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IT: Software Engineering

Theory of Computation: What Computers Can and Can't Do

Theory of Computation: leave with a finite automaton for a validation rule, its regex and an NP-hard problem approximation note.

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Ajay Prajapat

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Ajay Prajapat

AI Educator · Engineer · innovatewithajay.com

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TechlyUpIT: SOFTWARE ENGINEERINGTheory ofComputation:What ComputersCan and Can't DoFREE WEBINAR TOPIC · VOTE

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What this session would cover

Proposed outline — the mentor finalises the agenda once this topic is scheduled.

  1. 1Why theory of computation matters — the common problem: Regular expressions are copied blindly and NP-hard problems are attacked with brute force.
  2. 2Core concepts in plain language: Finite automata, formal languages, grammars, regular expressions, pushdown automata, Turing machines
  3. 3Going further: computability, decidability, reductions, complexity classes, NP-completeness, approximation algorithms
  4. 4Framework walkthrough: Big-O Complexity Analysis, Computational Thinking, Worked Problem Sets
  5. 5Practical workflow, built live: A finite automaton for a validation rule, its regex and an NP-hard problem approximation note.
  6. 6How to measure it: Correctness on test cases, Time and space complexity, Problems solved independently
  7. 7An illustrative case (a fictional example, not a client result), then live Q&A on your own situation

Who it's for

  • • Students and freshers entering tech
  • • Working developers and engineers
  • • Tech leads and architects

You'd leave with

  • A finite automaton for a validation rule, its regex and an NP-hard problem approximation note.
  • A working understanding of Big-O Complexity Analysis and Computational Thinking
  • A short list of measures to track: Correctness on test cases, Time and space complexity, Problems solved independently