https://venturebeat.com/2017/12/14/ai-might-just-live-up-to-all-the-hype-one-day/

AI might just live up to all the hype one day

Above: Elon Musk addressing students at A&M University, Texas

If AI isn’t the most hyped technology of the 21st century, it’s certainly right up there with earlier manias for mobile, virtual reality, the internet of things, and big data. Companies large and small feel pressure to claim they use AI in some key way to drive their business.

But does AI deserve this level of hype? On one end of the spectrum are the doomsayers (including heavyweights like Stephen Hawking and Elon Musk) who see the technology posing an existential threat to the future of humanity. In contrast, there are those who see AI as the breakthrough that could solve many of the world’s most intractable problems. Visionary Ray Kurzweil believes AI will soon enhance virtually everyone’s mental capabilities. Musk’s own startup, Neuralink, is reportedly developing a brain-to-machine interface that could improve memory or allow for more direct interfacing with computing devices.

Reading recent media coverage of AI induces forecasting schizophrenia, making it difficult to determine what is real and where the technology is headed. For example, here are two recent article titles from the same week: “AI image recognition fooled by single pixel change” (due to “adversarial images”) and “AI and Machine Learning to Revolutionize U.S. Intelligence Community.” We must hope that the Pentagon will be able to overcome adversarial images so that it can correctly differentiate a stealth bomber from a dog.

This discrepancy points to a broader truth about AI. While the technology has come far, the singularity — the point in time at which machine intelligence surpasses human intelligence — remains a long way off. Kurzweil believes this will occur in the next 30 years. Similarly, Softbank CEO Masayoshi Son predictsmachines will surpass human intelligence by 2047.

They’re not alone. During a panel held earlier this year, renowned AI experts (including both Kurzweil and Musk) were asked whether it would be possible for machines to develop superintelligence, the permanent state beyond the singularity where computer intelligence surpasses that of the brightest humans. The answer was unanimous: Yes.

Take X and add AI

In the meantime, companies are rushing to incorporate AI technologies into their enterprise or consumer apps. Futurist Kevin Kelly famously asserted that the business plans of the next 10,000 startups are “Take X and add AI.” That certainly seems to be playing out. A PwC and CB Insights report for Q3 2017 noted that funding exceeded $1 billion for the third straight quarter across 91 deals for AI companies in the U.S.

It’s not just a U.S. phenomenon, either. Kai-Fu Lee, chairman and chief executive officer of Sinovation Ventures, an early-stage venture fund in China, recently claimed at MIT’s AI and the Future of Work event that “in the age of AI, a U.S.-China duopoly is not just inevitable, it has already arrived.” The Chinese government sees AI as an imperative and plans to become the world leader in AI by 2030. And it’s not only startups exploring the technology. Analyst firm Gartner reported recently that inquiries to the firm regarding AI — usually from established corporations — had grown 500 percent over the past year.

Trillion-dollar industry or fantasy bubble?

Venture Capital site AngelList currently lists more than 3,500 AI startups with an average valuation of nearly $5 million. That marks a 75 percent increase in the number of AI startups on the site since earlier this year. Analyst firm CB Insights notes that corporate giants like Google, IBM, Yahoo, Intel, Apple, and Salesforce are competing in the race to acquire private AI companies, with Ford, Samsung, GE, and Uber emerging as new entrants. Top talent is a rare commodity because Facebook, Google, and a handful of other tech companies have cornered the market on experts.

Despite the current market frenzy, AI is still in its infancy. For example, AI systems require a tremendous amount of data to properly understand what is being viewed, through a process known as training the application. People do not need to look at thousands of images of cats to identify a cat. AI systems today are nowhere close to replicating how the human mind learns.

Nevertheless, AI is growing in sophistication and applications. Financial services companies use it to block potential fraud: An AI algorithm can learn to look at current transactions to detect unusual activity using a large sample of purchases labeled as fraudulent or genuine. Additionally, there are many AI applications emerging in health care, the leading industry for AI investment deals. An example application shows how researchers at the University of Nottingham created an AI application that scanned regular medical data to predict which patients would have strokes or heart attacks. The AI system is more accurate than doctors using standard techniques.

