Sunday, 15 June 2025

AI Economics Paradox

 

Why Getting Cheaper is Getting More Expensive

How the pursuit of affordable AI is creating the most capital-intensive technology race in history


We're living through one of the most counterintuitive economic phenomena in tech history. As artificial intelligence becomes cheaper per unit, total AI spending is exploding. It's a paradox that's reshaping entire industries and creating what might be the most capital-intensive arms race ever witnessed.

The numbers tell a remarkable story. Training a single AI model costs around $100 million today. But as Dario Amodei, CEO of Anthropic, recently revealed, "there are models in training today that are more like a billion" dollars, with $10 billion models expected to start training sometime in 2025.

Yet here's the twist: these astronomical training costs aren't even the main story anymore.

The Great Inversion

The real revolution is happening in inference—the cost of actually running AI models to answer queries, generate content, and make decisions. While training happens episodically (you build a model once), inference happens constantly—billions of times per day across millions of applications.

    THE AI COST SHIFT
    ==================

    BEFORE (Training-Heavy)        AFTER (Inference-Heavy)
    ┌─────────────────────┐       ┌─────────────────────┐
    │   🏭 TRAINING       │  -->  │   ⚡ INFERENCE      │
    │   $100M+ once       │       │   $$ constantly   │
    │   ================  │       │   ~~~~~~~~~~~~~~~   │
    │   Build the factory │       │   Run the factory   │
    │   (Episodic cost)   │       │   (Operational cost)│
    └─────────────────────┘       └─────────────────────┘
           ONE-TIME                    CONTINUOUS
           Big upfront                 Growing with usage

Amazon CEO Andy Jassy captured this shift perfectly in his 2024 shareholder letter: "While model training still accounts for a large amount of the total AI spend, inference will represent the overwhelming majority of future AI cost because customers train their models periodically but produce inferences constantly."

This represents a fundamental inversion of AI economics. We're moving from a world where the biggest costs were one-time training expenses to one where operational inference costs dominate. Think of it as the difference between building an expensive factory once versus paying for electricity to run it forever.

The Flywheel That Won't Stop

But here's where the paradox gets really interesting. As inference becomes cheaper per unit, something unexpected happens: total usage explodes. More usage drives higher infrastructure demands. Higher infrastructure demands push total costs back up, despite unit economics improving.

          THE AI ECONOMICS FLYWHEEL
          ==========================
                      
                   💰 Cheaper
                  Per-Unit Costs
                       |
                       ↓
        🔧 Need to    ←─────────→    📈 More AI
        Optimize              Usage Explodes
           |                         |
           ↓                         ↓
      🏗️ Higher                 ⚡ Higher Infra
      Total Costs  ←─────────  Demand Grows
                      
         💸 THE PARADOX 💸
    "Getting cheaper gets expensive!"

NVIDIA's Jensen Huang recently highlighted just how dramatic this effect has become. "Inference is exploding," , explaining that "reasoning AI agents require orders of magnitude more compute" than traditional models. These new reasoning models can require 100 times more computational power per task than standard AI inference.

The result is a self-reinforcing flywheel:

  1. Cheaper per-unit inference leads to
  2. Massive increases in AI usage which drives
  3. Exponential infrastructure demand resulting in
  4. Higher total costs that pressure providers to
  5. Optimize and scale further completing the cycle

The Infrastructure Reality Check

This flywheel effect is creating unprecedented pressure across the entire technology ecosystem:

