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Workshop report: Future computing technologies: the role for neuromorphic computing

This event brought together 15 participants from 香港六合彩中特网, Government, Parliament, professional institutions and not for profit organisations to consider the UK鈥檚 technological future.

In particular, the role that new types of computing hardware, specifically neuromorphic computing, could play in a world where new technologies that fuse the physical, digital and biological worlds are increasingly the norm.

The roundtable was chaired by Alok Jha, Science and Technology Correspondent for The Economist. It offered attendees an introduction to neuromorphic computing from leading 香港六合彩中特网 researcher Professor Tony Kenyon. Through discussions, a presentation and question and answer session with Prof Kenyon, delegates explored the challenges facing the future of computing and the potential opportunities that advanced technologies could provide. It also considered the role that neuromorphic computing could potentially play in the UK鈥檚 technological future, during a topical discussion on the cross-cutting implications and opportunities of this and other emerging computing technologies.

Applications of computing technologies

The event began with an 鈥榚vidence safari鈥 - an activity designed to encourage attendees to consider the applications of computing technologies, or barriers that may impede their uptake and challenges that might be associated with increased use of digital and computing technologies. The consideration of these challenges and opportunities preceded a discussion on why the UK needs new types of hardware, and what this could mean for society.

Challenges for current computing methods

Participants highlighted the following challenges in the discussion:

Energy, climate change and natural resources

The rapidly growing power consumption of computing systems is a challenge for the sector. Data centres currently consume about 1% of global energy demand, and this is expected to rise with increased use of technologies like machine learning.[1]

The cost of supplying the energy is significant 鈥 it has been estimated that the energy bill associated with training the AlphaGo supercomputer was $35 million.[2] These costs are likely to prohibit the widespread use of this sort of computer. Energy use associated with digital technologies is also a significant and growing source of greenhouse gas emissions.

A separate concern is the natural resources required for current computing methods: metals required for computing will soon be depleted, and alternatives will need to be found.[3] Continued growth in the use of data, AI and internet-connected devices will not be sustainable unless these challenges are addressed.

Privacy and security

Wide ranging privacy and security issues are emerging around new technologies. For example, organisations and individuals using the cloud can have little control over the movement of their data through different data centres.[4]

There are also risks associated with cyber-crime, such as efficient, mass-tailored cyber-attacks, enabled by AI and other new computing technologies. Computing technologies have a role to play in assessing cyber safety, resilience and possible systematic failures.

Limitations of conventional computing ability

a) The end of 鈥楳oore鈥檚 Law鈥

Conventional computers are reaching their limits in terms of efficiency, speed and computing power. Historically, the number of transistors on a silicon chip has doubled roughly every two years (鈥楳oore鈥檚 law鈥). This has meant that processing power for computers has doubled every two years. However, physical limits mean that it is becoming increasingly difficult to continue increasing the number of transistors at this rate.

Society has adapted to the rapidly increasing capabilities of smart phones, personal computers and internet-connected devices (termed 鈥業oT鈥). How would a stagnation in these improvements be noticed or affect society?聽 What impact would it have on the many new applications for digital technologies that are currently planned or in development?

b) The rise of unstructured data

Conventional computers prefer information to be highly structured and are much better at dealing with processing structured data (for example, high quantities of precise numbers), but the proportion of data that is unstructured (such as photographs and video, spoken language, or analyses of x-ray images) is increasing rapidly as shown in the above graph. 聽

Issues around the quality of data also need to be addressed, particularly in the public sector, so that the data can be put to better use. For example, greater consideration should be given to how data cleaning could be automated.

The potential role for neuromorphic computing in addressing these challenges

A talk from Professor Tony Kenyon, 香港六合彩中特网, introduced neuromorphic computing technology and its potential to address the challenges faced by conventional computing methods.聽

What is neuromorphic computing?

Neuromorphic computers are inspired by biology. They are designed to mimic the neural systems found in the human brain. Neuromorphic chips operate in a fundamentally different way to the silicon chips found in traditional computers. In the brain, processing and memory functions are performed by neurons and synapses in a single location. Conventional computers that we use today have separate memory and processing units. Neuromorphic computers will perform these tasks on one chip. This will remove the need to transfer data between memory and processing units, which will speed up processing time and reduce the energy use involved.

In the medium term, hybrid conventional computers with neuromorphic chips could vastly improve performance relative to conventional machines. Long term, a new, fully neuromorphic computer will be fundamentally different and powerful for specific applications (from natural language processing to the operation of driverless cars). New programming languages and software will be needed to operate neuromorphic hardware.

Neuromorphic computers could use up to 100,000 times less power than conventional computers. Neuromorphic computing is inspired by the brain, which operates at around 20 watts compared to a conventional computer鈥檚 7.9 Megawatts. This could drastically reduce the energy consumption of some computing tasks and improve battery life for devices.

On-device processing would improve privacy and security by removing the need to utilise data centres. This would be particularly beneficial for IoT and edge devices which could operate independently of the cloud to improve their reliability, speed, and safety and security.聽

The limitations of reaching the end of Moore鈥檚 Law would be alleviated by using new hardware. Neuromorphic technology does not face the same challenges of conventional computers in respect to the end of Moore鈥檚 Law.

