Foresight News

Explore the latest in foresight and future studies with our dedicated Foresight News section. Stay informed on emerging trends, innovative research, and forward-thinking strategies shaping the future.

EU ARTIFICIAL INTELLIGENCE ACT

The European Union’s draft Artificial Intelligence (AI) Act, reached a political agreement in December 2023, represents a significant milestone in global AI regulation and had been finalized in March 2024. Introduced by the European Commission in April 2021, it is the first binding worldwide horizontal regulation on AI, setting a common framework for the use and supply of AI systems within the EU. The Act introduces a risk-based approach to AI regulation, categorizing AI systems into different levels of risk and tailoring requirements and obligations accordingly.

Key provisions of the AI Act include:

  • Prohibition of Certain AI Practices: Some AI practices are deemed unacceptable due to their significant risks to safety, livelihoods, and rights. These include manipulative subliminal techniques, systems exploiting vulnerabilities of specific groups, social scoring by public authorities, and real-time remote biometric identification in publicly accessible spaces for law enforcement, except under specific conditions.
  • High-Risk AI Systems: AI systems that could have a detrimental impact on people’s health, safety, or fundamental rights are subject to stringent requirements before they can enter the EU market. This includes systems used in critical areas like law enforcement, education, and employment, among others.
  • Transparency for Limited-Risk AI Systems: AI systems that pose limited risks, such as chatbots, must meet transparency obligations to inform users of their interactions with an AI system.
  • Minimal Regulations for Low-Risk AI: AI systems posing minimal or low risk are not subject to additional obligations beyond existing legislation like the GDPR.

The AI Act outlines specific rules for general-purpose AI (GPAI) models, introducing more stringent requirements for models with “high-impact capabilities” that could pose systemic risks. It establishes a governance structure, including a European Artificial Intelligence Board and national supervisory authorities, to enforce the Act. Violations can lead to substantial fines, up to €30 million or 6% of the total worldwide annual turnover, depending on the severity of the infringement.

The legislative process has seen broad consultation and amendment, including input from the European Economic and Social Committee, national parliaments, and various stakeholders. Despite the challenges of defining AI systems, addressing their risk levels, and ensuring effective enforcement, the Act aims to balance innovation with consumer protection, fundamental rights, and safety.

As the AI Act approaches its final stages of approval, it underscores the EU’s commitment to a human-centric approach to AI, promoting the technology’s benefits while addressing the risks associated with its use. This legislative framework could serve as a model for AI regulation worldwide, reflecting the EU’s leading role in digital governance.

AI’s Quantum Leap: Navigating the Dawn of Superintelligence

 

Elon Musk predicts that “digital superintelligence” will emerge within the next five or six years. During a conversation in November 2023 with Rep. Mike Gallagher (R-Wis.) and Rep. Ro Khanna (D-Calif.), Musk explained that digital superintelligence surpasses human intelligence in any domain, although it need not be smarter than the collective human intellect. In other words, it sets a higher bar by excelling at specific tasks beyond what humans can achieve collectively.

Ray Kurzweil, a futurist and Director of Engineering at Google, has been known for his predictions about AI. He has often spoken about the technological singularity, a point where AI surpasses human intelligence, which he initially predicted would occur around 2045.

Masayoshi Son, the CEO of SoftBank, believes that artificial intelligence will surpass human intelligence within the next 10 years. He made this prediction at the SoftBank World conference in Tokyo in October 2023. Son said he believes artificial general intelligence will grow 10 times smarter than the “total intelligence of humankind,” according to the Associated Press. He also said “artificial super intelligence” could be identified in the next 20 years and could surpass human smarts by a factor of 10,000, per CNN

“It is wrong to say that AI cannot be smarter than humans as it is created by humans,” he said, per CNN. “AI is now self-learning, self-training, and self-inferencing, just like human beings.”

OpenAI, co-led by Ilya Sutskever and Jan Leike, has initiated a project called Superalignment. Their goal is to build a human-level automated alignment researcher within the next four years. They believe that superintelligence could arrive this decade. The challenge lies in ensuring that AI systems much smarter than humans follow human intent, which requires new scientific breakthroughs and scalable alignment techniques.

