Environmental, social, and governance (ESG) ratings towards investment criteria have become popular for potential investors to evaluate companies in which they might want to invest. As younger investors and others have shown an interest in investing based on their personal values, brokerage firms and mutual fund companies have begun to offer exchange-traded funds (ETFs) and other financial products that follow specifically stated ESG criteria. Passive investing with robo-advisors such as Betterment and Wealthfront have also used ESG criteria to appeal to this group.
The disruption caused by the pandemic has highlighted for many of us the importance of building sustainable and resilient business models based on multi-stakeholder considerations. It has also created growing investor interest in ESG.
ESG signalling for institutional investors
The increased interest in climate change, sustainable business investments and ESG metrics is partly a reaction of the society to assist in the global transition to a greener and more humane economy in the post-COVID era. Efforts for ESG standards for risk measurement will benefit and support that effort.
A recent study of asset managers by the investment arm of Institutional Shareholder Services (ISS) showed that more than 12% of respondents reported heightened importance of ESG considerations in their investment decisions or stewardship activities compared to before the pandemic.
In the area of hedge funds, there has been an increased demand for ESG-integrated investments since the start of COVID-19, according to 50% of all respondents of a hedge fund survey conducted by BNP Paribas Corporate and Institutional Banking of 53 firms with combined assets under management (AUM) of at least USD 500B.
ESG criteria may have a practical purpose beyond any ethical concerns, as these criteria may be able to help avoidance of companies whose practices could signal risk. As ESG gets more traction, investment firms such as JPMorgan Chase, Wells Fargo, and Goldman Sachs have published annual reports that highlight and review their ESG approaches and the bottom-line results.
But even with more options, the need for clarity and standards on ESG has never been so important. In my opinion, there must be an enhanced effort to standardise and harmonise ESG rating metrics.
How are ESG ratings made?
ESG ratings need both quantitative and qualitative/narrative disclosures by companies in order to be calculated. And if no data is disclosed or available, companies then move to estimations.
No global standard has been defined for what is included in a given company’s ESG rating. Attempts at standardising the list of ESG topics to consider include the materiality map developed by the Sustainable Accounting Standard Board (SASB) or the reporting standards created by the Global Reporting Initiative (GRI). But most ESG rating providers have been defining their own materiality matrices to calculate their scores.
Can ESG scoring be automatically integrated?
Just this month, Morningstar equity research analysts announced they will employ a globally consistent framework to capture ESG risk across over 1,500 stocks. Analysts will identify valuation-relevant risks for each company using Sustainalytics’ ESG Risk Ratings, which measure a company’s exposure to material ESG risks, then evaluate the probability those risks materialise and the associated valuation impact. ESG rating firms such as MSCI, Sustainalytics, RepRisk, and ISS use a rules-based methodology to identify industry leaders and laggards according to their exposure to ESG risks, as well as how well they manage those risks relative to peers.
Their ESG Risk Ratings measure a company’s exposure to industry-specific material ESG risks and how well a company is managing those risks. This approach to measuring ESG risk combines the concepts of management and exposure to arrive at an assessment of ESG risk – the ESG Risk Rating – which should be comparable across all industries. But some critics of this form of approach feel it is still too subjective and too industry-specific to be relevant. This criticism is relevant when you understand that the use of the ESG ratings and underlying scores may in future inform asset allocation. How might this better automated and controlled? Perhaps adding some AI might be useful to address this?
In one example, Deutsche Börse has recently led a USD 15 million funding round in Clarity AI, a Spanish FinTech firm that uses machine learning and big data to help investors understand the societal impact of their investment portfolios. Clarity AI’s proprietary tech platform performs sustainability assessments covering more than 30,000 companies,198 countries,187 local governments and over 200,000 funds. Where companies like Cooler Future are working on an impact investment app for everyday individual users, Clarity AI has attracted a client network representing over $3 trillion of assets and funding from investors such as Kibo Ventures, Founders Fund, Seaya Ventures and Matthew Freud.
What about ESG Indices? What do they tell us about risk?
