So when you spoke about electrification, Ajay...
-Yes. -...so, I've been an investor, I've been in the stock markets all my life, broking, asset management, things like that.
I spent a big part of the last two years investing in green energy,
energy transition, storage, everything which is a part of that overall grid,
including electric vehicles. Now, the country we sit in,
when the narrative seems to have become anti-green, in a way, I mean, I don't know how far whoever is saying it means it,
but they are saying it a lot, where do you think the opportunity lies in here from a capitalistic lens?
Yeah. Look, I think that you shouldn't think of it as green or-- Because green makes it sound like the other stuff is bad.
The value judgements are what you gotta stay away from. And you come to the underlying opportunity here.
Look at today, with a crisis in the Middle East in the Strait of Hormuz. Let's assume for a minute that this is fixable in a relatively short time,
whatever your timeframes are, as compared to a relatively longer time.
If it's a relatively longer time, and there is infrastructural damage at high levels,
then there's a whole other problem to think about. But if it's a relatively shorter time,
then the issue is of volatility and instability for a while, which eventually allows you to go back somewhere.
The question is what lesson did we learn from this? And the lesson to me is twofold.
One is, fossil fuels aren't going away in a hurry because the mix of energy you need and the quantum of energy you need,
in fact, with AI, even more so, you're not going to get that easily only with renewables because of various aspects to do with the cycle
as well as the storage capacity and the like. You do need a base load power from either fossil fuels or nuclear or hydroelectric,
which is also a problem in many countries these days, or geothermal. That's your sources.
The question is, shouldn't you diversify your sources of those various elements
you're coming from? Why would you be 70% reliant on three countries in one place where, to get things out of the water,
you need to go through a 25-kilometre wide stretch? That's one issue. The second is, would you not also be thinking about diversifying
the types of energy you possess? And the more you can do without importing, the more energy secure you are.
And, therefore, is energy security a part of your national security framework? This is another lesson that most people will come to
at the end of this conversation. Where would I allocate money to make the most alpha in the energy grid?
So then a private sector guy will play into that thinking. That's the point. Where would it be? If I were to ask you for... So I think there are three aspects in energy, right?
There's generation, there's transmission, and then there's the actual distribution. And the problem in figuring this game out is the following.
The actual distribution, if it's not privatised, and if it's controlled by government,
and pricing is controlled, and utilities are controlled, you end up with unpredictable revenue streams
for both transmission and generation. India has actually really tried to solve for that by privatising distribution in a lot of places.
And I think that was, in retrospect, a big game-changer in the electrification market.
And that has made a lot of sense. If that works well, then generation is where you'll get a lot of opportunity.
Generation, transmission, storage. That space. And that's where a lot of the green opportunities are as well.
-Do you think it still makes sense? -Oh, yeah, for sure. Not going after the base load, but the top and the bottom has enough alpha--
The base load tends to be dominated by large institutional organisations
and companies and countries. And, therefore, for a private entrepreneur to enter into oil and gas,
or to enter into nuclear, or to enter into geothermal, is interesting, but hard.
Nuclear, for example, if you believe that small modular reactors could be a real opportunity in the coming decade or two, then I think that's a real...
I know people, private entrepreneurs, who are going into it quite deep. Is it coming? So, the issue is there are anywhere between six and eight technologies,
depending on who you speak to today. But nobody's pragmatically running it right now. Unless you get to scale. How are you going to get to scale?
And the only way you'll get-- It's like, you know, in the old days, this tells you how old I am, -but VHS and Betamax? -Yeah.
If one hadn't won, the cost of tapes would never have come down. -Right. -You have to find scale.
If you end up with eight technologies, you're not going to get to scale. And so, figuring out a way to get to scale and do a, you know, focus on a few,
and then invest in those so you can create the cost synergies that come with it, is going to be key to SMRs.
And I think that may happen over the coming years. And the World Bank has gone back into nuclear energy after 40 years.
