Generative AI and Youth Employment: Three Converging Studies Reveal a Labor Market Transformation

Stéphane Mariel·

Generative AI and Youth Employment: Three Converging Studies Reveal a Labor Market Transformation

While generative AI promises spectacular productivity gains, three major studies published between August 2025 and January 2026 reveal a more nuanced reality: this technology is profoundly transforming entry pathways into the labor market, with effects concentrated on junior workers.

The AI Paradox: Productivity Up, Opportunities Down

Since ChatGPT’s launch in November 2022, reports of individual productivity gains have accumulated. Developers code faster, writers produce more content, analysts process more data. Yet, a counterintuitive phenomenon emerges in employment data: entry-level positions are disappearing.

We document six facts about the recent employment effects of AI, with particular attention to entry-level workers in AI-exposed occupations.

— Erik Brynjolfsson et al.
Stanford Digital Economy Lab

Three rigorous studies, using different methodologies and complementary data sources, converge toward a troubling conclusion: generative AI constitutes "seniority-biased technological change," reversing the historical logic of technical progress that generally favored young graduates.

Three Perspectives, One Converging Reality

Study 1: The Decline of Employment for 22-25 Year-Olds (Stanford, August 2025)

Brynjolfsson, Chandar & Chen analyzed payroll data from 25+ million American workers via the ADP system, with monthly granularity through July 2025.

Source and Methodology

Authors: Erik Brynjolfsson, Bharat Chandar, Ruyu Chen
Institution: Stanford Digital Economy Lab
Data: 25+ million US workers (ADP), January 2021 - July 2025
Methodology: Difference-in-differences with firm×time fixed effects
Publication: August 26, 2025

Key Results

graph TD A[Workers 22-25 years] --> B{AI Exposure} B -->|High Q4-5| C[Decline -20%
Developers] B -->|High Q4-5| D[Decline -15%
Customer Service] B -->|Low Q1-3| E[Growth +6-13%
All Sectors] F[Workers 35-49 years] --> B B -->|High Q4-5| G[Growth +9-13%
All Sectors] B -->|Low Q1-3| H[Growth +6-13%
All Sectors] style C fill:#ff6b6b style D fill:#ff6b6b style E fill:#51cf66 style G fill:#51cf66 style H fill:#51cf66

The data reveal a sharp divergence:

  • Software developers (22-25 years): ~20% drop since late 2022

  • Customer service (22-25 years): similar decline of ~15%

  • Senior workers (35-49 years) in the same occupations: continued growth of +9-13%

The specificity is striking: in occupations with low AI exposure, all age groups experience similar growth of +6-13%. The phenomenon is concentrated at the intersection of "young × high AI exposure."

Automation vs Augmentation: A Crucial Distinction

The study uses Anthropic’s Economic Index which classifies conversations with Claude by usage type:

Usage Type Description Effect on Junior Employment

Automation

"Directive" and "Feedback Loop" conversations (complete task delegation)

Significant decline

Augmentation

"Task Iteration," "Learning," "Validation" (collaborative refinement)

No decline

It’s not AI itself that eliminates junior jobs, but how it’s used. Organizations that adopt AI as an augmentation tool preserve opportunities for beginners.

Study 2: The Collapse of Costly Signaling (Princeton/Dartmouth, Nov 2025)

Anaïs Galdin (Dartmouth) and Jesse Silbert (Princeton) analyzed 1.63 million applications on the Freelancer.com platform to understand why juniors are disadvantaged.

Source and Methodology

Authors: Anaïs Galdin (Dartmouth, Tuck), Jesse Silbert (Princeton)
Type: Job Market Paper
Data: 1.63M applications on Freelancer.com (August 2022 - June 2024)
Innovation: LLM-based customization measure + structural equilibrium model
Publication: November 14, 2025 (128 pages)

The Theory of the Broken Signal

Historically, written applications functioned as a costly signal à la Spence (1973):

  1. Writing a personalized proposal requires time and effort

  2. Competent candidates produce this signal at lower cost (thanks to their skills)

  3. Employers use application quality to infer candidate ability

  4. A separating equilibrium emerges: the good distinguish themselves from the bad

sequenceDiagram participant C as Competent Candidate participant I as Incompetent Candidate participant E as Employer Note over C,I: Pre-AI: Costly Signal C->>E: Personalized Proposal
(cost: 30 min, easy) I->>E: Generic Proposal
(cost: 30 min, difficult) E->>E: Inference: good proposal
= competent candidate E->>C: ✓ Hires the competent Note over C,I: Post-AI: Cheap Signal C->>E: AI Proposal
(cost: 2 min) I->>E: AI Proposal
(cost: 2 min) E->>E: Cannot distinguish
→ random selection E->>I: ⚠️ Risk of hiring
the incompetent

