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a robot-computer with his eyes like projectors, the robot looks like a huge computer with 'on' button and calculations, a scientist stands by the robot

Quantum computing: Is it time for your business to get involved?

  • min read
    • In Douglas Adams' 1979 science fiction comedy novel The Hitchhiker's Guide to the Galaxy, a supercomputer called Deep Thought takes 7.5 million years to answer the question, "What is the meaning of life?" Unlike Adams' monolithic supercomputer, quantum computers will be like today's fiber broadband compared to 1990s dial-up internet. Google's quantum computer can perform a calculation 158 million times faster than classical computers. Quantum computing's sped-up computations could reshape nearly every industry. But it also has strange quirks that make it hard to use in ways that beat classical computer abilities. At least, that's how things are today. Businesses that value innovation are throwing their hat in the quantum ring to ensure they're ready for sweeping change. Should your business get involved – and if so, how? In Insight Story Season 2 Episode 3, I discuss quantum computing's relevance to business with Dr. Oliver Thomson Brown (UK,) Chancellor's Fellow at EPCC (formerly Edinburgh Parallel Computing Centre,) University of Edinburgh and Dr. Henning Soller (Germany,) Partner and Director of Quantum Research, McKinsey & Company. What is quantum computing? Quantum computers are the next step up from the powerful supercomputers that often power AI applications today. They'll be part of our computing future but have a starting role today. Quantum and classical computers are very different beasts – in fact, they can't even communicate with one another. Quantum data is different, too – for example, you can't copy it. Some quantum computers must be kept at very low temperatures in purpose-built fridges. These features may not sound encouraging, but quantum computers have potential to do some things much better and faster. These abilities could be game-changing in many sectors, including finance, chemicals and logistics. How could business use quantum computing? Despite quantum computers currently being about as sophisticated as the classical computers of the mid-20th century, business is interested. Henning advises companies throughout Europe and the Middle East on large-scale IT and data transformations. He's confident quantum's impact will be huge. "We haven't yet proven a case where quantum computers outperform classical computers, but we're certain this technology will be the major disruption for the business in the coming decade. We estimate economic potential of at least several trillion US dollars." Oliver's research focuses on the interaction of quantum and high-performance computing. He says quantum could help with problems where the solution is a sequence of binary numbers. "That might include logistical problems around deciding where things go. For example, how do you fill beds in a hospital ward? Or flow- or network-type problems, like traffic management. Quantum computers may also have advantages when finding the best configuration for a molecule, like in drug discovery." Quantum might also work well for problems that scale poorly on classical computers. "We're looking at problems in aviation and genomics. Genome assembly scales factorially – with a quantum computer, we may be able to reduce that by a lot." Henning adds, "We could use it for experiments that we need humans or animals for today. We could test chemicals much faster and transact money in different but completely secure ways. Some banks are using it for derivative pricing and Monte Carlo simulations." It's something of a hammer looking for a nail, he says. "It's not about having an advantage today, but being able to exploit the advantage tomorrow." Quantum challenges Oliver says, "Adoption will be driven by how easy they are to use." But today, quantum computers aren't easy to use. "You have qubits, and multiple qubits form a register. Then you set up quantum gates in a circuit that apply to that qubit register and transform it – hopefully – into a state representing the solution to your problem." If you didn't understand that, don't worry – classical computers don't get it either. That's one of the biggest challenges that must be overcome for quantum to go mainstream, says Oliver. "You have results stored as quantum information on qubits in your qubit register, but you can't read that out directly into a classical computer. So what do you do with it?" And that's not all. "You can't copy quantum information. That's great for security but terrible for computing," says Oliver. With technology this imperfect – and let's face it, confusing to anyone without a computer science PhD – the business benefits are less obvious. Henning suggests looking at the bigger picture. "There is value in investing in quantum computing already, but not in profit and loss terms." Is quantum a security threat? A 2022 study claimed that it will soon be possible to crack the most established crypto algorithm by combining classical and quantum computing. It comes down to the role giant prime numbers play in encryption. Oliver