Understand Strategic Corporate Foresight

Strategic corporate foresight refers to the strategic capability of organizations to foresee and interpret emerging trends, disruptions, and potential futures to gain a competitive advantage. It is an essential process for businesses aiming to navigate the complexities of the modern economic landscape effectively. This capability allows companies to anticipate changes, adapt their strategies accordingly, and make informed decisions that ensure long-term sustainability and success. By engaging in corporate foresight, firms can identify opportunities for innovation and growth, while simultaneously mitigating risks associated with unforeseen challenges.

The practice of corporate foresight is influenced by a multitude of factors, each playing a crucial role in shaping the strategic direction of an organization. These factors can be broadly categorized into external and internal influences, necessitating a comprehensive analysis to guide scenario planning and strategic decision-making.

External Analysis:

  1. Geo-political Developments: Changes in political environments, international relations, and regulatory frameworks can significantly impact market dynamics, access to resources, and operational conditions. Companies must stay abreast of these developments to navigate the complexities of international trade and investment.
  2. Technological Advancements: The rapid pace of technological innovation can disrupt existing business models and create new opportunities for value creation. Firms need to monitor advancements in areas such as artificial intelligence, blockchain, and renewable energy technologies to remain competitive.
  3. Societal Changes: Shifts in societal values, demographics, and consumer behaviors influence market demand and expectations. Understanding these changes is crucial for companies aiming to align their products, services, and corporate practices with emerging societal norms.
  4. Environmental Considerations: Increasing awareness of environmental issues and sustainability challenges necessitates a strategic response from businesses. Companies must consider the environmental impact of their operations and adapt to the growing demand for sustainable and responsible business practices.

Internal Analysis:

Conducting an internal analysis involves examining the organization’s strengths, weaknesses, opportunities, and threats. This evaluation helps companies understand their internal capabilities, resource availability, and potential areas for improvement. It is a critical step in aligning corporate foresight activities with the company’s strategic objectives and ensuring that the organization is well-prepared to adapt to future challenges.

Major Current Factors Impacting Corporate Foresight:

In our current business environment, several key factors stand out for their significant impact on corporate foresight:

  • Current Geopolitical Tensions: The escalation of geopolitical tensions across various regions presents significant challenges and uncertainties for businesses operating on a global scale. Trade disputes, sanctions, and regional conflicts can lead to instability in markets, disrupt global supply chains, and affect international relations. Such tensions necessitate a vigilant approach to corporate foresight, where organizations must continuously monitor international developments and assess their potential impacts on business operations. Adapting to geopolitical shifts enables companies to mitigate risks associated with regulatory changes, market access restrictions, and fluctuations in commodity prices. 
  • Impact of Increasingly Fast-Changing Environments on Global Societies: The acceleration of environmental changes profoundly affects global societies, influencing consumer behavior, regulatory landscapes, and market dynamics. Climate change, for instance, not only poses environmental risks but also triggers socio-economic shifts, compelling businesses to re-evaluate their operations, product offerings, and supply chains. The growing awareness and concern over environmental sustainability are shaping consumer preferences, leading to increased demand for eco-friendly and sustainable products. Furthermore, the fast pace of social and technological changes challenges organizations to remain agile and adaptable. Companies must embrace innovation and cultivate a culture of continuous learning to thrive in this dynamic environment.
  • Digital Transformation and Artificial Intelligence: Digital transformation transcends the mere adoption of digital technologies; it represents a fundamental shift in how companies operate, innovate, and deliver value to customers. Central to this transformation is the emergence of Artificial Intelligence (AI), which is set to revolutionize business management and operations. AI’s capabilities in data analysis, predictive analytics, and automation present unprecedented opportunities for enhancing decision-making, optimizing processes, and personalizing customer experiences. Moreover, AI-driven insights can inform scenario planning and strategic foresight by providing a deeper understanding of potential future trends and customer behaviors. To capitalize on these opportunities, companies must embrace a digital-first culture, invest in AI and other emerging technologies, and develop strategies that leverage these tools to drive innovation and competitive advantage. The integration of AI into business processes necessitates a continuous learning approach, ensuring that organizations can quickly adapt to and integrate new technological advancements.
  • Globalization/De-globalization and Market Volatility: The interplay of globalization and de-globalization forces, coupled with market volatility, presents a complex challenge for corporate foresight. On one hand, globalization has facilitated access to new markets, diversified supply chains, and enabled the efficient allocation of global resources. On the other, rising protectionism, geopolitical tensions, and the COVID-19 pandemic have spurred movements towards de-globalization, highlighting the vulnerabilities of extended global supply chains and the importance of local resilience. Firms must navigate this dichotomy by developing flexible and adaptable business models that can withstand market fluctuations and shifts towards more localized economies. Understanding the implications of these global trends requires a nuanced approach to scenario planning, one that accounts for both the potential for further integration and the risks of fragmentation. Companies must enhance their agility and responsiveness, enabling them to pivot quickly in response to changes in trade policies, economic sanctions, or sudden disruptions in supply chains.
  • Sustainability and Corporate Responsibility: Sustainability and corporate social responsibility (CSR) are increasingly becoming strategic imperatives, reflecting a shift in societal values towards more ethical, transparent, and sustainable business practices. This evolution is driven by a growing recognition of the social and environmental impacts of corporate activities, alongside escalating demands from consumers, investors, and regulators for greater accountability. Incorporating sustainability and CSR into corporate foresight involves rethinking business models, products, and processes through the lens of environmental stewardship, social equity, and economic viability. Companies must integrate sustainability principles into their core strategies, ensuring that their operations contribute positively to societal and environmental outcomes. This commitment to sustainability can also open new avenues for innovation, as businesses explore green technologies, sustainable supply chains, and circular economy practices. Meeting these stakeholder expectations not only mitigates risks but also enhances brand reputation, customer loyalty, and long-term competitiveness.