Core ESG indexing is the use of indices designed to apply ESG screening and ESG scores to recognised indices such as the S&P 500®, S&P/ASX 200, or S&P/TSX Composite. SAM, part of S&P Global, annually conducts a Corporate Sustainability Assessment, an ESG analysis of over 7,300 companies. Core ESG indices can then become actionable components of asset allocation when a fund or separately managed accounts (SMAs) provider tracks the index.
Back in 2017, the Swiss Federal Office for the Environment (FOEN) and the State Secretariat for International Finance (SIF) made it possible for all Swiss pension funds and insurance firms to measure the environmental impact of their stocks and portfolios for free. Currently, these federal bodies are testing use case with banks and asset managers. Its initial activities will be recorded in an action plan, which is due to be published in Spring 2021.
How can having a body of sustainable firms help create ESG metrics?
Creating ESG standard metrics and methodologies will be aided when there is a network of sustainable companies to analyse, which leads us to green fintech networks (GFN) of companies interested in exploring how their own technology investments can be supportive of ESG objectives. Switzerland is setting up a Green Fintech Network to help the country take advantage of the “great opportunity” presented by sustainable finance. The network has been launched by SIF alongside industry players, including green FinTech companies, universities, and consulting and law firms. Stockholm also has a Green Fintech Network that allows collaboration towards sustainability goals.
Concluding Thought
We should be curious about how ESG can provide decision-oriented information about intangible assets and non-financial risks and opportunities. More information and data from ESG data providers like SAM, combined with automation or AI tools can potentially provide a more complete picture of how to measure the long-term sustainable performance of equity and fixed income asset classes.
Singapore FinTech Festival 2020: Investor Summit
For more insights, attend the Singapore FinTech Festival 2020: Investor Summit which will cover topics tied to 2021 Investor Priorities, and Fundraising and exit strategies
Authored by Alea Fairchild and Mike Zamora
There have been a few articles recently about investment companies looking to buy large national US retail companies, for example, JC Penney and Dillards. Their historical approach was to purchase the land and develop the sites as a retail centre and operate their stores. They then lease the remaining retail space to other retailers. It is a business model which has been in use for many decades.
Historically a long and deep negative economic cycle has caused some retail operators/developers to sell part of their operations. This happened in the US in 1995 with Sears. The real estate development and investment companies’ interest is in exploring if there is a higher and better use for the properties. That is the essence of land economics, going from a lower economic use to a higher income/value use.
A key difference this time is the use of advanced technology. We see this in many dimensions: building systems and operations; retail management, social media, entertainment and food and beverage (F&B) operations.
The Smart Building revolution in Retail is about changing the management philosophy of buildings and using technology to aid in the process. The defining characteristic of building smarter is not the application of technology or a function of outcomes on energy use or maintenance. Instead, it is a commitment to leveraging the overall footprint to achieve the goals that perhaps inspired the building in the first place.
Evolution of Space for Retail Activities
The old axiom of real estate is location, location, location. This means that every retail centre will have to be assessed for its best purpose for its locations and surrounding environment. Retail has been morphing in the past few years from a traditional purpose of picking something up to an intersection of shopping and entertainment. This combines on-premise activities with a buying transaction which can be handled either onsite or online. Technology infrastructure investment opportunities are driven by optimising the customer retail experience.
Retail centres are seeking new functionality, including the adaptation of both design and use. Below are four approaches we believe can be used to assess each retail centre.
Reuse: Retail Lifecycle – Consumption to Redemption
There is a shift from consumers discovering and experiencing products in a physical retail space to retailers delivering on-demand. Many smaller retailers have capitalised on this by becoming pick-up points for online orders. They hope to increase footfall by drawing the customer into their own premises when retrieving their online delivery.
Retail centres need to expand on this trend to become a fulfilment location rather than a retail shopping space. Consumers could pick up online orders, recycle used goods, get products maintained and repaired, have appointments for personal services (dental, eye, hair, dry cleaning, etc.), try and test goods in mini-showrooms and collect points and benefits from gamification activities. By having a centralised exchange facility with multiple functionalities, consumer data can be leveraged to create marketing pull activities such as exclusive shopping events, and personalised customer service based on preferences and purchase history.