says, "The first big quantum computing application was for factoring large prime numbers. It has no practical use except that we use large prime numbers for encryption. But security people now know it's not a good base for security, and they're looking at alternatives. It must be something quantum computers are bad at." Dr. Amin Hasbini, Head of Research Centre Middle East, Turkey and Africa for Kaspersky's Global Research and Analysis Team agrees the cybersecurity industry is one step ahead. "Quantum computing will also make encrypted data harder to hack, but hackers will find ways to adapt as they always have." Henning sees the need for improved encryption as a quantum business opportunity. "Quantum cryptography is a whole new industry. It's a major area of active investment." He doesn't see hackers accessing quantum tech just yet. "This is elaborate technology – not something you can steal and easily operate." Oliver thinks one quantum quirk might foil decryption attempts. "The error rate for quantum computers is huge compared to classical computers. You're likely to hit an error with any big circuit. You'd need a very large quantum computer, and we're nowhere near that." What will quantum computing's future look like? What are the next steps to unlocking the potential of quantum computing? Henning says, "The first machines will be hybrid by design because programming them will require a classical computer. Several technologies will need to come together to operate them successfully. They must intelligently break down a problem into what suits each technology and then put the overall result together." He suggests business leaders embrace the future. "This revolution is coming – not tomorrow, but in a foreseeable timeframe. It may make sense to set up a smaller team to scout the technology and identify use cases. Look for opportunities to partner with quantum startups. Your business can bring the knowledge of problems that need solving." Oliver agrees it's not about having all the expertise in-house. "Build partnerships with specialists who understand how to get the most of it." Quantum computers can't do much today, but their potential is undeniable. Businesses exploring this new realm are investing in a reputation for innovation and the possibility of solving today's hard problems. Difficulty accessing and using the technology should keep hackers at bay for now, but cyber researchers are working on new encryption methods that quantum computers can't crack.
Robot fires lasers at a computer network, obliterating it while another robot watches

Predictions for Earth 2050: How will cybersecurity change?

  • min read
    • If you're like me, having a long-term vision is a wonderful aspiration… frequently quashed by today's more screamingly imminent 'to do' list. Five-year plan?  I'm still working on the next five days. But the next five minutes? That's a no-brainer: let's get immersed in the futuristic predictions for the world in 2050, and the evolving role of cybersecurity in it. Cyber-immunity will intuitively protect our systems Predicted by: Eugene Kaspersky, CEO, Kaspersky In 2050, digital systems have moved up to a whole new level. They're no longer assistants making life easier for us mere mortals, they've become the basis of civilization – the very framework keeping the world functioning properly. This quantum leap forward has generated new requirements for the reliability and stability of artificial intelligence (AI). Since the romantic era around the turn of the 21st century, cyberattacks are not yet extinct, but they're now only a threat to outliers who reject modern standards of digital immunity. One of the pillars of cyber-immunity is digital intuition, the ability of AI systems to make the right decisions in conditions where the source data is insufficient to make a rational choice. There's no mysticism here: digital intuition is the logical continuation of machine learning. When the number and complexity of related self-learning systems exceeds a certain threshold, the quality of decision-making rises to a level that eludes rational understanding. An intuitive solution results from the superimposition of the experience of a huge number of machine-learning models, much like the result of the calculations of a quantum computer. Digital intuition – with its ability to instantly, and correctly, respond to unknown challenges –has helped build the digital security standards of this new technological era. The robot servants are uprising Predicted by: Vitaly Kamluk, Director, Global Research & Analysis Team, Kaspersky Busy workers rejoice! Help for your home is arriving. A robot servant will cook your meals, do your laundry and clean your apartment. These autonomous systems will be able to carry out many complex tasks using the processing power of a central intelligent system, and in tricky situations, they'll switch to remote technical support managed by real people. There will be mass attempts to hack these helpful robots by labor rights activists and criminals trying to blackmail their owners. Since the servants will all be equipped with cameras, microphones and sensors, they offer a unique viewing platform for home-based espionage. Expect