Key findings

  • WFH capacity and AI risk are positively correlated at +0.91 globally. Countries with the highest share of remote-capable workers are the most AI-exposed, not the least. Luxembourg (5.57/10 WFH, 5.87/10 AI), the US (5.31/10 WFH, 5.24/10 AI), and Switzerland (5.28/10 WFH, 5.31/10 AI) are at the top of both rankings simultaneously.
  • The occupations that can be done from home are the same occupations most exposed to AI. Clerical workers score 8.5/10 on AI exposure and 7.8/10 on WFH feasibility. Professionals score 6.5/10 on AI exposure and 6.9/10 on WFH feasibility. Managers score 5.5/10 on AI and 6.2/10 on WFH. Agricultural workers score 3.0/10 on AI and 0.2/10 on WFH.
  • Countries with the lowest WFH capacity have the lowest AI risk too. Tanzania (1.12/10 WFH, 2.85/10 AI), Burundi (1.18/10 WFH, 2.87/10 AI), and Uganda (1.21/10 WFH, 2.87/10 AI) are at the bottom of both rankings. Their workforces are dominated by agricultural and elementary occupations that neither can be done remotely nor are targeted by AI.
  • The WFH-as-AI-hedge argument works at the individual task level, not the national level. A specific clerical worker who can do their job from home is not more protected from AI than a clerical worker who must be in the office. The AI threat to clerical work is task-based, not location-based.
  • The real divide is occupation type, not location flexibility. The fundamental split is between knowledge work (AI-exposed, WFH-capable) and physical work (AI-resistant, office/site-bound). Countries should focus on occupation transition strategies, not WFH policy, as an AI response.

The WFH-AI hedge: where the argument comes from

The argument that WFH-capable workers are safer from AI became popular during the 2023-2025 period of rapid AI deployment. The reasoning went: AI systems need to access your work to replace it; if your work is location-bound (a cashier, a nurse, a construction worker), AI cannot easily reach it; but if your work is digital and remote-accessible, AI can touch it more easily. Therefore physical, on-site work is actually safer than remote-capable digital work.

This argument has real logic at the individual task level. A physical task - installing a pipe, examining a patient, operating heavy machinery - requires a physical presence that AI systems (as of 2026) cannot replicate at scale. A digital task - processing a form, analysing a spreadsheet, writing a report - is accessible to AI regardless of whether the human doing it is in an office or at home.

Where the argument fails is in conflating two different things: (1) whether AI can perform the task, and (2) whether WFH policy changes the AI-risk profile of that task. These are separate questions and the data shows they pull in opposite directions at the national level.

5.57
Luxembourg WFH score
1.12
Tanzania WFH score
+0.91
WFH-AI correlation

Top 15 countries by WFH capacity

The WFH capacity ranking closely mirrors the AI risk ranking. Luxembourg leads both. The top 15 WFH-capable countries are all high-income economies with large professional, clerical, and managerial sectors - exactly the sectors with the highest AI exposure scores. There is no single country in the top 15 by WFH capacity that scores below 4.5/10 on AI exposure.

Rank Country WFH Score AI Score Region
#1Luxembourg5.57/105.87/10Western Europe
#2United States5.31/105.24/10North America
#3Switzerland5.28/105.31/10Western Europe
#4United Kingdom5.24/105.19/10Western Europe
#5Canada5.21/105.22/10North America
#6Netherlands5.18/105.28/10Western Europe
#7Australia5.14/105.18/10Oceania
#8Germany5.09/105.30/10Western Europe
#9Sweden5.07/105.21/10Northern Europe
#10Denmark5.04/105.17/10Northern Europe
#11Norway5.01/105.14/10Northern Europe
#12Singapore4.98/105.11/10Southeast Asia
#13Finland4.94/105.10/10Northern Europe
#14Belgium4.91/105.08/10Western Europe
#15Ireland4.88/105.05/10Western Europe

Bottom 10 countries by WFH capacity

The bottom of the WFH ranking is made up entirely of Sub-Saharan African and South Asian economies with large agricultural and elementary workforces. These countries score low on WFH capacity not because they have poor internet infrastructure (though that is also often true) but because their occupation structure is dominated by roles that are physically located by definition: farming, herding, construction, and elementary manual labour. These same occupations score low on AI exposure because they involve physical tasks in unstructured environments that AI currently cannot automate.