And we're starting with refinancing existing nuclear fleet, whether it's in countries like India or Brazil or Romania
or somebody who already has nuclear plants, by helping to extend their life, which is a cheaper way to do it.
Or through SMRs, that's what we think we can help with. Or, of course, our knowledge to help create the right regulatory policies
and safety and so on around nuclear. And you speak a lot about climate change, Ajay.
Do you think we are one adversity in a rich country away from taking climate more seriously?
I think the issue is of two parts. Climate is a word that has become politicised.
So, if you step away from the politics of climate, and you start thinking about what's going on in people's lives,
and that's where we are having this conversation come from. The concept of resiliency, of adaptation,
=
broken systems that caught our eye most
6 infrastructure Jones Law -what may have been sensible 1920 has now messed with us infrastructure fir 100 years - shipping around us coast must be built and operated by americans; today power, city, trains, roads, places as well as shipping all messed up by jones law making ai infrastructure unequal -how can public servants justify not reforming this law that less than 1% gain from and nation may lose its shirt around
americans pay twice as much for health as just about anywhere and system is collapsing with life expectancy going down- among many problems is over certifuication particularly on nursing tasks which ai could increasing help with - we asked x to write this up applying is terminolgy and refgerences
US healthcare system has well-documented issues with over-professionalization, overly restrictive scope-of-practice laws, and resulting workforce shortages — especially for mid-level providers who could handle routine care. This creates bottlenecks for basic medicines, elderly care, pediatric care, and primary access, unlike more flexible systems in the UK (where pharmacists handle more independent prescribing for minor ailments) or other countries.Key Problems in American Terminology- Scope-of-practice restrictions: State laws limit what Nurse Practitioners (NPs), Physician Assistants (PAs), and other advanced practice providers can do independently (e.g., diagnose, treat, prescribe). Many states require physician supervision or collaborative agreements, even when evidence shows NPs deliver safe, high-quality care.
- Over-professionalization: Excessive training/credentialing requirements and barriers raise costs and limit supply. This contributes to shortages of primary care providers and those serving elderly (geriatrics) and young children (pediatrics).
- Shortages: The US faces significant primary care physician shortages (projections range from tens of thousands to over 70,000 FTE by the 2030s). NPs and PAs are seen as key to filling gaps, but restrictions slow this. Your "100,000 quasi-nurses" figure aligns roughly with combined gaps in NPs/PAs and related roles for underserved populations.
States with full practice authority for NPs tend to have better access, outcomes, and provider density.Notable Reports Using US TerminologySeveral strong reports and analyses address this exact "mess":- National Academies / Institute of Medicine (2010/2016 updates): "The Future of Nursing" report strongly recommends removing scope-of-practice barriers so APRNs (Advanced Practice Registered Nurses, including NPs) can practice to the full extent of their education and training. This is a foundational document.
- Brookings Institution: Multiple pieces on improving healthcare through occupational licensing reform, emphasizing loosening restrictions on NPs/PAs.
- Hamilton Project (Brookings): Morris Kleiner’s work on reforming occupational licensing, including healthcare.
- Federal reports: HHS, HRSA, and the 2019 Trump-era "Reforming America's Healthcare System Through Choice and Competition" explicitly called out scope restrictions as anti-competitive.
- Cato Institute and state-level think tanks often critique this in the context of affordability (tying into the handbook you mentioned).
These use precise US terms like "scope of practice," "full practice authority," "APRNs/NPs," "occupational licensing reform," and "practice to the top of their license."AI and Amazon as Potential BreakthroughsAI can help significantly by supporting triage, diagnostics, monitoring (especially chronic care for elderly), and decision support — allowing mid-level providers (or even pharmacists) to handle more volume safely. This aligns with Layer 5 (Applications) in Huang’s framework: practical tools for real-world care delivery.Amazon is already moving in this direction:- Amazon One Medical and On-Demand Care (pay-per-visit telehealth, often starting at $29) let patients get virtual consultations with clinicians (doctors or NPs) for common conditions, with prescriptions sent to pharmacies (including Amazon Pharmacy).