While these and other applications are impressive and have an immediate benefit, they are not exactly “intelligent.” AI examples today are very good at pattern recognition and probability calculation along with natural language processing, speech recognition, and computer vision. But a considerable amount of work remains to be done before singularity is achieved.

Future AI advances will require further substantial gains in computing, in both performance and energy efficiency. AMD and Nvidia are both driving this forward for AI, but for how long? Moore’s Law, the shorthand label for the doubling in transistor density every 18-24 months, is slowing. There are perhaps two additional cycles remaining before the current silicon-based digital computing paradigm runs into very hard physical limits. Performance beyond that could require breakthroughs that today remain mostly theoretical, such as quantum computing.

Yet early signs of even this advance are appearing. Volkswagen recently announced it will use a quantum computer from Google to improve AI and machine learning. Though some believe Google’s quantum computer isn’t much more than a science project at this stage, it’s hoped the collaboration will eventually yield the same level of accuracy current AI does, while using smaller data sets than the vast number of images required today for AI algorithm training.

Is the AI hype justified? Absolutely. In the near term, AI technologies will lead to dramatic and possibly disruptive applications and ROI. However, substantial breakthroughs in AI theory and algorithms and in computing hardware and software must still occur before artificial intelligence becomes superintelligence.

Gary Grossman is a futurist and public relations and communications marketing executive with Edelman.

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https://www.designboom.com/technology/mit-plants-glow-like-fireflies-12-14-2017/

MIT’s plants that glow like fireflies could replace electrical lighting

http://www.seattlepi.com/news/us/article/Study-4th-of-California-youth-seen-as-gender-12431020.php

Study: 1/4 of California kids seen as gender nonconforming

LOS ANGELES (AP) — More than a quarter of California schoolchildren between 12 and 17 believe their peers see them as “gender nonconforming,” meaning those boys are perceived as more feminine and the girls as more masculine, according to a new study that is among the first of its kind in the U.S.

The study made public Wednesday found that the 27 percent of California children perceived as gender nonconforming are more than twice as likely to experience psychological distress, such as bullying, as their gender conforming counterparts.

The study did not find that gender nonconforming children have statistically significant higher levels of suicide, but psychological distress is a risk factor for suicide, said lead author Bianca Wilson.

The study, conducted by the University of California, Los Angeles, was among the first of its kind in the nation and the first representative survey measuring gender expression among California’s youth population, Wilson said.

 “We felt it was really important to start documenting levels of gender expression,” Wilson said. “We’re not just talking about protecting a small group. This is a significant part of the youth population.”

Understanding how many children are gender nonconforming and to what extent they’re experience bullying, discrimination and other problems will help develop mental health services and programs for such young people, Wilson said.

“We want adults focused on how to meet the needs of a group that large,” she said.

Results of the study were based on interviews with 360 adolescents in 1,600 homes throughout California. The children were asked two questions involving gender expression as part of a larger annual analysis known as the California Health Interview Survey.

Such studies are slowly becoming more prevalent as awareness and acceptance increases for those who are gender nonconforming, said Alison Gill, a consultant for Advocates for Youth, a Washington, D.C.-based nonprofit dedicated to adolescent reproductive and sexual health.

Gill worked on a survey similar to California’s for Advocates for Youth last year, but just four municipalities participated by asking high school-aged adolescents questions based on gender expression — Los Angeles, San Diego, Chicago and Broward County in Florida.

That study found that 25 percent of boys and 15 percent of girls reported being gender nonconforming. It also found a relationship between being gender nonconforming and risk of suicide.

It is being expanded to 16 municipalities this year, including eight states — a number that is expected to continue increasing, Gill said.

“This is an increasingly important issue in our schools and our society,” she said. “A lot of young people, more and more, are identifying in a non-binary way or gender nonconforming, and until this point we have had very limited data on this population. These studies are really critical to advance the field to help us understand their needs.”

