The Economics of Skills

An analysis of global tech talent: AI, human augmentation and the future workforce.

AI acceleration, wage inflation, decentralized talent hubs and a silent repricing of global labor are colliding. This data book tracks how tech talent is reorganizing around the world, and why competitiveness now depends on orchestrating skills, systems and augmented capacity rather than labor-cost arbitrage.

Source Draup BrainDesk research·Global tech talent supply and job postings·Horizon 2025 to 2030

Core tech skills at risk

0%

of today’s core tech skills will be partially obsolete by 2027

Labor-cost arbitrage

<0%

remaining cost advantage of traditional offshore delivery models

Technical skill half-life

<0yrs

before a technical skill loses half its market relevance

Introduction

A new reality for talent leaders

HR teams are struggling more than ever to adapt to the rapid digital transformation of this era. Key factors like wage inflation, AI acceleration, decentralization of talent hubs, and a “silent repricing” of global labor are colliding, forming a new reality for organizations. In this reality, organizational competitiveness will depend less on labor cost arbitrage and more on the strategic orchestration of skills, systems, and augmented capacity.

Our BrainDesk team dove into tech talent research, analyzing how talent growth is shifting from concentrated hubs in the Global North to a more distributed ecosystem across the South and East. With AI compressing the half-life of technical skills to under two years, tech is reorganizing globally into a network of Builders, Orchestrators, and Synthesizers.

For talent leaders, it is clear. They must evolve their talent metrics from traditional FTE counts to Effective Digital Capacity (EDC), a metric that accurately reflects how well their workforce can leverage current and emerging technologies to maximize the combined throughput of human and AI systems.

Key data

01

By 2027, 40% of today’s core tech skills will be partially obsolete, not due to job loss, but due to skill fusion and AI-enabled workflows.

02

Traditional labor-cost arbitrage, which once underpinned global delivery models, has narrowed to below 20%, fundamentally altering how organizations allocate work and capital.

Chapter 01

The Polycentric Tech Workforce

Global hubs and decentralized talent

Global talent acquisition: adopt a hub, spoke and satellite design

Layer
Markets
Role in the model
Hubs
U.S., India, China
Scale and depth
Growth markets
Vietnam, Poland, Indonesia
Expansion buffer
Innovation nodes
Israel, Singapore, ANZ
Niche capabilities

The new scale engines

APAC and LATAM

Rapid shifts in global talent supply are leading to emerging regions becoming critical engines of growth. APAC and LATAM are experiencing the fastest expansion in tech talent, driven by large, maturing labor pools and consistently rising demand, while Europe and MEA show steady but differentiated growth patterns as their ecosystems evolve.

The figure below highlights not only the absolute supply numbers across these markets but also talent demand percentages and year-over-year growth rates. It shows where competition for skills is intensifying and where enterprises may find scalable, future-ready talent pipelines.

Talent supply, demand and growth rate of global emerging locations

Tech talent supplyTech talent demandGrowth rate (CAGR)
APACEuropeLATAMMEA0500K1M1.5M2M0%3%6%9%12%15%18%Size of tech talent supplyTalent growth rate (CAGR)26%983KAustralia26%727KVietnam15%699KPhilippines21%156KNew Zealand21%121KThailand20%1.1MPoland17%637KNetherlands21%331KRomania19%154KHungary24%138KIreland29%1.3MBrazil21%730KMexico17%376KArgentina24%132KChile24%69.8KCosta Rica15%542KEgypt14%434KNigeria16%359KKenya20%248KUAE16%222KMorocco5%11%11%6%7%11%4%8%6%4%11%4%7%7%8%13%10%15%6%13%

Talent growth rate is the CAGR of talent year on year from November 2022 to October 2025. Talent demand % is job postings in the last year divided by total talent supply. Hover a row for details.

Source: Draup BrainDesk research, global tech talent.

The next competitive battlegrounds

Tier-2 cities

Emerging Tier-2 cities across the globe are rapidly gaining prominence as competitive alternatives to established tech hubs. They are experiencing accelerated tech company growth, major hyperscaler and enterprise investments, and increasing R&D activity.

The map below shows a selection of Tier-2 cities with rising prominence. Larger, pulsing markers have a profile; hover any city for details.

Rising hubs: emerging near-Tier-1 and advanced Tier-2 locations

APACEuropeMiddle East & AfricaNorth AmericaLatin America

Illustrative selection of Tier-2 cities with rising prominence; not an exhaustive list.

Source: Draup BrainDesk research.

Advantages of Tier-2 cities: key factors driving their appeal

01

Local duty and tax exemptions

02

Single-window regulatory clearances

03

Relaxation of SEZ regulations

04

Attractive commercial propositions

05

Connectivity and infrastructure

06

Lower operational costs

Chapter 02

The Widening Skill Gap

And new tech talent archetypes

Job function, 2025 and 2028 (predicted)

Talent supply and demand

Software development, cybersecurity, data analytics and AI/ML roles already face the largest talent supply-demand gaps in 2025. Cybersecurity is emerging as the most constrained function due to accelerating threat complexity and regulatory pressures.