compromises of the manufacturers' infrastructure and the implantation of malicious code in devices with the aim of enacting, en masse, attacks that could be serious. The man(less) mining machine Predicted by: Andrey Nikishin, formerly Future Technologies Project Director, Kaspersky Mining is a fully automated process; people are not needed and former miners regain their health. One robot extracts rock from the soil, the second cleans it, the third guards the perimeter, while the fourth delivers the purified ore to industrial consumers. A hacker who gains access to the system can re-program individual robots so they take a small amount of the platinum ore to an unauthorized place. The guard robots are also hacked, so they're unaware of this theft. The big reveal of dynamic clothes Predicted by Vladislav Biryukov, Head of Consumer Social Media, Kaspersky Dynamic clothing is à la mode. The fabric's characteristics – color, pattern, lighting, transparency, and in advanced models, even the cut and length – can be automatically changed. Some people now wear shirts or dresses with variable transparency levels, which allows them to reveal more at any moment they choose. Few people 'program' their clothes by themselves; most enjoy free fashion patterns or, for the fashionistas, expensive programs from well-known designers. Initially lacking security, the process of getting a smart clothing upgrade has led to the emergence of a new kind of extortion. "Heading to a business meeting, sir? Transfer 10 bitcoins to this account number now, or we'll expose you!". The naked truth in the boardroom. Awkward. Not quite the transparency in business we were hoping to achieve in 2050. A quantum (computing) leap threatens cryptography Predicted by Alexey Malanov Cryptography is widely used in many spheres of online activity. It's no exaggeration to say that the world will experience a huge shock if suddenly everything that's encrypted today is unlocked. How cryptography works: some operations can be easily carried out in one direction, but they're very difficult to reverse. For example, an image can be quickly transformed into a picture puzzle, but to arrange all of the pieces back into the picture takes much longer. Modern public-key cryptography is based on this principle: I know two numbers, I have multiplied them and told everyone the answer. Now everyone can encrypt a message for me using the result of the multiplication, but only I can decipher this using the original multipliers. There are already quantum computers that allow you to quickly solve problems that seem to be circuit-breaking for conventional computers, like how to de-compose a composite number. The only obstacle to the end of the digital world – let's call it 'cryptocalypse' – is that quantum computers can only work with small numbers. But by 2050, quantum computing will allow security services or master criminals to access universal decryption, and they may choose to do bad things with it. For example, if a villain steals your credit card, he or she will immediately know your PIN. The ability to decipher brings with it the opportunity to forge: an ATM informs the bank one thousand dollars are withdrawn, but the villain falsifies the message to say only 10 dollars were taken out. We will need to develop new safety standards – fast. On the bright side, encryption helps with verification so you can be sure you're actually on your real bank's website, not a cleverly cloned fake, when you wire the ransom to keep your business suit from turning into your birthday suit. Phew! One challenge solved.
earth2050 robot, Illustration of intelligent robot protesting for robots' rights

What will the future of work be like by 2050?

  • min read
    • The world of work in 2050. If you're unlucky enough not to have retired by then, the working world will be a very different place to how it is today. The vision of the future for workers tends to scale from a nilistic view of the robots taking our jobs (leaving us permanently trapped indoors, living entirely from Amazon Prime supplies), through to the utopia of the eradication of repetitive tasks using artifical intelligence. This will leave humans free to think, create and act (while never needing to leave their home…thanks to improved remote work options and those highly convenient Amazon delivery drones). But what do the experts think it will really be like? Robots have rights too Predicted by: Ian Pearson. Ian has been a full-time futurologist for over 25 years, tracking and predicting developments across a wide range of technology, business, society, politics and the environment. We see a picket line of robots in the city center. Their placards are plastered with slogans written in binary code. The widespread development of robots and artificial intelligence have necessitated the creation of a legal framework to protect them to regulate the rights of intelligent robots. Subsequently, this code is constantly updated and improved so robots have improving rights in our society. Personal assistants for life Predicted by: Alexey Malanov Personal assistants (PAs) have rapidly developed throughout the 21st century. To begin with, they could only answer primitive questions: in 