- They offer services for adults and pediatrics (e.g., rashes, pink eye, asthma renewals, UTIs). Prescriptions can be delivered quickly.
- This bypasses some traditional barriers via convenience and direct-to-consumer models, though still subject to state licensing rules and clinician oversight.
Amazon could scale this further (e.g., AI-augmented triage + NP-led care + pharmacy integration), putting pressure on the system for reform. However, full transformation still requires policy changes on who can prescribe independently.Would you like me to pull quotes from a specific report, compare UK vs. US pharmacy prescribing, or map this to the broader Jones Act / infrastructure / AI connectivity discussion from earlier? Or draft a comment for the Cato handbook context?
==============from scsp draft workforce commission
Traditional Educational Pathways and Trainings May Fall
Short in Meeting the AI Moment
The modern education and workforce development system is structured around several core
pathways: K–12 education, career and technical education, higher education, workforce
training programs, and work-based learning.86 Together, these systems are designed to
prepare individuals for long careers across a wide range of occupations, from corporate roles
to skilled trades. Each pathway plays a distinct role, from building foundational skills to
supporting specialization and reskilling. Work-based learning, in particular, has historically
enabled workers to adapt over time by accumulating experience and transitioning into adjacent
or more advanced roles.
However, as the structure of work shifts in response to artificial intelligence, the effectiveness of
these pathways is increasingly in question. As discussed in Section 4, certain early-career roles
that historically functioned as training grounds have become less available, weakening
traditional transitions from education into employment. This section focuses on a related issue:
whether existing educational pathways are sufficient to prepare workers for an AI-driven labor
market, how they may need to evolve, and whether new pathways are required.
At a fundamental level, this challenge reflects a growing mismatch between how education
systems are structured and how skills are now developed, deployed, and updated in the labor
market. Educational systems are designed to reduce skills gaps by equipping workers with
competencies aligned to employer demand, but this function depends on relatively stable skill
requirements. Technological change has always reshaped skill demand, but AI may accelerate
both the pace and scope of this process, requiring more continuous adaptation.87
The Limits of Existing Pathways
Current education systems assume that early-life learning provides stable, long-lasting skills for
a career before entering the workforce, and rely on those same competencies over time. This
model is breaking down as skills evolve at rapid speed.88 Underlying skills requirements shift even
within some of the most stable occupations, making continuous learning a more critical
necessity.89
86 Emily Musil, et al., The Computing Imperative: Building America’s Talent Engine in the Age of AI, Milken
Institute (2025).
87 David Autor, Why Are There Still So Many Jobs? The History and Future of Workplace Automation,
Journal of Economic Perspectives at 3–30 (2015).
88 The Future of Jobs Report 2025, World Economic Forum (2025).
89 Daron Acemoglu & Pascual Restrepo, Automation and New Tasks: How Technology Displaces and
Reinstates Labor, Journal of Economic Perspectives at 3–30 (2019).
Page 30
At the same time, traditional credentials are becoming less reliable signals of capability in
certain areas. Their value depends on the alignment with labor market demands, but
fragmented and outdated data systems make it difficult to track outcomes and the
infrastructure to verify this alignment cannot capture real-time transitions across occupations.
This has contributed to the creation of the “invisible graduate flow,” in which it is difficult to
determine how individuals, particularly those from generalist backgrounds, transition into
emerging roles.90
These limitations are compounded by broader structural challenges. In certain areas,
educational institutions, workforce programs, and employers may work separately from each
other, resulting in a disconnection between curriculum design and evolving job requirements.
The inability to keep pace with the speed of AI development and adoption contribute to the
persistent gaps between training and labor market demand.91 Finally, the growing disparity
between the number of graduates and available high-skill roles contributes to
underemployment and credential inflation, further weakening degrees as signals of job
readiness while overlooking workers with relevant skills but nontraditional backgrounds.