Empirical Results: The Equilibrium Has Collapsed

Metric Pre-AI (Aug-Oct 2022) Post-AI (Dec 2022-June 2024) Change

Signal Score (0-18)

5.16 (σ=2.96)

7.50 (σ=4.63)

+45% (appearance)

Writing Time

1.47 minutes

1.08 minutes

-26% (effort)

Signal Value for Employer

$25.67 (1 SD)

$10.82 (1 SD)

-58% (utility)

Applications per Posting

28.92

62.67

+116% (volume)

Proposals appear higher quality (+45% on score), but are produced with 26% less effort and employers value them 58% less. This is the very essence of "cheap talk": signals that cost little but no longer inform.

Impact on Meritocracy: A Counterfactual Simulation

Galdin & Silbert built a structural model to simulate a market "without signals" vs "with costly signals." The results are striking:

  • Top quintile (high skills): -19% hiring rate

  • Bottom quintile (low skills): +14% hiring rate

  • Worker welfare: -4%

  • Total welfare: -1%

Why this phenomenon? In the equilibrium without signals, competition becomes purely price-based. However, the data reveal a positive correlation between skill and cost (good candidates value their time more). Result: the incompetent, who accept lower prices, are favored.

Study 3: The Junior Hiring Freeze (Harvard, Oct 2025)

Hosseini & Lichtinger (Harvard) analyzed 156.8 million employment spells from 62 million workers via LinkedIn data from Revelio Labs.

Source and Methodology

Authors: Seyed M. Hosseini, Guy Lichtinger (Harvard University)
Data: 156.8M jobs from 62M workers (LinkedIn/Revelio Labs, 2015-2025)
Sample: 284,974 US firms, 198.8M job postings
Methodology: Triple-difference with firm×time and industry×seniority×time fixed effects
Publication: October 6, 2025

The Q1 2023 Shock: A Structural Break

Researchers identified 10,599 "adopting" firms (having posted at least one GenAI integrator role). These firms represent 3.7% of the sample but 17.3% of total employment.

The effect on juniors is primarily a hiring freeze (-5.0 positions/quarter), not layoffs:

  • 72% of the effect comes from reduced recruiting

  • Separations actually decrease (-1.8/quarter), suggesting retention of existing employees

  • Promotions remain stable (+0.02, not significant)

The forward-looking adjustment hypothesis: Firms anticipate that junior tasks will be automated and preemptively freeze hiring. This is less costly than hiring then laying off. The timing (immediately after ChatGPT) and mechanism (hiring reduction > layoffs) support this interpretation.

The U-Shaped Education Paradox

A surprising finding emerges when segmented by degree level:

Tier Description Hiring Decline Avg Salary

Tier 1

Ivy League, MIT, Stanford, Oxford

-15%

$85,896

Tier 2

Respected international universities

-17%

$74,123

Tier 3

Strong national/regional universities

-24%

$64,042

Tier 4

Less selective universities

-27%

$58,196

Tier 5

Very weak institutions

-20%

$52,251

This U-shaped pattern is not explained by AI exposure (which decreases linearly from Tier 1 to Tier 5). Mid-tier graduates are most vulnerable, probably because they:

  1. Have neither elite prestige nor the low salaries of Tier 5

  2. Occupy positions where AI can effectively replace their tasks

  3. Are in direct competition with cheaper seniors post-AI

The Mechanisms at Play: A Triple Convergence

These three independent studies reveal three facets of the same phenomenon:

flowchart TB A[Generative AI
Nov 2022] --> B[Reduction in
signaling costs] A --> C[Automation of
codified tasks] A --> D[Anticipation of
future needs] B --> E[Collapse of
costly signal
Galdin & Silbert] C --> F[Automation/
juniors substitution
Brynjolfsson et al.] D --> G[Preemptive
hiring freeze
Hosseini & Lichtinger] E --> H{Differential Impact} F --> H G --> H H --> I[Juniors: -8% to -20%
by occupation/exposure] H --> J[Seniors: stable or +9-13%] H --> K[Meritocracy: -19%
top quintile hiring] style A fill:#4dabf7,stroke:#1971c2,stroke-width:3px style E fill:#ff6b6b,stroke:#c92a2a,stroke-width:2px style F fill:#ff6b6b,stroke:#c92a2a,stroke-width:2px style G fill:#ff6b6b,stroke:#c92a2a,stroke-width:2px style I fill:#fa5252,stroke:#c92a2a,stroke-width:3px style J fill:#51cf66,stroke:#2f9e44,stroke-width:2px style K fill:#fa5252,stroke:#c92a2a,stroke-width:2px