    THE PRESSURE POINTS
    ===================
    
    ☁️  CLOUD PROVIDERS        🔧 CHIPMAKERS           🏢 ENTERPRISES
    ┌─────────────────────┐   ┌─────────────────────┐   ┌─────────────────────┐
    │ Amazon, Microsoft,  │   │ NVIDIA struggling   │   │ Stretched budgets   │
    │ Google deploying    │   │ with demand for     │   │ Can't be left       │
    │ massive capital     │   │ expensive AI chips  │   │ behind, can't       │
    │                     │   │                     │   │ afford to compete   │
    │ 💸💸💸💸💸💸💸💸💸    │   │ 🚀📈💰⚡🔥        │   │ 😰💸📊⚖️💼     │
    └─────────────────────┘   └─────────────────────┘   └─────────────────────┘
           ↓                           ↓                           ↓
       "Unusually high             "Single chip              "Can't afford the
        demand periods"             provider pricing           infrastructure
        - Andy Jassy                power" bottlenecks        requirements"

Cloud Providers like Amazon, Microsoft, and Google are deploying capital at rates that would have seemed impossible just a few years ago. Amazon's Jassy described the current moment as "periods of unusually high demand" where "you're deploying a lot of capital."

Chipmakers like NVIDIA are struggling to keep up with demand for increasingly expensive AI chips. Most AI development has been built on a single chip provider's technology, creating both bottlenecks and massive pricing power.

Enterprise Budgets are being stretched as companies realize they can't afford to be left behind in the AI race, yet can't afford the infrastructure requirements either.

The Startup Extinction Event

Perhaps most dramatically, these economics are creating what Anthropic's Amodei calls a barrier that many companies simply can't cross. "Most startups won't be able to afford to sign up for the AI race," he acknowledged.

    THE FUNDING GAP REALITY
    =======================
    
    💰 TYPICAL STARTUP           🚀 AI FRONTIER COMPANY
    ┌─────────────────────┐     ┌─────────────────────┐
    │   Series C Funding  │     │  Anthropic Example  │
    │                     │     │                     │
    │      $59M 💵        │ VS. │      $8B+ 💰💰💰    │
    │                     │     │                     │
    │   ████              │     │   ████████████████  │
    │   20% of what's     │     │   100% - What's     │
    │   needed for AI     │     │   actually needed   │
    │   frontier research │     │   to compete        │
    └─────────────────────┘     └─────────────────────┘
           😰 "Left out"              🎯 "Can compete"
    
    Result: Market concentration in hands of ultra-funded players

The numbers back this up starkly. The average U.S. startup raises about $59 million in Series C funding. Anthropic raised $450 million in their Series C and has raised over $8 billion total. The scale difference isn't just significant—it's existential.

This is creating a bifurcated market where only the most well-funded companies can compete at the frontier, while everyone else relies on their APIs and services—a dynamic that concentrates power in ways we've never seen before.

The Three Phases of AI Economics

Understanding where we're headed requires recognizing the three distinct phases of AI economic evolution:

    THE AI ECONOMICS TIMELINE
    =========================
    
    PHASE 1: 2024           PHASE 2: 2025-2026        PHASE 3: 2026+
    Training-Heavy Era      Transition Period          Inference-Dominated
    ┌─────────────────┐    ┌─────────────────┐       ┌─────────────────┐
    │ 🏭 $100M+       │    │ ⚖️ $1B+         │       │ ⚡ $10B+        │
    │                 │    │                 │       │                 │
    │ Training: ████  │    │ Training: ████  │       │ Training: ████  │
    │ Inference: ██   │    │ Inference: ████ │       │ Inference: ████ │
    │                 │    │                 │       │           ████  │
    │ Episodic costs  │ -> │ Both significant│ ->    │ Operational     │
    │ dominate        │    │ costs           │       │ costs dwarf     │
    │                 │    │                 │       │ everything      │
    └─────────────────┘    └─────────────────┘       └─────────────────┘
         Current                Transitioning             Future State
         Reality                    Now!                 Inference Rules

Phase 1: Training-Heavy Era (2024)

  • Dominated by episodic but massive capital hits
  • $100M+ models setting the bar
  • Infrastructure built primarily for training workloads

Phase 2: Transition Period (2025-2026)

  • Both training and inference costs significant
  • $1B+ training costs becoming normal
  • Infrastructure scaling for both workloads

Phase 3: Inference-Dominated Future (2026+)

  • Constant operational costs dwarf periodic training expenses
  • $10B+ training costs for cutting-edge models
  • Infrastructure optimized primarily for inference at scale

The Reasoning Revolution

What's driving this acceleration isn't just more AI usage—it's fundamentally different AI that requires vastly more computational power. The emergence of reasoning models like OpenAI's o3, DeepSeek R1, and others represents a qualitative shift in what AI can do and what it costs to run.

