So You’ve Decided To Carry Your Brain Around


Article by Nicholas Clairmont: “If the worry during the Enlightenment, as mathematician Isaac Milner wrote in 1794, was that ‘the great and high’ have ‘forgotten that they have souls,’ then today the worry is that many of us have forgotten that we have bodies.” So writes Christine Rosen, senior fellow at the American Enterprise Institute and senior editor of this journal, in her new book, The Extinction of Experience: Being Human in a Disembodied World.

A sharp articulation of the problem, attributed to Thomas Edison, is that “the chief function of the body is to carry the brain around.” Today, the “brain” can be cast virtually into text or voice communication with just about anyone on Earth, and information and entertainment can be delivered almost immediately to wherever a brain happens to be carried around. But we forget how recently this became possible.

Can it really be less than two decades ago that life started to be revolutionized by the smartphone, the technology that made it possible for people of Edison’s persuasion to render the body seemingly redundant? The iPhone was released in 2007. But even by 2009, according to Pew Research, only a third of American adults “had at some point used the internet on their mobile device.” It wasn’t until 2012 that half did so at least occasionally. And then there is that other technology that took off over the same time period: Facebook and Twitter and Instagram and TikTok and the rest of the social networks that allow us to e-commune and that induce us to see everything we do in light of how it might look to others online.

For such a drastic and recent change, it is one we have largely accepted as just a fact. All the public hand-wringing about it has arguably not made a dent in our actual habits. And maybe that’s because we have underestimated the problem with how it has changed us…(More)”.

Call to make tech firms report data centre energy use as AI booms


Article by Sandra Laville: “Tech companies should be required by law to report the energy and water consumption for their data centres, as the boom in AI risks causing irreparable damage to the environment, experts have said.

AI is growing at a rate unparalleled by other energy systems, bringing heightened environmental risk, a report by the National Engineering Policy Centre (NEPC) said.

The report calls for the UK government to make tech companies submit mandatory reports on their energy and water consumption and carbon emissions in order to set conditions in which data centres are designed to use fewer vital resources…(More)”.

Public Policy Evaluation


​Implementation Toolkit by the OECD: “…offers practical guidance for government officials and evaluators seeking to improve their evaluation capacities and systems, by enabling a deeper understanding of their strengths and weaknesses and learning from OECD member country experiences and trends. The toolkit supports the practical implementation of the principles contained in the 2022 OECD Recommendation on Public Policy Evaluation, which is the first international standard aimed at driving the establishment of robust institutions and practices that promote the use of public policy evaluations. Together, the Recommendation and this accompanying toolkit seek to help governments build a culture of continuous learning and evidence-informed policymaking, potentially leading to more impactful policies and greater trust in government action.​..(More)”.

The new politics of AI


Report by the IPPR: AI is fundamentally different from other technologies – it is set to unleash a vast number of highly sophisticated ‘artificial agents’ into the economy. AI systems that can take actions and make decisions are not just tools – they are actors. This can be a good thing. But it requires a novel type of policymaking and politics. Merely accelerating AI deployment and hoping it will deliver public value will likely be insufficient.

In this briefing, we outline how the summit constitutes the first event of a new era of AI policymaking that links AI policy to delivering public value. We argue that AI needs to be directed towards societies’ goals, via ‘mission-based policies’….(More)”.

Data Stewardship Decoded: Mapping Its Diverse Manifestations and Emerging Relevance at a time of AI


Paper by Stefaan Verhulst: “Data stewardship has become a critical component of modern data governance, especially with the growing use of artificial intelligence (AI). Despite its increasing importance, the concept of data stewardship remains ambiguous and varies in its application. This paper explores four distinct manifestations of data stewardship to clarify its emerging position in the data governance landscape. These manifestations include a) data stewardship as a set of competencies and skills, b) a function or role within organizations, c) an intermediary organization facilitating collaborations, and d) a set of guiding principles. 

The paper subsequently outlines the core competencies required for effective data stewardship, explains the distinction between data stewards and Chief Data Officers (CDOs), and details the intermediary role of stewards in bridging gaps between data holders and external stakeholders. It also explores key principles aligned with the FAIR framework (Findable, Accessible, Interoperable, Reusable) and introduces the emerging principle of AI readiness to ensure data meets the ethical and technical requirements of AI systems. 

