It Came from Outer Space! Everyday Items Invented by NASA.

Many of the objects we rely on every day only exist thanks to NASA’s ingenious team of scientists and engineers.

We’re celebrating the brains behind these vital elements of modern life, looking back over NASA’s achievements and exploring the fascinating origins of these everyday items.


Nike Air Trainers

In 1979, NASA aeronautical engineer Frank Rudy decided to take technology originally developed for astronauts’ helmets and apply it to sports shoes. Using ‘blow rubber moulding’, an aeronautics technique used for the Apollo mission helmets, he pumped gas into hollowed-out plastic soles to create a shock-absorbing cushion, reducing the strength of an impact. Rudy pitched this idea to Nike, resulting in the launch of the AIR brand (Tailwind) that is still being used today – we’re quite literally walking on air! Having revolutionised running shoe’s traction, comfort, and lightness, British runner Steve Ovett won a gold medal at the Moscow Olympics a year later in these trainers.

 

Laptops

The GRiD Compass – the world’s first laptop computer – was initially used on a space shuttle mission flown from the Kennedy Space Center in 1983. With a robust clam shell design, GRiD was about the size of a large ring binder and weighed a hefty 4.5kg. Its 21.6cm plasma screen could display 25 lines of up to 128 characters that could be “viewed from any angle and under any lighting conditions”. The device came with a spreadsheet and text editor, a database manager, a plotter, a terminal emulator and other business software. The Compass was priced at a whopping $8,150 (the equivalent of around $23,000 today), so was understandably not intend for consumers, but for business executives.

 

Phone Cameras

From digital cameras to Go Pros to phone cameras, NASA was the first to develop the concept of a technology we couldn’t imagine life without today. When they decided to substitute Charged Coupled Device (CCD) sensors for Complimentary Metal-Oxide-Semiconductor (CMOS) sensors in their satellite cameras, they were on to something big. CMOS are much more portable and energy conscious sensors, they also capture higher-quality images. Using this technology, NASA created a camera small enough to fit on a spacecraft without sacrificing quality, maintaining the scientific excellence of image sensors in space. Today, these clever sensors are used in practically every camera.


Super Soakers

The technology behind Super Soakers was accidentally developed by a NASA spacecraft systems engineer and part-time inventor Lonnie Johnson. He was working on a new concept for a heat pump to use in refrigerators, “machining some nozzles and experimenting at home” when he “shot some streams of water into the sink”. Surprised by their power, he thought, “Geez, this would make a neat water gun”. After giving the prototype to his daughter, he soon heard feedback of its success with her friends. He received the patent for his ‘Squirt Gun’ in 1968.


Memory Foam

The memory foam in our mattresses, pillows, and even shoes was created in the 1970s by NASA-funded researchers as padding to keep pilots cushioned during flights. The visco-elastic foam would mould to the astronauts’ bodies during the high forces experienced in take-off and landing, improving crash protection, support and comfort. Today, memory foam mattresses carry a ‘Certified Space Technology’ stamp of approval. TEMPUR is even recognised by NASA and certified by the Space Foundation.


Cordless Vacuums

Cordless vacuums were first developed as a lightweight device to collect samples on the moon. NASA contracted Black & Decker to create the battery-operated vacuum/drill hybrid.  The technology was lightweight, compact and powerful, so was quickly reused in consumer, industrial and medical hand-held cordless vacuums, including the Dustbuster.


Precision GPS

NASA originally developed precision GPS technology to correct errors in the data from their Jet Propulsion Lab’s (JPL) global network of GPS receivers. It was the Sputnik era, and the US Navy was experimenting with satellite navigation to track their submarines with nuclear missiles onboard. Later in the 70s, the Department of Defense (DoD) used these Navy techniques to create a stable satellite navigation system, leading to the first Navigation System with Timing and Ranging (NAVSTAR) satellite.

 

Enriched Baby Formula

The nutritional enrichment found in enriched baby formula was originally found by experiments conducted by NASA in the early 1980s. Researchers began by exploring the use of algae to create oxygen in outer space using the process of photosynthesis. However, they soon realised that certain types of algae contained some of the essential omega-3 fatty acids that are present in human breast milk. This discovery was then used in baby formulas, enriched with the fatty acids that help babies in their development.


Resistance-Based Workout Machines

NASA engineers created the treadmills and workout machines that are (sometimes reluctantly!) used today. They created workout machines to maintain astronauts’ physical fitness in space because exposure to zero gravity can weaken the body, leading to muscle waste and decreasing bone density. Their Advanced Resistive Exercise Device (ARED) was designed to allow for more intense workouts in zero gravity. This resistance technology was developed further to make fitness and gym training more accessible to everyone.