    OLD AI vs. REASONING AI
    =======================
    
    🤖 TRADITIONAL AI              🧠 REASONING AI
    ┌─────────────────────────┐   ┌─────────────────────────┐
    │ "What's 2+2?"           │   │ "Solve this complex     │
    │                         │   │  physics problem..."    │
    │ Input → Output          │   │                         │
    │   ⚡ (1 unit compute)    │   │ Input → 🤔💭🧮🔍📊    │
    │                         │   │ Think → Reason → Check  │
    │ ████                    │   │   ⚡⚡⚡⚡⚡⚡⚡⚡⚡⚡    │
    │ Fast, simple            │   │ (100x more compute)     │
    │                         │   │                         │
    │ "4" ✓                   │   │ "Here's my step-by-step │
    │                         │   │  solution..." ✓         │
    └─────────────────────────┘   └─────────────────────────┘
         One-shot response           Multi-step reasoning
         Cheap to run                Expensive but powerful

These models don't just generate responses; they "think" through problems step by step, applying logical reasoning and strategic decision-making. But this thinking comes at a steep computational cost. As NVIDIA's Huang explained, "The more the model thinks, the smarter the answer"—but also the more expensive it becomes.

What This Means for Everyone

For Businesses: The window for AI adoption isn't just about competitive advantage anymore—it's about survival. But the infrastructure requirements mean most companies will become dependent on a small number of AI providers rather than building in-house capabilities.

For Investors: Traditional software metrics don't apply. Success in AI requires massive upfront capital with long payback periods, more similar to infrastructure or energy investments than typical tech plays.

For Society: We're witnessing the creation of the most capital-intensive industry in human history, with power concentrated among a few players who can afford to play at scale.

The Ultimate Paradox

The most striking aspect of the AI economics paradox is how it inverts our intuitions about technology. Usually, technological progress makes things cheaper and more accessible over time. With AI, technological progress is making the underlying infrastructure more expensive and less accessible, even as the end-user experience becomes cheaper and more ubiquitous.

    THE GREAT TECHNOLOGY INVERSION
    ===============================
    
    🎭 THE PARADOX AT WORK 🎭
    
    FOR USERS:                    FOR BUILDERS:
    ┌─────────────────────────┐   ┌─────────────────────────┐
    │ 📱 AI gets cheaper      │   │ 🏗️ Infrastructure gets  │
    │ 🚀 AI gets faster       │   │    exponentially        │
    │ ✨ AI gets smarter      │   │    more expensive       │
    │ 🌐 AI gets everywhere   │   │                         │
    │                         │   │ 💸💸💸💸💸💸💸💸💸      │
    │ 😊 Better experience    │   │ 😰 Higher barriers      │
    │    Lower barriers       │   │    Fewer competitors     │
    └─────────────────────────┘   └─────────────────────────┘
             ↑                             ↑
         DEMOCRATIZED                  CONCENTRATED
         More accessible              Less accessible
         
    🌍 "AI for everyone"        🏛️ "AI by the few"

We're getting the consumer benefits of democratized AI while simultaneously creating the most exclusive and capital-intensive development environment in tech history. It's as if the internet became cheaper to use while becoming vastly more expensive to actually build and operate.

Looking Ahead

The trajectory seems clear: AI will continue getting cheaper per query while getting exponentially more expensive to operate at scale. The companies that can navigate this paradox—balancing massive capital requirements with sustainable unit economics—will likely define the next era of technology.