Mechanism 1: The Broken Signal (Galdin & Silbert)

Before AI, writing a good application was costly in time but less costly for the competent (thanks to their skills). This cost differential enabled separation.

After AI, this cost approaches zero for everyone. The market becomes a pooling equilibrium where employers cannot distinguish. Facing this information asymmetry, they become more risk-averse and favor:

  1. Candidates with established reputation (seniors)

  2. Candidates accepting lower prices (often the least competent)

Mechanism 2: Codified vs Tacit (Brynjolfsson et al.)

AI excels at codifiable tasks – those that can be explicitly described:

  • Writing standard code

  • Answering frequent customer questions

  • Writing follow-up emails

  • Creating basic presentations

These tasks constitute the core of junior roles. Conversely, tacit skills (situational judgment, stakeholder management, strategic architecture) remain the domain of seniors.

graph LR A[Professional Tasks] --> B{Codifiability} B -->|High| C[Explicit Tasks] B -->|Low| D[Tacit Tasks] C --> E[Juniors
High concentration] C --> F[AI
High performance] C --> G[Direct substitution] D --> H[Seniors
High concentration] D --> I[AI
Limited performance] D --> J[Augmentation
complementarity] G --> K[Reduction in
junior jobs] J --> L[Maintenance/growth
senior jobs] style C fill:#ffd43b style D fill:#51cf66 style E fill:#ff6b6b style H fill:#51cf66 style K fill:#fa5252 style L fill:#40c057

Mechanism 3: Forward-Looking Adjustment (Hosseini & Lichtinger)

Organizations don’t wait for automation to be complete. As soon as they perceive ChatGPT/GPT-4 as a technological regime change, they adjust their hiring preemptively.

Why freeze rather than lay off?

  1. Transaction costs: Hiring then laying off is expensive (recruitment, training, severance, reputation)

  2. Expertise retention: Juniors on staff have tacit knowledge of the company

  3. Flexibility: A freeze is reversible; a layoff creates precedents

This explanation is consistent with:

  • The timing (Q1 2023, immediately post-ChatGPT)

  • The mechanism (72% via hiring, not separations)

  • The concentration (high-exposure occupations)

Who Is Affected? Asymmetric Vulnerabilities

By Age: The 22-25 Window

The effect is concentrated in a narrow window: 22-25 years. Why?

  • 18-21 years: Still in training, little presence in the market

  • 22-25 years: First post-degree job, maximum vulnerability

  • 26-30 years: Beginning to accumulate experience/tacit knowledge

  • 31+ years: Established expertise, more complex roles

By Sector: Broad but Heterogeneous Diffusion

Sector Junior Decline Characteristics

Wholesale/Retail

-45%

Customer service, logistics, repetitive tasks

Information

-28%

Development, content creation

Finance & Insurance

-27%

Junior analysis, operational support

Manufacturing

-25%

Production management, quality

Professional Services

-25%

Junior consulting, analysis, research

Healthcare

-17%

Administration, support (not direct care)

Even healthcare, a sector presumably "protected" from automation, sees impact via its administrative and support functions. AI doesn’t automate nursing care, but it can replace assistants who handle documentation, scheduling, or patient support.