 

https://inhabitat.com/laser-driven-fusion-energy-leaves-no-radioactive-waste-and-its-within-reach/

Laser-driven fusion energy leaves no radioactive waste – and it’s within reach

Dramatic advances in lasers could get us closer to fusion energy. An international team of 11 scientists is pursuing what was once thought to be impossible, according to the University of New South Wales(UNSW): fusion power with hydrogen-boron reactions. The researchers describe this in their recently published study as the ideal clean fusion process: the technique needs no radioactive fuel elements and doesn’t leave toxic radioactive waste.

Laser, lasers, laser light, laser show, color, colorfulCould we be closer to better fusion energy? The world for decades has pursued igniting the heavy hydrogen isotopes deuterium (D) and tritium (T). But generated neutrons from DT fusion produce radioactive waste. The researchers in their paper suggest an alternative: fusing hydrogen with the boron isotope 11. And lasers could help make this hydrogen-boron fusion possible.

Related: ‘We were blown away’ – researchers eliminate obstacle to fusion energy

Instead of heating fuel to the Sun’s temperature with “massive, high-strength magnets to control superhot plasmas inside a doughnut-shaped toroidal chamber,” according to UNSW, scientists can reach hydrogen-boron fusion with rapid bursts from two powerful lasers. This process requires temperatures and densities 200 times hotter than the Sun’s core – but advances in laser technology may have reached the point where the two-laser approach actually could be viable.

HB11 Energy, hydrogen-boron fusion, HB11 fusion, hydrogen-boron fusion reactor, lasers, fusion energy

Study lead author Heinrich Hora of UNSW, who in the 1970s predicted it might be possible to fuse hydrogen and boron without needing thermal equilibrium, said in a statement, “I think this puts our approach ahead of all other fusion energy technologies.”

HB11 Energy, a spin-off company in Australia, holds the patents. Managing director Warren McKenzie said in a statement, “From an engineering perspective, our approach will be a much simpler project because the fuels and waste are safe, the reactor won’t need a heat exchanger and steam turbine generator, and the lasers we need can be bought off the shelf…If the next few years of research don’t uncover any major engineering hurdles, we could have a prototype reactor within a decade.”

The journal Laser and Particle Beams published the research online this week. Scientists at institutions in Israel, Spain, Germany, the United States, China, and Greece contributed.

+ HB11 Energy

Via the University of New South Wales

Images via Pixabay and HB11 Energy

https://www.ctvnews.ca/sci-tech/eighth-planet-found-in-faraway-solar-system-1.3721768

Eighth planet found in faraway solar system

KeplerAn undated artist’s concept provided by NASA shows the Kepler Spacecraft moving through space. (AP / NASA)

CAPE CANAVERAL, Fla. — A record-tying eighth planet has been found in a faraway solar system, matching our own in numbers.

Even more amazing, machines and not humans made the discovery. NASA joined with Google on Thursday to announce the finding.

This eighth planet orbits the star known as Kepler-90, some 2,545 light-years away.

Like Earth, this new planet, Kepler-90i, is the third rock from its sun. But it’s much closer to its sun — orbiting in just 14 days — and therefore a scorching 800 degrees Fahrenheit (427 Celsius) at the surface. In fact, all eight planets are scrunched up around this star, orbiting closer than Earth does to our sun.

This is the only eight-planet solar system found like ours — so far — tying for the most planets observed around a single star. Our solar system had nine planets until Pluto was demoted to a dwarf planet in 2006 by the International Astronomical Union, a decision that still stands.

Google used data collected by NASA’s planet hunter, the Kepler Space Telescope, to develop its machine-learning computer program. It focuses on weak planetary signals — so feeble and numerous it would take humans ages to examine.

While machine learning has been used before in the search for planets beyond our solar system, it’s believed to be the first time an artificial neural network like this has been used to find a new world.

“This is a really exciting discovery, and we consider it to be a successful proof of concept to be using neural networks to identify planets, even in challenging situations where the signals are very weak,” said Christopher Shallue, senior software engineer at Google in Mountain View, California.