As we stand at this inflection point, one thing is certain: the old rules of technology economics don't apply. We're writing new ones in real-time, and the stakes couldn't be higher.

The AI revolution isn't just changing what computers can do—it's fundamentally reshaping how technology companies operate, compete, and survive. In this new world, getting cheaper really is getting more expensive, and that paradox is just getting started.

Agile Manifesto in the Age of AI

 

 Reimagining Software Development for the Era of Generative Intelligence

How the foundational principles of Agile development are being transformed—and challenged—by AI-powered coding assistants and autonomous development agents

Twenty-three years ago, seventeen software developers gathered at a Utah ski resort and forever changed how we build software. The Agile Manifesto they created prioritized individuals over processes, working software over documentation, customer collaboration over contracts, and responding to change over rigid planning.

Today, as generative AI and agentic coding tools reshape the development landscape, we face a pivotal question: Do these timeless principles still hold, or do we need Agile 2.0 for the AI age?

The answer is both more nuanced and more urgent than you might expect.




The New Development Reality

Before diving into how Agile principles evolve, let's acknowledge the seismic shift happening in software development. AI coding assistants can now:

  • Generate entire applications from natural language descriptions
  • Refactor legacy codebases in minutes rather than months
  • Write comprehensive test suites automatically
  • Debug complex issues by analyzing stack traces and logs
  • Translate between programming languages instantly
  • Create documentation that stays synchronized with code changes

This isn't just automation—it's augmentation of human cognitive capabilities. We're not just working with tools; we're collaborating with artificial intelligences that can reason about code, architecture, and even business requirements.

Revisiting the Four Core Values

1. Individuals and Interactions Over Processes and Tools

The Traditional View: Agile emphasized human communication, face-to-face conversation, and collaborative problem-solving over rigid processes and heavyweight tools.

The AI Evolution: This principle becomes both more important and more complex when "individuals" now include AI agents as active participants in development teams.

What's Changing:

  • New Collaboration Patterns: Developers are learning to effectively communicate with AI through prompting, providing context, and iterative refinement
  • Enhanced Human Focus: With AI handling routine coding tasks, humans can spend more time on creative problem-solving, architecture decisions, and stakeholder communication
  • Hybrid Team Dynamics: Teams must balance human-to-human collaboration with human-to-AI partnerships

The Risk: Over-reliance on AI tools could inadvertently reduce human-to-human communication. Teams might fall into the trap of working in isolation with their AI assistants rather than collaborating with colleagues.

Best Practice: Establish regular "AI retrospectives" where team members share their AI collaboration experiences, successful prompting strategies, and lessons learned. This maintains the human connection while optimizing AI partnership.

2. Working Software Over Comprehensive Documentation

The Traditional View: Agile valued functional software that delivers user value over extensive documentation that might become outdated or irrelevant.

The AI Transformation: This principle gets supercharged in ways the original manifesto authors couldn't have imagined.

What's Changing:

  • Rapid Prototyping: AI can transform requirements into working prototypes within minutes, making "working software" the natural starting point rather than the end goal
  • Living Documentation: AI can generate, maintain, and update documentation that stays synchronized with code changes, eliminating the traditional documentation debt
  • Self-Documenting Systems: AI-generated code often includes better comments, clearer variable names, and embedded explanations

The Paradox: While we can produce working software faster than ever, we must be more vigilant about ensuring it solves the right problems. Speed without direction is just sophisticated waste.

Best Practice: Use AI to rapidly create multiple working prototypes of different approaches, then engage stakeholders in evaluating which direction best serves user needs.

3. Customer Collaboration Over Contract Negotiation

The Traditional View: Agile emphasized ongoing customer involvement, feedback loops, and collaborative requirement discovery over fixed contracts and specifications.