The current square meterage can be reallocated for distribution including the use of dark stores, green recycling centres for 3D printed product disposal and retail pick-up and exchange points. Staff will not be salespeople, but customer delivery service managers. The technology opportunities in this area would be re-allocation of network resources; focus on efficiency in delivery and customer satisfaction; and automation tools for customer service staff.
Redesign: Blended – Community Environment and Retail Experience
An alternative and more involved development approach would be to redesign the retail centre with deeper use cases to get more customers to come and stay longer. If a consumer stays onsite longer, there is a higher probability they will spend more at the retail centre. The future retail centre (Figure 1) would include additional space usages for a community space, a distribution centre for pick-ups, expanded F&B and remote working.
The technology opportunities are in two areas: customer experience and building operations. From a customer perspective, some technology examples would include entertainment and gaming in the F&B area, digital signage and mobile device technology to further engage people. For building operations examples could include technologies to control climate, lighting, security, energy management and building management.
Redevelop – Living Space for a Quality of Life
In some locations, the retail environment could have an oversupply of newly development retail centres. This means the optimal use for the centre would be to change it to a ‘Village Community’ – a community where people can live, work, learn and play. It would encompass multiple uses – multi-family residential units, a community centre, learning centres for younger children and a co-working area. The technology opportunies would be identical to a connected Smart City – at a lesser scale. Smart residential solutions would make the living environmental more user friendly. Retail could include digital media, mobile push features, enhanced and operational technology, energy management, climate control and security. Schools could include interactive and collaborative tools. Parks would have Wi-Fi and enhanced security. Connected Services (eg utilities, fire life safety, security and communications) could include operational technology systems for utilities, audio and video security systems and communication.
Repurpose: Knowledge & Learning Environment
For some retail centres a redevelopment may not be required, but would instead need a major repurposing of the space. The repurpose could be as a learning or healthcare centre. Learning environments require large open spaces with high ceilings for auditoriums or class rooms; common areas for gathering in between classes; onsite housing for students; food courts; and adequate parking for commuters. A healthcare environment would require patient reception, examination rooms, inpatient rooms, surgical units, and administrative offices. It could also include a medical learning centre.
The technology opportunities would be to develop a 24×7 site, with technologies to support the key purpose of the centre. The learning environment could include collaborative audio/video tools for Smart Classrooms. The social areas could including advanced food ordering and delivery systems and multiple player gaming centres for entertainment. The living areas would include systems and technology for smart living. The parking area could include enhanced security and surveillance systems, and smart parking systems. Behind the scenes, the building operations would need to upgrade energy management, building maintenance and management, digital food court operations, and a wellness air quality system.
The Future of Sustainable Retail Space
The decline of a retail centre is not necessarily a bad thing for a community. It is just the “Circle of Life” as an area evolves. Locations morph over the long-term. This has been seen in all the large cities around the world which have stood the test of time, eg. London, Paris, Amsterdam, New York, Tokyo and Beijing. The transformation also breathes fresh air into the surrounding environment. There are multiple layers of technology available to provide for an incredible Sustainable and Smart Community. It is large opportunity, not only for real estate developers, but also for technology vendors who understand the transformation process into the multiple variations of smart environments. Large real estate players and REITs will buy these retail portfolios and begin to transform older, low revenue, semi-vacant shopping centres into vibrant destination centres. Technology vendors should bring their ideas and systems to the attention of retail real estate owners early on in the the process. This will increase their chances of having their systems incorporated into the overall design concept and operational approach. It is a physical and digital transformation which improves neighborhoods, businesses and the city. It is a win for all.
Telstra and Microsoft have extended their partnership to jointly build solutions harnessing the capabilities of AI, IoT, and Digital Twin technologies in Australia. The partnership will also enable both companies to work on sustainability, emission reduction, and digital transformation initiatives.
The adoption of cloud and 5G technology is already on the rise and creating opportunities across the globe. The Microsoft-Telstra partnership is set to bring together the capabilities of both providers for businesses in Australia and globally. Their focus on AI, IoT, cloud and 5G will enable Australia’s developers and independent software vendors (ISVs) to leverage AI with low latency 5G access to drive efficiency, and enhance decision making. This will also see practical applications and new solutions in areas like asset tracking, supply chain management, and smart spaces to enhance customer experience.