The paper emphasizes the importance of data stewardship in enhancing data collaboration, fostering public value, and managing data reuse responsibly, particularly in the era of AI. It concludes by identifying challenges and opportunities for advancing data stewardship, including the need for standardized definitions, capacity building efforts, and the creation of a professional association for data stewardship…(More)”

Enhancing Access to and Sharing of Data in the Age of Artificial Intelligence



OECD Report: “Artificial intelligence (AI) is transforming economies and societies, but its full potential is hindered by poor access to quality data and models. Based on comprehensive country examples, the OECD report “Enhancing Access to and Sharing of Data in the Age of AI” highlights how governments can enhance access to and sharing of data and certain AI models, while ensuring privacy and other rights and interests such as intellectual property rights. It highlights the OECD Recommendation on Enhancing Access to and Sharing of Data, which provides principles to balance openness while ensuring effective legal, technical and organisational safeguards. This policy brief highlights the key findings of the report and their relevance for stakeholders seeking to promote trustworthy AI through better policies for data and AI models that drive trust, investment, innovation, and well-being….(More)”

Cities, health, and the big data revolution


Blog by Harvard Public Health: “Cities influence our health in unexpected ways. From sidewalks to crosswalks, the built environment affects how much we move, impacting our risk for diseases like obesity and diabetes. A recent New York City study underscores that focusing solely on infrastructure, without understanding how people use it, can lead to ineffective interventions. Researchers analyzed over two million Google Street View images, combining them with health and demographic data to reveal these dynamics. Harvard Public Health spoke with Rumi Chunara, director of New York University’s Center for Health Data Science and lead author of the study.

Why study this topic?

We’re seeing an explosion of new data sources, like street-view imagery, being used to make decisions. But there’s often a disconnect—people using these tools don’t always have the public health knowledge to interpret the data correctly. We wanted to highlight the importance of combining data science and domain expertise to ensure interventions are accurate and impactful.

What did you find?

We discovered that the relationship between built environment features and health outcomes isn’t straightforward. It’s not just about having sidewalks; it’s about how often people are using them. Improving physical activity levels in a community could have a far greater impact on health outcomes than simply adding more infrastructure.

It also revealed the importance of understanding the local context. For instance, Google Street View data sometimes misclassifies sidewalks, particularly near highways or bridges, leading to inaccurate conclusions. Relying solely on this data, without accounting for these nuances, could result in less effective interventions…(More)”.

Tech tycoons have got the economics of AI wrong


The Economist: “…The Jevons paradox—the idea that efficiency leads to more use of a resource, not less—has in recent days provided comfort to Silicon Valley titans worried about the impact of DeepSeek, the maker of a cheap and efficient Chinese chatbot, which threatens the more powerful but energy-guzzling American varieties. Satya Nadella, the boss of Microsoft, posted on X, a social-media platform, that “Jevons paradox strikes again! As AI gets more efficient and accessible, we will see its use skyrocket, turning it into a commodity we just can’t get enough of,” along with a link to the Wikipedia page for the economic principle. Under this logic, DeepSeek’s progress will mean more demand for data centres, Nvidia chips and even the nuclear reactors that the hyperscalers were, prior to the unveiling of DeepSeek, paying to restart. Nothing to worry about if the price falls, Microsoft can make it up on volume.

The logic, however self-serving, has a ring of truth to it. Jevons’s paradox is real and observable in a range of other markets. Consider the example of lighting. William Nordhaus, a Nobel-prizewinning economist, has calculated that a Babylonian oil lamp, powered by sesame oil, produced about 0.06 lumens of light per watt of energy. That compares with up to 110 lumens for a modern light-emitting diode. The world has not responded to this dramatic improvement in energy efficiency by enjoying the same amount of light as a Babylonian at lower cost. Instead, it has banished darkness completely, whether through more bedroom lamps than could have been imagined in ancient Mesopotamia or the Las Vegas sphere, which provides passersby with the chance to see a 112-metre-tall incandescent emoji. Urban light is now so cheap and so abundant that many consider it to be a pollutant.

Likewise, more efficient chatbots could mean that AI finds new uses (some no doubt similarly obnoxious). The ability of DeepSeek’s model to perform about as well as more compute-hungry American AI shows that data centres are more productive than previously thought, rather than less. Expect, the logic goes, more investment in data centres and so on than you did before.