2019, voice assistants were as dumb as a box of rocks. But by 2025, they'd mastered the art of recognizing and transcribing speech (with punctuation marks too); they could understand the meaning of a text and recite it so realistically that it was almost indistinguishable from a human. This led to half of all office activities being automated: PAs began to take minutes, write post-meeting reports, summarize lengthy documents, and consciously digest and recapitulate the contents of messages. They also plan your day, schedule meetings and even order lunch. Thanks to machine learning, PAs are fully adapted to their owners' personalities, increasingly penetrating every aspect of their lives. It all began with assisting with office work, and by the mid-2040s, PAs had become an integral part of everyday life by monitoring their owners' diets, planning trips abroad, buying gifts for friends and family, and more. But it's not as rosy as it seems: the human-PA relationship has spawned a plethora of psychological issues and communication difficulties between real people. However, a specially trained AI psychologist is on hand to help us cope. Paradoxically, it's just another voice assistant. The power is in your hands Predicted by: Mersey Shelley is a pseudonym of Alexey Andreyev, writer and futurologist, who works for Kaspersky. This prediction is from his cyberpunk novel '2048' published in 2004. In decades past, palms and fingers were scanned for identification. Now, hands with implanted sensors become the scanners themselves. These implants come in different models with two main variations: first, a simple scanner for daily use. It helps to read different tags and product codes, and to exchange digital business cards via the handshake ritual (you can use face recognition to identify a stranger but this is considered indecent; besides, many people use protection to prevent recognition. Hats with special veils are popular). Second, sophisticated scanners for technicians and other professionals. For example, a doctor's hand includes various medical sensors for diagnostics – even a portable endoscope with a direct video stream to the doctor's visual cortex. A flexible workforce Predicted by Jacob Morgan is a best-selling author, speaker, futurist and founder of Future of Work University. In the year 2050, technology will dominate the workplace with artificial intelligence and smart assistants being commonplace, while the use of augmented and virtual reality continues to increase. Everything will be 'smart' – connected and data-driven. The vast majority of us will continue working the same way we are today, but the jobs on offer will be ones that haven't yet been invented. Emotional intelligence and 'human' skills such as perpetual learning will be crucial for leaders to possess, as well as fluency with the latest technologies. Work will increasingly become more fluid as some employees will be virtual, some will be full-time, some will be bots, and we will all be working non-fixed hours. As with any kind of change, there will be pros and cons. Those who work in routine jobs are likely to struggle to make sure they can stay relevant in the new world of work. The advantage is that this will give us more time to focus on the human aspects of work such as building relationships, being creative, deep thinking, and practicing skills like empathy and self-awareness. Technology will help us make organizations more personable. This also means that we need to get more comfortable with using technology such as bots and AI in our work, a cause of tension and fear for some. And what about working hours? It depends if you're a knowledge worker or working in industries like retail. Flexible work arrangements are already being implemented at organizations around the world. The advantages are far-ranging, from improving employee satisfaction, productivity and tenure, to being able to attract and retain top talent. The potential disadvantages here are making sure that employees can stay accountable for delivering high-quality work while feeling like they're a part of the team, dealing with isolation, and ensuring effective communication and collaboration. I think the pros outstrip the cons: when managed effectively, flexible work arrangements can be a huge benefit to the organization and its people. Focus on the user experience Predicted by: Edney Souza, digital culture and business and technology teacher, speaker and entrepreneur, Brazil. For sure, work will become more fun and those repetitive activities in our day-to-day life will be done by robots and artificial intelligence. Knowing programming logic will be as important as English and mathematics. User experience design (UX) will be more important than other technical components of a project to ensure its success with customers. Skills in solving problems and serving customers will continue to be competitive advantages for the work of the future. Read more predictions about our technological future from scientists, futurologists and cybersecurity experts at Earth 2050 by Kaspersky.
AI looks at itself in a mirror and sees a biological human

Reaching the technological singularity: What will happen when machines become smarter than us?