UV-Blocking Sunglasses

NASA first developed UV-blocking sunglasses to block out harmful wavelengths of solar radiation. The sunlight-filtering lenses protected astronauts’ eyes and enhanced colours. When creating the lenses, JPL scientists James Stephens and Charles Miller studied the eye structure of various birds of prey. Some contain oil droplets that protect from intensely radiated light waves to enhance vision. They took inspiration from nature to create a filtering system using light-filtering dyes and particles of zinc oxide. This same technology is use in sunglasses, safety masks for welding and ski goggles today.

Sustainability and the Space Sector

It’s World Space Week, and this year’s theme is sustainability.

The space sector isn’t just about rockets and astronauts. Ever-evolving space technologies are working hard to make Earth more sustainable today and for future generations.

This week, we’re celebrating space’s relationship with sustainability by exploring some key issues the sector is working to fix.


REUSABLE ROCKETS

Imagine planes weren’t reusable – it just wouldn’t make sense. If we were to build a new aircraft for each flight, it would be an extremely unsustainable way to travel. Why should it be any different with rockets?

Reusability is vital in the space sector because rockets and fuel are expensive. As more organisations invest in multi-use rockets, it’s showing huge potential in driving down the capital cost of each rocket per launch. On top of this, this kind of technology and innovation is making space more accessible for everyone. NASA calculated that the cost of commercial launches to the International Space Station has reduced by four times over the last 20 years.

NASA paved the way for sustainable spacecraft with their Space Shuttle fleet – Columbia, Challenger, Discovery, Atlantis and Endeavour. Their main shuttles were completely reusable, along with their two solid rocket boosters. The crew only  needed to replace the external fuel tank for each new mission. These innovative spacecrafts carried 800 astronauts on a grand total of 135 missions between 1981 and 2011. They inspired a generation of space lovers while playing a key part in constructing the International Space Station.

In more recent news, SpaceX developed Falcon 9, a reusable two-stage rocket. With this rocket’s launch cost once standing at $62 million, reusability has driven this down over 40%. These reduced costs are opening the door to space for more companies, reducing waste and enabling innovation through space exploration.


3D PRINTED ROCKETS

On the subject of reducing launch costs, another hot topic in the industry right now is 3D printed rockets. Construction through 3D printing massively reduces waste and CO2 emissions, enabling sustainable space exploration even further. While it once took thousands of engineers decades to get a rocket into space, 3D printers are now reducing turnaround time to as little as 60 days.

Founded in 2015, California-based startup Relativity Space are making huge waves in the industry with their 3D printed rockets. Terran 1 is a two-stage, 7.5 ft wide and 110ft tall rocket – it’s the largest 3D printed object in existence to attempt spaceflight. In addition to their sustainable manufacturing, all of Relativity Space’s rockets are fuelled by liquid oxygen and liquid natural gas. Aside from being extremely effective fuel sources, they can also be reused for future missions.

As the space sector continues to benefit humanity through threads of innovation, it’s exciting to see companies directing time and money towards more sustainable methods of exploration. With the topic of sustainability in the industry more relevant than ever, we can’t wait to see what the experts will come up with next.


REFORESTATION

Over 420 million hectares of forest have been demolished since 1990, and the problem is getting worse. 25.8 million hectares were lost in 2020, which is double the amount lost in 2001.

It’s estimated that 2,400 trees are cut down every minute, with a forest the size of a football field lost every second. Alongside this, 137 species of animals, birds and plants are lost globally each day.

Satellites play a crucial role in minoring deforestation. Technologies like Synthetic Aperture Radar (SAR) satellites allow us to detect and track deforestation, as well as analyse biomass and forest height. These satellites use radars to map and image the Earth’s surface with day, night and all-weather capabilities. They also allow us to “see” through things like clouds, smoke, vegetation, snow and sand. The ability to repeatedly scan the same area, regardless of atmospheric or weather conditions, makes SAR an incredibly effective tool in measuring changes in the Earth’s landscapes and environment.

Satellites like these enable us to monitor reforestation projects, ensuring transparency and progress in humanity’s fight to protect and rebuild these much-needed forests.

While reforestation starts here on Earth through choosing sustainable products and foods, recycling more and going paperless, space-based technologies are a key component in our shared mission to save planet Earth’s green spaces.


SPACE DEBRIS

Also referred to as space junk, space debris is any man-made object in Earth’s orbit that no longer serves a purpose. It includes items like disused spacecraft, inactive satellites, fragments from explosions and collisions, launch canisters and mission-related objects.

As Earth’s orbit becomes more congested, this debris threatens human spaceflight and robotic missions. It also causes problems for our GPS, weather forecasting and telecommunications systems back on Earth. With an estimated 9,000 metric tons of debris currently in Earth’s orbit, the sector is investing in innovative ways to clean up space.

In March 2021, private orbital debris removal company Astroscale launched its End-of-Life Services by Astroscale-demonstration (ELSA-d) satellite. It consists of two spacecraft – a 175kg chaser and a 17kg target. Using magnets, ELSA-d will capture orbiting junk and pull it out of orbit to burn up in the atmosphere. This innovative craft was awarded the 2021 Satellite Technology of the Year Award.