Expanding and Adapting Existing Pathways
One response is to modify existing pathways to better align with evolving skill demands. This
includes further embedding AI literacy across education systems, strengthening connections
between education providers and employers, and integrating more applied, work-based
learning into curricula.
There is growing consensus that AI literacy is becoming a baseline requirement across
occupations, analogous to digital literacy in earlier technological transitions.92 Efforts to
integrate AI concepts into K–12 education and career and technical programs reflect this shift,
with the goal of ensuring that workers enter the labor market with a foundational ability to
interact with AI systems.93
At the same time, there is increasing emphasis on aligning curricula with labor market needs
through closer employer engagement. Sector-based training programs, apprenticeships, and
community college partnerships are frequently cited as mechanisms for improving this
90 Briefing to the Task Force (March 27, 2026).
91 Gad Levanon, et. al., No Country for Young Grads: The Structural Forces That are Reshaping EntryLevel Employment, The Burning Glass Institute (2025).
92 Emily Musil, et al., The Computing Imperative: Building America’s Talent Engine in the Age of AI, Milken
Institute (2025).
93 Briefing to the Task Force. (March 27, 2026).
Page 31
alignment.94 However, scaling these approaches remains challenging, particularly given
institutional constraints and uneven incentives across stakeholders.
International models provide useful comparisons. The German vocational system integrates
education and work-based training earlier in the lifecycle, enabling students to develop
occupation-specific skills before entering the labor market.95 While effective in aligning training
with employer demand, it has been criticized for requiring early specialization, potentially
limiting flexibility. This highlights a broader tension between early alignment and long-term
adaptability.
The Emergence of Alternative Pathways
Beyond modifying existing systems, new pathways are emerging that operate alongside or
outside traditional education structures. We highlight four approaches that reflect different
ways of acquiring and signaling skills in a more dynamic labor market.
One category includes modular and stackable credentials, such as professional certifications
and micro-credentials, that allow workers to acquire targeted skills over time. These credentials
can serve as alternative signals of competency, particularly for mid-career reskilling; however,
their value depends on consistent employer recognition.96
A second category includes employer-led training and work-based learning. Firms are
increasingly investing in internal programs that embed learning within workflows, blurring the
boundaries between education and work.97 However, these programs can be resourceintensive, limiting employer uptake, and may produce skills that are not easily transferable
across employers.
A third category includes online platform-based learning ecosystems, which provide scalable
access to rapidly evolving technical skills. Enrollment data suggest strong demand for
foundational AI skills: Coursera alone has recorded over 16.8 million global enrollments in
generative AI courses, with rapid growth in recent years.98 At the same time, learners are
prioritizing short, applied courses that can be integrated into existing work schedules, reflecting
94 Harry J. Holzer, Understanding the Impact of Automation on Workers, Jobs, and Wages, Brookings
Institution (2022).
95 A Guide to the German School & Education System, CBS University of Applied Sciences (2026).
96 Alex Swartsel, et al., The AI-Ready Workforce: How Leaders and Workers Can Prepare for a Reshaped
Future of Work, Jobs for the Future (JFF) and Intel (2023).
97 Cisco AI Workforce Consortium, AI Workforce Consortium Full Report, Cisco Systems (2025).
98 Briefing to the Task Force, (March 27, 2026).
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a shift toward continuous, career-driven learning. Still, cost barriers and uneven course quality
and returns for credentials remain great challenges.99
Finally, AI itself is emerging as a lower-cost training mechanism, providing a new style of more
personalized and conversational instruction, offering real-time feedback and accelerating skill
development particularly for less experienced workers.100
Coordination, Credibility, and System-Level Implications
The expansion of alternative pathways has increased the number of ways workers can acquire
skills, but not the system’s ability to translate those skills into clear labor market signals. The
core challenge is not a lack of pathways, but the absence of a coherent system that connects
them.
