AGI Research Learning Roadmap
Three years run from math, physics, and circuits through ML, robotics, and safety, each stage with diagnostics and exit criteria, ending in a reproducible capstone.
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Build an AI research roadmap
Create a staged, version-checked curriculum with projects, gates, safety, and ethics without promising AGI or a career.
For a software engineer
Change only learner profile to a programmer weak in formal math.
Try Deep ResearchTask: Design a rolling three-year roadmap for an aspiring AGI researcher. Use the page’s 2025–2028 structure only as a historical template; schedule Year 1–3 from the actual start date. Assess math, programming, research experience, time, budget, language, hardware, and track; branch when unknown. Roadmap protocol: Do not promise AGI, a job, admission, or an AGI timeline; treat AGI as contested and separate established curriculum from speculative agendas. At execution time verify course, software, benchmark and book editions, access, cost, prerequisites, and availability; date recommendations and offer durable alternatives. Structure Year 1–3 from the actual start date, with diagnostics, effort, prerequisites, outcomes, resources, exercises, and exit criteria. Require derivations, tested software, reproductions, ablations, negative results, model cards, safety evaluations, proposals, and a reproducible capstone. Cover mathematics, probability, optimization, physics, programming and systems; electronic engineering, circuits, digital electronics and signals; ML, deep/RL, robot kinematics, perception and control; experimental design, writing, safety, ethics, data governance, and disclosure. Include evidence-grounded interdisciplinary project options in environmental protection, renewable energy, and space exploration without presenting them as AGI necessities or forecasts. Include compute/budget tiers, accessibility, review, portfolio evidence, reassessment, and theory, empirical, robotics, and safety branches. Verify attributed educational advice.
Task: Design a rolling three-year roadmap for an aspiring AGI researcher. Use the page’s 2025–2028 structure only as a historical template; schedule Year 1–3 from the actual start date. Assess math, programming, research experience, time, budget, language, hardware, and track; branch when unknown. Roadmap protocol: Do not promise AGI, a job, admission, or an AGI timeline; treat AGI as contested and separate established curriculum from speculative agendas. At execution time verify course, software, benchmark and book editions, access, cost, prerequisites, and availability; date recommendations and offer durable alternatives. Structure Year 1–3 from the actual start date, with diagnostics, effort, prerequisites, outcomes, resources, exercises, and exit criteria. Require derivations, tested software, reproductions, ablations, negative results, model cards, safety evaluations, proposals, and a reproducible capstone. Cover mathematics, probability, optimization, physics, programming and systems; electronic engineering, circuits, digital electronics and signals; ML, deep/RL, robot kinematics, perception and control; experimental design, writing, safety, ethics, data governance, and disclosure. Include evidence-grounded interdisciplinary project options in environmental protection, renewable energy, and space exploration without presenting them as AGI necessities or forecasts. Include compute/budget tiers, accessibility, review, portfolio evidence, reassessment, and theory, empirical, robotics, and safety branches. Verify attributed educational advice.
Task: Design a rolling three-year roadmap for an aspiring AGI researcher. Use the page’s 2025–2028 structure only as a historical template; schedule Year 1–3 from the actual start date. Assess math, programming, research experience, time, budget, language, hardware, and track; branch when unknown. Roadmap protocol: Do not promise AGI, a job, admission, or an AGI timeline; treat AGI as contested and separate established curriculum from speculative agendas. At execution time verify course, software, benchmark and book editions, access, cost, prerequisites, and availability; date recommendations and offer durable alternatives. Structure Year 1–3 from the actual start date, with diagnostics, effort, prerequisites, outcomes, resources, exercises, and exit criteria. Require derivations, tested software, reproductions, ablations, negative results, model cards, safety evaluations, proposals, and a reproducible capstone. Cover mathematics, probability, optimization, physics, programming and systems; electronic engineering, circuits, digital electronics and signals; ML, deep/RL, robot kinematics, perception and control; experimental design, writing, safety, ethics, data governance, and disclosure. Include evidence-grounded interdisciplinary project options in environmental protection, renewable energy, and space exploration without presenting them as AGI necessities or forecasts. Include compute/budget tiers, accessibility, review, portfolio evidence, reassessment, and theory, empirical, robotics, and safety branches. Verify attributed educational advice.