While most functions show a gradual narrowing of that gap by 2028, cybersecurity sharply diverges. This imbalance is projected to widen further as demand outpaces talent development.

Tech talent supply and demand by job function, 2025 and 2028 (predicted)

Talent supply 2025Total demand 2025Talent supply 2028 (P)Total demand 2028 (P)
0M10M20M30M40M50MTalent count (millions)SoftwareDevelopmentOperations &InfrastructureData Analytics& AI/MLDesign &User ExperienceQuality Assurance& TestingCyber SecurityArchitecture &Management

Values in millions of people. Gap is unmet demand as a share of total demand.

Source: Draup BrainDesk research; 2028 values are predictions.

Three archetypes of the global tech workforce

Archetype 01

Builders

Engineers who create, train and architect systems.

Archetype 02

Orchestrators

Roles managing integration, deployment and automation.

Archetype 03

Synthesizers

Hybrid roles bridging business, tech and AI-enabled decisioning.

One urgent shift to Builders

Three new roles

These roles didn’t exist at scale five years ago. Strategic workforce planning must recalibrate to hire the right mix of talent, signaling an urgent shift from traditional roles to demand for Builders. The role of HR evolves from filling traditional jobs to engineering workforce composition.

Demand trends: talent demand vs demand CAGR, 2023 to 2025

BuildersOrchestratorsSynthesizers
40%35%30%25%20%15%1,00010,00025,00035,00050,000Talent demand (job postings)Talent demand CAGR (2023–2025)GAI/ML Engineer,39%AI Software Engineer, 39%Responsible AIAdvisor, 37%GAI PlatformArchitect, 37%Computer Vision Engineer, 37%AI Engineer, 37%GAI BusinessAnalyst, 36%Data Engineer, 35%NLP Developer, 34%AI ProductManager, 34%DL SolutionArchitect, 33%MLOps Engineer, 33%SRE Engineer, 33%AI TransformationConsultant, 31%AI Consultant, 30%Cloud Platform Engineer, 29%DevOps Engineer, 29%Data & AI StrategyConsultant, 27%Full Stack Engineer, 27%Applied Data ScienceManager, 26%Cloud Solutionarchitect, 23%IT Infrastructure Engineer, 18%RPA Developer, 17%High Demand–High Growth BuildersLow Demand–High/ModerateGrowth SynthesizersModerate Demand–ModerateGrowth Orchestrators

Source: Draup BrainDesk research.

Chapter 03

AI and Skills Obsolescence

The two-year technical skill half-life

The half-life of tech skills is now less than two years, and by 2027, 40% of current tech skills will be partially obsolete due to technical skill fusion and the adoption of AI skills.

The charts below show how demand for different skills has fundamentally shifted over the past decade.

Skill cluster demand growth rate: Software Engineering, 2010 to 2025

GolangObject Oriented ProgrammingC/C++JavaPython
-20%-10%0%10%20%30%40%2010201120122013201420152016201720182019202020212022202320242025

Skill cluster demand growth rate: DevOps Principles, 2010 to 2025

MLOpsFailure AssessmentCI/CD PrinciplesMonolithic ArchitectureMicroservices
-20%-10%0%10%20%30%40%2010201120122013201420152016201720182019202020212022202320242025

Skill cluster demand growth rate: Testing & QA, 2010 to 2025

AI-Assisted TestingDebuggingPerformance TestingManual Regression TestingTest Data Management
-20%-10%0%10%20%30%40%2010201120122013201420152016201720182019202020212022202320242025

Skill’s demand growth rate % is the year-on-year change in the presence of the skill in job postings. Hover the chart to see each year’s values.

Source: Draup job postings, 2010 to 2025.

Chapter 04

The Age of Augmentation

Employees and human-machine collaboration

The next decade of workforce transformation and value creation depends on how AI-driven productivity and revenue gains will offset large-scale job displacement. Job creation and automation are converging to drive the future of enterprise value. AI evolution is reshaping work composition, reducing human-only tasks while rapidly expanding AI-led and collaborative human–machine roles across engineering functions.

The first chart shows that AI-driven productivity and revenue gains will offset large-scale job displacement. The second shows that the share of tasks executed primarily by technology is predicted to grow from 22% in 2025 to 34% by 2030, a 50% increase in automation-driven work within five years.

New jobs created

0M

cumulative, 2025 to 2030

Jobs displaced

0M

cumulative, 2025 to 2030

Net job gain

+0M

AI-driven gains offset displacement

Balancing job creation and displacement in the decade ahead, 2025 to 2030

New jobs createdJobs displacedNet job gain
-30M-20M-10M0M10M20M30M40M50MNumber of roles (millions)-66122025-98172026-1311242027-1714312028-2017372029-2723492030

Values in millions of jobs per year. Hover a year for details.