Neither NASA nor Google expect to put astronomers out of business.

Shallue sees this as a tool to help astronomers have more impact and increase their productivity.

“It certainly will not replace them at all,” he told reporters.

The announcement was live-streamed on NASA’s website.

AI takes on a new mission: planet hunting. See how we used machine learning to hunt for new planets in @NASAKeplerdata–and actually found one

http://www.iclarified.com/63822/apple-launches-podcasts-analytics-beta

Apple Launches Podcasts Analytics Beta

Apple has launched a Podcasts Analytics service for users who publish on their platform, reports TechCrunch. Available in beta today, the service lets podcasters track unique devices and playback metrics for their podcasts.

Apple can only track data for listeners on iOS 11 or higher and iTunes 12.7 or higher. The service is also limited to aggregate data for privacy reasons. Show creators can see overall trends but can’t drill down to track an individual user.

Metrics include unique device counts for a selected time period, total time listened, time per device, average consumption, devices subscribed, top countries, and more. Another key metric is the one that shows when listeners drop off during an episode.

TechCrunch reports that Apple is getting feedback from podcasters and is already thinking about future features including a way to track aggregate users, not just devices.

Podcasters can test out the new analytics service at the link below…

https://www.opengovasia.com/articles/new-technology-enabling-the-delivery-of-financial-services-to-everyone

New technology enabling the delivery of Financial Services to everyone.

That we live in an ever more digitized world is immediately apparent if you are a citizen of Western Europe, North America or East Asia/Australasia. Accessing social media, communications and retail shopping – increasingly on a smartphone – are commonplace today. But what is less obvious to consumers is the underlying technology that powers this ubiquitous, always on world of discourse, commerce and communication that is being adopted virtually everywhere. Technology is rapidly changing how we do just about everything.

Klaus Schwab at the World Economic Forum (WEF) a year ago spoke of a ‘Fourth Industrial Revolution’, one based on what he described as cyber-physical systems[1]. While the majority of his predictions are still to scale up, one that has already arrived is underlying the core of the digital economy: the new technology that is powering digital currencies and online payments and is changing how banking and other players in the financial services industry (FSI) interact with their customers.

At its most basic, banking historically provided the essential service as an intermediary for the exchange of cash for goods or services. This remained essentially unchanged from Renaissance Italy, where modern banking emerged, to the end of the 20th century. The tools bankers used progressed to double entry bookkeeping to essentially the same ledger process powered by mainframe computers. Over the centuries the controls also remained unchanged: with few exceptions, government issued the currency and the banks its distribution.

Cash is now on the decline in many economies; large denomination banknotes are being removed from circulation as being a societal risk in that they enable criminals and tax evaders to easily hide their crimes. Direct electronic payments can now replace most transactions from paying for a taxi fare in Kenya with a simple sms phone service via M-Pesa[2], to ewallets that are replacing plastic credit cards[3]. Depending on the country, the amount of cash in circulation as a percentage of total monetary value averages about 8% globally and has been declining[4]. In Sweden it is now so low (1.5%) the Riksbank is seriously studying the replacement of cash completely with emoney[5].

The commonality behind both the fourth industrial revolution and the revolution in currency and payments is the widespread adoption of the new technology that is both agile and that can affordably scale: this is hyper-scale Cloud computing: services that scale to thousands of servers that can provide unique security advantages in addition to agility and economy.

The FSI sector: banks, insurance companies and securities market makers are being profoundly affected by what is now seamless machine to machine communication, enabling the full automation of double entry bookkeeping, reducing costs for all parties in the transaction.

This brief paper will examine how the FSI sector may become more robust and how regulators may approach these fundamental changes, today, tomorrow and in the future.

The Financial Industry today.

