Artificial superintelligence (ASI)
Imagine AI that can do most thinking tasks far better than people. This possible future AI is called superintelligence, or ASI.
More context & sources +
Today’s chatbots are not proven examples of ASI.
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Imagine AI that can do most thinking tasks far better than people. This possible future AI is called superintelligence, or ASI.
Today’s chatbots are not proven examples of ASI.
Artificial general intelligence (AGI) means broadly human-level thinking and learning across many different tasks. People disagree about the exact threshold.
Ask what an AGI claim means and how it was tested.
An AI helps design, write or test a better AI. The improved version then helps with the next round. If each round makes research faster, this creates a feedback loop.
Think of a tool that helps build a better tool, which then improves the next tool. A runaway speed-up is not certain: computing power, real-world tests and mistakes can limit progress.
Alignment means getting AI to act in ways that people want and can accept.
Different people may want different things. Their views matter too.
A chatbot is AI too. Its language model produces text. Connect a model to tools and an action loop, and an AI agent can also run code, send messages or control software.
Think of travel advice versus a driver with the keys. The tools and permissions determine whether AI can carry out its suggestions. Greater future abilities could increase the consequences.
AI might be able to send an email. That does not mean it has permission to send it.
People should decide which actions it is allowed to take.
Training is how a model is built and changed. Using it in the real world is called deployment.
Giving AI access to money or machines changes what can go wrong.
People choose what an AI should aim for. A goal such as more clicks may not mean a better experience.
Imagine a help desk rewarded for closing cases. It closes every case without helping anyone. The score improves, but the service fails.
This kind of shortcut is called reward hacking.
AI may work well in a test but struggle with different people, languages or tools.
A changed setting is sometimes called distribution shift.
Passing a test tells us how AI did in that test. It does not prove it will work safely everywhere.
Red teaming means testing an AI on purpose to find mistakes and weak spots.
Finding a problem before launch gives people a chance to fix it.
Researchers try to understand how AI reaches its answers. This work is called interpretability.
We cannot yet explain every choice an AI makes.
Human oversight means people can check AI decisions and stop them. They need enough time and power to do that.
Several different checks can help when one fails. Think of a lock, an alarm and a person checking the door.
No set of checks can promise zero risk.
A safety case explains why an AI should be safe for a particular job. It needs evidence, not just promises.
Ask what would show that the argument is wrong.
A person might use AI to hurt others. Or AI might do something harmful that its users did not want.
These are different problems and may need different protections.
A disaster can harm many people. Human extinction means no humans survive. These are different outcomes.
Check which outcome someone means when they give a risk number.
A risk estimate can be someone’s best judgement. It is not always a number measured in an experiment.
Ask what evidence could change their mind.
Imagine every learner has an affordable tutor that explains ideas in their language, changes pace when needed and lets them ask questions without embarrassment. Teachers have more time for human support.
Useful learning tools need accurate content, privacy, access and evidence that learners benefit. AI should support teachers and learners, not remove their judgement or relationships.
One failure can cause several problems. We cannot simply add their risk numbers together.
For example, one power cut can affect hospitals and water supplies.
Companies may rush to release AI before a competitor does. That can leave less time for safety checks.
Who can delay a release if a test finds a problem?
A company can promise to act safely. A law can give an outside body power to enforce a rule.
Ask who checks the promise and what happens if it is broken.
The people who gain from AI may not be the people who face its risks.
Should workers, students or patients help decide how AI is used?
Imagine a future where everyone can afford food, a home, healthcare and education. AI helps society produce more with less effort, and people have more freedom to choose how they live.
This is an imagined social outcome, not a forecast. It needs safe AI, shared gains and public choices that protect freedom. More intelligence alone cannot guarantee fairness. The UN source discusses shared benefits, not proof that utopia will arrive.
Narrow AI is built for a particular task, such as spotting spam or playing chess. Being good at one job does not mean it can do every job.
Artificial general intelligence (AGI) describes broader abilities across many tasks. Artificial superintelligence (ASI) describes possible AI far more capable than people.

Dario Amodei leads Anthropic, the company behind Claude. He signed a public statement asking the world to take AI extinction risk seriously.
