to produce panels with efficiencies exceeding 22%, now used in rugged, space-like environments on such as research stations. Nickel-hydrogen batteries, initially engineered for the to provide over 20 years of reliable power in harsh orbital conditions, represent a cornerstone of NASA's long-life innovations. These batteries offer superior cycle life—up to 30,000 charge-discharge cycles—compared to lithium-ion alternatives, along with enhanced safety features like non-flammability, making them ideal for demanding applications. On , companies like EnerVenue have commercialized this for electric vehicles, where it supports extended range and rapid charging, and for grid storage to stabilize inputs, with pilot projects showing significant cost advantages over traditional batteries in large-scale deployments. The batteries' high and tolerance to extreme temperatures, derived from space qualifications, have also been integrated into utility-scale systems to store excess solar and . In the realm of clean fuel storage, CB&I's liquid hydrogen tank designs, originally developed at for the , have evolved to support the Artemis missions with the world's largest cryogenic storage sphere, holding 1.25 million gallons of . This technology ensures minimal boil-off and structural integrity under cryogenic conditions, critical for . As a spin-off, CB&I and Shell have demonstrated a commercial-scale version at NASA's , enabling efficient storage for trade and fueling stations, with applications in heavy-duty transportation and energy hubs that reduce emissions by facilitating 's role as a zero-carbon fuel. In April 2025, CB&I and Shell completed this demonstration at Marshall, enhancing capabilities for international trade. Reusable spacecraft valves from Marotta Controls, refined through NASA contracts for Commercial Crew and Resupply Services, enhance energy efficiency in systems by providing precise flow control with minimal power consumption. These and pressure relief valves, capable of withstanding millions of cycles, have been adapted for terrestrial energy systems, including regulators and pipelines, where they improve operational reliability and energy efficiency. NASA's brief reference to advanced insulation materials, such as aerogels for , has also informed energy-efficient designs on .

Efficient Resource Utilization

NASA spin-off technologies in efficient resource utilization have advanced methods for optimizing , enhancing insulation, and improving cryogenic systems, drawing from research to support terrestrial efforts. These innovations stem primarily from NASA's work on extreme environment challenges, such as space propulsion and protection, leading to practical applications in and that reduce waste and environmental impact. One key advancement is the , a large-scale test platform originally designed at NASA's to evaluate cryogenic insulation materials under realistic conditions. This system enables precise measurement of and boil-off rates in storage, supporting the development of tanks up to 100,000 cubic meters with targeted rates below 0.1% per day, which is essential for scaling up the in clean transport and storage. Commercialized by GenH2, the technology supports international hydrogen trade by ensuring safe, efficient handling of , directly transferring Kennedy's expertise in fuel systems to reduce losses in pipeline and depot applications. Aeropolymers, developed at , represent another breakthrough in thermal management by infusing conventional plastics with aerogels to create lightweight composites that provide superior insulation. These materials reduce thermal conductivity by up to 50% compared to standard plastics, making them ideal for building envelopes, automotive components, and appliances where energy efficiency is critical. Licensed to companies like Okhata in 2019, aeropolymers enable cost-effective thermal barriers that lower heating and cooling demands in structures, with applications demonstrated in insulated cases and panels that maintain temperature stability without adding significant weight. From cryogenic insulation research at Kennedy, hydrogen measurement sensors have emerged to detect leaks in energy pipelines, enhancing safety and resource conservation. These optical fiber-based detectors, such as the Autonomous Cryogenic Leak Detector, use chemical indicators to identify hydrogen presence at low concentrations, preventing losses in high-pressure systems and averting potential hazards. Integrated into monitoring networks, the sensors provide real-time data for proactive maintenance, supporting the integrity of hydrogen distribution infrastructure derived from NASA's propellant handling protocols. The MycoHAB project, funded through NASA's via the NIAC program, leverages fungal to produce eco-bricks for sustainable construction, optimizing material use and . By growing on local substrates like invasive plant mulch, the process creates strong, insulated bricks in days that sequester about 1 pound of CO2 per pound of material while being fire-resistant and fully biodegradable. Initially aimed at off-world habitats, this technology now enables low-cost housing in resource-scarce areas, with a demonstration structure in costing around $8,000 and demonstrating viability for Earth-based eco-friendly building. NASA's contributions to solar cell efficiency have also informed remote energy setups, where lightweight panels derived from space-grade photovoltaics minimize resource demands in off-grid applications.