The move away from cash is not driven by the incumbent banks or financial institutions as much as it is being pushed forward by software engineers, start-ups and entrepreneurs, including the established technology giants. It is also being abetted by governments that are keen to close loopholes for money laundering, corruption and terrorist finance. The removal of the €500 note in 2016 (nicknamed the ‘Bin Laden’) is a direct consequence of this policy as is the replacement of high value notes in India and Venezuela in late 2016. Only Switzerland and Singapore have high value notes today. The former US Secretary of the Treasury, Larry Summers, has even called for the US$100 bill to be eliminated[6]. Moreover with interest rates at historic lows, many banks now charge for large cash deposits to reflect the real cost of handling cash (as well as asking where it came from). Cash is no longer King for banks, but a liability.

This has fueled the move to mobile money from Beijing to Johannesburg, where it has effectively brought banking to over 15 million South Africans for the first time[7]. The World Bank reports that while just 1 percent of adults globally use only a mobile money account, in Sub-Saharan Africa, this rises to 12 percent or 64 million adults, with 45 percent of them having only a mobile money account[8]. In Nigeria, the new national identify card has electronic payments functionality built in to the EMV chip[9]. Thus technology is driving financial inclusion around the world through lowering the barriers to gain access to low cost payment services, a key issue in addressing inequality and development. This is also recognised by APEC as a driver of the digital economy[10]

Start-ups, banks and telecom companies are all competing in an increasingly crowded market for online and mobile financial services, so how is a potential customer to choose? When banks first started their journey to empower customers, it was not altruistic: cost containment was the driving issue. Although having been introduced as long as 50 years ago, the ATM remains central to the banking industry and adoption is still growing in many countries, with a projection for over 3.5 million units installed worldwide by 2020. Depending on the bank’s location, the cost of ATM vs a counter service transaction is approximately 90% lower. ATM’s remain central to a cash economy, but the installed base is decreasing in Europe in line with the decrease in cash as the prime means of transaction and the rapid uptake in Europe of online banking for other services[11].

The next round of automation was phone banking followed in the late 1990’s by the first recognisable online banking service enabled by the internet. The first true internet enabled banking (videotext in the 1980’s never really took off) was not embraced until the widespread availability of the World Wide Web (www) and the internet browser. This was launched in 1995 by Wells Fargo bank in the US which enabled customers to interact with their accounts for information via its website.

At the end of 1999 penetration was less than 0.4% of households in the U.S. but by 2004, some 33 million U.S. households (31%) were using some form of online banking. In the UK online banking grew from 63% to 70% of internet users between 2011 and 2012[12].

Rajesh Kumar, Professor at the Institute of Management Technology Dubai, UAE, referenced a report that a typical branch teller transaction in the US costs the bank US$4.25, dropping to $2.40 through a phone call centre and then plunging to only US$0.20 for the same transaction online. He has further postulated that a mobile transaction will be less than half that again at US$0.08[13]. This is a decrease in cost almost comparable to Moore’s Law for computing[14]. This is an important observation as it is access today to new technology, in particular the collection of services under Cloud computing, that will enable both FinTech companies and FSI’s to drive down costs even lower.

Paradoxically it is both a faster internet in more developed economies and weaker broadband infrastructure in lesser ones which has led to mobile becoming a far more practical option to carry out tasks and duties in developing economies.

This in turn leads to what will be one of the key differentiators in a crowded bank/FinTech market in the near future: lowering the cost of transactions to as close to zero as possible.

The Financial Industry of tomorrow.

If we take the closing sentence above as the starting point, and if we further take tomorrow as January 1 2017, we have to ask is this practical and what does it mean for the FSI sector? Temenos is a Swiss company that is a major supplier of core banking systems worldwide. John Schlesinger, Chief Enterprise Architect at Temenos, stated “The advantages of Cloud computing in terms of cost and customer experience look more compelling than ever.” In a recent paper written by David Arnott, CEO Temenos, customers were asked questions regarding benefits and barriers in adopting cloud services. The major benefits cited were lower overall IT costs (58 percent); ability to shift to new technology (50 percent) and to add new business functionality more quickly (34 percent).