The intersection of these factors with the broader spectrum of influences on corporate foresight underscores the complexity of forecasting future trends and preparing strategic responses. To navigate these turbulent waters, companies must:

  1. Engage in comprehensive scenario planning that incorporates a wide range of potential futures, considering the intricate interplay of geopolitical, societal, and technological factors.
  2. Foster a culture of agility and resilience, enabling quick adaptation to unexpected changes and challenges.
  3. Invest in continuous monitoring and analysis of global trends to anticipate shifts in the geopolitical landscape and societal expectations.
  4. Embrace sustainability and corporate social responsibility as core components of their strategic foresight efforts, aligning business practices with the evolving values of global societies.
A team of researchers in China has successfully created and raised mice with two biological fathers, marking a significant breakthrough in genetic engineering. Led by Zhi-Kun Li at the Chinese Academy of Sciences, the team employed CRISPR gene-editing technology to circumvent the natural barriers of imprinting, a process that typically requires genetic contributions from both male and female parents. By targeting 20 key imprinted genes, the scientists manipulated sperm-derived stem cells and combined them to create embryos containing DNA from two male mice. These embryos were then implanted into surrogate mothers, resulting in live births for the first time using this method. While only a small fraction of the embryos survived, those that did reached adulthood, albeit with notable abnormalities, including oversized organs, shortened lifespans, and infertility. The implications of this research extend beyond mice, raising profound questions about the future of reproductive biology. While human applications remain far from reality due to ethical and technical constraints, this study contributes to a growing body of work exploring alternative pathways for mammalian reproduction. Scientists are now investigating whether similar techniques could be used to create primates with two biological fathers, and in the long term, whether they could one day allow...
On January 8, Nvidia CEO Jensen Huang made waves by predicting that practical quantum computing remains 15 to 30 years away, while also suggesting that Nvidia GPUs will be essential for implementing error correction. Yet, history is filled with brilliant minds misjudging the pace of technological progress. Huang’s claims not only underestimate the speed at which quantum computing is advancing but also overstate the role Nvidia’s hardware will play in that future. Quantum computing is rapidly converging on utility. Google’s Willow device has already demonstrated that errors can be reduced exponentially as the number of qubits increases. It completed a benchmark test in under five minutes that would take a classical supercomputer an inconceivable 10 septillion years. While Willow remains too small for commercial applications, it has proven that quantum supremacy and fault tolerance are within reach. Meanwhile, companies like PsiQuantum are building large-scale quantum systems capable of solving real-world problems, set to enter commercial service before the end of this decade—without relying on Nvidia hardware. Instead, these machines use custom-built photonic architectures, operating at speeds far beyond what is achievable with GPUs. At the same time, quantum algorithms are improving at a rate that outpaces hardware advancements. A collaboration...
In the ever-evolving world of artificial intelligence, size matters—but not always in the way you think. When OpenAI unveiled GPT-3 in 2020, it was the largest language model ever built, and its unprecedented scale propelled AI performance to new heights. This breakthrough marked the beginning of an era where “bigger is better” became the mantra for AI development. As OpenAI researcher Noam Brown remarked at TEDAI San Francisco in October, “The incredible progress in AI over the past five years can be summarized in one word: scale.” However, the landscape is shifting. As the performance gains from scaling up massive models begin to plateau, researchers are pivoting to a new frontier: doing more with less. Smaller, purpose-built models are proving to be just as effective as their larger counterparts for certain tasks, especially when trained on highly specific datasets. This shift is a game-changer for businesses looking to leverage AI in targeted ways. For instance, you don’t need a model trained on the entirety of the internet if your needs center around repetitive, domain-specific queries. Tech giants have taken note. OpenAI, for example, now offers “fun-size” versions of its flagship models, such as GPT-4o and GPT-4o mini. Google DeepMind has...