Education and Outreach

STEM Tools and Interfaces

NASA's contributions to STEM education include interactive tools that leverage space-derived technologies to engage K-12 students in hands-on learning. One prominent example is the Pear Deck platform, developed through a partnership between NASA's Office of STEM Engagement and Pear Deck Learning, a GoGuardian subsidiary. This collaboration integrates NASA expertise, images, and data into interactive lessons accessible via a Google Slides or Microsoft PowerPoint Online extension, allowing students to respond in real-time using personal devices. These lessons, available in the Pear Deck Content Orchard marketplace, cover standards-aligned topics such as designing robotic insects inspired by NASA's A-PUFFER and SPARROW projects or exploring Mars habitats, functioning as virtual labs that promote equitable, active learning across reading levels and subjects in STEM and STEAM. Launched following NASA's open partnership call, the initiative has democratized access to high-quality space science content, with popular modules boosting student engagement and inspiring careers in aerospace, as evidenced by a 2018 Harris Insights study ranking "astronaut" among top childhood career aspirations. Graphical user interfaces derived from NASA's simulation technologies have also enhanced educational training environments. DiSTI Corporation's GL Studio software, a spin-off originating in the 1990s to meet NASA's needs for digital aircraft interfaces like those on the F-16, enables the creation of real-time, high-fidelity cockpit displays for immersive simulations. NASA contributions, including Java compatibility enhancements in 2007 and graphics rendering for the Orion spacecraft, have refined its capabilities for human-machine interaction, which are now adapted for educational purposes such as flight simulators integrated with NASA's WorldWind tool from Ames Research Center. In school settings, these interfaces support simulation-based training in aviation and space exploration, allowing students to prototype and interact with virtual cockpits, thereby building skills in engineering and data visualization without physical hardware. The technology's versatility extends beyond NASA programs like Artemis helicopter recovery to broader STEM curricula, fostering practical understanding of complex systems. Algorithms developed at NASA's (JPL) have influenced origami design software, providing computational tools for geometry and engineering education. Robert J. Lang, a former JPL engineer, applied nonlinear techniques—originally honed for design at the lab—to create TreeMaker, the first for generating crease patterns in complex models, released in the mid-1990s. This tool translates mathematical principles into foldable structures, enabling users to solve geometric constraints and simulate three-dimensional forms, which has been integrated into K-12 and higher education curricula to teach concepts like , , and spatial reasoning. For instance, educators use TreeMaker to demonstrate applications, such as deployable solar arrays or the Starshade project for , bridging , mathematics, and aerospace design in interactive lessons. Lang's work, rooted in JPL's precision modeling, has empowered global origami communities and students to explore , with applications in NASA-inspired STEM modules that emphasize problem-solving and innovation. The Toolkit serves as an online portal facilitating student access to data for analysis projects. Developed by 's Technology Transfer Program, this resource aggregates free, from over 20 , enabling users to search, visualize, and process imagery for applications like and climate studies. In educational contexts, it supports K-12 and undergraduate data by providing tools to query datasets—such as those from Landsat or MODIS—for hands-on investigations into phenomena like or urban growth, promoting data literacy and fundamentals. Although primarily aimed at commercial and users, its intuitive interface has been adopted in classrooms to align with STEM standards, allowing students to conduct virtual experiments with real observations and derive insights into . This spin-off democratizes access to vast archives, enhancing analytical skills essential for future scientists and engineers.

Communication Platforms

NASA's spin-off technologies have significantly enhanced communication platforms for educational and public engagement, enabling interactive sharing of complex scientific data and fostering environments. These tools, derived from , facilitate visual storytelling, audio enhancement, orbital simulations, and physiological demonstrations, making abstract concepts accessible to diverse audiences. The Visualization Explorer is a mobile application developed by NASA's Scientific Visualization Studio at , designed to deliver engaging science stories featuring and animations directly to users' devices. Launched in 2012 for and later expanded to Android, the app provides weekly updates on missions, including high-resolution data from satellites like Terra and Aqua, allowing educators to share interactive visualizations in outreach programs such as classroom lessons and public exhibits. By integrating explorable images, videos, and descriptive narratives, it supports collaborative discussions on topics like and , reaching millions through mobile accessibility. Interdisciplinary wireless microphone arrays, pioneered at for aeroacoustic testing, offer precise audio mapping capabilities. The WirelessArray system, a commercial spinoff, deploys small, battery-powered sensors in a grid to capture variations and generate real-time 2D noise maps with high accuracy and low cost, originally for noise analysis. Kayhan Space's satellite traffic coordination software represents a key spinoff from NASA's orbital management expertise at , providing tools for visualizing and simulating space operations. The Pathfinder platform automates collision avoidance maneuvers for satellite constellations, generating predictive orbital paths and risk assessments that demonstrate real-world mechanics of . In educational outreach, this software is utilized for interactive demos, allowing students and the public to explore orbital dynamics through browser-based visualizations of thousands of objects, highlighting concepts like conjunction analysis and space without requiring specialized hardware. Wearable motion monitors, evolved from physiological tracking systems developed for missions, support hands-on through interactive demonstrations. The BioHarness device, a spinoff incorporating -derived sensors, measures motion, posture, , and integrated like and respiration in real-time via a compact chest strap connected to mobile apps.

Misattributed or Mythical Spin-offs

Several technologies and products are commonly but incorrectly attributed to as spin-offs from its space programs. These misconceptions often arise from 's prominent use or adaptation of existing inventions for space missions, leading to the false belief that originated them.

Tang

Tang, the powdered orange-flavored drink mix, was developed by Corporation in 1957, predating 's manned spaceflight program. It gained popularity after being selected for use on early space missions, starting with John Glenn's 1962 orbital flight, but did not invent or develop it.

Velcro

Velcro, the hook-and-loop fastener, was invented in the late 1940s by Swiss engineer , inspired by burrs sticking to clothing. began using it in the 1960s for space suits and equipment in microgravity environments, which popularized it but did not involve its creation.

Teflon

Teflon, a non-stick coating material, was discovered in 1938 by Roy Plunkett at . While utilized Teflon in space applications such as heat shields and suits due to its durability and low friction, the company developed it independently for commercial use starting in the 1940s.

Fisher Space Pen

The pressurized capable of writing in zero gravity, known as the Fisher Space Pen, was invented by Paul C. Fisher in the mid-1960s using his own resources. NASA tested and adopted it for Apollo missions after rejecting pencils due to safety concerns, but did not develop it. These examples highlight the distinction between technologies NASA adopts or improves for space and those it originates, underscoring the importance of accurate attribution in discussions of spin-off benefits.

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