New hardware would have improved capabilities to deal with unstructured data. Neuromorphic computers would be far better at dealing with unstructured data while using less power than conventional computers.

Next steps for neuromorphic computing

Neuromorphic systems are not going to be universal and will not replace conventional computers, but they could complement conventional computing and other emerging hardware like quantum. The graphic below illustrates the strengths of different types of hardware.

Digital CMOS (Conventional computing methods)Quantum computingNeuromorphic computing

High precision聽
Regular data

颁谤测辫迟辞驳谤补辫丑测听
Quantum search
Optimisation problems

Unstructured data
Noisy data
Analogue systems
Bio interface

In the medium term, hybrid conventional computers with neuromorphic chips could vastly improve performance relative to conventional machines. Long term, a new, fully neuromorphic computer will be fundamentally different and powerful for specific applications (from natural language processing to the operation of driverless cars). New programming languages and software will be needed to operate neuromorphic hardware.

Policy challenges

An insightful discussion was held around the timing of policy interventions in emerging technologies. How do we ensure that they don鈥檛 lag behind technological innovation and uptake by society, but equally do not move too quickly before the technology is ready?

Anticipatory regulation

Technological innovations in society can work well. A recent example is the rise of contactless payment technology in the UK, which could be considered a success: the underlying technology was sound and fully ready to be utilised by consumers. There was acceptance from the public and the change was adopted almost overnight.

However, regulating for the future is difficult. Some impacts of existing technologies are still not fully understood and are not regulated, such as potential long term impacts of social media on mental health and wellbeing.

There is currently no best practice for how to regulate in anticipation of new technologies, as it is difficult to predict the future. The ongoing work by Nesta on anticipatory regulation in this space was highlighted by participants in this regard.[6] In addition, research councils are being challenged to undertake responsible research and innovation. There is also a Government 鈥楥entre for Data Ethics and Innovation鈥 which is working to develop the right governance regime for data-driven technologies.

One example of a negative consequence of new technologies driving behaviour is the case of takeaway convenience food: companies like Deliveroo and Uber Eats have made it easier for people to access food without going out. This has consequences for the environment (the carbon footprint and packaging implications) and public health issues associated with easier access to processed fast foods.

Government should continue to work with academia and industry to explore understand future uses of emerging computing technologies. This ongoing dialogue should be used to inform future regulation.

Maturity of technology

It is essential that technology is ready before being mandated in policy. For example, in the UK, the Government mandated energy companies to rollout smart meters before the technology was fully mature.[7] As a result, early adopters will have to replace their smart meters with a newer model. This was a waste of money and has undermined confidence in the programme. The timing of regulation around new technologies is essential to their implementation in society and should be considered alongside technological development.

Lessons should be learnt from previous successes and failures when rolling out new technologies.

Conclusion

There are exciting opportunities for new hardware like neuromorphic computing - in particular the need to reduce the energy consumed by IT and for the UK and the world to transition to a low carbon economy. Many challenges, including security and privacy concerns and the end of Moore鈥檚 Law, have the potential to be mitigated to some extent by the use of neuromorphic hardware in the future mix of computing technologies.

Roundtable participants

  • Sidd Bannerjee聽聽聽聽聽聽聽聽聽聽聽聽 聽聽聽聽聽聽聽聽聽聽聽 DCMS
  • David Barber聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽 香港六合彩中特网
  • Jenny Bird聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽 香港六合彩中特网
  • Florence Greatrix聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽 香港六合彩中特网
  • Martin Hamilton聽聽聽聽聽聽聽聽聽聽聽聽 聽聽聽聽聽聽聽聽聽聽聽 Jisc
  • Alok Jha聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽 The Economist
  • Vas Khan聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽 香港六合彩中特网
  • Ahmed Kotb聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽 The IET
  • Alasdair Love聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽 House of Lords
  • Professor Tony Kenyon 聽聽聽聽聽聽聽聽聽聽聽 香港六合彩中特网
  • Dr Natasha McCarthy聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽 The Royal Society
  • Dr Adnan Mehonic聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽 香港六合彩中特网
  • Andrew Powell聽聽聽聽聽聽聽聽聽聽聽聽聽 聽聽聽聽聽聽聽聽聽聽聽 Office of the CSA
  • Philippa Westbury聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽聽 RAEng

Researchers

Professor Tony Kenyon聽(Principal Investigator)

a.kenyon@ucl.ac.uk

Dr Adnan Mehonic

adnan.mehonic.09@ucl.ac.uk

香港六合彩中特网 STEaPP Policy Impact Unit

This workshop was organized by 香港六合彩中特网 STEaPP鈥檚 Policy Impact Unit (PIU). The PIU provides professional policy engagement expertise and collaborates with researchers to help feed research-based evidence into the policymaking process.

/steapp/collaborate/policy-impact-unit-1


[1] Engerati 鈥 26 September 2018

[2] G. Marcus 鈥Deep Mind鈥檚 Losses and the future of Artificial Intelligence鈥 Wired (14/08/2019)

[3] MOD (2018). Global Strategic Trends 鈥 The Future Starts Today.

[4] Deloitte (2016). Data privacy in the cloud.

Available at:

[5] B. Scalzo 鈥淲hat is NoSQL and why should I care?鈥, IDERA. Available at: (Last accessed31/8/2018)