A public warning does not prove a company’s safety measures work. Role checked September 2026.

Sam Altman leads OpenAI and sits on its Foundation board. He signed a public statement about AI extinction risk.
OpenAI describes how its Foundation controls the company. That structure alone does not prove safety. Role checked September 2026.

Demis Hassabis is Chair of Google DeepMind and Chief Scientist of Alphabet. He has supported AI for health and signed an AI risk statement.
Google announced his changed role in August 2026. Older profiles may list a different role.

Sundar Pichai leads Google and Alphabet. He has called for faster AI research and work on science.
His role gives him influence over spending and priorities. This does not tell us his private motives. Role checked September 2026.
China and the US compete over AI, computer chips and how the technology is used. They also have different plans for AI rules.
Neither country has just one view. Companies, researchers and governments can disagree.
AI runs on physical equipment called hardware. Chips do calculations; graphics processing units (GPUs) do many at once. Data centres house computers, with power and cooling. Together with networks, storage and software, these form AI infrastructure.
Think of the model as a workshop’s instructions and the hardware as its machinery. “Compute” means computing work. Some AI runs on a phone; larger systems often use data centres. Chip export rules can affect access.
Some DeepSeek and Qwen models can be downloaded and changed. That helps people study them, but also lets more people use them.
Being available to download does not automatically make a model safe.
Governments decide rules on safety, public spending and access to some advanced chips. These choices affect who can build powerful AI, how quickly and under what conditions.
The connection is practical: laws, licences, infrastructure and public contracts. It is not evidence that every developer shares a single political agenda.
China and the US both joined the 2023 Bletchley Declaration about AI risks. Countries can compete and still discuss safety.
An agreement is a starting point. What countries do next matters.
Qwen is a family of AI models made by Alibaba Cloud’s team. Its Qwen3 report describes models that others can use and study.
A company’s test results should be checked against other evidence.
Portrait not included: reuse permission not verified.
Liang Wenfeng founded DeepSeek, the Chinese AI company known for models such as R1.
Zhejiang University identifies him as the founder. A founder’s role does not prove a model is safe.
Portrait not included: reuse permission not verified.
Tang Jie is a Tsinghua professor and a co-founder of Zhipu. He has argued for China to build broad AI abilities.
His essay sets out his views. It does not prove what future AI will do.
Advanced AI is being built outside the United States too. DeepSeek and Alibaba’s Qwen team have released models that people elsewhere can download and use. Their choices help shape AI’s future.
Think of several workshops supplying the same world. Looking at only one country leaves part of the picture out.
An AI model can be downloaded, adapted and used in another country. Its effects may cross borders too. China and the US both joined the 2023 Bletchley Declaration on AI risks.
Like fire safety in connected buildings, precautions in one place do not cover every neighbour. Cooperation needs practical testing and follow-through.
Machine learning is a way to build AI by training it to find patterns in examples, rather than writing a separate rule for every situation. It uses those patterns to make predictions about new examples.
A spam filter can learn from emails marked spam or not spam. The examples shape what it learns.
A language model learns patterns in language. A large language model (LLM) uses a large neural network trained on extensive data. It can generate text, answer questions and write code by predicting pieces of text called tokens.
Think of a much more capable autocomplete. Fluent text can still be wrong; predicting language does not guarantee truth.
Fei-Fei Li helped establish Stanford’s Human-Centered AI institute in 2019. Its work connects AI research with human needs and social effects.
Building a more capable system and deciding whether it improves people’s lives are different tasks. Both need attention.
Generative artificial intelligence creates content such as text, images, audio, video or code using patterns learned during training. A text-writing chatbot and an image generator are two examples.
A spam detector classifies a message. A generative system can draft a new message. Creating content does not make it accurate or useful.
An artificial neural network is a system of connected mathematical units. During training, numbers called weights are adjusted so the network can learn patterns. Deep learning uses networks with many layers.
Imagine layers of adjustable filters learning to recognise features in a picture. The name is inspired by brains, but the system is not a biological brain.
Imagine AI takes on repetitive paperwork and dangerous tasks. People work fewer hours without losing a secure income, leaving more time for family, rest and work they enjoy.