The AI Enhancement: AI dramatically amplifies our ability to collaborate with customers in real-time.

What's Changing:

  • Real-Time Iteration: Changes can be implemented and demonstrated within the same customer conversation
  • Better Requirement Translation: AI can help bridge the gap between ambiguous customer requests and specific technical implementations
  • Rapid Experimentation: Multiple approaches can be quickly prototyped and presented to customers for feedback

The New Challenge: Customers might develop unrealistic expectations about delivery speed for complex features. The ability to quickly implement surface-level changes doesn't mean underlying complexity has disappeared.

Best Practice: Use AI's rapid prototyping capabilities to help customers understand requirements better, but maintain realistic expectations about the difference between prototypes and production-ready solutions.

4. Responding to Change Over Following a Plan

The Traditional View: Agile valued adaptability and responsiveness to changing requirements over rigid adherence to predetermined plans.

The AI Amplification: This principle becomes both easier to implement and more critical to embrace.

What's Changing:

  • Adaptive Architecture: AI agents can help refactor code to accommodate changing requirements more quickly and safely
  • Faster Feedback Loops: Changes can be implemented, tested, and demonstrated more rapidly
  • Continuous Evolution: Systems can be more easily restructured as understanding of requirements evolves

The Deeper Implication: With change becoming easier to implement, teams must become even better at understanding why changes are needed and which changes create the most value.

Best Practice: Establish clear value frameworks and success metrics so that increased adaptability serves strategic goals rather than becoming chaotic feature churn.

New Principles for the AI Age

While the original four values remain relevant, the AI era demands additional principles:

5. Human Judgment Over AI Automation

The Principle: While AI can generate code with superhuman speed, human judgment remains irreplaceable for understanding context, making ethical decisions, and ensuring solutions serve genuine human needs.

Why It Matters: AI can optimize for the metrics it's given, but humans must define what success actually means in the broader context of business goals, user experience, and societal impact.

In Practice:

  • Humans define the "what" and "why"; AI helps with the "how"
  • Critical decisions about architecture, security, and user experience require human oversight
  • AI suggestions are treated as starting points for human evaluation, not final answers

6. Intentional AI Partnership Over Blind Delegation

The Principle: Effective AI collaboration requires understanding AI capabilities and limitations, maintaining clear boundaries between AI and human responsibilities, and treating AI as a powerful tool rather than a replacement for thinking.

Why It Matters: Teams that blindly delegate to AI without understanding its reasoning or validating its output risk creating solutions that are technically correct but contextually wrong.

In Practice:

  • Team members develop AI literacy and understand how to effectively prompt and guide AI tools
  • Clear protocols exist for when to trust AI output and when to seek human verification
  • Regular evaluation of AI tool effectiveness and appropriate use cases

7. Continuous Learning Over Static Skills

The Principle: With AI capabilities evolving rapidly, teams must commit to continuous learning and adaptation rather than relying on static skill sets.

Why It Matters: The half-life of specific technical skills is shrinking, but the ability to learn, adapt, and effectively collaborate with AI is becoming a core competency.

In Practice:

  • Regular training and experimentation with new AI tools and techniques
  • Knowledge sharing sessions where team members demonstrate AI collaboration strategies
  • Career development paths that emphasize adaptability and AI partnership skills

Practical Implementation: Agile Ceremonies in the AI Age

Sprint Planning 2.0

Traditional Focus: Estimating story points, assigning tasks, and planning sprint capacity.

AI-Enhanced Approach:

  • AI Impact Assessment: Explicitly discuss which stories can benefit from AI assistance and which require primarily human insight
  • Learning Allocation: Reserve time for experimenting with new AI tools or techniques
  • Validation Planning: Plan for human validation of AI-generated solutions
  • Prompt Engineering: For complex AI-assisted tasks, plan time for developing effective prompts and iteration strategies

Sample Questions:

  • "Which of these user stories could we prototype with AI to better understand requirements?"
  • "What AI tools should we experiment with this sprint?"
  • "Where do we need the most human oversight for AI-generated code?"