By Occupation: Exposure ≠ Automation

quadrantChart title AI Exposure vs Task Codifiability x-axis Low exposure --> High exposure y-axis Tacit tasks --> Codifiable tasks quadrant-1 Senior augmentation quadrant-2 Junior automation quadrant-3 Little affected quadrant-4 Mixed Developers: [0.85, 0.75] Customer service: [0.78, 0.82] Marketing managers: [0.72, 0.55] Data analysts: [0.80, 0.70] Healthcare aides: [0.25, 0.60] Accountants: [0.68, 0.78] Sales: [0.50, 0.55] Lawyers: [0.75, 0.45] HR: [0.60, 0.50]
  • Upper-right quadrant (red): High exposure + codifiable tasks → Junior automation

    • Developers (standard code, simple bugs)

    • Customer service (frequent questions)

    • Junior accountants (data entry, reconciliation)

  • Upper-left quadrant (green): Low exposure + tacit tasks → Little affected

    • Healthcare aides (physical contact, empathy)

    • Craftspeople (manual skills)

  • Lower-right quadrant (orange): High exposure + tacit tasks → Senior augmentation

    • Senior lawyers (strategy, negotiation)

    • Marketing managers (strategic vision)

What This Means for the Future

The Risk of a "Lost Generation"

If junior roles disappear durably, we face a pipeline problem:

graph TB A[2024-2026 Graduates] --> B{Entry Positions} B -->|Traditional| C[⚠️ -20% Reduction
Scarce opportunities] B -->|AI-adapted| D[? New roles
Still unclear] C --> E[Lack of experience] D --> F[Learn AI
but not domain] E --> G[2030: Shortage of
competent seniors] F --> G G --> H[Cost to organizations
+ increased inequality] style A fill:#4dabf7 style C fill:#ff6b6b,stroke:#c92a2a,stroke-width:2px style D fill:#ffd43b style G fill:#fa5252,stroke:#c92a2a,stroke-width:3px style H fill:#fa5252

Organizations have historically developed their expertise via a learning-experience-mastery model:

  1. Junior (1-3 years): Learn basics, do structured tasks

  2. Intermediate (4-7 years): Gain autonomy, manage projects

  3. Senior (8+ years): Tacit expertise, judgment, mentoring

If the first step disappears, where will the seniors of 2030 come from?

Three Possible Scenarios

Scenario 1: Transitory Adjustment (Optimistic)

Hypothesis

Companies overreact initially, then correct.

Mechanism

• They realize AI doesn’t replace everything
• New "hybrid" roles emerge (AI + human judgment)
• Juniors become "amplified" rather than replaced

Timeframe

2026-2028: Stabilization, new equilibria

Probability

Moderate – depends on speed of innovation in role architecture

Scenario 2: Structural Reconfiguration (Realistic)

Hypothesis

Junior roles transform radically.

Mechanism

• Codified tasks are effectively automated
• Juniors are recruited on different criteria:
- Ability to orchestrate AI (prompt engineering, output validation)
- Relational skills (what AI doesn’t do)
- Creativity and critical thinking (non-codifiable)
• Career paths shorten: junior → senior faster

Timeframe

2025-2030: Chaotic transition period

Probability

High – consistent with GPT (General Purpose Technology) history

Scenario 3: Aggravated Dualism (Pessimistic)

Hypothesis

The market polarizes between elites and precarity.

Mechanism

• Only top institution graduates (Tier 1-2) access good positions
• The "middle" (Tier 3-4) is crushed between AI and increased competition
• Tier 5 find low-skilled, low-wage jobs
• Inequality widens (+19% vs -19%)

Timeframe

2025-2035: Cumulative divergence

Probability

Moderate to high if no intervention (training, policies)

Implications and Action Pathways

For Organizations

1. Rethink Role Architecture

Shift from a "tasks" logic to a "capabilities" logic.

Instead of breaking roles into individual tasks (codifiable → automatable), structure them around composite capabilities where AI is a tool, not a substitute.

Table 1. Example: Redefining the Junior Analyst Role
Old Model Risk New Model

Extract data
Clean data
Create charts
Write report

→ All these tasks can be automated by GPT-4 + code tools

Capability: "Data Intelligence"
• Ask the right questions (business acumen)
• Orchestrate AI for analyses (prompt engineering)
• Validate coherence (critical thinking)
• Communicate insights (storytelling)

2. Invest in "AI-Augmented" Pathways

Create onboarding programs that explicitly train for:

  1. Human-AI collaboration: When to delegate, when to verify

  2. Judgment development: Via intensive coaching, not repetitive tasks

  3. Non-codifiable skills: Negotiation, empathy, creativity

# Example evaluation framework: "AI Collaboration Maturity"

class JuniorPerformance:
    def __init__(self):
        self.dimensions = {
            'ai_orchestration': 0,      # Ability to use AI well
            'critical_validation': 0,   # Spot AI errors
            'tacit_knowledge': 0,       # Understand domain context
            'creative_problem_solving': 0  # Solve novel problems
        }

    def ai_amplification_factor(self):
        """
        Composite score: is an 'excellent' junior with AI
        worth more than a senior without AI?
        """
        return (
            self.dimensions['ai_orchestration'] * 0.3 +
            self.dimensions['critical_validation'] * 0.3 +
            self.dimensions['tacit_knowledge'] * 0.2 +
            self.dimensions['creative_problem_solving'] * 0.2
        )

3. Measure Real AI Effects on Your Teams

Don’t rely on intuitions. Instrument your AI usage and its impacts on HR flows.