Technology Enhancing the Built Environment
Microsoft Azure and Telstra’s 5G capabilities will come together to develop new industry solutions – the combination of cloud computing power and telecom infrastructure will enable businesses and industries to leverage a unified IoT platform where they can get information through sensors, and perform real-time compute and data operations. Telstra and Microsoft will also build digital twins for Telstra’s customers and Telstra’s own commercial buildings which will be initially deployed at five buildings. Upon completion, the digital twin will enable Telstra to form a digital nerve centre and map physical environments in a virtual space based on real-world models and plot what-if scenarios.
Telstra CEO, Andy Penn says, “If you think about the physical world – manufacturing, cities, buildings, mining, logistics – the physical world hasn’t really been digitised yet. So, how do you digitise the physical world? Well, what you do is put sensors into physical assets. Those sensors can draw information around that physical asset, which you can then capture and then understand.”
Ecosystm Principal Advisor, Mike Zamora finds the comment interesting and says, “It isn’t so much that the physical world is digitized – it is more about how digital tools enhance and enable the physical world to be more effective to help the occupier of the space. This has been the history of the physical space. There have been many ‘tools’ over time to help the physical world – the elevator in the late 1880s enabled office buildings to be taller; the use of steel improved structural support, allowing structural walls to be thinner and buildings taller. These two ‘tools’ enabled the modern skyscraper to be born. The HVAC system developed in the early 1900s, enabled occupants to be more comfortable inside a building year-round in any climate.”
“Digital tools (sensors, etc) are just the latest to be used to enhance the physical space for the occupant. Digital twins enable an idea to be replicated in 3D – prior to having to spend millions of dollars and hundreds of man hours to see if a new idea is viable. Its advent and use enable more experimentation at a lower cost and faster set up. This equates into a lower risk. It is a welcomed tool which will propel the experimentation in the physical world.”
Talking about emerging technologies, Zamora says, “Digital twins along with other digital tools, such as 3D printing, AI, drones with 4K cameras and others will enable the built environment to develop at a very quick pace. It is the pace that will be welcomed, as the built environment is typically a slow-moving asset (pardon the pun).”
“Expect the Built Environment developers, designers, investors, and occupiers to welcome the concept. It will allow them to dream of the possible.”
Telstra and Microsoft – Joint Goals
Telstra and Microsoft have partnered over the years over multiple projects. Last year, the companies partnered to bring Telstra’s eSIM functionality to Windows devices for data and wireless connectivity; they have also worked on Telstra Data Hub for secured data sharing between data producers, businesses and government agencies; and most recently collaborated on Telstra’s exclusive access to Xbox All Access subscription service to Australian gamers with the announcement of Microsoft’s Xbox Series X and Xbox Series S gaming consoles expected to release in November.
This announcement also sees them work jointly towards their sustainability goals. Both companies are committed to sustainability and addressing climate change. Earlier this year, Microsoft announced its plans to be carbon negative by 2030, while Telstra has also set a target to generate 100% renewable energy by 2025 and reducing its absolute carbon emissions by 50% by the same time. To enable sustainability, Telstra and Microsoft are exploring technology to reduce carbon emissions. This includes further adoption of cloud for operations and services, remote working, and piloting on real-time data reporting solutions.
Telstra also aims to leverage Microsoft technology for its ongoing internal digital transformation, adopting Microsoft Azure as its cloud platform to streamline operations, and infrastructure modernisation, including transition from legacy and on-premise infrastructure to cloud based applications.
Today nearly 56% of the global population lives in an urban environment. The city has finally become the dominant place to live. Given the changing environment and increasing technology, the city has begun to dramatically change in the past 5-10 years. And it will continue to evolve and change at an increasingly faster pace.
As technology has developed and influenced the city, the term “Smart City” has become prevalent. Technology is an important attribute of a city’s evolution. However, it is just one of the attributes. A more encompassing and enduring term could be a “Sustainable City”. The definition of a Sustainable City that I subscribe to is:
“A vibrant community which can adapt and grow over the years, due to changing demographics and economic conditions. It is based upon multiple attributes.”