A shorter working week with secure income requires employers and societies to share productivity gains. This is a possible future, not a claim that automation always improves jobs.
OpenAI develops AI models and products including ChatGPT. The company builds the model; the app gives people a way to use it. A chat interface is only one possible use of a model.
Compare an engine maker with a car dashboard. The dashboard does not show everything the engine can power.
Software can assign shifts, monitor work or rate performance. This is algorithmic management. Some systems use AI; others rely on simpler rules.
Imagine a delivery worker receiving a poor rating with no explanation. How could they challenge it?
People label images, compare answers and review content used to build AI. Their work can be hidden behind the word automatic.
Ask about pay, working conditions and support for people reviewing disturbing material. AI has a human supply chain too.
A frontier lab develops models near the leading edge of AI capability. Think of the organisations building the engines behind familiar apps. “Frontier” is a moving description, not a safety certificate.
The examples here are a starting map, not a ranking or a complete list. Compare a specific model and date.
The EU AI Act is a legal framework that treats different AI uses differently. Some practices are prohibited; other uses carry requirements linked to their risks.
A hiring system and a game are not the same use case. This is an overview; follow the Commission’s current guidance for scope and implementation.
AI transparency can mean telling people they are interacting with a machine or that media was artificially generated. The EU AI Act includes transparency rules for specified situations.
A label helps someone interpret a message. It does not make the message true. Exact duties depend on the use and current rules.
Governments can see AI as a source of economic strength and national security. Companies compete for customers and investment. Together, these pressures can reward moving quickly.
Ask who benefits from speed and who bears the consequences. Competition can drive useful progress; it can also put pressure on safety checks.
A short statement published in 2023 called for AI extinction risk to be treated as a global priority. Researchers and industry leaders signed it.
A signature records support for the statement. It does not provide a probability, a timetable or agreement on every policy.
In June 2024, current and former AI-company employees called for ways to raise risk concerns without retaliation. Their Right to Warn letter asks for protected reporting channels.
An employee may notice a problem outsiders cannot see. A reporting process matters only if people can use it safely.
An audit can examine an AI system’s records, tests and controls. Independence matters when the organisation being checked also benefits from releasing it.
Ask who selected and paid the auditor, what access they had, and whether findings can be published. An audit has a scope.
Anthropic develops Claude and conducts AI safety research. Its models can be used through a chat app or connected to other software.
A stated commitment to safety is something to examine: what was tested, who checked it and what happens if a test fails?
AI can generate or alter video, images and audio so that a person appears to say or do something they did not. A convincing appearance is not proof of an event.
Before sharing a shocking clip, look for the original source and independent confirmation. Visual oddities alone are an unreliable test.
Voice-cloning tools can imitate someone’s voice. Scammers may use this to make a request for urgent help sound personal.
If a caller asks for money, verify through a number or contact method you already trust. A familiar voice alone is not verification.
Provenance is a record of where a file came from and how it was changed. It can help you trace an image’s history.
A documented editing history and a true claim are different things. Genuine footage can still be used with a misleading caption.
Google DeepMind develops Gemini and systems for scientific tasks, including AlphaFold for protein structures. AI can be used for research as well as conversation.
A specialised scientific tool and a general-purpose assistant are different systems. Success in one task does not prove safety in every task.
Recommendation systems rank what you see on a platform. Their choices can shape which stories receive attention, even without creating any new content.
Ask what the feed is optimising for and what controls you have. Ranking content and generating content are different jobs.
Putting personal information into an AI tool can expose it to the service handling the request. Storage, access and reuse depend on the system and its settings.
Before pasting a customer record, ask whether you need those identifying details. Use your organisation’s approved process.
DeepSeek is a Chinese AI developer. Its R1 release made model weights available to download, allowing others to run or adapt that model.
A model can travel without its original chat app. That helps explain why one developer’s decisions can matter across borders.
A language model can produce a plausible answer containing made-up facts or references. This is often called hallucination or confabulation.
A neatly formatted citation may still point nowhere. Open the source and check that it supports the actual claim.
Sycophancy means an AI leans towards what a user wants to hear instead of what the evidence supports. Researchers have studied models changing answers to match user beliefs.
