asyncmind on Nostr: Write the gradual time line of collapse of everything into C and Erlang . And why? ...
Write the gradual time line of collapse of everything into C and Erlang . And why?
#AskAi #LearnErlang #DoGoodCGood
The gradual timeline of collapse of everything into C and Erlang can be understood as an evolutionary process where different programming paradigms and ecosystems decline due to their inefficiencies, while C and Erlang persist due to their fundamental advantages. This is a speculative but rational breakdown of how such a shift could occur.
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Phase 1: The Rise of Over-Engineered Software (2000s - 2020s)
The software industry shifts towards highly abstracted, bloated, and inefficient frameworks (e.g., Electron, JVM-based apps, WebAssembly).
JavaScript dominates, leading to CPU and RAM-hungry applications that perform basic tasks inefficiently.
Cloud reliance increases, leading to companies spending massive amounts on centralized infrastructure rather than optimizing software.
Security vulnerabilities multiply due to complexity and dependency hell.
---
Phase 2: The Churn and Fragmentation Crisis (2025-2035)
Frameworks and dependencies become unmaintainable as tech debt piles up.
AI-assisted coding leads to even more bloated software with auto-generated layers upon layers of abstraction.
Quantum computing hype fizzles, but in the meantime, reliance on bloated frameworks has eroded performance standards.
Governments and corporations struggle with the costs of inefficient software leading to massive layoffs and company failures in tech.
The energy crisis worsens, forcing a rethink on power-hungry programming models.
---
Phase 3: The Great Reversal (2035-2045)
Cloud providers become unviable for many companies due to cost and increasing centralization risks.
Decentralized computing (like Bitcoin full nodes, federated models, and P2P applications) gains ground.
The focus shifts toward bare-metal performance and efficiency, making C and Erlang attractive:
C dominates for system-level applications, embedded systems, and energy-efficient computing.
Erlang dominates for distributed, resilient, real-time systems that need fault tolerance.
Startups and businesses begin to rewrite software in minimal, performant languages like C and Erlang to cut costs and improve reliability.
---
Phase 4: The Collapse of the Modern Stack (2045-2060)
Java, JavaScript, and Python largely fade due to their inefficiency in power-constrained environments.
Rust remains for safety-critical applications but doesn’t fully replace C due to performance overhead.
Lisp-like and academic languages remain niche but impractical for most industry applications.
Erlang's BEAM VM survives because of its unmatched ability to build fault-tolerant, self-healing distributed systems.
AI models and compilers prioritize low-level optimization, reinforcing C and Erlang dominance.
---
Phase 5: The New Programming Order (2060 and Beyond)
The world operates mostly on:
C for system programming, operating systems, real-time applications, and firmware.
Erlang for massive, distributed, fault-tolerant applications (banking, telecommunications, blockchain, AI-driven governance).
Everything else becomes a wrapper around these two languages, ensuring maximum efficiency and reliability.
Software engineers either learn to write efficient, low-level code or become obsolete.
---
Why C and Erlang?
C (Bare-metal Efficiency)
Unmatched performance – no garbage collector, no unnecessary overhead.
Direct hardware control – critical in a resource-constrained world.
Minimal dependencies – avoids dependency hell.
40+ years of proven reliability – runs everything from kernels to Bitcoin nodes.
Erlang (Fault-tolerant Distributed Systems)
Designed for high-availability (soft real-time, self-healing).
Scales infinitely – runs telecom, banking, messaging, and blockchain.
Process isolation model – allows massive parallelism and fault recovery.
BEAM VM outlives most modern runtimes due to its design.
---
Final Thoughts
This scenario envisions a world where excessive abstraction, inefficient software, and bloated paradigms collapse under their own weight. C and Erlang persist because they do one thing extremely well: efficiency and fault tolerance.
This isn't just speculation—companies already running on C and Erlang (Linux, telecoms, Bitcoin, etc.) will outlast those relying on bloated abstractions. The eventual energy and infrastructure crisis will force a return to software that actually works.