  • min read
    • Picture a world where machines have long since passed the Turing Test. When people can't tell the difference between artificial and human intelligence. In this world, will humans become obsolete, like the floppy disk? Or is it a world where artificial and human intelligence merge to usher in the next step of our evolution? That's the technological singularity, the theoretical time in the future where technological development outpaces our abilities to maintain control over it. For better or worse, it's undoubtedly something that will result in never seen changes to our world. When will we reach technological singularity? Join any discussion about business technology, and it won't be long before someone mentions artificial intelligence (AI). The amount of digital data in the world has already surpassed our abilities to manage it, a development, which has made clear the need for algorithms to do the job for us. But algorithms and AI aren't the same things. They're not even close. An algorithm is a computer program that parses data from sets too large for human interpretation, whereas true AI is capable of thinking for itself, making its own decisions, and having free will. True artificial intelligence doesn't exist. Yet. The explosion of AI has long been a popular trope of science fiction, but the reality is edging ever closer. Ray Kurzweil, world-renowned futurist and Google's Director of Engineering, believes technological singularity is going to happen before 2045. Take note: so far, an impressive 86 percent of his predictions made since the '90s have become a reality. But even if that sounds optimistic (or pessimistic, depending on how you look at it), it's the logical next step in the evolution of technology. Once computers can learn for themselves without being taught and trained with data that we've collected, we can expect profound society changes on a scale never before seen. How can we keep up with technology? The emergence of an artificial superintelligence would bring us greater inventive and problem-solving skills than humans are capable of. This might lead to the creation of a new 'species,' one which might not necessarily have human interests at its heart. But so far, we're nowhere near developing machines with human-level intelligence and the ability to make decisions independently. Now we can enhance human intelligence and capabilities with tools and technology. Indeed, that's precisely what we've been doing for hundreds of thousands of years, ever since our ancestors figured out how to light fires. But today, the stakes are much higher with projects like brain-to-computer interfaces as active areas of research. This may, in turn, lead to radical developments like mind uploading, in which you entire consciousness can be uploaded to and stored on a machine. At least, it could be useful for those millennia-long interstellar voyages. Such developments might sound dystopian since they have the potential to transform what it means to be human ultimately. At the same time, the convergence of technology and humanity, an area of study known as transhumanism, appears to be the only way we can keep up with the constant pace of change. It's either that or the machines eventually outpace our natural evolution and take over. The survival instinct If we can't keep up, and technological evolution ends up outpacing our capability of keeping control over it, then we could face profound risks to security. Each of the seven characteristics that define every biological organism comes together to form a singular goal – survival. Technological singularity occurs when AI matches our desire and capability to survive as a species, and there's little reason to think that AI would have any evolutionary motivation to be friendly to humans. Today, machines are programmed by us to create the outcomes we want. But what happens when they're capable of programming themselves? Time for Humanity 2.0? Imagine you're an expert on machine learning, working on an artificial intelligence algorithm that will be able to create other AIs by itself. Are you merely training your replacement, or have you become an architect of your obsolescence? Welcome to Humanity 2.0, where the human condition is no longer about our biological form. It's a time when machines become an integral part not just of our societies, but also ourselves. Conversely, this could also lead to newer and deeper social class divisions than we've ever seen, as people are separated into those who are augmented by technology and those who are not. There's a safety benefit of not being physically augmented by technology – no one will be able to hack into your mind. How humans could remain our biggest threat Perhaps it isn't machines that we should be worrying about at all. Assuming we'll always be able to control artificial intelligence, we could end up transforming it into a deadly weapon. It's already happening. The proliferation of social media, for example, is one of the most significant security and privacy concerns this century. That's not so much down to vulnerabilities in the technology, but because it's a highly effective medium for conducting social engineering attacks. Coupled with the rise of AI, cybercriminals will be better equipped to analyze social media conversations to emulate users' writing styles and craft more convincing messages to their victims. Even before we reach the era of true AI, the ability of algorithms to parse enormous amounts of data is already misused. On the one hand, algorithms can perform many useful tasks to improve our world, such as climate modeling and disaster prediction, while things like neural interfaces can help victims of spinal cord injuries. On the other, the ability of humans to interfere with information systems makes them a more significant threat than the technology itself. Perhaps it would be better if we just let the machines take over in the hope they'd nurture us like the irresponsible children we are. To fear or not to fear Ray Kurzweil has a more positive outlook than most about the singularity. He claims it's an opportunity for humankind to improve by making us smarter and better at all the things we value. Other science and technology leaders, including Elon Musk, Bill Gates and the late Stephen Hawking, are not so sure. But one thing's for sure – there will come a time when our augmented descendants look back on us as rather quaint and exotic creatures. While we're still decades away from the singularity, it presents itself as the next big step in the evolution of technology. Emerging tech, like autonomous vehicles and facial recognition, are already paving the way. True artificial intelligence is coming sooner or later, which is why it's time for the business world to start taking AI ethics and security issues seriously. It's no longer the concern of generations far in the future. This article reflects the opinion of its author.