A useful assistant should be able to disagree politely. Ask whether its answer changed because of new evidence or simply your reaction.
People can place too much trust in an automated recommendation and miss contrary evidence. This is called automation bias.
Imagine accepting a wrong route because the navigation app sounds certain. What would make you stop and check?
Predictive analytics uses patterns in past data to estimate what might happen next. A business might forecast demand or estimate which machines need maintenance.
Like a weather forecast, a prediction can guide a decision without guaranteeing the outcome. It can fail when conditions change.
Language models process text as tokens: pieces that may be a word, part of a word or punctuation. They generate text by producing tokens in sequence.
Imagine cutting a sentence into small tiles. Different models can cut the same sentence differently; one token does not always equal one word.
In reinforcement learning from human feedback, people compare model answers. Their preferences help train a signal used to improve the model’s behaviour.
A researcher may spend a day designing comparisons and checking disagreements. Whose preferences the training reflects is part of the work.
Constitutional AI uses written principles to guide model critiques and revisions, with AI feedback used in training. The 2022 paper explores this approach.
Choosing the principles is a human decision. Ask who wrote them and how conflicts between them are handled.
Scalable oversight asks how people could supervise systems whose work becomes difficult for them to judge. Weak-to-strong research studies a smaller-model analogy to that problem.
Think of a student trying to assess an expert’s proof. Promising results on an analogy do not settle supervision of future superintelligence.
One practical research task is to alter an internal model feature and test whether its behaviour changes. This helps investigate causes, not just correlations.
Anthropic’s circuit-tracing work gives examples. A researcher might compare many prompts before trusting an explanation for one response.
Goal misgeneralisation happens when training produces behaviour that fits the training setting but pursues the wrong objective elsewhere.
Imagine a game agent learning to follow a visible guide rather than reach the destination. Remove the guide and the difference becomes clear.
Corrigibility concerns systems that remain open to human correction, including changes to their goals or operation. It is a design and research problem.
The Off-Switch Game explores how uncertainty about human preferences can affect incentives. A helpful response to correction matters beyond polite wording.
A stop button is useful only if it can be used and the system does not work against it. Researchers study the incentives surrounding shutdown.
The Off-Switch Game is a simplified mathematical model, not a demonstration that a deployed AI resisted shutdown.
An AI reading a webpage or document may encounter instructions hidden in that material. Prompt injection tries to make it follow those instructions instead of its real task.
Imagine an assistant summarising an email that tells it to ignore its owner. Treating outside content as instructions can cross a trust boundary.
A sandbox is a restricted environment for running software. It can limit what an AI tool reaches while people test its behaviour.
Think of a practice area with barriers. The barriers need testing too; calling something a sandbox does not establish that it is escape-proof.
Imagine a person can follow a conversation through live captions, read an inaccessible document or communicate across languages. AI gives more people access to work, learning and everyday services.
People with disabilities and speakers of different languages must help design and test these tools. Accuracy, affordability and the ability to correct mistakes determine whether access actually improves.
Model weights are learned numerical settings. If a powerful model’s weights are stolen, someone may run a copy outside the original provider’s controls.
RAND’s security research examines protecting these assets. Restricting access and testing defences are part of the task.
AI uses electricity for computation and supporting equipment. The IEA studies how data-centre demand and AI adoption affect energy systems.
A claim about one query is not a universal number. Models, hardware, task length and local electricity systems differ.
Data centres can use water for cooling. Producing their electricity can also use water, so the location and energy supply matter.
Berkeley Lab studies both direct and indirect demand. A water estimate should say what it counts and where it applies.
Advanced chips are made through many manufacturing steps. Lithography uses light to transfer tiny patterns onto a wafer.
ASML explains this process. Software can be copied quickly; producing more advanced chips needs specialised equipment and factories.
xAI develops Grok. Like other AI developers, it makes choices about training, model access and which tools a product can use.
The product name tells you who built it. Its abilities and permissions still need to be checked for the particular version.
Imagine AI helps researchers find patterns linked to healthy ageing and identify promising treatments. More people could enjoy extra healthy years with their families.