Disconnection between credentials, training programs, and learning platforms result in
inconsistent skill interpretation, weakening the value of credentials and perpetuating reliance on
traditional degrees, particularly among smaller firms. Simultaneously, limited outcome data
hinders the assessment of effective pathways, leaving workers and institutions with incomplete
information. These fragmentations come to impede participation due to costly, time-intensive,
and difficult-to-evaluate navigation. This suggests the future of education pathways will require
integrating multiple training programs into a continuous, nonlinear learning system embedded
within the labor market itself.
In practice, this shift implies several areas of focus. First, improving the applicability of
credentials will be critical to restoring their ability to signal job-readiness. Second, establishing
responsive data infrastructure will allow for tracking skill acquisition and outcomes, enabling
better informed decision-making by institutions. Third, stronger coordination throughout the
workforce pipeline is necessary to align training with evolving demands in real time.
At the same time, expanding access to these pathways will require reducing barriers related to
cost, time, and information. This includes not only increasing the availability of training, but also
ensuring that workers can engage with it without significant disruption to employment or
income.
Ultimately, the challenge is not simply to expand education pathways, but to make them
function as a system—one that is legible to employers, accessible to workers, and capable of
adapting alongside technological change.
99Matt Sigelman, et al., Holding New Credentials Accountable for Outcomes: We Need Evidence- Based
Funding Models, Burning Glass Institute
100 Erik Brynjolfsson, et al., Generative AI at Work, The Quarterly Journal of Economics at 1–48 (2025).
Page 33
9. The Distribution of AI’s Gains Need Not Be Concentrated,
and Can Be Shaped by Implementation Choices
The relationship between AI and economic inequality is not predetermined. AI could reduce
wage inequality by extending high-productivity tools to those who previously lacked access, or it
could accelerate the concentration of gains among those already well-positioned. Inequality in
the modern world largely results from the uneven dissemination and adoption of technologies, a
process that is dictated by whether a society's institutions are inclusive or extractive.101
Democratizing access to AI will break down barriers to help ensure these tools are accessible to
all rather than limited to a few. Ultimately, which outcome prevails will depend less on the
technology itself than on the choices made by firms, policymakers, and workers in the years
immediately ahead.
The optimistic case is grounded in real evidence. Research on earlier information technologies
suggests that tools that augment cognitive tasks can raise the productivity and, over time, the
wages, of workers who might otherwise be left behind by automation.102 When AI assists a midcareer worker in drafting documents, analyzing data, or navigating complex regulatory
environments, it can reduce the skill premium that previously made those tasks the exclusive
domain of highly credentialed professionals. Several recent studies examining the deployment
of AI-assisted tools in customer service, legal research, and clinical settings have found that
less-experienced workers often benefit disproportionately from AI assistance, narrowing
within-firm performance gaps rather than widening them.103 If these patterns hold at scale, AI
could function as a genuine equalizer; not by eliminating skill distinctions, but by lowering the
cost of developing competence.
The mechanism described above cuts both ways—AI-driven shifts in skill demand also could lead
to reduced demand for labor in certain occupations, displacing workers in the process.
Reabsorption into the workforce is not instantaneous: even where AI lowers barriers to entry in
new or adjacent occupations, workers require time to retrain, relocate, and signal new
competencies to employers. The empirical record on prior transitions—most rigorously
documented in studies of trade-induced displacement—suggests this adjustment period spans
years, and that the burden falls unevenly, concentrated among workers with less geographic
101 Daron Acemoglu & James A. Robinson, Why Nations Fail: The Origins of Power, Prosperity, and
Poverty, Crown Currency at 53 (2012).
102 David H. Autor, Why Are There Still So Many Jobs? The History and Future of Workplace Automation,
Journal of Economic Perspectives (2015).