This definition begins to describe the holistic and long-term issues associated with the complexities of an urban environment. A Sustainable City has a goal of being an enduring and competitive place to work, live, learn, and play. It requires many aspects. Some of these are:
- Purpose. Entertain, eat, work, live, learn
- Activities. Walk, bike, play, work, learn, etc.
- Scale. Human scale not mega blocks
- Natural Environment. Location, terrain, water, etc.
- Environmental Implications. Resource usage, output disposal, environmental footprint, etc.
- Dynamic. Changing through the day/week as needed (festival, farmer’s markets, sporting event)
- Transportation. Walk, bike, mass transit – beyond cars
- Connectivity. Smart & effective infrastructure (utility & transportation coordination, etc.)
- Built Environment. Smart & efficiently operated buildings, spaces, etc.
A city is also a three-dimensional physical puzzle. It is composed of multiple layers: Subterranean level (utilities, transportation, walkways, retail); Ground level (streets, walkways, public spaces, open areas, building entrances); Concourse (walkways, retail, elevated rail, etc.); and Air Space (skyscrapers, bridges). This three-dimensional layout adds a level of complexity.
Key Stakeholders in a Sustainable City
Another important layer to consider consists of the four main players that need to work together:
- People (employees, students, families, tourists)
- Businesses (large, small/medium, start-ups, etc.)
- Built Environment (developers, real estate investors, consultants, designers, engineers, etc.)
- Government (local and regional)
For a city to be enduring and sustainable, the four main players need to work in a concerted effort. They need to discuss, advise, decide and provide for an environment which can change or be modified based upon a particular city’s needs. No one player truly has the ability to control how the city develops over time. Instead all of them work together along with the marketplace and land economics to determine the success of a city in the long run. Idea generation can come from any of these players and is tested in the marketplace. Figure 1 shows the interactions between these four key stakeholders. When all the groups work together, they are able to attain that “Sweet Spot” which enables a location to have the characteristics of a sustainable Global City. In the most simplistic terms, the Sweet Spot for a Sustainable City is the on-going quality of life that the city provides to its occupants.
The Dynamic Nature of a Sustainable City
Some believe that once a city or regional masterplan has been developed and approved the only thing left is to implement and enjoy. As a city and its inhabitants are dynamic, a longer-term sustainable view might be that the completion of the environment is just a starting point. The cases in point are the great global cities whose origins have started many generations ago, such as London, New York, Berlin, Tokyo, and so on This means that through use, the environment and space will constantly be assessed to evaluate if they are meeting the changing needs of the city or location. The appropriate adjustments or modifications are required over time. This is what has been done over the past centuries for many global cities. The difference between then and now is that with technology permeating everywhere, the ability to assess and adjust the environment will now be done at a much faster rate.
As builders and/or occupants of the environment we are just the current Stewards of the urban environment. Stewardship is a delicate balance between Return on Investment and Return to Society. The city is a dynamic environment which will continue to evolve over time based upon its changing needs. We have to determine whether we are going to change and improve the environment or just “pluck the fruits” from the existing assets. We should make sure that when we design and develop the urban environments it is with long-term sustainability in mind.
Agriculture is significant to New Zealand’s economy and the Government aims to create more efficient land usage, better environmental outcomes, and to drive sustainability for food and supply chain across domestic and international markets.
In an effort to grow the agritech sector into an even stronger economic contributor, increase agritech exports and advance sustainable production in New Zealand and globally, the Government of New Zealand has committed to spend USD 7.6 million on the implementation of an Agritech Industry Transformation Plan as part of a strategy for the food and fibre industry. The plan is the culmination of views and insights representing a cross-section of more than 130 members of New Zealand’s agritech ecosystem – the Government, industry, and the Māori and wider community – providing their collective vision to focus attention on the sector for a competitive edge.
Roadmap to Accelerate New Zealand’s Agritech
To further boost the innovation in agritech and upscale the Sustainable Food & Fibre Futures (SFF Futures), an additional USD 56 million has been earmarked for smaller grassroots community projects to large-scale industry development. This will support the Government’s Fit for a better world Roadmap – a 10-year roadmap for the primary industry; and add value across the agriculture, horticulture, fisheries and marine, and forestry sectors.