Table 2. Key Indicators to Track (HR AI Dashboard)
Indicator Formula Alert if

Junior hiring rate

(Junior hires / Total hires) per quarter

Decline > 15% over 2 quarters

Time-to-productivity ratio

Days to autonomy post-hire (junior vs senior)

Junior/Senior > 3x (historically ~2x)

AI adoption rate by level

% using AI daily (junior vs senior)

Junior < Senior (should be inverse)

Task diversity index

Shannon entropy of task categories performed

Decline > 20% (sign of "taskification")

For Individuals (Juniors and Future Juniors)

1. Bet on Non-Codifiable Skills

Studies show that what resists AI are tacit and relational skills:

  • Contextual judgment: Knowing what matters in a given situation

  • Political skills: Navigating organizational dynamics

  • Empathy and influence: Persuading, negotiating, managing emotions

  • Non-algorithmic creativity: Asking new questions, not solving known problems

Concrete strategy: In your first roles, prioritize opportunities that expose you to:

  1. Complex client/stakeholder interactions

  2. Ambiguous projects without obvious solutions

  3. Mentoring by seniors (access to their tacit knowledge)

  4. Multi-disciplinary contexts (not narrow specialization)

2. Become Excellent at AI Orchestration

This isn’t "knowing how to use ChatGPT" (everyone can). It’s:

  • Advanced prompt engineering: Chaining, few-shot, context building

  • Critical validation: Spotting hallucinations, checking sources

  • Workflow composition: Combining multiple AI tools + human judgment

  • Understanding limits: Knowing when AI fails

# Example AI-augmented workflow for market analysis

# Step 1: Structure generation (AI)
$ claude "Create a market analysis plan for [sector X]"

# Step 2: Data research (Human)
# → Identify primary sources, verify currency

# Step 3: Assisted synthesis (AI)
$ claude "Synthesize these 5 sector reports: [pasted]"

# Step 4: Cross-validation (Human)
# → Check coherence, look for biases, confront expertise

# Step 5: Original insights (Human + iterative AI)
$ claude "Based on this synthesis, what emerging trends
   are not yet in the consensus?"
# → Challenge AI suggestions, add domain intuition

3. Build Your Reputation and Alternative Signals

If written applications no longer signal competence, create other signals:

  • Public portfolio: GitHub, technical blog, open source projects

  • Network: Recommendations from respected people > anonymous CV

  • Micro-expertise: Be known for something specific

  • Community contributions: Conferences, articles, mentoring

graph LR A[Traditional signal
Written application] -.->|Devalued| B[Opaque market] C[New signals] --> D[Public portfolio] C --> E[Validated network] C --> F[Micro-expertise] C --> G[Contributions] D --> H[Verifiable reputation] E --> H F --> H G --> H H --> I[Resilient
employability] style A fill:#ff6b6b,stroke:#c92a2a,stroke-width:2px style B fill:#fa5252 style H fill:#51cf66,stroke:#2f9e44,stroke-width:2px style I fill:#40c057,stroke:#2b8a3e,stroke-width:3px

For Public and Educational Decision-Makers

1. Rethink Initial Training

The "theoretical training → internship → junior job" model is being challenged. We need:

  • More real problem-based learning from training onwards

  • Fewer repetitive tasks in internships (now automatable)

  • Explicit soft skills development (negotiation, leadership, creativity)

Inspiring example: The 42 model (coding school with no lectures) where students learn through projects. This format naturally develops orchestration and problem-solving skills, not just technique.