Astroscale reported ELSA-d’s success in August 2021, giving new hope that the spacecraft will be able to complete this same process to capture pieces of debris.

Many other posed solutions are still in their research phases. The US Defence Advanced Research Project Agency has been investigating a ‘space garbage truck’ equipped with 200 giant nets to catch orbiting debris. The collected junk would either be dragged into lower orbit or brought back to land in the ocean.

Whichever innovative method c gets the go-ahead, one thing is clear – and it’s definitely not space. With the sheer mass of junk orbiting Earth, we need to come up with an effective solution, and fast.

The space sector has come a long way, but our venture beyond the stars has only just begun. The sector will transform our lives in ways we never thought possible, but for the industry to thrive, humanity needs to clean up its act.


CLIMATE CHANGE

While many complex systems contribute to the Earth’s atmosphere, both natural and man-made, the key to fighting climate change is understanding and monitoring its causes. Through space exploration and technologies, we’re able to gain accurate information about changes in the Earth’s atmosphere.

Satellites and other space technologies allow us to monitor and minimise the impact of climate change, protecting Earth’s people, animals and ecosystems. Multiple satellites systems are currently monitoring climate change from space. They track sea levels, greenhouse gas emissions and land surface temperatures.

NASA’s Nimbus-3 satellite, launched in 1969, was the first to offer an accurate measurement of Earth’s atmospheric temperatures. Today, the agency has multiple orbiting satellites in their Earth observation fleet that are producing evolving climate models to help us combat climate change.

Cube satellites (CubeSats) are also being used as remote sensing tools in the fight against climate change. These tiny nanosatellites carry scientific instruments that gather scientific data and conduct experiments from space. They’re widely utilised to track various measures of climate change and are vital in our plight to solve the crisis.

It seems that innovation in the space sector knows no bounds. It’s not just about exploration – the industry’s incredible capabilities can combat everyday issues like climate change that affect each and every one of us. As the climate crisis rages on, space technologies like these will be an integral element of our fight against it.


WATER PURIFICATION

2.2 billion people are currently living with limited access to safe drinking water. By 2025, it’s estimated that half of the world’s population will be living in water-deprived areas.

In the face of this tragedy, space technology supports water purification efforts worldwide. Advanced modern water filtration and purification systems use technology originally developed for the International Space Station.

One of the very first ground-based water systems was installed in northern Iraq in 2006, backed by NASA technology. When a non-profit organisation called Concern for Kids heard about a well failure in the area that left the residents of Kendala, an Iraqi village, without access to drinking water. Tragically, this caused the village’s population to drop from 1,000 to only 150 people. The survivors were forced to live off water from a local creek that was contaminated by livestock.

Another innovative system, The Environmental Control and Life Support System (ECLSS), was created by NASA to recycle water and air aboard the International Space Station. The ECLSS consists of two core systems, The Water Recovery System (WRS) and the Oxygen Generation System (OGS). The OGC creates oxygen while replacing lost oxygen caused by airlock depressurisation, CO2 venting, various experiments and module leakage, while the WRS works to provide clean drinking water through recycled urine, condensation and extra vehicular activity waste. This recycled water provides both the ISS crew and laboratory animals with clean water to sustain prolonged space travel.

These threads of innovation from the space sector are quite literally saving and sustaining lives worldwide. They’re a prime example of ways the industry supports both life in space as well as back on Earth.

DISASTER RESPONSE

The space sector plays a vital role in crisis management and disaster response. Space-based technologies enable us to stay ahead of the curve when disaster strikes, facilitating early warning, prevention and faster response time.

With the frequency and severity of natural disasters rising, the space sector’s capabilities will be critical for disaster response and reconstruction. They will help us to save lives, minimise damage to impacted areas and rebuild communities.

When disaster-prone areas become highly populated, monitoring and early response are crucial. To enable this, systems like the European Union’s Earth observation programme, Copernicus, provide valuable data about our planet and its environment. The Copernicus Emergency Management Service (CEMS) generates geospatial information for emergency response and disaster risk reduction. Using satellites, CEMS continuously monitors the Earth’s environment and creates forecasts for droughts, floods and forest fires through on-demand mapping.

When Hurricane Ian tragically struck parts of the US, devastating homes, businesses and entire communities, the space sector sprung into action. Various satellite constellations provided critical data about the storm’s severity and path of destruction, allowing experts to create disaster response plans. The National Oceanic and Atmospheric Administration (NOAA) even produced publicly available street-by-street satellite maps of affected areas, enabling residents to assess the damage to their homes even if they were unable access them.

The space sector saves lives in the face of disaster. Innovative technologies and systems like these give us a vital advantage against damage and devastation, allowing experts to quickly assess and respond to these life-threatening situations.

Hurricane Ian – How the Space Sector is Saving Lives

Hurricane Ian has left millions without power, triggered billions in damages and caused at least 81 deaths, with many more reporting loved ones as missing.

