Why AI systems don't learn – On autonomous learning from cognitive science

AI researchers are arguing that today’s large language models don’t truly “learn” in the way humans or animals do, because they’re trained once on static, curated data and then frozen. A proposed framework combines passive observation, active interaction with the world, and a meta-control layer that decides when to switch between them, aiming for autonomous, continual learning more like biological cognition or classic cybernetics. Commenters debate whether such systems are technically feasible or economically desirable, raising concerns about safety, stability, and the risk of misbehavior if models are allowed to update themselves in the wild.

Autonomous vs Offline Learning

  • Many comments agree current mainstream models mainly do offline learning on static, human-curated data, not true autonomous learning via ongoing interaction.
  • The paper’s critique of a “data wall” and “padded room” training (isolation from the real world) resonates with several commenters.
  • Others argue that once LLMs help generate, filter, and label their own training data, we are already partway to self-training systems.

Meta-Control, System A/B/M, and Implementation Challenges

  • The A/B/M framework (observation, action, meta-control) is seen as conceptually appealing but implementation details are viewed as the hard part.
  • Concerns that agents could create self-reinforcing, hallucinated feedback loops when learning from their own actions.
  • Questions arise about how to design reward signals for switching between passive observation and active exploration without collapsing into one mode.
  • Some suggest we may need additional “systems” beyond neural networks (analogous to emotions/hormones) to manage this meta-control.

Ethics, Machiavellian Behavior, and Anthropomorphism

  • One line of discussion worries that truly autonomous corporate agents could become ruthlessly Machiavellian, outcompeting human bad actors.
  • Others counter that algorithms lack intrinsic morality; any apparent ethics or manipulation is just behavior shaped by objectives and data.
  • ELIZA and the “ELIZA effect” are invoked to explain both over-anthropomorphizing current systems and investor/“AI hype” dynamics.
  • In contrast, another thread cites the “AI effect” as humans moving the goalposts whenever machines master a previously “intelligent” task.

LLM Capabilities, Cognition, and In-Context Learning

  • Strong disagreement over whether LLMs “actually learn”:
    • One side: they only fit data offline; tools, RAG, and filesystems are just pre-programmed mechanisms, not cognition.
    • Other side: LLMs plus external memory and tools form systems that, at the system level, exhibit learning-like behavior.
  • Debate on whether cognition requires online weight updates vs. being realizable via context, memory stores, and agents.
  • Some think the paper underplays in-context learning and real-world agent architectures; others think expectations for LLMs are delusional.

Online Learning, Safety, and Product Concerns

  • Historical example of a Twitter-trained bot rapidly degenerating into toxic speech is used to argue that “not learning online” is a safety feature.
  • Production teams prefer fixed, versioned models over continuously self-modifying systems, to maintain predictability and control.
  • Tension noted between:
    • Desire for systems that “learn on the job” (e.g., proprietary codebases, domain expertise), and
    • Fears about data leakage, unpredictable behavior, and misalignment if models freely update from user inputs.

World Models, JEPA, and Compute Constraints

  • Interest in “world models” that learn physics and dynamics via interaction, not just text ingestion.
  • Skepticism that such models can be trained with current budgets; physical interaction data is seen as more unstructured and compute-hungry than internet text.
  • Some expect large LLM-first labs, funded by LLM revenue, to eventually build the kind of world models envisioned in the paper.

Cybernetics and Broader Inspiration

  • Several see current discussions as rediscovering mid-20th-century cybernetics: feedback, control, and system-level thinking.
  • Others find cybernetics historically “wishy-washy,” unclear how much concrete, lasting technical substance it contributed vs. inspiring later fields.
  • Biological and synthetic-biology-inspired hardware is mentioned as a possible future route to truly learning, brain-like systems, but remains speculative in the thread.

Diversity, Forked Models, and Evolutionary Ideas

  • Some advocate for many diverse, personalized models that continue to learn, rather than a few homogeneous, frozen systems.
  • Arguments: diversity reduces shared vulnerabilities (memetic or otherwise) and might drive creativity and capability via selection-like processes.
  • Others worry that uncontrolled online learning risks “model collapse,” safety issues, and unpredictability.

Meta-Level: What Counts as “Real AI”?

  • Persistent meta-debate:
    • One side sees current systems as close to matching or exceeding average humans on many “intelligent” tasks, with remaining gaps not clearly fundamental.
    • The other side insists the key unsolved issues (online learning, robust reasoning, new problem-solving) are precisely what “real intelligence” requires.
  • Both hype (“AI is here”) and dismissal (“these are just parrots”) are criticized; several commenters call for more careful, system-level definitions of learning and cognition.