Although this idea should provide tech tycoons with some solace, they still ought to worry. The Jevons paradox is a form of a broader phenomenon known as “rebound effects”. These are typically not large enough to fully offset savings from improved efficiency….Basing the bull case for AI on the Jevons paradox is, therefore, a bet not on the efficiency of the technology but on the level of demand. If adoption is being held back by price then efficiency gains will indeed lead to greater use. If technological progress raises expectations rather than reduces costs, as is typical in health care, then chatbots will make up an ever larger proportion of spending. At the moment, that looks unlikely. America’s Census Bureau finds that only 5% of American firms currently use AI and 7% have plans to adopt it in the future. Many others find the tech difficult to use or irrelevant to their line of business…(More)”.

Unlocking AI’s potential for the public sector


Article by Ruth Kelly: “…Government needs to work on its digital foundations. The extent of legacy IT systems across government is huge. Many were designed and built for a previous business era, and still rely on paper-based processes. Historic neglect and a lack of asset maintenance has added to the difficulty. Because many systems are not compatible, sharing data across systems requires manual extraction which is risky and costly. All this adds to problems with data quality. Government suffers from data which is incomplete, inconsistent, inaccessible, difficult to process and not easily shareable. A lack of common data models, both between and within government departments, makes it difficult and costly to combine different sources of data, and significant manual effort is required to make data usable. Some departments have told us that they spend 60% to 80% of their time on cleaning data when carrying out analysis.

Why is this an issue for AI? Large volumes of good-quality data are important for training, testing and deploying AI models. Poor data leads to poor outcomes, especially where it involves personal data. Access to good-quality data was identified as a barrier to implementing AI by 62% of the 87 government bodies responding to our survey. Simple productivity improvements that provide integration with routine administration (for example summarising documents) is already possible, but integration with big, established legacy IT is a whole other long-term endeavour. Layering new technology on top of existing systems, and reusing poor-quality and aging data, carries the risk of magnifying problems and further embedding reliance on legacy systems…(More)”

Randomize NIH grant giving


Article by Vinay Prasad: “A pause in NIH study sections has been met with fear and anxiety from researchers. At many universities, including mine, professors live on soft money. No grants? If you are assistant professor, you can be asked to pack your desk. If you are a full professor, the university slowly cuts your pay until you see yourself out. Everyone talks about you afterwards, calling you a failed researcher. They laugh, a little too long, and then blink back tears as they wonder if they are next. Of course, your salary doubles in the new job and you are happier, but you are still bitter and gossiped about.

In order to apply for NIH grants, you have to write a lot of bullshit. You write specific aims and methods, collect bios from faculty and more. There is a section where you talk about how great your department and team is— this is the pinnacle of the proverbial expression, ‘to polish a turd.’ You invite people to work on your grant if they have a lot of papers or grants or both, and they agree to be on your grant even though they don’t want to talk to you ever again.

You submit your grant and they hire someone to handle your section. They find three people to review it. Ideally, they pick people who have no idea what you are doing or why it is important, and are not as successful as you, so they can hate read your proposal. If, despite that, they give you a good score, you might be discussed at study section.

The study section assembles scientists to discuss your grant. As kids who were picked last in kindergarten basketball, they focus on the minutiae. They love to nitpick small things. If someone on study section doesn’t like you, they can tank you. In contrast, if someone loves you, they can’t really single handedly fund you.

You might wonder if study section leaders are the best scientists. Rest assured. They aren’t. They are typically mid career, mediocre scientists. (This is not just a joke, data support this claim see www.drvinayprasad.com). They rarely have written extremely influential papers.

Finally, your proposal gets a percentile score. Here is the chance of funding by percentile. You might get a chance to revise your grant if you just fall short….Given that the current system is onerous and likely flawed, you would imagine that NIH leadership has repeatedly tested whether the current method is superior than say a modified lottery, aka having an initial screen and then randomly giving out the money.

Of course not. Self important people giving out someone else’s money rarely study their own processes. If study sections are no better than lottery, that would mean a lot of NIH study section officers would no longer need to work hard from home half the day, freeing up money for one more grant.

Let’s say we take $200 million and randomize it. Half of it is allocated to being given out in the traditional method, and the other half is allocated to a modified lottery. If an application is from a US University and passes a minimum screen, it is enrolled in the lottery.

Then we follow these two arms into the future. We measure publications, citations, h index, the average impact factor of journals in which the papers are published, and more. We even take a subset of the projects and blind reviewers to score the output. Can they tell which came from study section?…(More)”.