Before we get into details, as banking has at its core the provision of services for both citizens and the financing of the exchange of goods and services, in other words trade, let’s look at that first. A U.S. International Trade Commission study showed that cross-border data flows and the business trends that they enable generate enormous value globally:

  1. More globally connected Economies increase their gross domestic product (GDP) growth by up to 40 percent more than less connected Economies.
  2. Information and communications technology (ICT) usage enables growth, particularly in emerging economies, by giving new and small businesses ready access to global service delivery platforms.
  3. Removing trade barriers faced by digitally intensive firms would markedly increase GDP, wages, sales and employment. Embracing cross-border data flows reduces physical trade barriers and reduces the impact of geographical isolation from major export markets.

As the French economist Thomas Piketty has recently observed, protectionism does not produce wealth, and free trade and economic openness are ultimately in everyone’s interest.[15]

Anyone who has used an Over the Top (OTT) service, so called as they layer on an internet connection, is already experiencing close to zero cost for their voice phone calls and SMS. Software and hardware companies are increasingly morphing into technology service companies and are making the world’s best technology available to consumers at close to zero marginal cost; many supported by advertising. Free voice messaging apps like Skype, WhatsApp or Allo enables people to communicate and collaborate in ways – and at price points – never possible before. Online search saves the average consumer many hours each year to find products and services. GPS enabled mapping saves even more in time: congestion, fuel and pollution are all reduced in guiding people to where they need to go. Online marketplace platforms like Alibaba.com, Global Sources, Amazon and eBay mean micro enterprises and individuals can access global markets instantly.

An increasing majority of these instances host their data and it is processed in a Cloud infrastructure, where the owner of the service has outsourced the hardware and often the software and storage for their service. A Cloud enabled infrastructure using managed data centres that may scale on demand and therefore reduce the cost per transaction. Distance is no longer a barrier nor is the cost of communication which has dropped virtually to zero due to packet switched technology, the same technology that powers the Cloud.

But not all Cloud offerings are delivered equally. Although the basic attributes may be created and hosted on smaller data centres, the Cloud efficiencies really come to the fore in hyper scale deployments: literally thousands of servers in a single geographic cluster. This is well suited to the financial industry which needs such scale to drive down transaction costs. The only limitation to this is really regulation: regulators that do not open to the hypercloud will create a disadvantage to their national banks in being unable to scale to increase their agility to modernise ageing legacy infrastructure and to embrace change and reduce costs. This disadvantage will, over time, both limit the services available to customers in the country and competitiveness.

There will certainly be some classes of data that regulators want stored locally (although over time I believe this will be minimal), so hybrid options are okay for now. Current policy focus needs to be on data classification and management rather than on large scale data localization if the cost and scale benefits of the Cloud are truly to be realized. It is clear then that for banks to be competitive tomorrow they need to transform today. The technology for this is available now, in particular as the blockchain provides an immutable ledger of transactions. As proven with widespread adoption of packet switch technology, costs have dropped dramatically and by logical extension this may extend to ultra-low payments transaction costs; what next?

The Financial Industry of the (near) future.

If payments are the low hanging fruit that may be enabled today by Cloud computing and rolled out as services tomorrow – that is in 2017 – what of the next five years? In 2015 there were just fewer than five billion unique mobile subscribers, according to the GSMA, compared with the global population of 7.4 billion. Forecasts predict 5.6 billion unique mobile subscribers globally by 2020 – which is likely to be more than the number of people with electricity at home (5.3 billion), regular bank accounts (4.5 billion), or running water (3.5 billion)[16].

The vast majority of new subscriber additions will come from developing markets, with GSMA Intelligence putting this proportion as high as 93%. According to the International Telecommunications Union (ITU) data shows that while 84 percent of the world’s people live in an area where mobile-broadband services are offered, only 47 percent are actually using the Internet right now[17]. So there is a gap to be closed to bring these people into the online world.

A report by the World Bank Development Research Group and the Better Than Cash Alliance outlined how the digitisation of payments, transfers, and remittances contributes to the G20 goals of broad-based economic growth, financial inclusion, and women’s economic empowerment.

