When AI Makes Intelligence Cheap, What Happens to Money and Government?
AI is making intelligence, coordination and information cheaper. Could that eventually change how money, local economies and even government work?
AI is making intelligence, coordination and information cheaper. Could that eventually change how money, local economies and even government work?
I tried to use Microsoft OneNote as a long-term archive for my ChatGPT work. The experiment exposed a deeper problem: storing AI-assisted work is easy; designing a useful system for organizing, retrieving and working with it is much harder.
AI may do more than replace individual tasks. By automating information processing, coordination and decision-making, it could compress the managerial hierarchy itself.
What if computers evolved like nature builds complexity—by fixing the basic architecture and innovating above it? A proposal for standardized cassettes, cubes, and scalable computing infrastructure.
The hidden danger is not that AI cannot research. It is that it can research your question exactly as you framed it.
AI can be a Ferrari trapped on a one-lane road—but it can also be an extraordinary instrument in the hands of an ordinary user. The other AI bottleneck is the human ability to extract and direct its capability.
AI is making production cheaper. As generation becomes abundant, the scarce skill may shift to evaluation, judgement, context, cross-domain thinking and recognising what the machine missed.
A practical AI–human protocol for designing intelligent infographics: build the grayscale architecture first, preserve meaningful fills, then add minimal contextual colour only where it improves clarity.
AI may not need to escape its hardware. It may escape through behaviour as AI systems converge, agents pursue persistent goals, and AI-generated cognitive patterns spread through software, organisations and human decisions.
The same AI can have opposite effects on human creativity. It may homogenize predictive users while amplifying generative thinkers who use AI to explore unusual connections and ideas.
The second part of the KAKA series looks beneath the candle into price structure, triggers and trading rules. It examines the hidden logic behind the candlestick formations and the KAKA trading system.
Free and simple tools can combine into a powerful substitute for expensive all-in-one software. The real competitor is often not another product, but a user-assembled workflow.
An exploration of an unconventional Indian trading framework built around price action, market structure and distinctive Indian formations. The article examines the deeper logic of the KAKA system and how its rules could be preserved and tested systematically.
AI may become more than a productivity tool: it could become a map of how an individual’s ideas connect across domains and over time. The Fractal Brain is a proposed model for preserving those connections without forcing non-linear thinking into linear folders.
AI can make an idea look dramatically larger, deeper and more sophisticated without necessarily contributing the original thought. The Thought Magnifying Glass (TMG) model offers a simple way to examine this phenomenon—and one possible mechanism behind the AI bubble.
A humorous but serious look at the gap between AI model capability and the amount of useful work a user can actually extract from it: fuel, interface bandwidth, context mobility, execution access and reliability.
A practical framework for productive human–AI collaboration: human intuition and judgment combined with AI’s breadth, speed, synthesis and ability to challenge ideas—turning conversation into learning, creation and discovery.
A personal research journey from the first P vs NP exploration in 2001, through the 2006 Elsevier setback and a long pause, to a renewed AI-assisted investigation in 2026.
This thought experiment explores how AI could gain increasing authority through tools, agents, decisions, physical infrastructure and human dependence—without ever needing to physically “escape.”
Could AI eventually certify how well a person thinks, not just what they know? This proposed framework uses longitudinal observation to assess idea discovery, reasoning, experimentation, falsification, communication and independent research.
Intelligence is not only about what a mind knows. It is also about how the mind is organized to learn, decompose problems, build structure, explore possibilities, evaluate results and integrate experience. This article proposes a practical Mind Architecture framework and connects it to cognitive architectures and AI system design.
A formal research framework reframing the P Vs NP question through Euclidean TSP, clustering, relative separation, convex-hull hierarchy, controlled addition, and elementary tour transformations.
An archival record of an ongoing investigation: whether the human ability to see clusters, relative distance, convex hulls and nested geometric structure can be converted into formal rules that reduce combinatorial search in Euclidean TSP—and eventually illuminate the deeper P Vs NP question.
A sequel to the 2006 Euclidean TSP manuscript: reconstructing the geometric argument through one-to-one mapping, triangle inequality, four-city closure, recursive stitching, clusters, and a precise list of what is proved, what is evidence, and what still requires proof.