Astrolab nanosatellites orbiting larger satellite

Start-ups in space: Six out-of-this-world business opportunities

  • min read
    • Does space present a business opportunity for the everyday entrepreneur? You might not be such a 'space cadet' if it's your dream to set up in space tech. Reaching for the stars is no longer the preserve of business giants with staggering budgets. Here are six areas where space tech entrepreneurs have seen a business, environmental or humanitarian opportunity, and set about filling the gap. 1.   Understanding the developing world needs accurate data Swedish start-up Ignitia uses satellite data to solve a problem that affects farmers in tropical countries such as Ghana, Nigeria and Mali. Weather forecasting techniques designed for northern latitudes don't work so well here because there are fewer ground observation stations, and tropical weather behaves differently. Ignitia runs simulations of tropical convective patterns on a cluster of supercomputers, using satellite data to pinpoint farmers' locations. They send each farmer a 48-hour forecast by SMS, accurate to within 3 km. A study found farmers who used Ignitia reported a 65 percent increase in yields. Climate Edge is a social enterprise with similar aims but different methods. They realized farmers in areas hard hit by climate change found it hard to adapt without digitized data. Climate Edge uses a small weather station to collect data about farm conditions, like soil temperature and humidity, and transmits it through the 2G cellular network. With the ability to log and monitor conditions that determine farms' yield and produce quality, NGOs could make the right investments to make a difference. 2.   Making tech because you can, then figuring out who needs it While Climate Edge and Ignitia were inspired to do something about environmental problems, successful businesses sometimes come out of developing technology without knowing who needs it. A group of ex-military and space program scientists, CyStellar first created a platform that combined satellite, airborne and ground sensor data. Later, they developed a series of products that applied the information in useful ways for industries from wine to shipping. One of their products, InsurTech, detects and monitors objects and geographic features over time, reporting even minor changes. It means insurance companies can more accurately determine risk, charge more appropriate rates and detect fraud. For customers, it means they can claim more quickly, as the system provides evidence and information the customer would otherwise need to collect. 3.   Revealing what's previously been hard to see Entopy is working to make the supply chain more efficient by using geolocation and GPS. They aim to give logistics managers full visibility of their supply chain, breaking down the silos of different companies involved, such as factory, shipping, warehouse and retailer – all without any party having to change their tracking system. Finland's ICEYE has an eye on shipping safety, among a range of other applications. They use small satellite synthetic-aperture radar (SAR) technology to give ship captains detailed information on the sea ahead, which may be hidden by fog or darkness. The technology also tracks icebergs and predicts their future movement. 4.   Helping cities reduce congestion and environmental impact As cities change and grow, so too must their infrastructure. Teralytics use mobile signal data to help make transport more reliable, efficient and sustainable. Aggregating (grouping individuals' data together with others) for privacy, they report on how people are moving around cities and the journeys they're taking. Organizations that supply public transport, build roads or provide for niche transport needs can buy the data to use in designing and redesigning their networks to reflect better where people go and when. https://vimeo.com/390004849 Teralytics explain how space data helps understand how people travel. Start-ups are trying to expand mobile, data and GPS coverage too. Swiss start-up Astrocast has designed, built and operates its own constellation of nanosatellites, aiming to bring stronger connectivity between regions and expand coverage. Smarter cities will need secure networks to enable internet of things (IoT) devices – for example, autonomous cars – to communicate so they can behave in better ways, like reducing congestion. Satellite data can also give cities insights into environmental concerns like air quality. London-based space start-up 4 Earth Intelligence provides data that helps cities plan to reduce pollution. 5.   Realizing what satellite owners need With so much crucial data coming from satellites, there's high demand for services that support, maintain and protect the satellite network. The Airbnb of space data, Japan's Infostellar lets satellite owners sell surplus capacity to others. It's costly and only makes more space junk to be a hazard to others. Leo Labs specializes in tracking low-earth orbit satellites. They map satellite paths and work out if space debris could collide with satellites. Satellite operators who buy access to the data can adjust their satellites' flight paths to avoid a damaging crash. 6.   Reducing the environmental impact and cost of getting satellites into space As demand increases and tech gets cheaper, we're building and launching more satellites. Someone has to get them into orbit, and start-ups are involved there too. Scottish engineering company Skyrora design rockets especially for launching smaller satellites. The booming satellite 'taxi' market involves companies like Nanoracks ("concierge to the stars") that gather small satellites from multiple customers to piggyback on a larger launch. Once dropped off from the main vehicle, the taxi takes each small satellite to its orbit slot. Space tech isn't just transforming industries the world over. Led by a new breed of innovators and entrepreneurs, it's an industrial revolution in the stars.