The Roadmap includes objectives such as:
- Adding USD 29 billion in export earnings over the next decade (2020 to 2030) through a focus on creating value
- Reducing the biogenic methane emissions to below 10% by 2030 and restoring New Zealand’s freshwater environments
- Employing 10% more New Zealanders in the food and fibres sector by 2030, and 10,000 more by 2024
Ecosystm Principal Advisor, Jannat Maqbool says, “In addition to the current environment with COVID-19, a new generation of consumers across the globe is becoming considerate that they buy what is good for the world in the face of climate change, biodiversity loss and the degradation of waterways. The ability to manage and assure quality and safety from ‘farm to fork’ is now more important than ever, leveraging technology for traceability, risk management, and rapid response capability to meet consumer demands and relevant legislative requirements.”
Through this Industry Transformation Plan (ITP), the Government seeks to attract investments in New Zealand’s agritech intellectual property (IP), develop the necessary infrastructure, focus on export opportunities, address current concerns related to connectivity and data, and ensure a skilled workforce that is able to both develop and effectively leverage agritech.
Maqbool says, “The success of the plan will depend on how well relevant stakeholders engage and ongoing support from government to help create the conditions required for the sector to realise its potential.”
Key Milestones
The Government of New Zealand is working to retain competitiveness in global agriculture. Some key initiatives include:
Farm 2050 Country Partnership. New Zealand became the first country partner of Farm2050- a global agritech initiative that brings together farmers, researchers, the market and investors to collaborate effectively.
Western Growers partnership. Western Growers and New Zealand signed a partnership agreement to develop agritech. It also opened doors for New Zealand’s agritech researchers and companies working in the robotics and automation space to enter the US Market.
The Australia New Zealand Agritech Council. The Australia New Zealand Agritech Council was launched to help the countries work closely on agricultural practices and to cooperate on agritech.
New Zealand is fast becoming an example of how technology providers and food producers can collaborate on improving yields, optimising production methods and reducing waste, predicting demand, and safeguarding supply chains.
Deep Tech companies are aiming to transform the world through scientific, engineering and technological advances. As technology evolves, researchers are looking to apply engineering and technological advances in areas such as processing and computing architecture, semiconductors and electronics, materials science, vision and speech technologies, artificial intelligence (AI) and machine learning, and so on – for the greater good. For example, finding a cure to a disease, developing new medical devices, sensors and analytics to help farmers increase yield, or developing clean energy solutions to reduce the environmental impact are some of the areas that Deep Tech is finding real-world applications.
Deep Tech Impacting Industries Today
There are several industries that are benefitting from Deep Tech innovations today. Here are only a few examples of Deep Tech innovations in some industries:
Healthcare
The combination of computational and biotechnology is accelerating the development of new cures, augmenting R&D and improving health outcomes. Deep Tech in healthcare has multiple applications from the manufacturing of affordable medical devices to redefining healthcare. Vibrosonic, has designed what they call a “contact lens for the ear” which can be directly placed on the eardrum. Unlike other hearing aids speakers are not used to transport sound through the ear canal but the eardrums are stimulated through electric impulses. A Singapore-based biotech company X Zell has patented a “liquid biopsy”- detecting cancer from a 10ml blood sample by measuring the presence of tumour-derived Circulating Endothelial Cells (tCEC) – which reduces the need for invasive cancer detection processes.
Food and Agriculture
Food crisis is a reality today with factors such as overpopulation, urbanisation, decreasing land per capita, extreme climates and so on impacting the food and agriculture industry immensely. Deep Tech companies are working to bring us sustainable food options and building climate resilience. Cell-based meat options are being researched globally, and companies such as foodtech start-up Shiok Meats is producing meat by harvesting cells from animals with a view to be environmentally friendly and to reduce the impact on biodiversity. In agriculture, Deep Tech companies are working on technologies to develop better farming methods to improve yield and precision sensors for weather forecasting. Examples such as UbiQD, that has worked on a greenhouse quantum dot film that improves crop quality by optimising sunlight spectrum for plants to improve production, show how Deep Tech will continue to transform the industry.
