🧠 Deep learning revolution marked by the discovery of training large and deep neural networks with back propagation.
⚙️ Artificial neural networks inspired by the human brain, but differ in their use of spikes and cost functions.
🔬 Potential research areas for artificial neural networks include spiking neural networks and spike time independent plasticity.
Recurrent neural networks (RNNs) have been superseded by transformers in natural language processing and language modeling, but there might be a comeback in the future.
RNNs are neural networks that maintain a high-dimensional hidden state and update it through connections when new observations arrive.
The success of deep learning in the past 10 years was driven by the availability of supervised data, computing power, and the conviction that combining existing methods with abundant data and compute would work.
Computer vision and natural language processing (NLP) have a lot of unity and overlap of ideas, principles, and architectures. It is possible that vision and NLP will be unified in the future.
Reinforcement learning (RL) interfaces and integrates with computer vision and NLP, but it has some distinct aspects, such as dealing with a non-stationary world and requiring techniques for exploration.
The difficulty of language understanding versus visual scene understanding depends on the definition of the problem and the current tools available. Language understanding may be considered harder but achieving deep understanding in one domain can likely lead to understanding in the other.
🧠 Deep learning is fascinating because it mimics the human brain and continues to improve with larger neural networks and more data.
📈 There is a phenomenon called double descent in deep learning where increasing the size of neural networks initially improves performance, then diminishes it, and finally improves it again.
💻 While individual researchers may find it challenging to make breakthroughs in deep learning, small groups and individuals can still contribute important work without the need for huge amounts of compute.
✨ Back propagation is a useful algorithm in neural networks for finding neural circuits subject to constraints.
🧠 Neural networks have the potential to reason, as seen in AlphaGo's ability to play Go at a higher level than most humans.
💡 Neural network architectures that can reason may be similar to existing architectures, but more powerful and deeper.
🔑 Deep learning has the ability to produce conversation-changing results.
💡 The size of language models affects their ability to capture semantics.
✨ GPT-2 is a powerful language model that uses attention and transformer architecture.
🧠 The potential economic impact of language models is still uncertain.
🌐 Language translation and self-driving are areas where deep learning can have a big impact.
📚 Active learning and data selection are important areas for future research in deep learning.
🤖 Releasing powerful AI models raises concerns about potential misuse.
📝 Open discussions and collaborations are needed to manage the use of AI systems.
🤖 AI has reached a state of maturity and its impact is growing.
🌍 Staged release of AI models and collaboration across companies is important to consider the impact and potential negative consequences.
🌟 Self-play and simulation are crucial for building AGI systems and enabling transfer to the real world.
🤖 Analyzing the progress of AI often focuses on failures that human wouldn't make.
💭 Judging progress in AI is confusing, and real breakthroughs will happen when AI significantly impacts the GDP.
🌍 Ideally, AGI systems should be controlled by democratic boards representing different entities.
🤝 AI systems should be designed to align with human values and be controlled by humans.
😊 Happiness comes from how we perceive and appreciate things in life.