After initially making its way through Cuba, the hurricane grew to span practically the entire state of Florida. After being downsized to a tropical storm, it regained hurricane strength and hit South Carolina. Homes, communities and businesses have been devastated by this historic storm.

The category 4 storm was nearly double the size of Hurricane Charley, with 150 mph wind and “biblical” storm surge reaching up to 12 feet. The huge amount of wind, rain and flooding have made this one of the worst hurricanes in Florida’s history. It was described by President Joe Biden as potentially the “deadliest” storm to ever hit the state.

With natural disasters like these on the rise, along with increasing intensity and unpredictability, more focus is moving towards disaster risk reduction and response.

Space technologies play a crucial part in crisis management and disaster response. They enable early warning, prevention and faster response time. The space sector has already proved vital in monitoring and assessing damage caused by Hurricane Ian.

NASA’s weather sensors onboard the International Space Station (ISS), TEMPEST (Temporal Experiment for Storms and Tropical Systems) and COWVR (Compact Ocean Wind Vector Radiometer), provided critical data on the hurricane. While studying the planet’s surface and atmosphere, the systems observed as the storm passed over the Caribbean Sea in low-Earth orbit. Astronauts onboard the ISS took pictures of the hurricane from 400 kilometres above Earth as it approached southern Cuba. The weather sensors streamed this data directly to the NASA Jet Propulsion Laboratory via their Tracking and Data Relay Satellite (TDRS) constellation. The information was with forecasters in under two hours of being collected, enabling early warning and evacuation for those in vulnerable areas.

Satellites also provided valuable data on the storm. Satellite imagery detailed the full extent of the life-threatening storm, allowing experts to track and monitor its path of destruction and create response plans. The National Oceanic and Atmospheric Administration (NOAA) even provided street-by-street satellite maps of affected areas, enabling residents to assess the damage to their homes even if they are inaccessible.

In other news, SpaceX CEO Elon Musk donated 120 Starlink satellites to southwest Florida, restoring internet access to parts of the state hit particularly hard by the storm. It has been reported that over 850,000 people in Florida still have no power.

“We are working with Elon Musk and Starlink satellite,” Florida Governor Ron DeSantis told reporters. “They are positioning those Starlink satellites to provide good coverage in southwest Florida and other affected areas. We are expecting 120 additional large Starlink units to deploy to Southwest Florida.”

In the face of disaster, space-based technologies allow us to stay ahead of the curve and act fast. As the frequency and severity of these natural disasters increases, just as is has done in the face of Hurricane Ian, the space sector’s capabilities will play a vital role in saving lives, minimising damage to affected areas and helping to rebuild communities.

NASA’s DART Spacecraft is on an Asteroid Collision Course

NASA’s Double Asteroid Redirection Test (DART) mission is attempting the world’s first planetary defense test.

The multi-million-dollar DART spacecraft is currently travelling through space on an intentional collision course with Dimorphos, the asteroid moonlet of Didymos.

DART was launched on 23rd November 2021 aboard a SpaceX Flacon 9 rocket from Vandenberg Space Force Base in California – you can even track its journey and mission clock. The spacecraft is now preparing to collide with its asteroid target at the end of this month.

The craft will crash into the 160m wide asteroid at 7:14pm ET (00:14am GMT) on Monday 26th September 2022. You can watch the impact live on NASA’s YouTube channel. If successful, this method could deflect future Earth-bound asteroid and save countless lives.

“These objects are hurtling through space and have of course scarred the moon and, over time, also on Earth have had major impacts, have affected our history,” Thomas Zurbuchen, NASA’s associate administrator for science, commented during a news conference.

DART is a small spacecraft, with its core consisting of a box just under a metre wide on all sides. The craft has solar arrays that roll out to 12 meters in width. Once both arrays are deployed, DART will be around the size of a school bus. The spacecraft’s electric propulsion system uses a flow of charged ions to create a gentle but constant push.

On 11th September, the crew confirmed the spacecraft’s “mini photographer” LICIACube (Light Italian CubeSat for Imaging Asteroids) was successfully ejected ahead of the crash. LICIACube will stop at a safe distance of 600 miles from Dimorphos to observe the collision with its two optimal cameras. Once DART hits the asteroid, the CubeSat will continue its journey to inspect the scene from a closer distance. The Italian micro-satellite will transmit the real-time footage to scientists back on Earth.

This will be NASA’s first time using the kinetic impactor technique as a planetary defense method. DART will crash into the moonlet at 15,000 mph, transferring kinetic energy into the asteroid and pushing it closer to Didymos. If successful, Dimorphus will orbit Didymos at least 73 seconds quicker than before. DART will only be changing the period of orbit by a small amount, but this deflection would be enough to veer a future Earth-bound asteroid off its course.

“This will give us all confidence that deflection technology could work in the future,” Andrea Riley, a program executive at NASA working with the agency’s Planetary Defense Coordination Office, commented at a news conference. “If it misses, it still provides a lot of data. This is a test mission. This is why we test; we want to do it now rather than when there is an actual need.”