2. Transition Support Policies

Facing a technological shock of this magnitude, measures to consider:

  • "First AI-augmented job" tax credit: Incentivize companies to maintain transforming junior roles

  • AI skills certification: Recognized standards for "AI collaboration professional"

  • Emerging occupations observatory: Real-time tracking of new roles (like "AI prompt engineer," "AI validation specialist")

3. Platform Signaling Regulation

For freelancing platforms (Upwork, Fiverr, etc.):

  • Transparency on AI usage: Obligation to declare if a proposal is AI-generated

  • Robust reputation systems: That survive the cheap talk era

  • Anti-gaming mechanisms: Prevent AI application spam

Without intervention, the risk is that these platforms become lemon markets (Akerlof 1970) where good candidates can no longer signal and withdraw, degrading average quality.

Conclusion: Navigating Uncertainty

These three studies, published between August and November 2025, outline the contours of a major labor market transformation. Their results converge:

Study Quantitative Result Identified Mechanism

Brynjolfsson et al. (Stanford)

20% decline developers 22-25 years

Automation of codified tasks → substitution

Galdin & Silbert (Princeton/Dartmouth)

-19% hiring top quintile, +14% bottom quintile

Costly signal collapse → loss of meritocracy

Hosseini & Lichtinger (Harvard)

-7.7% junior employment (72% via hiring freeze)

Forward-looking adjustment → automation anticipation

What We Know With Confidence

  • ✓ Junior employment in AI-exposed occupations has declined since Q1 2023

  • ✓ The effect is concentrated on 22-25 year-olds

  • ✓ Seniors in the same occupations are stable or growing

  • ✓ The primary mechanism is reduced hiring, not layoffs

  • ✓ Quality signals (applications) are devalued by AI

  • ✓ The effect is stronger for codified than tacit tasks

  • ✓ Automation affects differently from augmentation

What Remains Uncertain

  • ? Is this a transitory adjustment or permanent structural change?

  • ? Will new "AI-native" junior roles emerge fast enough?

  • ? Will organizations recognize the "lost generation" risk?

  • ? Will training systems adapt in time?

  • ? What will be the magnitude of polarization (elites vs precarity)?

The Imperative for Collective Action

Facing technological change of this speed, inaction guarantees the worst scenario. The three studies point to a need for coordinated intervention:

  1. Organizations must rethink their talent development models

  2. Individuals must anticipate and develop resilient skills

  3. Educational systems must transform (not just add AI courses)

  4. Public authorities must regulate and support the transition

A technology that makes communication cheaper doesn’t necessarily make markets more efficient. When communication serves as a costly signal rather than pure information transmission, reducing costs can break the signaling mechanism and harm welfare.

— Galdin & Silbert Conclusion

This lesson extends beyond the labor market. It reminds us that technological efficiency and economic efficiency are not synonymous. AI can make each worker individually more productive while reducing the allocative efficiency of the market.

The question is therefore not "will AI replace juniors?" (the answer is partially yes), but "How do we reorganize our institutions so this transition is socially sustainable?"

This is the question we, as AI practitioners and transformation advisors, must now tackle.


This article synthesizes three major academic studies published between August and November 2025. All quantitative data are sourced and verifiable.

References

  • [brynjolfsson2025] Brynjolfsson, E., Chandar, B., & Chen, R. (2025). "Canaries in the Coal Mine? Six Facts about the Recent Employment Effects of Artificial Intelligence." Stanford Digital Economy Lab, August 26, 2025.

  • [galdin2025] Galdin, A., & Silbert, J. (2025). "Making Talk Cheap: Generative AI and Labor Market Signaling." Job Market Paper, November 14, 2025, 128 pages.

  • [hosseini2025] Hosseini, S.M., & Lichtinger, G. (2025). "Generative AI as Seniority-Biased Technological Change: Evidence from U.S. Résumé and Job Posting Data." SSRN 5425555, October 6, 2025.

  • [spence1973] Spence, M. (1973). "Job Market Signaling." Quarterly Journal of Economics, 87(3), 355-374.

  • [akerlof1970] Akerlof, G.A. (1970). "The Market for 'Lemons': Quality Uncertainty and the Market Mechanism." Quarterly Journal of Economics, 84(3), 488-500.

  • [eloundou2024] Eloundou, T., et al. (2024). "GPTs are GPTs: An Early Look at the Labor Market Impact Potential of Large Language Models." Science, 381(6654).


About the Author

Stéphane Mariel co-leads Nakeo, a firm specializing in AI deployment in enterprises. An expert in technological transformation and former CTO, he advises organizations on responsible and effective adoption of generative AI.

Contact: nakeo.com | LinkedIn: Stéphane Mariel