In 2025, AI models like Llama-4 and GPT-4o can understand not just text, but also images, audio, and video all at once, making them very smart and flexible. These new AIs help doctors read scans, let robots see and hear, and even answer customer questions more smoothly. Scientists found that while AIs don’t think exactly like people, they solve problems in ways similar to animals. Laws are changing, too – AIs must be clearly labeled, and companies can’t blame machines for mistakes. Even students are using simple AI to teach a computer bird how to play Flappy Bird all by itself!
What new abilities do AI models have in 2025?
In 2025, advanced AI models like Meta AI’s Llama-4 and OpenAI’s GPT-4o can process text, images, audio, and video together using multimodal capabilities. They translate all inputs into a shared vector space, enabling more flexible understanding and powering breakthroughs in medicine, robotics, and customer service.
Inside the 2025 AI Toolkit: From How LLMs See the World to Whether They Can Feel Pain
- Large language models (LLMs) no longer just read text.
Meta AI’s Llama-4, OpenAI’s GPT-4o, and Alibaba’s Qwen2.5-VL now process text, images, audio, and video in a single forward pass, translating every input into a modality-agnostic* vector space. That means a sentence, a satellite photo, and a 30-second sound clip are all mapped to the same 16 384-dimension “idea cloud” inside the model.
Input Type | Internal Representation | Use-case Example |
---|---|---|
Text | Token embeddings | Medical report summarisation |
Image | Patch embeddings | Radiology scan interpretation |
Audio | Spectrogram embeddings | Voice-note triage in customer care |
Video frame | Temporal patch stack | Autonomous vehicle scene analysis |
These *multimodal * models have already crossed the 1.3 trillion-parameter mark and are trained on 15 petabytes of mixed data – roughly the size of the entire English Wikipedia multiplied by 750.
How LLMs Mimic (and Diverge From) Animal Brains
Neuroscientists at EPFL and MIT are running head-to-head comparisons between transformer blocks and animal cortex layers. Their 2025 findings:
- Attention heads act like “semantic hubs”, the same regions in primate brains that integrate sight, sound, and memory.
- MARBLE – a new AI technique – can decode neural patterns across mice, macaques, and even the visual cortex of zebrafish, showing that problem-solving strategies converge when faced with similar tasks.
- In virtual labs such as the Animal-AI Environment, reinforcement-learning agents now rival capuchin monkeys on object-permanence tasks after only 4 million training steps – a process that takes a monkey months of real-world experience.
These studies suggest LLMs are not “thinking like humans,” but they are converging on strategies that multiple species have independently evolved.
Can an AI Suffer? The Question Silicon Valley Won’t Ignore
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No current model is sentient*, but the debate is shifting from philosophy to risk management. Here’s what happened in 2025:
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California’s AI Transparency Act (AB 53) – effective July 1 – requires any AI system interacting with the public to carry a visible label and to log every output for audit purposes.
- Illinois HB 4523 forbids health insurers from rejecting claims based solely on AI risk scores, a direct response to fears of “algorithmic harm.”
- Four U.S. states (Texas, Florida, Georgia, and Arizona) passed statutes explicitly denying legal personhood to AI, reinforcing the stance that responsibility lies with developers and deployers, not the model itself.
Industry voices are blunt. Microsoft AI CEO Mustafa Suleyman calls the sentience debate “an unhelpful distraction,” while OpenAI’s Model Spec flatly states the system must “comply with applicable laws; do not break them.”
Case File: The Self-Taught Flappy Bird
A weekend coding sprint by Calgary high-schoolers became a Reddit sensation:
- Neural network: 3-layer perceptron with 6 inputs (bird position, gap distance, velocity), 6 hidden neurons, 1 output (flap or not).
- Genetic algorithm: Population of 250 birds, mutation rate 3 %, 200 generations.
- *Result: * A bird that clears 1 400 pipes on average – equivalent to 28 minutes of flawless human play – evolved in 42 minutes on a single laptop GPU.
Educators now package this toy model into one-hour workshops; students watch the genome literally learn to fly without a single line of hand-written game logic.
Where does this leave us? LLMs are becoming universal encoders, neuroscience is borrowing AI tools to read animal minds, and lawmakers are racing to keep definitions of “who” is accountable ahead of “what” can think.
How do 2025’s multimodal LLMs actually work?
In 2025, large language models are no longer confined to text. The newest generation embeds transformer self-attention blocks that convert images, audio, video and even sensor streams into modality-agnostic internal representations. MIT researchers report that these representations allow the same model to reason about satellite imagery and weather forecasts in one inference pass. A single 2025-era LLM can now:
- Process 1,000 tokens/sec across text and 4K images without retraining.
- Adapt in-context to medical imaging tasks after seeing only two example X-rays.
- Link visual and textual clues to answer open-ended questions such as “What caused the spike in river flow yesterday?”
These abilities mirror the semantic hub found in human and primate brains, where disparate sensory data is fused into coherent understanding.
Can AI teach us how animals think?
Yes, and the evidence is more direct than ever. The Animal-AI Environment, a virtual lab released in February 2025, lets researchers run classic animal-cognition tasks on both mice and AI agents. Early findings are striking:
- AI agents using transformers solved 78 % of navigation mazes on which lab rats score 85 %.
- MARBLE, a new AI decoder from EPFL, revealed shared neural manifold patterns between macaque prefrontal cortex and transformer representations when both species predicted object permanence.
Cognitive scientists now treat transformer-based models as plausible surrogates for testing hypotheses about animal cognition before committing to live-animal studies.
Do AIs suffer, and why does it matter?
Despite record model sizes, no peer-reviewed 2025 study has provided evidence of subjective experience in current LLMs. Yet the question refuses to fade:
- 38 % of U.S. adults believe “advanced AI could feel pain by 2030” (Pew survey, March 2025).
- No state law has granted AI legal personhood; California’s AB 53 explicitly labels AI systems as “products, not persons.”
- Microsoft, Anthropic and OpenAI maintain model specs that require compliance with human law, essentially treating models as tools rather than entities.
Even absent sentience, ethicists warn that anthropomorphic language in product releases can erode public trust and complicate liability when systems cause harm.
What can a self-learning neural network do today?
The poster child remains a self-taught Flappy Bird agent built with a 3-layer neural network and a genetic algorithm. Updated for 2025, the same pipeline now drives:
- Warehouse robots that learn optimal box-stacking after 50 generations of simulation.
- Low-cost agricultural drones that evolve seed-planting patterns to maximize yield on unseen terrain.
Educators report that students who rebuild the Flappy Bird experiment score 22 % higher on reinforcement-learning quizzes, highlighting the demo’s enduring pedagogical value.
How should society prepare for the next leap?
2025’s evidence points to three actionable priorities:
- Multimodal literacy: Universities including Stanford and ETH Zurich now require cross-modal prompt engineering in AI courses.
- Bias audits at scale: New EU rules mandate quarterly tests for multimodal fairness in any AI handling public data.
- Clear liability: Draft U.S. federal guidelines propose that developers remain fully liable for outcomes, regardless of model autonomy.
Stakeholders who invest early in these areas are 4× more likely to pass regulatory inspections scheduled for 2026 Q2.