While DART’s target poses no threat to us, this innovative mission could save millions of lives if an Earth-threatening asteroid were discovered in the future.

“This isn’t just a one-off event,” said Nancy Chabot, the DART coordination lead at the Johns Hopkins University’s Applied Physics Laboratory in Maryland. “We want to know what happened to Dimorphos, but more important, we want to understand what that means for potentially applying this technique in the future.”

As DART’s collision date draws closer, ground-based telescopes will monitor the system and provide further updates. This is an exciting time for the space sector – along with the rest of the plane – as NASA embark on this first journey of its kind.

Could this little spacecraft be the catalyst for missions that one day save us from a dinosaur-like fate?

Watch Europe Dry up from Space in this Shocking Timelapse

Satellite images have revealed the shocking impact of droughts across Europe in July and August.

Huge areas of lush green land turned sandy brown as extreme weather conditions savaged the continent.

The European Union’s Copernicus Program captured the mosaic of images through their constellation of Earth-observing Sentinel satellites.

Josef Aschbacher, European Space Agency (ESA) Director General, noted that ESA’s Copernicus Sentinel-3 satellites measured “extreme” land surface temperatures exceeding 45°C in Britain, 50°C in France and 60°C in Spain.

“Today, we are very concerned about the energy crisis, and rightly so. But this crisis is very small compared to the impact of climate change, which is of a much bigger magnitude and really has to be tackled extremely fast,” he commented.

Alongside the timelapse, Copernicus EU tweeted, “In 2022, #drought has affected the whole of Europe.”

Reports have dubbed this drought Europe’s worst in 500 years. The extremely hot and dry conditions increased the risk of forest fires, while water levels in European rivers dropped so low that they were closed to traffic. Water levels dropped to such extremes in Spain that a previously submerged complex of Roman ruins became visible, along with a church submerged underwater by Spanish dictator General Franco. The Global Drought Observatory revealed that 47% of Europe was under drought and weather warnings in August.

Agriculture was hit particularly hard by these historic heatwaves and drought. Lack of precipitation led to widespread stress on crops, particularly across Italy, France, Germany, Portugal, Spain and Hungary.

The space sector – in particular the Geospatial Intelligence (GEOINT) sector – played a vital role in documenting this historic weather and raising awareness of its impact.

Climate monitoring and early warning rely heavily on the space industry. Space-related technologies and information allow us to assess specific areas’ exposure to climate change, adjusting adaptation and mitigation strategies accordingly. Alongside this, Earth observation allows us to predict and monitor natural disasters, as well as gain accurate weather forecasts.

As the climate crisis rages on, the space sector will be instrumental in our shared mission to protect global communities and minimise the impact of climate change.

SpaceX and T-Mobile Partner to Boost Signal from Space

SpaceX Chief Engineer Elon Musk and T-Mobile CEO and President Mike Sievert have announced ‘Coverage Above and Beyond: a game-changing new plan to bring cell phone connectivity everywhere’.

The team are working to provide some degree of cellular service “practically everywhere in the continental U.S., Hawaii, parts of Alaska, Puerto Rico and territorial waters”, according to Musk and Sievert.

“The important thing about this is that it means there are no dead zones anywhere in the world for your cell phone,” said Elon Musk. “We’re incredibly excited to do this with T-Mobile.”

Despite powerful 5G and Long-Term Evolution (LTE) wireless networks, over 500,000 square miles of the US, as well as large stretches of ocean, receive absolutely no signal from any provider. Multiple wireless coverage providers have struggled to find a solution for these dead zones. However, terrain limits like deserts and mountains across the US as well as land-use restrictions such as national parks make this an incredibly difficult task.

To remedy the problem, the two companies are building a new network that will broadcast nationwide from Starlink’s satellites using T-Mobile’s mid-band spectrum. This satellite-to-cellular service will offer near to complete coverage practically anywhere users can see the sky.

“It’s going to massively improve people’s convenience and it’s going to save lives,” commented Elon Musk.

Using this technology, the pair plan to bring text coverage to customers across all corners of the continental US, Hawaii, parts of Alaska, Puerto Rico and territorial waters. Following more satellite launches from SpaceX over the next year, coverage will be brought to even more areas outside of T-Mobile’s coverage/signal network.

“We’ve always thought differently about what it means to keep customers connected, and that’s why we’re working with the best to deliver coverage above and beyond anything customers have ever seen before,” commented Mike Sievert. “More than just a groundbreaking alliance, this represents two industry-shaking innovators challenging the old ways of doing things to create something entirely new that will further connect customers and scare competitors.”

This project will rely on Starlink’s next-generation satellites, planned to launch on SpaceX’s Starship rocket. These satellites will have large antennae to directly provide connectivity to phones on the T-Mobile network. Users won’t need to make any additional purchases to access this new service. Conveniently, the majority of smartphones on T-Mobile’s network will already be compatible with the network.