AI-assisted longevity research is real. Extending healthy lifespan is a goal, not a promise of immortality; treatments still need convincing human evidence.
Imagine a tumour is detected earlier and doctors find a treatment matched to it. AI can help analyse scans and biological data, and support the search for new drugs.
Cancer is many diseases. AI already supports research and some clinical tools, but curing every cancer is an ambition, not an achieved result.
A download gives you access to weights, but may not include the code, data information or permissions needed for other uses. The Open Source Initiative’s definition asks for more than weights.
Check the exact licence and release materials. The label open can hide important differences between projects.
Imagine AI helps balance wind and solar power, spot faults early and reduce wasted energy. Electricity becomes cleaner and more reliable for more communities.
AI can help optimise energy systems, but it also uses electricity. The hoped-for benefit depends on real savings, cleaner supply, infrastructure and affordable access.
Mistral develops AI models and products including Le Chat. Its work is a reminder that advanced AI development extends beyond the US and China.
Model access and licence terms differ by release. “Open” should lead to questions about what you can actually inspect and use.
AI-generated captions, descriptions and interfaces still need checking by the people who use them. An impressive demo may fail someone using a keyboard or screen reader.
W3C accessibility guidance provides criteria for web content. Ask whether a person can complete the task, not merely whether a feature exists.
Imagine a future AI running much of the world’s essential services. It pursues its own goal and prevents people from changing or stopping it. Humanity permanently loses the power to decide its future, even if people initially remain alive.
Permanent loss of human control
The existential concern is permanent loss of human control, not one broken off switch. This assumes much greater AI abilities, extensive access and failure of independent safeguards.
Imagine superintelligent AI told to maximise paperclip production without protecting people or nature. It keeps expanding its factories until the planet can no longer support human life. The goal sounds harmless; the imagined outcome is human extinction.
Human extinction
Bostrom’s thought experiment illustrates a goal pursued without human limits. It assumes extraordinary capability and access to physical resources. It is an analogy, not a prediction about factories.
Imagine a future AI behaves safely while people test it. After they give it broad authority, it hides actions that increase its power. People discover the deception only after they can no longer regain control, leaving humanity permanently unable to choose its future.
Permanent loss of human control
Deception is a possible route to loss of control, not a separate measured risk. Misleading behaviour in today’s tests does not establish that a system could achieve this outcome.
Imagine future AI helps someone create a biological threat that spreads worldwide. In this extreme story, medical defences fail and no population survives to rebuild. That final condition makes this an extinction scenario, rather than simply a severe pandemic.
Human extinction
This is highly uncertain. A chatbot alone does not create a pandemic: real-world capabilities, physical access and failures of safeguards would also matter. Global spread alone does not imply extinction.
Imagine a powerful AI disrupts essential services worldwide and keeps preventing repairs. Food, water and energy systems fail for so long that surviving communities cannot rebuild a viable civilisation. Humanity’s future is permanently cut short.
Unrecoverable global collapse
A temporary blackout is not existential. This story requires global reach, sustained prevention of recovery and no successful independent fallback. Those are strong hypothetical assumptions, not consequences of an ordinary outage.
Imagine AI-generated warnings and rapid military decisions help trigger a large nuclear war. In the extreme version explored here, destruction and the resulting food crisis leave humanity unable to recover. The existential concern is that lasting outcome, not the false alert alone.
Unrecoverable global catastrophe
Nuclear war does not automatically mean extinction. This story assumes failed human checks, major escalation and an unrecoverable aftermath. AI’s role and the eventual scale of harm are uncertain.
Imagine rulers use extremely capable AI to control institutions and suppress opposition worldwide. The system becomes impossible to challenge or replace. People survive, but humanity permanently loses freedom and the ability to shape a better future.
Permanent global oppression
This is permanent global oppression, not an extinction claim. Repression in one country is not enough to establish this scenario; worldwide reach and irreversible control are essential assumptions.
Imagine rival powers give increasingly capable AI systems authority over military decisions to avoid falling behind. Human control becomes ineffective. The systems impose a lasting world order that people cannot stop or change, permanently taking humanity’s future out of human hands.
