AI and Total Factor Productivity: Macro-Economic Implications

AI and Total Factor Productivity: Macro-Economic Implications

Total factor productivity (TFP) is the economist's ultimate measure of technological progress. It captures the portion of output growth that cannot be explained by increases in labour and capital inputs — the "residual" that reflects innovation, organisational improvement, and technology adoption. If AI is truly transformative, TFP should eventually show it.

So far, it has not. OECD data shows TFP growth across advanced economies averaging 0.3% annually from 2020 to 2025 — no acceleration whatsoever from the AI investment surge. This macro-level silence has led some economists to question whether AI's economic impact will match the hype. Others argue that the measurement systems themselves are failing. Both perspectives have merit, and understanding the debate is essential for investors making long-horizon capital allocation decisions.

0.3% OECD TFP growth (2020-2025)
1.5-3% Predicted AI-driven TFP growth by 2035 (IMF range)
$7-14T Projected annual AI economic impact by 2030 (McKinsey)

Why TFP Cannot See AI Yet

The disconnect between AI investment and TFP growth has three structural explanations — none of which imply that AI is failing.

1. The aggregation problem

TFP is a macro-level metric that averages across all firms in an economy. When a small fraction of firms achieve dramatic AI-driven productivity gains while the majority are still in the investment phase (or have not adopted AI at all), the aggregate figure is diluted to near zero.

This is precisely what the data shows. Firm-level studies consistently find significant productivity gains among mature AI adopters, while aggregate TFP remains flat. The productivity gains are real — they are just not yet widespread enough to move national statistics.

2. The complementary investment lag

As the AI productivity paradox literature documents, general-purpose technologies require complementary investments in organisational design, workforce skills, and process redesign before productivity gains materialise at scale. Historical precedent suggests this lag is 10-20 years for transformative technologies.

AI is approximately 5-7 years into serious enterprise deployment (dating from the release of transformer-based models in 2017-2018). If historical patterns hold, TFP acceleration should become visible between 2027 and 2035.

★ Key Takeaway

The absence of AI-driven TFP growth in macro data is consistent with historical technology adoption patterns. Electricity, computing, and the internet all showed similar lags between investment and measurable productivity impact. The question is not whether AI will affect TFP, but when — and the historical evidence suggests we are in the transition period.

3. The measurement gap

Growth accounting frameworks divide output growth into contributions from labour, capital, and the residual (TFP). These frameworks were designed when capital meant machinery and buildings. AI-era capital increasingly takes the form of intangible assets — training data, organisational knowledge, model weights, algorithmic innovations — that national accounts struggle to measure.

The Corrado-Hulten-Sichel framework attempted to address this by expanding the definition of capital investment to include intangible categories. But even the CHS framework was designed before AI and does not fully capture the distinctive characteristics of AI-driven productivity improvement.


What the Models Predict

Several major economic institutions have published projections for AI's eventual impact on TFP and GDP growth. The range is wide, reflecting fundamental uncertainty about adoption speed and complementary investment.

Projection comparison

Source TFP impact GDP impact Time horizon Key assumptions
IMF (2024) +0.5-1.5% annually +1.0-3.0% By 2035 Moderate adoption, complementary investment
Goldman Sachs (2023) +1.0-1.5% annually +1.5% By 2033 Generative AI automation of 25% of tasks
McKinsey (2023) Not specified +$7-14T annually By 2030 Broad sectoral adoption
OECD (2024) +0.3-0.8% annually +0.5-1.5% By 2035 Conservative, policy-dependent
Acemoglu (2024) +0.06% annually +0.1% By 2034 Sceptical: narrow task automation
ℹ Note

The enormous range in projections — from Acemoglu's near-zero estimate to Goldman Sachs' transformative forecast — reflects genuine disagreement about whether AI will automate narrow tasks or transform entire industries. Investors should be wary of projections at either extreme and instead focus on leading indicators of adoption and complementary investment.

Sector-Level Evidence

While aggregate TFP data remains flat, sector-level evidence offers early signals of AI's productivity impact.

Financial services: AI adoption in fraud detection, credit scoring, and algorithmic trading has been measurable for a decade. Sector-level TFP in financial services has outpaced the broader economy by 0.4-0.6 percentage points since 2020, with AI cited as a contributing factor.

Healthcare: AI-assisted diagnostics, drug discovery, and clinical decision support are showing measurable efficiency gains. The challenge is that healthcare output measurement is particularly poor, making TFP attribution difficult.

Professional services: Early evidence suggests 15-25% productivity improvements in specific tasks (document review, code generation, analysis) but limited evidence of firm-level or sector-level TFP impact.


Investment Implications

For long-horizon investors — pension funds, sovereign wealth funds, private equity with 7-10 year hold periods — the macro-economic evidence points to a specific opportunity window.

The transition premium

Companies investing in AI and complementary organisational change now are building the capabilities that will generate productivity gains in 2027-2035. The current period — when investment is high but measured returns are low — creates a valuation discount for AI-investing companies relative to their expected future productivity.

This is analogous to the late 1990s discount for companies investing in internet infrastructure before the revenue materialised. Investors who understood the J-curve dynamic captured significant returns when the productivity gains eventually appeared.

Sector allocation

The sectors most likely to show early AI-driven TFP gains are those with:

  • High data availability and quality
  • Well-defined, measurable output
  • Strong competitive pressure to adopt AI
  • Regulatory environments that permit AI deployment

Financial services, logistics, manufacturing, and professional services fit these criteria. Healthcare and education have high potential but face regulatory and measurement barriers.

The Bottom Line

AI's impact on total factor productivity is not yet visible in macro data, but this absence is consistent with every previous general-purpose technology transition. Historical evidence, firm-level studies, and economic modelling all point to AI-driven TFP acceleration in the 2027-2035 window. For investors, this creates a structural opportunity: building positions in AI-investing companies during the transition period, when investment costs are visible but productivity returns are not yet priced in. The Opagio Growth Platform helps investors track intangible capital accumulation — the leading indicator of future productivity — across portfolio companies.


David Stroll is Co-Founder and Chief Scientist at Opagio. His research on productivity economics spans three decades, from the computing revolution to the AI era. He holds a PhD in productivity economics from a leading research institution. Learn more about the Opagio team.

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David Stroll — Chief Scientist, Co-Founder

PhD in Productivity | 40 years in strategy and technical systems delivery

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