“We are constructing special antenna. They are actually very big antenna that are extremely advanced,” said Musk. “The important thing is you will not need to get a new phone. The phone you currently have will work.”

With other exciting companies like Aquarian Space working to develop communication networks for interplanetary exploration – including high speed internet on the moon – this marks the beginning of a very exciting time for the space sector. With capabilities like these, we’ll be connected like never before with people in the most remote corners of the world, and maybe one day the universe.

These two industry giants are paving the way for global connectivity with a shared vision to empower the world. Could SpaceX and T-Mobile’s partnership signal the end of cellular dead zones?

Janna Chapman – EVONA Scholar for Diversity in STEM

We recently had the pleasure of catching up with Janna Chapman, winner of the EVONA Scholarship for Diversity in STEM.

Janna is an incredibly talented and passionate young person who wants to use Geospatial Intelligence (GEOINT) to solve real-world environmental problems. We’re thrilled to be partnering with the United States Geospatial Intelligence Foundation (USGIF) to sponsor Janna through her master’s degree in geographical science.

You can check out the original announcement and learn more about the EVONA Scholarship in our recent blog post.

Firstly – congratulations on being awarded the EVONA Scholarship for Diversity in STEM! How are you feeling?

I’m feeling really excited for the school year now! This scholarship takes a huge weight off mine and my parents’ shoulders.

Tell us a bit about yourself.

I’m a senior Geographical Sciences and Environmental Science and Technology dual degree student at the University of Maryland, College Park. My research interests include using GIS to investigate the spatial patterns and inequalities associated with various climate change-induced effects. In my free time, I enjoy going gardening, hiking and reading.

Where does your passion for geospatial intelligence stem from? Are there any specific people who inspire you?

Before geospatial intelligence, I started a huge interest in environmental science thanks to my grandfather when he introduced me to gardening when I was 3 years old. Since then I’ve tried to get more and more knowledge and experience in the environmental sciences. This led me to apply to a first-year research program at my university where I learned how to use the programming language R to investigate environmental issues. While I didn’t know that what I was doing at the time was considered ‘geospatial intelligence’, the data visualizations I made and success after the trial-and-error process made me interested in learning more about how maps and programming can help people and the environment in light of climate change.

Do you have any industry experience so far?

This past spring I was a Global Forest Watch intern at the World Resources Institute. I managed training data collection for machine learning algorithms that were used to classify drivers of deforestation. This included recruiting and training volunteers to collect data and my own data collection.

On campus, I’ve had many different research experiences from mapping poultry farms in Maryland, Delaware, and Virginia for the US Department of Agriculture to using geographic regression to determine the relationship between urban green space accessibility and different demographic groups in New York City.

What are you most looking forward to in this next chapter?

I look forward to developing my technological skills, especially data visualization, in a course I take this fall. I also am looking forward to applying for off-campus experiences for next spring and summer.

What are you hoping to do once you’ve finished your master’s?

After my master’s I’d like to work as an analyst at an environmental organization such as the EPA or the World Resources Institute where I can use and develop the skills I’ve learned in school to help solve real-world environmental problems.

What impact do you want to have on the GEOINT sector?

I’d like to improve general public knowledge about environmental phenomena (environmental literacy) through easy-to-access and understand environmental data. Sometimes this information can be hard to find or can be misinterpreted, which can have a negative impact on policies that can impact real environmental change.

What are your thoughts about diversity in GEOINT/STEM industries?

I think the diversity of the GEOINT/STEM industries can be improved. Diverse perspectives in any sector can provide new avenues of research ideas and potentially decrease the feeling of imposter syndrome. I even feel imposter syndrome in school because I’m usually the only black woman in my classes. Introducing GEOINT concepts early in students’ education can help close these gaps in the industry.

Our entire crew are wishing Janna the best of luck as she enters this next chapter in her GEOINT journey. We’ll be checking in with her each semester to see how she’s getting on, so keep an eye out for updates!

EVONA Welcome Christina Korp as New Strategic Advisor

We’re delighted to introduce EVONA’s newest strategic advisor – Christina Korp.

Christina Korp

Alongside the enormous growth we’ve experienced as a company, Christina’s industry experience and expertise will be instrumental in our mission to shape the space sector one inspired person at a time.

Christina has a wealth of knowledge across many corners of the space sector. She’s a space advisor, astronaut manager and the president of Purpose Entertainment. Impressively, she managed Apollo 11 astronaut Buzz Aldrin and played a vital role in launching his education foundations – ShareSpace and the Aldrin Family Foundation. Christina is even known as an ‘astronaut wrangler’ because of her history of managing and working with high-profile astronauts.

Christina is the founder of SPACE for a Better World, a space education and advocacy organisation that partners with schools, universities, education foundations and space grant consortiums. They create progammes and projects that can be duplicated in any community to inspire, educate and raise awareness of the ways space can be used for good.