Source: Draup BrainDesk research; projections.

Human–machine collaboration becomes the dominant work model

WorkforceWorkforce + technologyTechnology
0%20%40%60%80%100%Share of tasks47%31%22%202533%33%34%By 2030

Share of tasks by who performs them primarily.

Source: Draup BrainDesk research; 2030 values are predictions.

Chapter 05

Why Arbitrage Is Below 20%

The global labor market’s silent repricing

Four main drivers reducing traditional offshoring arbitrage to below 20%

01

Wage growth in emerging markets

Sustained double-digit salary growth in India, Mexico and the Philippines is narrowing the cost gap with developed markets.

02

Globally competitive talent landscape

High global demand for niche roles is forcing organizations to pay a premium regardless of the talent’s geographic location.

03

Proliferation of remote work

Remote work has enabled cross-border talent access, but it has also triggered pay normalization across markets due to broader competition.

04

Advances in GenAI and automation

Automation is optimizing internal cost structures, making labor arbitrage less central to operational efficiency strategies.

Labor cost can no longer be the primary lever of strategic workforce planning. Capability, speed and ecosystem advantages will take precedence. The charts below show narrowing cost gaps across multiple countries for cybersecurity architects and firmware engineers.

Reducing cost advantage against the USA

IndiaPhilippinesMexicoBrazil

Cyber security architect

Future projection02468Y-22Y-23Y-24Y-25Y-26Y-27Y-28Y-29Y-30

Firmware engineer

Future projection02468Y-22Y-23Y-24Y-25Y-26Y-27Y-28Y-29Y-30

Number of people that can be hired for the cost of one in the USA. Shaded area, Y-26 onward, is a future projection. Hover the charts for each year’s values.

Source: Draup compensation intelligence; projections from Y-26.

Chapter 06

Enterprises Are Paying More

For innovation-centric capabilities

Rising demand for new-age skills: four drivers behind talent premiums

01

Supply-demand imbalance

Early adopters in emerging technologies command a premium until the talent supply catches up.

02

Accelerated time-to-productivity

Candidates with niche skills reduce ramp-up time by delivering faster results.

03

Certification or ecosystem lock-in

Certified experts in proprietary systems (like SAP HANA, AWS SageMaker) are more expensive to replace.

04

Direct business impact

Niche skills often directly influence topline growth (like AI/ML product features) or bottom-line savings (like automation via cloud scripting).

Compensation design must continue shifting from role-based pay to skill-based compensation architectures, especially in domains like AI, ML, cloud and cybersecurity.

Skill-based pay premium by role

Median base salaryUplift with niche skill
120,000140,000160,000180,000200,000220,000240,000Median salary (USD) per annumSoftware Engineer+43.1%LLM IntegrationSolutions Architect+22.4%Multi-Cloud OrchestrationFirmware Engineer+30.7%Embedded AI/MLHardware Engineer+36.2%5G Accelerator DesignSystems Architect+22.8%Edge-to-CloudData Analyst+38.5%Data Build ToolsCloud Engineer+22.3%Serverless Architecture

Median salary in USD per annum; bar scale runs to $250K. Base pay reported is for the United States.

Source: Draup compensation intelligence.

Chapter 07

Startup vs. Big Tech

Differentiated AI talent acquisition strategies

Startups and Big Tech globally are hiring for AI in very different patterns. Startups are prioritizing versatile AI engineers who accelerate GenAI development, whereas Big Tech seeks specialists in frontier models and large-scale AI infrastructure.

As a result, startups have 35–45% AI skill penetration, nearly two times that of Big Tech. Big Tech, however, commands the largest absolute AI talent pools.

AI talent landscape in tech startups vs Big Tech companies

AI skills in talent supply · Big TechAI skills in talent supply · Top startupsAI skills in talent demand · Big TechAI skills in talent demand · Top startups
0%10%20%30%40%50%Share of AI skills in the talent metric844.3United States11.744.7United Kingdom18.537.6Canada8.335.7India1147.1Germany

Share of AI skills in each talent metric, %.

Source: Draup talent intelligence.

Action plan for CHROs

From workforce expansion to workforce engineering

Skills expire faster, and AI reshapes work composition as global talent markets further decentralize. Talent leaders must rapidly shift from workforce expansion to workforce engineering.

The future demands a shift from headcount to Effective Digital Capacity, driven by the continuous upskilling of the augmented employee and a strategic, polycentric talent architecture. Ultimately, competitiveness through 2030 will favor organizations that can continuously adapt.

Consider where your workforce is today and what frameworks it must build to stay competitive all the way through 2030.

Measure your Effective Digital Capacity

See which roles and skills in your organization AI changes first, and where your talent architecture needs to adapt before 2030.