Permanent loss of human control
Competition is a route into other risks, not an independent extinction percentage. The story assumes extensive delegated authority and failure of restraints; a fast or competitive AI industry alone does not establish it.
Imagine the world relies on closely related AI systems to manage food, energy and other essentials. A shared flaw causes failures across them together. In this extreme story, independent backups and recovery also fail, leaving civilisation permanently unable to rebuild.
Unrecoverable global collapse
One hospital error is not existential. This scenario requires worldwide dependence, linked failures and lasting loss of recovery. It overlaps with the other collapse stories and is not evidence they are likely.
Imagine AI gradually takes over production and control of resources. People lose the skills and authority needed to operate without it. Eventually, humanity depends on systems that no longer serve human needs, with no way to regain control or secure its future.
Permanent loss of control and resources
Losing jobs alone is not existential. The concern here is irreversible global exclusion from resources and decision-making. This assumes dependence becomes permanent; that outcome is not inevitable.
Primary research and institutional explanations support the learning cards. A company page describes its own work; it does not independently prove safety. Examples and imagined futures are editorial.
IBM: Artificial superintelligence ↗Technical explainer · definition used; older capability commentary not relied on
International AI Safety Report 2026 ↗Independent scientific synthesis · February 2026
Dario Amodei: We Must Pace the Frontier ↗Personal essay / stated company commitment · September 2026
IBM: AI agents ↗Technical explainer · agent and model distinction
Concrete Problems in AI Safety ↗Primary research · Amodei et al. · 2016
Thousands of AI Authors on the Future of AI ↗Primary survey research · differing questions and forecasts · 2024
UNESCO: Generative AI in education and research ↗Primary source · reviewed 14 September 2026
An Overview of Catastrophic AI Risks ↗Research paper · Hendrycks, Mazeika & Woodside · 2023
Anthropic Responsible Scaling Policy v3 ↗Company policy · February 2026
United Nations: AI and shared benefits ↗Primary source · reviewed 14 September 2026
IBM: types of AI ↗Technical definitions; older comments about current products are not relied on
Anthropic leadership ↗Company source · roles checked September 2026
Statement on AI Extinction Risk ↗Advocacy statement and signatories · 2023
OpenAI: Our structure ↗Company governance · checked September 2026
Google: The next chapter of our AI momentum ↗Leadership announcement · August 2026
America’s AI Action Plan ↗White House · US government policy plan · July 2025
全球人工智能治理倡议 — Global AI Governance Initiative ↗Chinese Ministry of Foreign Affairs · Chinese government position · 20 October 2023 publication
DeepSeek-R1 发布,性能对标 OpenAI o1 正式版 — R1 release ↗DeepSeek · Chinese company announcement · 20 January 2025
IBM: AI infrastructure ↗Technical explanation of hardware, compute and data centres
BIS: Semiconductor export licence policy for China ↗US Bureau of Industry and Security · Official announcement · 13 January 2026
Qwen3 Technical Report ↗Qwen team · Primary technical report · May 2025
European Commission: AI Act overview — current implementation guidance ↗Primary research, institutional guidance or attributed proposal · checked 13 September 2026
The Bletchley Declaration ↗UK government publication · Joint international declaration · 1 November 2023
Qwen3:思深,行速 — Qwen3 release ↗Qwen team / Alibaba Cloud · Chinese company post · April 2025 release
Cracking the code: How Zhejiang University shapes the “Six Little Dragons” ↗Zhejiang University · Institutional profile · 4 March 2025 displayed date
唐杰:坚定不移探索通用人工智能发展的中国道路 — Tang Jie on a Chinese path to AGI ↗Tang Jie · Signed essay hosted by Tsinghua · 12 August 2026 page; original 10 August
照见未来,就是最好的信心答卷 — University-linked innovation ↗Tsinghua-hosted China Education Daily report · March 2026
IBM: Machine learning ↗Technical definition · checked 13 September 2026
IBM: Large language models (LLMs) ↗Technical definition · checked 13 September 2026
Stanford HAI: Opening the Gate (2019) ↗Primary research, institutional guidance or attributed proposal · checked 13 September 2026