“I’m excited about partnering with EVONA because of our shared values and purpose,” Christina commented. “We all came to space from outside of the space ecosystem and I think we see the enormous possibilities with a fresh perspective that is really needed. I look forward to working with the crew at EVONA to inspire more people to want to work in space.“

Before entering the space sector, Christina had a fruitful music career. After being in a family band for 10 years, she moved to LA aged 22 to pursue her dreams of being a rockstar. She went on to produce records, tour the world and even sing backup for legends like Ringo Starr. She eventually took a job working as Buzz Alrdin’s manager, and so begun her incredible journey into the space industry.

“Not only is Christina’s experience incredible, but from the very first meeting it was clear that EVONA’s vision of a more inclusive space sector aligned perfectly with Christina’s. We’re thrilled to be working alongside people that genuinely want to make a difference to our sector and can’t wait to see what the future holds for this partnership,” said Jack Madley, EVONA Co-Founder.

As a lifelong lover of space who took an unconventional route into the sector, Christina provides a fresh perspective that aligns perfectly with our own. She’s a passionate advocate of inspiring people of all ages, genders and backgrounds to get involved in space and other STEM industries. Christina’s mission is to connect the space curious to the space serious, demystifying the sector and increasing awareness of the sector’s incredible work.

We’re both proud and excited to be partnered with such an inspiring member of the space sector. Our crew are very much looking forwards to working with Christina to help people to find their place in space and shape the sector for future generations.

Elon Musk’s Starlink Hacked With $25 Device

AT THE BLACK HAT SECURITY CONFERENCE IN LAS VEGAS, BELGIAN CYBER-SECURITY RESEARCHER LENNERT WOUTERS REVEALED VARIOUS HARDWARE VULNERABILITIES THAT LEFT STARLINK’S SATELLITES EXPOSED TO HACKERS. USING A HOMEMADE MODCHIP THAT COST $25 TO DEVELOP, HE WAS ABLE TO GAIN FREE ACCESS TO STARLINK’S SYSTEM AND RUN CUSTOM CODE ON THE NETWORK’S DEVICES.

Wouters has also previously hacked Tesla, another of Elon Musk’s companies, by producing hardware that can unlock one of their electric vehicles in just 90 seconds.

In a presentation titled “Glitched on Earth by Humans”, Wouters demonstrated the attack on a Starlink User Terminal (UT) that allowed him to break into the dish and explore the Starlink network. Using a voltage fault injection attack, he was able to bypass SpaceX security protections.

“Our voltage fault injection attack was first performed in a laboratory setting and later implemented as a custom printed circuit board or ‘modchip’. The presented attack results in an unfixable compromise of the Starlink UT and allows us to execute arbitrary code,” Wouters commented. “The ability to obtain root access on the Starlink UT is a prerequisite to freely explore the Starlink network.”

Starlink operates through satellite dishes or UTs located in people’s homes and businesses. Wouters’ successful breach has exposed the system’s vulnerability.

In a press release, Wouters commented, “The widespread availability of Starlink User Terminals (UT) exposes them to hardware hackers and opens the door for an attacker to freely explore the network.”

Following the hack, Wouters has made his homemade tool available on GitHub, complete with instructions on how to execute the attack.

SpaceX have dubbed Wouters a “badass engineer” and are now offering up to $25,000 to researchers who can find bugs in the network through their bug bounty programme. Their website already provides a list of 32 researchers who have found significant flaws in Starlink’s system. Elon Musk commented that the company actually encourages this type of hacking, as long as it’s done non-disruptively. SpaceX even praised Wouters’ work in a six-page paper called ‘Starlink invites security researchers (bring on the bugs)’.

Following the presentation, SpaceX’s information security manager Christopher Stanley tweeted, “#BringOnTheBugs – We love working closely with security researchers! Special shout-out to @LennertWo for an amazing presentation! We are hiring! If you are a badass engineer and love space, please check out spacex.com/careers”.

It seems SpaceX have given people the chance to hack into the space sector, quite literally. To anyone thinking a career in space is out of reach – we hope this story inspires you to think otherwise. Aspiring hackers can breach multi-billion-dollar space giants from the comfort of their bedrooms. These individuals are forcing these companies to take notice of them and learn from their expertise.

The space industry is rapidly expanding and constantly providing new areas to enter into. There’s more than one way to get into the space sector, and they’re not as conventional as you might think.

Celebrating 10 Years of the Curiosity Mars Rover

WHEN A JETPACK FIRST LOWERED CURIOSITY ONTO MARS, SHE WAS ONLY SETTING OUT ON A TWO-YEAR MISSION TO DISCOVER WHETHER THE RED PLANET COULD HAVE HOMED ANCIENT MICROBIAL LIFE. FAST FORWARD 10 YEARS – THE CAR-SIZED ROVER IS STILL EXPLORING WITH NO SIGNS OF STOPPING.

Since landing, Curiosity has travelled 17.5 miles and climbed over 2000ft in elevation. You can even track her live location! The rover still has practically full capabilities, with all science instruments said to be working almost just as they were when they landed.