An astronaut, Sputnik satellite and modern satellites orbit a smartphone displaying an image of earth

IT came from outer space: How space technology conquered the world

  • min read
    • The Russians started it all. The timeline that ends with you reading this on your smartphone began on October 4, 1957. That was the day the former Soviet Union announced it had placed the first artificial satellite into orbit around our planet. Designed to look futuristic About the size and shape of a basketball and weighing little more than 84kg, Sputnik took about 98 minutes to follow its elliptical path around the Earth. A polished aluminum-alloy orb with four long antennae pointing straight out behind it, Sputnik had a futuristic dynamism not seen before in the West. Sergei Korolev, who designed both the satellite and powerful R-7 rocket that carried it into space, meant it to have that effect. He'd foreseen the satellite's technological impact and wanted to see Sputnik replicas on display in the museums of the future. He wasn't the only one who'd foreseen its impact. Back in 1947, James Lipp, head of the US's RAND (Research and Development) Corporation Missile Division, remarked: "One can imagine the consternation and admiration that would be felt here if the United States were to discover suddenly that some other nation had already put up a successful satellite." Sputnik's long-tailed impact RAND was one of the first organizations to study how space technology might shape human behavior on Earth. When it came to Sputnik, the anticipated "consternation and admiration" had unexpected long-term consequences for information technology. The satellite's launch marked a high point in the International Geophysics Year. Its organizers, the International Council of Scientific Unions, had approved a resolution calling for artificial satellites to be placed in orbit around the Earth to study its surface from above. As a simple telemetric device capable of being tracked across the sky from Earth, Sputnik marked the start of the collective mapping of our planet, revolutionizing global navigation, travel and communication. The GPS trackers in smartphones are just one of its many outcomes. Netting the unexpected consequence It's often the unintended consequence that has the most profound impact. Rattled by the Soviet Union's lead in space, the US concentrated resources on closing that gap and pulling ahead in areas where they already had an edge. President Eisenhower had just appointed a new Defense Secretary: Former Procter & Gamble Promotions Manager, Neil McElroy. McElroy's consumer goods experience brought a more integrated organizational approach. The individual initiative became subordinate to a larger, more coordinated system. McElroy's principal achievement was to revolutionize funding for scientific research by establishing the Advanced Research Projects Agency (ARPA.) In 1969 ARPA developed the earliest model of the internet, ARPANET. This breakthrough was an unexpected outcome of the Soviet Union taking such a decisive lead in the Space Race with Sputnik. Putting connection at the center of innovation ARPA funneled resources into areas where the US was ahead of the Soviets: Developing data processing, computers and communication networks. ARPA funding meant companies like IBM, Western Electric and Bell Telephone were soon working with Massachusetts Institute of Technology's national security research and development lab, Lincoln Laboratories and the Jet Propulsion Labs at California's science and engineering institute Caltech. By the end of the 1950s, ARPA's approach to experimentation and innovation – connecting academics with business strategists, researchers with engineers, designers with manufacturers – had a counterpart in NASA, the US's newly formed National Aeronautics and Space Administration. Satellites, spies and videotape At the same time, the RAND Corporation had turned its attention to low-Earth orbit. Working with audiotape company Ampex, it developed a satellite-based video system to spy on enemies. Throughout the rest of the 20th century and well into the 21st, the impact of videotape on how television shows and films were made, distributed and seen would be enormous. This video system captured Vice President Richard Nixon confronting Soviet Premier Nikita Khrushchev over the USSR's missile technology in 1959. While Nixon and Khrushchev clashed in public, NASA displayed its first astronauts at a press conference. The 'Mercury Seven' fast became media personalities. "We have faith in the space age," one astronaut told the press. "All of us have faith in mechanical objects." Perhaps not quite enough faith, as it was Soviet cosmonaut Yuri Gagarin who became the first human launched into Earth's orbit. This great leap was really a series of tiny cautious steps. The physiological problems of life in space remained unsolved. Breathing like a cyborg How would humans survive outside the