Paradoxically it is the poorest that pay the highest costs for sending money across borders. Recent research including the GSMA’s  ‘Driving a Price Revolution: Mobile Money in International Remittances’ that looks at the impact of mobile money on reducing the cost of international remittance and ‘ A Cloud for Good’ from Microsoft[18] examines how technology may address this. The average cost of sending US $200 was 2.7 percent, compared to six percent when using global money transfer operators (MTO’s). Entrepreneurs are aiming for sub 1% costs. So there is a clear case to encourage inclusiveness for the unbanked into at least the payments and remittance system as a precursor to full financial inclusiveness, which is a key Millennium Development Goal (MDG) of the UN.

By lowering the costs of transactions through automation in the Cloud for mobile devices, banks can compete with the FinTech payment providers. Also by transforming their legacy systems to be Cloud based they may gain business from dominant MTO’s (as well as competitors): their ‘Uber’ moment may be fast approaching.

New ways of financial transaction accounting are being explored using blockchain technology that is the concept of a decentralised, independently verifiable, and immutable ledger. It can be a distributed database or even a decentralised hosting provider, but for blockchain to reach mass adoption, there are also technical challenges that need to be addressed, such as scalability and private key management., both of which may be addressed by taking advantage of hyperscale Cloud computing.

We are headed towards an era not just of ubiquitous connectivity, but of smartphones heading toward $US 50 a unit, which is affordable for all except the very lowest income segment of society. One way to address this gap may be the supervised distribution to developing countries of the many smartphones that today come off typical 2 year contracts in the advanced countries. These may be voice printed via an app to end users to prevent resale, with approved charities administering distribution and not subject to import duties. Given recent trends this segment will rise in the not too distant future to be connected. It is not inconceivable that connectivity and access may be a basic human right in the near future; such is the network effect on economic well-being.

With affordable connectivity and hardware combined with rapid advances in software leading to practical uses of artificial intelligence, we are well on the way to what Ray Kurzweil has described in ‘The Singularity is Near’: beyond the cyber-physical to the virtual merging of man and machine[19].

This may be enabled through a vision of the Platform, People & Process, whereby the platform is the Cloud that enables people to access the processes that they want to use, which in turn will drive growth.

But what about the regulator?

Banks are a sector of society that has been regulated for decades, and for good reason: they are the bedrock of trust in all institutions and have failed spectacularly in the past, some most recently as 10 years ago: banking is still a fragile institution in many countries. How can this be improved?

A regulator usually has a dual function: to maintain the stability of the country’s financial system and to regulate banks and deposit taking institutions. Whilst both are linked, it is the regulation of banks and how they use the Cloud that needs clarifying.

The degree of regulation varies by each country; however a commonality is that the regulators must be able to examine the records of those regulated. With respect to new technology, since its inception in the United States, online banking has been federally governed by the Electronic Funds Transfer Act of 1978 which somewhat presciently included ‘remote banking’ programs[20].

Most central banks have guidelines for bank technology outsourcing, which has been common for decades and includes contract IT services, data centre hosting, credit card processing (often abroad) and software. Indeed an examination of software agreements since the inception of mainframe computing clearly states that the developer is the owner and the bank merely licenses the software for use. The majority of such guidelines therefore implicitly have the approval for Cloud computing services to be utilised by banks, but they may need to be clarified in an update in some countries. Forward looking regulators have indeed already done this[21]. Draft guidelines have been submitted by industry associations to central banks in several counties for consideration.

One often cited reason that regulators have been slow to approve Cloud outsourcing for banks is that sensitive information may not be sent or stored outside their jurisdiction. At issue really in the definition of what is ‘sensitive’, is it personally identifiable information? If so then the answer is to protect it via data classification and strong encryption[22]. If it is because no bank data may leave the national borders, then they are ignoring reality.

This really does not make much sense: if enacted it would bring the global financial system to a grinding halt as trillions of dollars are transacted across borders everyday over the bank-owned SWIFT messaging system. The encryption used by SWIFT as well as the hardware is virtually identical to that of the major Cloud service providers: if it’s good enough for SWIFT and in compliance with the same standards and certifications, then there is no logical reason that the Cloud should not be used by the financial industry in any country.