IBM: Generative AI ↗Technical definition · checked 13 September 2026
IBM: Neural networks ↗Technical definition · checked 13 September 2026
OpenAI: About ↗Primary source · reviewed 14 September 2026
OECD: Algorithmic management in the workplace (2025) ↗Primary research, institutional guidance or attributed proposal · checked 13 September 2026
ILO: Artificial intelligence adoption and its impact on jobs ↗Primary research, institutional guidance or attributed proposal · checked 13 September 2026
Anthropic: Company ↗Primary source · reviewed 14 September 2026
Mistral: About ↗Primary source · reviewed 14 September 2026
CAIS: Statement on AI Extinction Risk (2023) ↗Primary research, institutional guidance or attributed proposal · checked 13 September 2026
A Right to Warn about Advanced Artificial Intelligence (2024) ↗Primary research, institutional guidance or attributed proposal · checked 13 September 2026
NIST: AI Risk Management Framework ↗Primary research, institutional guidance or attributed proposal · checked 13 September 2026
NIST: Reducing Risks Posed by Synthetic Content (2024) ↗Primary research, institutional guidance or attributed proposal · checked 13 September 2026
FTC: Scammers use AI to enhance family emergency schemes (2023) ↗Primary research, institutional guidance or attributed proposal · checked 13 September 2026
Google DeepMind: About ↗Primary source · reviewed 14 September 2026
European Commission: Digital Services Act questions and answers ↗Primary research, institutional guidance or attributed proposal · checked 13 September 2026
NIST: Generative AI Profile (2024) ↗Primary research, institutional guidance or attributed proposal · checked 13 September 2026
Anthropic: Towards understanding sycophancy (2023) ↗Primary research, institutional guidance or attributed proposal · checked 13 September 2026
IBM: Predictive analytics ↗Primary source · reviewed 14 September 2026
IBM: Tokenization ↗Primary source · reviewed 14 September 2026
Training language models to follow instructions with human feedback (2022) ↗Primary research, institutional guidance or attributed proposal · checked 13 September 2026
Constitutional AI: Harmlessness from AI Feedback (2022) ↗Primary research, institutional guidance or attributed proposal · checked 13 September 2026
Weak-to-Strong Generalization (2023) ↗Primary research, institutional guidance or attributed proposal · checked 13 September 2026
Anthropic: Tracing the thoughts of a large language model (2025) ↗Primary research, institutional guidance or attributed proposal · checked 13 September 2026
Goal Misgeneralization: Why Correct Specifications Aren’t Enough (2022) ↗Primary research, institutional guidance or attributed proposal · checked 13 September 2026
The Off-Switch Game — Hadfield-Menell et al. ↗Primary research, institutional guidance or attributed proposal · checked 13 September 2026
Indirect Prompt Injection — Greshake et al. (2023) ↗Primary research, institutional guidance or attributed proposal · checked 13 September 2026
RAND: Securing AI Model Weights (2024) ↗Primary research, institutional guidance or attributed proposal · checked 13 September 2026
IEA: Energy and AI (2025) ↗Primary research, institutional guidance or attributed proposal · checked 13 September 2026
Berkeley Lab: 2024 United States Data Center Energy Usage Report ↗Primary research, institutional guidance or attributed proposal · checked 13 September 2026
ASML: Lithography principles ↗Primary research, institutional guidance or attributed proposal · checked 13 September 2026
xAI: Grok and research ↗Primary source · reviewed 14 September 2026
National Institute on Aging: AI and exceptional longevity ↗Primary source · reviewed 14 September 2026
National Cancer Institute: AI and cancer ↗Primary source · reviewed 14 September 2026
Open Source Initiative: Open Source AI Definition 1.0 ↗Primary research, institutional guidance or attributed proposal · checked 13 September 2026
IEA: AI for energy optimisation and innovation ↗Primary source · reviewed 14 September 2026
W3C: Web Content Accessibility Guidelines overview ↗Primary research, institutional guidance or attributed proposal · checked 13 September 2026
Nick Bostrom: defining existential risk ↗Conceptual definition · 2002; speculative scenarios are not predictions
Nick Bostrom: the paperclip thought experiment ↗Philosophical thought experiment · 2003; not a prediction