Curiosity has collected 41 material samples, had her data published in 883 scientific papers and captured 494,540 images – including a 1.8-billion-pixel panorama, her largest and highest resolution panorama ever.

A great way to keep up with Curiosity’s adventures is to follow her Twitter account. As of August 2022, she has 4.3 million followers cheering her on.

Launched in November 2011, Curiosity was designed to explore Gale Crater, a 96-mile-wide impact basin with a 3-mile-high rock-layered mountain called Mount Sharp in the centre. This particular landing site was chosen as it has several signs of the historic presence of water. Scientists back on Earth wanted to discover the history of this crater, how it came to be, and what it could teach us about the Red Planet’s history.

After years of exploration, experts concluded the crater was formed around 3.7 billion years ago when a large meteor hit the planet, annihilating the rock below while forming the mountain peak in the middle.

In alignment with NASA’s Mars Exploration Program, Curiosity’s main science goals are divided into four categories:

• determine whether life ever arose on Mars

• characterize the climate of Mars

• characterize the geology of Mars

• prepare for human exploration

To mark 10 incredible years of exploration and discovery, we’re looking back over Curiosity’s achievements as one of the largest and most powerful rovers ever sent to Mars.

DISCOVERING AN ANCIENT STREAMBED

Only seven weeks after landing, Curiosity discovered smooth, rounded pebbles that experts believe likely rolled downstream for miles on an ancient streambed. The varying sizes and shapes of these rocks allowed experts to calculate the speed and depth of the water that once flowed there.

“At a minimum, the stream was flowing at a speed equivalent to a walking pace – a meter, or three feet, per second – and it was ankle-deep to hip-deep,” said Rebecca Williams of the Planetary Science Institute.

Since life thrives around water on Earth, this first discovery suggested that parts of Mars may well have been habitable billions of years ago.

DRILLING SAMPLES FROM MARTIAN ROCK

Curiosity later drilled her first sample from an ancient network of streams flowing from the rim of Gale Crater. Vital chemical ingredients for life such as nitrogen, sulphur, oxygen, carbon, hydrogen and phosphorus were discovered in powder from the sedimentary rock. Layers of mudstone, nodules, and veins were also found in the ancient bedrock, indicating that the planet experienced multiple periods of wet conditions. After studying the sample further, scientists found that clay minerals made up at least 20% of its composition – these minerals form when fresh water reacts with igneous materials. Experts concluded that rivers and lakes existed in Gale Crater for a million years, if not longer.

“The range of chemical ingredients we have identified in the sample is impressive, and it suggests pairings such as sulphates and sulphides that indicate a possible chemical energy source for micro-organisms,” said Paul Mahaffy, principal investigator of the SAM suite of instruments at NASA’s Goddard Space Flight Center.

DETECTING ACTIVE AND ANCIENT ORGANIC CHEMICALS

After discovering the historic presence of water and life-supporting chemistry, Curiosity went on to measure a tenfold increase of methane – an organic chemical – in Mars’ atmosphere over a two-month period. This was a huge discovery as methane is produced both by chemical reactions and by living organisms – this means that present-day Mars is an active environment.

“This temporary increase in methane – sharply up and then back down – tells us there must be some relatively localized source,” commented Sushil Atreya of the University of Michigan, a member of the Curiosity rover science team. “There are many possible sources, biological or non-biological, such as interaction of water and rock.”

 

ASSESSING RADIATION LEVELS

Aside from discovering about Mars’ past, Curiosity has taught us about our potential future on the planet. The rover has been measuring and assessing the planet’s radiation levels with her Radiation Assessment Detector (RAD), helping scientists understand potential risks to human visitors.
While Earth has a magnetic field to shield it from high-energy particles, Mars does not. This kind of radiation can cause serious problems both for health and for astronaut’s life support systems. However, data from Curiosity’s RAD suggests that natural Martian elements like sediment and rock could shield astronauts from this harmful radiation.

In 2019, Curiosity was parked by a cliff in Murray Buttes from September 9th to 12th. During this time, RAD reported a decrease in overall radiation of 4%, and a decrease in neutral particle radiation of 7.5%. These findings sparked new areas of research, one of which involved Curiosity’s counterpart, Perseverance, being sent to Mars with spacesuit samples to see how they fare against the planet’s radiation.

So, there you have it. After 6686 Martian days, Curiosity’s incredible journey and discoveries like these have led to some ground-breaking conclusions about the Red Planet’s history, as well as our future there.

“A fundamental question for this mission is whether Mars could have supported a habitable environment,” said Michael Meyer, lead scientist for NASA’s Mars Exploration Program at the agency’s headquarters in Washington. “From what we know now, the answer is yes.”

Thanks to Curiosity, scientists have pieced together the history of Mars’ evolution. Now we’ve answered this essential question, it seems we still have a lot to learn.

On her 10th birthday, we’re wishing this curious robot many more on Martian soil as she continues to fuel our understanding of the planet.