
The Secret Geometry Behind Language, AI, and Machine Learning You Didn’t Know
How geometric and probabilistic models power modern AI and decode the hidden patterns of language.
Language might seem like a chaotic flow of letters and words, but beneath the surface lies a rich geometric and probabilistic structure. Enter Markov chains, mathematical models that predict the probability of a letter or word based on what came before. This simple yet powerful idea enables technologies from predictive texting to complex AI language models.
Markov chains capture the sequential dependencies in language, allowing machines to generate text that mimics human speech patterns. This approach laid the groundwork for natural language processing and continues to inspire advancements in AI.
Modern machine learning, particularly neural networks, takes this a step further. Training these networks involves navigating a high-dimensional geometric landscape to find parameter values that minimize errors. This process, known as gradient descent, is a geometric optimization technique that iteratively improves model performance by moving through the parameter space.
The interplay between geometry and probability is profound. Symmetry principles, fundamental in physics, extend to information theory, linking conservation laws to the stability and function of data systems. This universality highlights how geometric thinking transcends disciplines, empowering us to decode complex patterns in language, biology, and beyond.
Understanding these geometric frameworks enriches our appreciation of AI’s capabilities and the deep mathematical structures underlying human communication. As AI continues to evolve, geometry remains at its core, guiding innovation and discovery.
References: 2 , 3
Want to explore more insights from this book?
Read the full book summary