As the world races toward 6G and an ever-expanding demand for instant data access, the challenge of achieving sustainable connectivity becomes paramount. The digital era, while transformative, demands energy-intensive infrastructure that could strain global sustainability efforts. Addressing this dual challenge of connectivity and environmental responsibility, cutting-edge technologies such as reconfigurable intelligent surfaces (RIS), high-altitude platform station (HAPS) systems, and integrated sensing and communication (ISAC) offer pathways to a greener, more inclusive digital future. Reconfigurable intelligent surfaces represent a paradigm shift in wireless communication. By leveraging advanced meta-materials, smart algorithms, and sophisticated signal processing, RIS can dynamically alter electromagnetic waves, turning ordinary walls and surfaces into intelligent components of wireless networks. This technology optimises connectivity by enhancing capacity and coverage while reducing energy consumption. From more reliable communication in smart factories to seamless network coverage in agricultural settings, RIS technology holds the potential to revolutionise telecom infrastructure while reducing its environmental impact. High-altitude platform station systems are another transformative innovation, combining solar power, lightweight materials, and advanced avionics to deliver connectivity from around 20 km above the Earth. These balloon, airship, or fixed-wing aircraft systems outperform terrestrial towers and satellites in coverage, particularly in remote areas. By extending internet access to...
NASA’s Parker Solar Probe soared closer to the Sun than any human-made object before, carrying out its pre-programmed tasks on Christmas Eve without communication from Earth. Researchers sent this pioneering spacecraft through the Sun’s atmosphere to investigate the mechanisms that drive solar weather, hoping to understand better how the resulting solar wind and radiation might affect terrestrial conditions. During its flyby, the spacecraft faced extreme heat surpassing 1000°C, underscoring the formidable hurdles encountered when studying our star. Although journalists and enthusiasts described this feat as a landmark achievement, the autonomy displayed raises questions about the role of humans in space exploration. The growing prowess of robotics and artificial intelligence, as highlighted by prominent scientists, creates uncertainty over whether human astronauts remain indispensable. Lord Martin Rees, the UK’s Astronomer Royal, argues that taxpayers should not bear the financial burden of sending humans on risky ventures into space, while Andrew Coates, a physicist at University College London, prefers robotic missions for serious exploration. Yet proponents of human exploration note that people offer versatility and intuitive problem-solving skills. Some experts envisage a future where humans and robots operate together. Complex humanoid robots such as NASA’s Valkyrie illustrate the potential to carry out repetitive...
Agentic artificial intelligence (AI) represents a transformative leap in the capabilities of software systems, enabling them to autonomously make decisions and execute actions to achieve predefined objectives. This innovation is not merely an extension of existing AI capabilities but a paradigm shift that combines advanced AI techniques to mimic functions traditionally associated with human agency. Agentic AI systems operate by integrating core functionalities such as memory, planning, environmental sensing, and the ability to use tools. These systems adhere to predefined safety protocols and guidelines, ensuring responsible and reliable task execution. Their design allows them to operate either autonomously or semi-autonomously, enabling organizations to delegate increasingly complex tasks to AI systems. The autonomous nature of agentic AI holds immense potential for Chief Information Officers (CIOs) seeking to leverage generative AI to enhance productivity and efficiency within their organizations. Unlike traditional AI applications, which often focus on narrow, pre-programmed tasks, agentic AI is designed to adapt, learn, and respond dynamically to changing conditions, making it an ideal candidate for addressing multifaceted challenges. Use Cases of Agentic AI in Organizations The versatility of agentic AI opens the door to a wide array of applications across industries. Among its most impactful use cases are:...
Google DeepMind has introduced GenCast, an AI weather model outperforming the current leading systems in accuracy, as published in Nature. Unlike its predecessor NeuralGCM, which combined AI with physics-based methods, GenCast relies entirely on AI to predict weather patterns, producing probabilistic forecasts such as the likelihood of rainfall or temperature changes. Trained on 40 years of weather data, GenCast surpassed the accuracy of the Ensemble Forecast System (ENS) 97% of the time, particularly excelling in predicting wind conditions and extreme weather, crucial for wind power optimisation and disaster planning. While AI models like GenCast represent a significant advancement, they are limited by the historical data they train on and struggle with challenges such as predicting cyclone intensity. Experts highlight the continued need for human meteorologists to provide critical judgment and integrate diverse data sources. DeepMind aims to refine AI models further, exploring predictions based solely on real-time observational data.