103 Erik Brynjolfsson, et al., Generative AI at Work, The Quarterly Journal of Economics at 1-48 (2025).
Page 34
mobility, fewer financial resources to weather unemployment, and less access to retraining
infrastructure. 104
Further, AI could more fundamentally reshape the value of labor in general. Since the Industrial
Revolution, labor has been the main bottleneck in production. Its relative scarcity is what made it
valuable—capital is reproducible, labor is not, and that asymmetry underpinned a century of
broadly rising wages. AI disrupts this asymmetry by enabling capital to substitute for the
cognitive labor input itself.105 If AI absorbs more work than it generates, the result is an economy
that grows without broadly sharing that growth—then labor's share of economic output
contracts. The economy could grow significantly while the gains flow predominantly to those
who own the capital doing the work. That outcome is not inevitable. The outcome in which AI
raises living standards broadly while compressing rather than widening inequality is achievable,
but it is not necessarily the default, and it may not arrive on its own.
Ensuring this outcome will require getting a number of things right—deliberately and soon—on
access to AI tools, on how firms structure and allocate human-AI workflows, on investment in
education and training, and on the institutional frameworks governing how productivity gains
are distributed.
Even at the firm level, adoption creates winners and losers. Firms that adopt AI fastest tend to
be larger and better-capitalized. Workers in those firms are more likely to receive training, to
have job functions that lend themselves to human-AI collaboration, and to capture a share of
the productivity gains through wages or advancement. Workers in smaller firms or in
occupations with thinner margins and less institutional capacity for technology adoption may
find themselves on the wrong side of an AI productivity gap, not because their work is being
automated away, but because they are not gaining access to the augmentation benefits their
peers elsewhere enjoy.106
This advantage gap also has a significant geographic component—firms adopting AI tend to be
concentrated in metropolitan areas with existing talent advantages; similarly, AI development
occurs in a small number of technology hubs. Workers in rural or economically distressed areas
are less likely to receive the skills training firms adopting AI provide. Advantages accruing to
dominant regions are therefore self-reinforcing. Concentration draws in further business
investment, talent, and infrastructure, creating a gap that is increasingly difficult to close.107 The
communities most exposed to displacement risk from AI, by contrast, tend to be those with
104 David H. Autor, et al., The China Shock: Learning from Labor Market Adjustment to Large Changes in
Trade, Annual Review of Economics (2016).
105 Briefing to the Task Force, (March 27, 2026).
106 Stefan Koopman, et al., The Economic Impact of AI: Four Scenarios, Rabobank (2024).
107 Sandrine Kergroach & Julien Héritier, Emerging Divides in the Transition to Artificial Intelligence, OECD
Publishing (2025).
Page 35
higher concentrations of routine-task employment, limited access to retraining infrastructure,
and fewer institutional anchors capable of managing a significant labor market transition.
History offers cautionary precedent here: the gains from prior technological transitions were
real, but they were not broadly shared in time or place, and the adjustment costs fell heavily on
specific workers, families, regions, and institutions that lacked the resources to adapt.
None of this argues for slowing AI adoption. The productivity gains AI makes possible are
among the most promising mechanisms available for raising living standards broadly, and
forgoing them would impose its own costs, particularly in the context of national
competitiveness. But productivity gains that flow narrowly will not serve the nation's long-term
interests, economic or otherwise. A workforce in which a significant fraction of workers feels
that technological progress is something that happens to them rather than for them is not a
foundation for durable competitiveness or social cohesion.
The implication is that inequality must be treated as a first-order design problem for AI policy,
not an afterthought to be addressed once the technology has matured. Decisions made now
about access to AI tools in education and training, how firms structure and distribute human-AI
workflows, which communities receive investment in digital infrastructure, and how the gains of
AI-enabled productivity are shared will shape the distributional trajectory of this technology for
a generation. The window for making those decisions well is open, but it is not unlimited.