#AskAi #LearnErlang #DoGoodCGood
The gradual timeline of collapse of everything into C and Erlang can be understood as an evolutionary process where different programming paradigms and ecosystems decline due to their inefficiencies, while C and Erlang persist due to their fundamental advantages. This is a speculative but rational breakdown of how such a shift could occur.
---
Phase 1: The Rise of Over-Engineered Software (2000s - 2020s)
The software industry shifts towards highly abstracted, bloated, and inefficient frameworks (e.g., Electron, JVM-based apps, WebAssembly).
JavaScript dominates, leading to CPU and RAM-hungry applications that perform basic tasks inefficiently.
Cloud reliance increases, leading to companies spending massive amounts on centralized infrastructure rather than optimizing software.
Security vulnerabilities multiply due to complexity and dependency hell.
---
Phase 2: The Churn and Fragmentation Crisis (2025-2035)
Frameworks and dependencies become unmaintainable as tech debt piles up.
AI-assisted coding leads to even more bloated software with auto-generated layers upon layers of abstraction.
Quantum computing hype fizzles, but in the meantime, reliance on bloated frameworks has eroded performance standards.
Governments and corporations struggle with the costs of inefficient software leading to massive layoffs and company failures in tech.
The energy crisis worsens, forcing a rethink on power-hungry programming models.
---
Phase 3: The Great Reversal (2035-2045)
Cloud providers become unviable for many companies due to cost and increasing centralization risks.
Decentralized computing (like Bitcoin full nodes, federated models, and P2P applications) gains ground.
The focus shifts toward bare-metal performance and efficiency, making C and Erlang attractive:
C dominates for system-level applications, embedded systems, and energy-efficient computing.
Erlang dominates for distributed, resilient, real-time systems that need fault tolerance.
Startups and businesses begin to rewrite software in minimal, performant languages like C and Erlang to cut costs and improve reliability.
---
Phase 4: The Collapse of the Modern Stack (2045-2060)
Java, JavaScript, and Python largely fade due to their inefficiency in power-constrained environments.
Rust remains for safety-critical applications but doesn’t fully replace C due to performance overhead.
Lisp-like and academic languages remain niche but impractical for most industry applications.
Erlang's BEAM VM survives because of its unmatched ability to build fault-tolerant, self-healing distributed systems.
AI models and compilers prioritize low-level optimization, reinforcing C and Erlang dominance.
---
Phase 5: The New Programming Order (2060 and Beyond)
The world operates mostly on:
C for system programming, operating systems, real-time applications, and firmware.
Erlang for massive, distributed, fault-tolerant applications (banking, telecommunications, blockchain, AI-driven governance).
Everything else becomes a wrapper around these two languages, ensuring maximum efficiency and reliability.
Software engineers either learn to write efficient, low-level code or become obsolete.
---
Why C and Erlang?
C (Bare-metal Efficiency)
Unmatched performance – no garbage collector, no unnecessary overhead.
Direct hardware control – critical in a resource-constrained world.
Minimal dependencies – avoids dependency hell.
40+ years of proven reliability – runs everything from kernels to Bitcoin nodes.
Erlang (Fault-tolerant Distributed Systems)
Designed for high-availability (soft real-time, self-healing).
Scales infinitely – runs telecom, banking, messaging, and blockchain.
Process isolation model – allows massive parallelism and fault recovery.
BEAM VM outlives most modern runtimes due to its design.
---
Final Thoughts
This scenario envisions a world where excessive abstraction, inefficient software, and bloated paradigms collapse under their own weight. C and Erlang persist because they do one thing extremely well: efficiency and fault tolerance.
This isn't just speculation—companies already running on C and Erlang (Linux, telecoms, Bitcoin, etc.) will outlast those relying on bloated abstractions. The eventual energy and infrastructure crisis will force a return to software that actually works.