Exosomes, often hyped as the next big thing in beauty and wellness, are small vesicles that bud off from cells, carrying proteins and other components whose roles are still not fully understood. Despite being marketed as miracle therapies in cosmetic clinics, their scientific potential lies in exciting research aimed at understanding their role in cellular communication, disease diagnosis, and drug delivery. Researchers are investigating how exosomes could act as diagnostic tools, offering a “forensic fingerprint” of cellular health or stress, and potentially indicating the presence of diseases like cancer. Moreover, their natural ability to shuttle molecules between cells makes them promising vehicles for delivering drugs, especially for conditions like rare neurological disorders. Scientists are also exploring their regenerative potential, with early studies showing promise in heart and lung repair following injuries. While exosome science is still in its infancy, ongoing studies and over 400 clinical trials underscore the growing optimism about their future applications, which could revolutionize medicine in the coming decades.
Imagine conversing with an AI for two hours and receiving a virtual replica that mirrors your personality, values, and preferences with uncanny accuracy. This vision, presented in a new study by Stanford and Google DeepMind researchers, explores the potential of “simulation agents.” These AI models, crafted from interviews with 1,000 diverse participants, achieved an 85% match in personality tests compared to their human counterparts. Such agents could revolutionise social science research by enabling studies too costly or impractical with live subjects, from analysing misinformation to traffic behaviours. Led by Joon Sung Park (Stanford University), the research demonstrates that qualitative interviews effectively capture the nuances of human individuality, surpassing traditional surveys. This approach, Park argues, distils complex human attributes into data digestible by AI, paving the way for realistic digital twins. Yet, the study also raises ethical concerns, akin to the dangers posed by deepfake technology, as these agents could be misused to impersonate individuals without consent. The study marks a significant shift from “tool-based agents,” which perform tasks like scheduling, towards AI capable of mimicking human interaction. This hybrid method of blending real human data with simulation highlights a path to creating more advanced AI systems. However, limitations remain, as...
Google researchers have achieved a significant milestone in quantum computing by demonstrating improved quantum error correction, a key challenge in the field. Their approach, using “logical qubits” formed from multiple “physical qubits,” shows that increasing the number of physical qubits can effectively reduce error rates, advancing the path toward reliable quantum machines. While this innovation enhances quantum memory, practical applications remain distant, as logical operations and larger circuits are yet to be perfected. Competing methods, such as IBM’s low-density parity-check codes and QuEra’s neutral atom-based systems, reflect the dynamic and experimental nature of the field. Despite progress, experts caution against overhyping developments, emphasizing that quantum computers capable of executing useful algorithms at scale are still years away.
Jennifer Doudna, a co-developer of CRISPR, emphasises the transformative potential of the gene-editing technology in combating climate change through the development of resilient crops and animals. She highlights that CRISPR’s precision allows for faster and more targeted genetic modifications compared to traditional methods, enabling the creation of plants and livestock suited to extreme climates. Examples include cattle with shorter coats for hotter temperatures and crops engineered to withstand storms, drought, or promote carbon sequestration. Regulatory adjustments in the US have facilitated the deployment of CRISPR-edited crops, particularly those mimicking natural genetic changes, which avoid bioengineered labelling requirements. The Innovation Genomics Institute, founded by Doudna, is exploring applications such as methane-reducing cattle microbiomes and drought-resistant rice, showcasing CRISPR’s capacity to address agricultural and environmental challenges. However, obstacles persist, including regulatory complexities, intellectual property disputes, and concerns over consumer acceptance of genetically edited products. Critics argue that the current rules lack transparency, although Doudna maintains that the US regulatory approach balances safety with innovation. She stresses the importance of responsible use to harness CRISPR’s potential while mitigating risks, positioning it as a critical tool to address global challenges like food security and climate adaptation.