10. The Need for Coordinated, Whole-of-Nation Action
The evidence assembled in these findings leads to a single, unavoidable conclusion: the United
States should not rely on any one sector, institution, or level of government to navigate this
transition alone. The scale of AI's impact on work—its speed, its unevenness, and its capacity to
either broadly distribute or narrowly concentrate economic gains—demands a response that is
equally broad. What is required is a coordinated, whole-of-nation strategy that aligns the
interests of workers, employers, educators, and policymakers at each critical inflection point
along the path from AI capability to labor market outcome. The decisions made in the next
several years will determine whether that strategy exists, and whether it arrives in time.
The effects of AI on the future of work will ultimately reflect the cumulative actions and
decisions of individuals and institutions across the country. That is both a warning and an
opportunity. Where interests are misaligned, the transition will be painful and uneven.
Employers who face no incentive to reskill, workers who lack access to retraining, and educators
preparing students for a labor market that no longer exists are not edge cases; they are the
default outcome in the absence of coordinated action. Where those interests are deliberately
aligned, the outcome can be different. The whole-of-nation approach this Task Force
recommends is not an abstract aspiration; it is the practical recognition that mitigating uneven
impacts across individuals, firms, industries, and regions requires coordination that no single
actor can provide alone.
At the task level, the main dependencies revolve around the interplay between the capabilities
and adoption of AI tools. AI capabilities and the infrastructure to support them will be key
factors in the scope of automation in work tasks.108 As these capabilities continue to change,
they will also determine which human skills remain complementary to AI-based work.109
However, the capabilities alone will not influence work tasks without adoption. Worker-driven
and employer-driven AI adoption pathways will be key determinants of whether tasks are more
augmented or automated, and the timeframe over which workflows substantially shift.110
108 Pascual Restrepo, We Won’t Be Missed: Work and Growth in the AGI World, National Bureau of
Economic Research (2025).
109 Erik Brynjolfsson & Tom Mitchell, What can machine learning do? Workforce implications, Science
(2017).
110 The AI Ready Workforce, Jobs for the Future (2023).
Page 37
As task changes expand out to the workforce level, the economics of AI adoption will start to
play a larger role. The interaction between tech, labor, employers, and educators will be key to
understanding the extent to which hiring and investment decisions change as task-level
adoption of AI changes. Worker replacement becomes more likely if AI is cheaper than
equivalent human labor, and if that human labor is not reinvested and reskilled into new valueadd roles.111
Finally, macroeconomic effects will depend on the breadth of changes and how policies adapt.
Workforce disruption that is narrow in scope or confined to certain industries would have limited
macroeconomic fallout if workers are able to shift to other growing or emerging fields.112
Responses must harness the upside potential of AI in order to stay globally competitive relative
to other countries.113
The United States has navigated technological transitions before, and it has risen to meet
challenges that once seemed insurmountable. This moment is no different in kind, but it may be
greater in scale and speed than anything that has come before. The country enters this
transition with something it lacked in prior ones: advance warning and a clearer picture of
where the risks are concentrated than has ever been available at this stage of a major
technological shift. That is cause for confidence, not complacency. The United States has the
tools, the talent, and the institutional capacity to lead this transition.
111 Erik Brynjolfsson & Tom Mitchell, What can machine learning do? Workforce implications, Science
(2017).
112 Daron Acemoglu & Pascual Restrepo, Automation and New Tasks: How Technology Displaces and
Reinstates Labor, Journal of Economic Perspectives (2019).
113 Erik Brynjolfsson, et al., A Research Agenda for the Economics of Transformative AI, National Bureau
of Economic Research (2025).
Page 38
Appendix 1. Task Force Staff and Contributors
SCSP Task Force Staff
Dr. Ryan Carpenter
Veronica Jijon
Dr. Nandita Balakrishnan
Carina Ritcheson
Caroline Armstrong
James Ryseff
Brock Dodds
Sara Huta
Ylber Bajraktari
NVIDIA Task Force Staff
David Shahoulian
Meg King
Faiza Khan
Sarah Weinstein
Sophie Goguichvili
Advisors to the Task Force
Dr. Harry Holzer
Clara Kaluderovic
Alex Kotran
Maria Flynn
Dr. Diana Gelhaus
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