The future of the financial system lies in the ability to reduce the cost of transactions as low as possible with full data redundancy and security, which I have written about elsewhere[23]. The technology that will enable this will be a hybrid of on premise (for core banking services) and outsourcing, via the Cloud for all non-core banking services.

In addition to the agility and economic benefits in the Cloud, there may also be a closer integration of compliance and security with enhanced visibility for regulators. Security and risk management is a given requirement, but how do you address the elements that make this up?  One example is that the Cloud may enable the regulator to also check for bank compliance in virtually real time, in fact this is being done today in stock trading compliance for insider trading/fraud detection using the Cloud. This may also reduce a bank’s compliance costs. In anticipation of this, the New York Federal Reserve has increased its technical oversight of banks, building on draft federal guidelines which will come into effect March 1 2017.[24]

Cloud platforms also may act as “system containers”, providing a new kind of defence in depth (the Cloud is not only a programmable infrastructure, but a reacting infrastructure: it allows for monitoring, logging and alerting of “interesting” events, enhancing security).

From the FSI sector view, it is clear that they want to deliver competitive quality services, without any compromise as to data security, confidentiality, integrity and high availability. At the same time they need to reduce costs to improve the balance sheet to compete with each other and the FinTech start-ups.

The best way to do this is to adopt the same technology as what the FinTech start-ups are using: The hyper Cloud. It is available right now and is well on the way to being the basis for all enterprise computing. Forward looking institutions will work towards the same goal – utilizing the hyper Cloud to benefit their customers and the competitiveness of their national economies.

© 2017 APP.

[1]https://www.weforum.org/agenda/2016/01/the-fourth-industrial-revolution-what-it-means-and-how-to-respond/

[2] https://www.mpesa.in/portal/

[3] http://www.toptenreviews.com/business/payment-processing/best-mobile-wallets/

[4] https://www.quora.com/What-percentage-of-the-worlds-money-is-printed-in-cash-bills-coins

[5] http://www.riksbank.se/en/Press-and-published/Speeches/2016/Skingsley-Should-the-Riksbank-issue-e-krona/

[6] http://time.com/money/4226174/kill-100-dollar-bill-500-euro-phase-out/

[7] https://www.theguardian.com/global-development-professionals-network/2015/jun/30/barclays-boss-financial-inclusion-africa

[8] http://www.worldbank.org/en/programs/globalfindex

[9] https://newsroom.mastercard.com/press-releases/mastercard-branded-national-eid-card-launched-nigeria/

[10] http://www.apec.org/Press/News-Releases/2016/0818_ECSG.aspx

[11] https://www.accenture.com/_acnmedia/PDF-10/Accenture-Banking-ATM-Benchmarking-2016.pdf

[12] http://eprints.hud.ac.uk/21250/1/An_investigation_of_risk_management_practices_in_electronic_banking_revised_version_-_Final_accepted_version_-_BBS.pdf

[13] Strategies of Banks and Other Financial Institutions: Theories and CasesBy Dr. Rajesh Kumar http://www.imtdubai.ac.ae/drbrajeshkumar/

[14] http://www.mooreslaw.org/

[15] ‘Capital in the 21st Century’, Thomas Piketty Page 523 (English edition) Harvard University Press

[16] https://www.gsmaintelligence.com/research/?file=357f1541c77358e61787fac35259dc92&download

[17] http://www.itu.int/en/ITU-D/Statistics/Documents/publications/misr2015/MISR2015-w5.pdf

[18] https://news.microsoft.com/cloudforgood/

[19] http://www.kurzweilai.net/

[20] https://www.federalreserve.gov/boarddocs/caletters/2008/0807/08-07_attachment.pdf

[21] The UK, Singapore, Australia and Hong Kong, to name but a few

[22] See Cloud Computing: why security is not the issue – its data classification. M Mudd 2016

[23] https://thestack.com/expert/michael-mudd/

[24] https://www.governor.ny.gov/sites/governor.ny.gov/files/atoms/files/Cybersecurity_Requirements_Financial_Services_23NYCRR500.pdf