quadrantChart
title CapEx vs OpEx by Development Approach
x-axis Low CapEx --> High CapEx
y-axis Low OpEx --> High OpEx
quadrant-1 High Investment, High Ops
quadrant-2 Low Investment, High Ops
quadrant-3 Low Investment, Low Ops
quadrant-4 High Investment, Low Ops
Vibe Coding: [0.15, 0.85]
Structured AI-Assisted: [0.45, 0.5]
Agentic Engineering: [0.8, 0.2]
Token Economy
The Economics of AI Development
When evaluating AI’s impact on the SDLC, the more critical metric for engineering leaders is Total Cost of Ownership (TCO) — specifically how different workflows shift the financial burden between:
- CapEx — the upfront investment to build something
- OpEx — the ongoing cost to run, fix, and maintain it
The Investment of Agentic Engineering (High CapEx, Low OpEx)
Agentic engineering flips this economic model. The CapEx includes designing API schemas, building deterministic test suites, and structuring the agent’s context. While higher upfront, the marginal cost of shipping and maintaining a feature drops dramatically.
Context Engineering as a Financial Lever
In the token economy, context engineering is not just a technical skill — it is a financial strategy. Effective context engineering ensures the model receives a dense, high-signal payload rather than a sprawling, noisy one, dramatically increasing the agent’s first-pass success rate.
Intelligent Model Routing
A well-designed factory model avoids expensive waste by routing tasks intelligently:
- Large frontier models for highly complex tasks (Requirements, Architecture, initial Implementation)
- Smaller, faster, cheaper models for lower-complexity tasks (Test Generation, Code Review, CI/CD monitoring)
Tokenmaximization
leaderboard for who use max token@
Model verbosity
increase in verbosity in model toto cash out in token research aspects
Token Pices Evolution
focus on anthropic and openai