protection of the Earth's atmosphere? One unusual response came from scientists Manfred Clynes and Nathan Kline in a magazine article published in 1960, Cyborgs and Space. They suggested: "There may be much more efficient ways of carrying out the functions of the respiratory system than by breathing, which becomes cumbersome in space. One proposed solution for the not too distant future is relatively simple: Don't breathe!" Coining the term 'cyborg,' Clynes and Kline imagined ways machines might help human biology adapt to the hostile environment of space. "If man attempts partial adaptation to space conditions, instead of insisting on carrying his whole environment along with him," they argued, "a number of new possibilities appear." The key possibility was an expanded understanding of how human physiology can interact directly with advanced engineering techniques in the form of prosthetics, exoskeletons, wearable technology, robotic limbs and implants – all now firmly established areas of scientific research and startup ventures. According to one estimate, we check our smartphones 144 times a day. The symbiosis between humans and machines underpins both space exploration and data processing. For astronauts interacting with the artificial work environment aboard the International Space Station, the ease of use of sophisticated technology can be a matter of life and death. Astronauts survive in space only because they're kept safe in a seamless technological bubble. Every aspect of life on Earth must be replicated in space, from the most extraordinary to the most banal. Space race makes powdered drink mix sexy Urban myths link NASA to many materials, fabrics and gadgets. In fact, they didn't invent Teflon, Velcro or the powdered drink mix Tang. Teflon had been around since the 1930s, Velcro since the 1950s and Tang was on the market just as NASA was finding its feet. Mercury astronaut John Glenn drinking Tang in orbit as part of an experiment did, however, do a lot for the brand. NASA may not have invented these products, but it helped to popularize them. Having your product associated with astronauts and the space race connected it with science and discovery. Sometimes the association was so close misunderstandings persist. A private company invented and developed the chrome-plated Fisher Space Pen, capable of writing upside-down and in zero gravity. Both NASA and the Soviet Union space program became their customers. Space research that became consumer products It's not as if NASA wasn't producing enough of its own tech spinoffs. In 1976, NASA started its Technology Transfer Program to ensure there could be commercial licensing for innovations resulting from space exploration. Nearly every aspect of our lives has benefitted from this approach. For example, NASA sponsored research into using algae to recycle waste in outer space, only to discover that it made an excellent nutritional supplement for developing infants. Water purification systems devised for the International Space Station have improved water safety on Earth, and NASA studies in high-altitude wind resistance have led to more aerodynamic truck design. Smartphone cameras in space NASA's experiments miniaturizing cameras for use in space led to the active pixel sensor now used in the standard smartphone camera. Today's smartphones also benefit from embedded web technology used onboard the International Space Station to conduct experiments remotely over the internet. This led to the Internet of Things (IoT): Remote wireless connectivity between devices in smart homes, smart cities and all manner of wearable technology from watches to glasses and bracelets. Mapping technology currently focused on the surface of Mars is used to create detailed geospatial views of Earth's cities. Smartphones use space technology, but they've also become space technology. CubeSats are small square satellites, a fraction of the size and weight of Sputnik, that give academic science its own space program to expand knowledge and research. Started in 1999 as a collaboration between California Polytechnic State University and Stanford Space Systems Development Laboratory, they can be used as single units or in orbiting networks. In 2013, NASA technicians launched the first CubeSats fitted with iPhones to take pictures from space and transmit the data back to Earth. Almost 60 years after Sputnik circled the planet, a smartphone took the first space selfie. The possible uses for such large-scale real-time data are astronomic – for meteorology and cartography, logging and agriculture, oil and gas, insurance and transport. We may inhabit a tiny planet in a vast expanding universe, but the space surrounding us is getting smaller and cheaper to access. Good business, as always, is where you find it. Perhaps now is the time to consider how space technology can help your company gain a competitive edge.
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