Environment and Energy
Deep Tech continues to come up with solutions that will help us in climate change mitigation, development of sustainable energy and energy efficiency. Innovations include Carbon Upcycling Technologies’ solution to capture and neutralise carbon dioxide. The carbon dioxide-enriched nanoparticles are used to make commercial construction materials and even consumer products such as jewellery. Celadyne Technologies has developed hydrogen fuel cells and electrolysers with nanocomposite membranes for a more efficient, cost-effective and eco-friendly energy source.
Advanced Computing
As technology evolves, there will be a need to support even greater compute and data-intensive tasks. Deep Tech has impacted and will continue to impact advanced computing. The semiconductor and microchip industry is getting disrupted by cutting-edge global research, many by the top universities. MIT, for example, has developed a process called “remote epitaxy” to manufacture flexible chips. Potential use cases include VR-enabled contact lenses, electronic fabrics that respond to the weather, and other flexible electronics. Atom Computing is working on scalable quantum computing that will be able to scale millions of qubits using individual atoms – without scaling up the physical resources – in a single architecture.
Communication and Security
Communication and connectivity have seen a sea change in the last decade. As we wait for 5G to take off, this industry has become a playground for inventions. Aircision, is working on making 5G more accessible using its laser-based communications technology. The technology is developed to enable high-bandwidth communication and beam data between buildings thus aiming to eliminate the need for optical fibre installations and microwave. Another area that will keep getting a lot of attention from Deep Tech firms is communication security. Speqtral is working on space-based quantum networks to deliver secure encryption keys.
Examples such as these are an indication that Deep Tech is a reality today and has the potential to disrupt several industries and impact the lives of millions.
Where is Deep Tech Headed?
Government Interest in Deep Tech
Since Deep Tech is aimed at leveraging technology and engineering for sustainability and greater good, several countries are promoting Deep Tech R&D and initiatives. From emerging to mature economies, governments are supporting their Deep Tech industry. The New Zealand Government has formed a Deep Tech Incubator program. The program is headed by the Government’s innovation agency to help Deep Tech companies and to create new tech jobs.
Singapore has created a strong Deep Tech ecosystem leveraging the funding ecosystem, the presence of global corporations, research and higher learning organisations and the Government that promotes innovation and entrepreneurship. Agencies such as SGInnovate and Enterprise Singapore are working with Deep Tech startups in advanced manufacturing, urban solutions and sustainability, and healthcare and biomedical sciences. Partnerships between universities, industry bodies and research organisations further fuel this ecosystem – the Critical Analytics for Manufacturing Personalised-Medicine (CAMP) is a partnership between Singapore-MIT Alliance for Research and Technology (SMART) and A*STAR for cell therapy manufacturing. The Government also funds and incentivises Deep Tech startups. The 2020 budget announced additional funding to support Deep Tech companies under the Start-up SG Equity scheme.
As global governments get serious about the quality of their citizens’ lives and sustainability goals, they will invest in Deep Tech research.
Challenges of the Deep Tech Industry
While Deep Tech has enormous potential, mainstream adoption is still some way off. There are some unique challenges that the industry faces today. Future uptake will depend heavily on how fast the industry can circumvent these challenges. The key challenges are:
- Securing Finances. Despite initiatives by several global governments, Deep Tech projects often find it difficult to secure funding. Very often the research duration can stretch without any real guarantee of success. Funding is likelier to go to organisations developing consumer products as the ROI are seen earlier and are easier to quantify, especially in the early stages.
- Identifying Market Opportunities. Researchers who develop Deep Tech solutions and products might not be able to identify opportunities to present their development from a marketing as well as an economic perspective. Very often these companies rely on other channels or third-party services for a proper marketing and planning strategy. This is where working with incubators or government bodies becomes crucial – countries that give that opportunity through a well-defined ecosystem, will lead the Deep Tech revolution.
- Scalable Development. Many Deep Tech innovations get stuck at the proof-of-concept stage – not because they are not innovative enough, but because they are not scalable to mass production. That requires the right infrastructure as well as a deep understanding of how the products and services can be commercialised.
There are several global companies trying to disrupt entire industries with their inventive offerings. We are witnessing some novel innovations in autonomous vehicles, foodtech, computer vision, AI, weather predictions, Clean Energy solutions – the list continues – that we will benefit from in the future.
Let us know which Deep Tech companies have impressed you in the comments below.
