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AGI

2007ResearchPublished: 4 September 2026Updated: 4 September 2026Published
Key innovation
Reframing the goal of AI research from narrow, single-task systems toward general, transferable cognitive competence comparable to or exceeding humans.
Category
Other
Abstraction level
Paradigm
Operation level
ModelSystem
Use cases
General reasoning and problem solving across arbitrary domainsAutonomous agents performing arbitrary digital tasksAutomation of cognitive and economically valuable workAssisting scientific discoveryKnowledge transfer and learning new tasks without redesigning the system

How it works

AGI is not a single architecture but a research goal, so it has no one defined operating mechanism. Scientific discussion considers several paths toward AGI: scaling foundation models (the hypothesis that sufficiently large models and data yield emergent generality), agentic systems combining models with tools, memory and planning, world models and reinforcement learning, and neurosymbolic approaches combining learning with explicit reasoning. Progress is measured not by a single test but by multi-dimensional frameworks — DeepMind's "Levels of AGI" rates a system along two axes: depth (how well it performs tasks) and breadth (how many different tasks it covers), defining levels from "emerging" through "competent," "expert," "virtuoso" to "superhuman."

Problem solved

AGI addresses the limitation of narrow AI: systems achieving even superhuman results on single tasks fail to transfer competence to new problems or generalize beyond their training domain. The goal is a single system with general, flexible cognitive competence instead of many specialized models.

Evolution

Original paper · 2007 · Springer, Cognitive Technologies series · Ben Goertzel
Artificial General Intelligence
Ben Goertzel, Cassio Pennachin
1950
The Turing test
Inflection point

Alan Turing, in "Computing Machinery and Intelligence," proposes an operational test of machine intelligence, positing a machine with general intelligence comparable to a human.

1956
Dartmouth workshop
Inflection point

The Dartmouth workshop establishes AI as a field of study, with the original, ambitious goal of reproducing general human intelligence in a machine.

1980
"Strong AI" vs "weak AI" distinction (Searle)

John Searle introduces the distinction between "strong" and "weak" AI, providing philosophical context for later debates about general AI.

1997
Coinage of the term "artificial general intelligence" (Gubrud)
Inflection point

Mark Gubrud first uses the term "artificial general intelligence" in a discussion of the implications of fully automated production and operations.

2002
Term re-introduced and popularized

Shane Legg and Ben Goertzel re-introduce and popularize the term AGI in the research community, distinguishing it from narrow AI.

2007
"Artificial General Intelligence" book (Goertzel & Pennachin)
Inflection point

The edited volume by Ben Goertzel and Cassio Pennachin consolidates AGI as a distinct research field and technical concept.

2014
Bostrom: "Superintelligence" (ASI)

Nick Bostrom, in "Superintelligence: Paths, Dangers, Strategies" (Oxford University Press), conceptualizes artificial superintelligence and the risks of controlling it.

2018
AGI definition in the OpenAI Charter

OpenAI's Charter defines AGI as "highly autonomous systems that outperform humans at most economically valuable work," giving the concept an influential operational definition.

2023
"Levels of AGI" framework (Google DeepMind)
Inflection point

Morris et al. propose a framework for classifying progress toward AGI by depth (performance) and breadth (generality), with levels from "emerging" to "superhuman."