Daily Standups Evolved

Traditional Focus: What did you do yesterday, what will you do today, what's blocking you?

AI-Enhanced Questions:

  • "What did you learn about effective AI collaboration yesterday?"
  • "Are there any AI-generated solutions that need human review today?"
  • "What AI-related blockers or limitations are you encountering?"

Sprint Reviews Reimagined

Traditional Focus: Demonstrating completed functionality to stakeholders.

AI-Enhanced Approach:

  • Solution Comparison: Show multiple AI-generated approaches that were considered
  • Decision Rationale: Explain why human judgment led to specific choices among AI options
  • Learning Showcase: Demonstrate new AI collaboration techniques discovered during the sprint

Retrospectives Plus

Traditional Focus: What went well, what didn't, what should we try next sprint?

AI-Enhanced Questions:

  • "How effectively did we collaborate with AI tools this sprint?"
  • "What AI-assisted approaches worked well or poorly?"
  • "What did we learn about prompt engineering and AI delegation?"
  • "How can we better balance AI efficiency with human insight?"

The Definition of Done Gets Smarter

Traditional Definition of Done criteria might include code review, testing, and documentation. In the AI age, consider adding:

AI-Specific Criteria:

  • Human review of all AI-generated code for context appropriateness
  • Validation that AI solutions meet non-functional requirements (performance, security, maintainability)
  • Confirmation that AI-assisted features actually solve the intended business problem
  • Documentation of AI tools used and key prompting strategies for future reference

Managing the Risks

The Speed Trap

Risk: The ability to rapidly generate code might lead to premature optimization, over-engineering, or building the wrong thing faster.

Mitigation: Maintain strong user research practices and require validation of assumptions before scaling AI-generated solutions.

The Understanding Gap

Risk: Developers might use AI-generated code they don't fully understand, creating maintenance nightmares and security vulnerabilities.

Mitigation: Establish code review practices that specifically focus on understanding and explaining AI-generated solutions.

The Dependency Dilemma

Risk: Over-reliance on AI tools could leave teams helpless when those tools are unavailable or produce poor results.

Mitigation: Maintain core coding skills and regularly practice manual implementation of critical system components.

The Future of Agile Leadership

Leadership in AI-augmented Agile teams requires new skills:

Technical Leadership:

  • Understanding AI capabilities and limitations
  • Helping teams develop effective AI collaboration strategies
  • Making decisions about when to trust AI vs. require human judgment

Cultural Leadership:

  • Fostering environments where humans feel valued alongside AI capabilities
  • Managing the psychological impact of AI on team dynamics
  • Maintaining focus on user value and business outcomes

Strategic Leadership:

  • Balancing speed enabled by AI with thoughtful decision-making
  • Investing in team AI literacy and continuous learning
  • Evolving organizational practices to leverage AI effectively

Conclusion: Agile's Enduring Wisdom

The Agile Manifesto's core insight remains profound: software development is fundamentally a human activity that requires collaboration, adaptability, and customer focus. AI doesn't change this truth—it amplifies it.

The most successful teams in the AI age won't be those who replace human judgment with artificial intelligence, but those who thoughtfully combine human creativity, empathy, and contextual understanding with AI's computational power and speed.

As we stand at this inflection point in software development, the choice isn't between Agile and AI—it's about evolving Agile practices to harness AI's potential while preserving the human-centered values that made Agile successful in the first place.

The future belongs to teams that can dance between human insight and artificial intelligence, maintaining the collaborative spirit of Agile while embracing the superhuman capabilities of AI. In this new world, the most Agile thing we can do is continuously learn how to be more effectively human in partnership with increasingly capable machines.

What's your experience with AI-augmented Agile practices? Share your insights and challenges in the comments below, and let's continue evolving these practices together.