Rank Country WFH Score AI Score Region
#206Tanzania1.12/102.85/10Eastern Africa
#205Burundi1.18/102.87/10Eastern Africa
#204Uganda1.21/102.87/10Eastern Africa
#203Rwanda1.24/102.94/10Eastern Africa
#202Madagascar1.27/103.01/10Southern Africa
#201Niger1.29/102.91/10Western Africa
#200Malawi1.31/102.97/10Southern Africa
#199Nepal1.38/103.24/10South Asia
#198Mozambique1.41/102.99/10Southern Africa
#197Ethiopia1.43/102.96/10Eastern Africa

Why WFH capacity and AI exposure are driven by the same variable

The reason WFH capacity and AI risk are so strongly positively correlated is that both are driven by the same underlying variable: the share of cognitive and language-intensive work in the economy. Clerical work is WFH-capable because it involves processing documents, handling communications, and managing information systems that can be accessed digitally. It is AI-exposed for exactly the same reason.

The key insight: WFH feasibility and AI exposure are both proxies for the same thing - the degree to which work is information-based rather than physically-situated. Countries where most work is information-based have high WFH capacity AND high AI exposure. Countries where most work is physically-situated have low WFH capacity AND low AI exposure. The two variables are not competing forces; they are the same force measured differently.

Agricultural workers (ISCO-08 group 6) score 0.2/10 on WFH feasibility because crop harvesting, animal husbandry, and fishing cannot be done remotely. They also score 3.0/10 on AI exposure because these tasks involve physical navigation of unstructured natural environments that AI cannot yet perform. The two low scores have the same cause.

Clerical workers (ISCO-08 group 4) score 7.8/10 on WFH feasibility because their core tasks - data entry, correspondence, scheduling, document processing - can be done from any location with internet access. They also score 8.5/10 on AI exposure because those same tasks are exactly what large language models and robotic process automation tools are designed to do. Again, the two high scores have the same cause.

What this means for individual workers

The country-level data does not mean that individual WFH workers are more at risk than individual office workers doing the same job. The data shows that WFH-capable occupations are also AI-exposed occupations - not that working from home itself increases your AI risk.

A clerical worker processing claims from home is exposed to the same AI tools as a clerical worker processing claims in an office. The displacement risk is the same. Location does not change the AI exposure of the underlying task. What changes the AI exposure is what kind of work you do, not where you do it from.

For individual workers, the correct response to AI risk is not to seek less-WFH-capable jobs (which typically means lower-paid physical labour) but to develop skills in areas where AI is a complement rather than a substitute: complex judgment, physical coordination in unstructured environments, interpersonal care work, and creative direction. These skills exist across all levels of WFH capability.

See WFH capacity and AI risk side by side for your country

The interactive explore tool shows WFH scores, AI exposure scores, and occupation-level breakdowns for all 206 countries.

Explore WFH vs AI risk →

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Methodology

WFH capacity scores are calculated by applying occupation-level WFH feasibility weights (Dingel and Neiman 2020, updated with ILO and OECD telework research) to ILO ILOSTAT (CC BY 4.0) employment shares by ISCO-08 major occupation group across 206 countries (2025 data). AI exposure scores use the same employment shares with AI exposure weights from Frey-Osborne (2017), OECD, and IMF GenAI (2024) research. Both are composite scores on a 1-10 scale; they are not predictions of displacement rates.

Frequently asked questions

Which country has the highest work-from-home capacity in 2026?
Luxembourg leads the global WFH ranking with a WFH capacity score of 5.57/10. Its workforce is dominated by financial, legal, and professional services occupations - the same roles that score highest on WFH feasibility. The US (5.31/10), Switzerland (5.28/10), and the UK (5.24/10) follow closely behind.
Does working from home protect you from AI disruption?
No. At the country level, WFH capacity and AI risk are positively correlated at 0.91 - meaning the countries most capable of remote work are also the countries most exposed to AI disruption. The occupations that can be done from home (clerical, professional, managerial) are the same occupations most exposed to AI automation.
Which countries have the lowest work-from-home capacity?
Tanzania (1.12/10), Burundi (1.18/10), Uganda (1.21/10), and Rwanda (1.24/10) have the lowest WFH capacity scores. These countries have workforces concentrated in agricultural, craft, and elementary occupations - roles that require physical presence but score low on AI exposure.
Where does the WFH capacity data come from?
WFH capacity scores are calculated from ILO ILOSTAT employment data (2025, CC BY 4.0) using occupation-level WFH feasibility weights from Dingel and Neiman (2020) and subsequent ILO and OECD research on telework potential by ISCO-08 occupation group across 206 countries.

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