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Openai/6939b23e-87cc-8001-bdd9-9546d1143ce9
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=== Assistant: Exactly — now you’re getting very close to the core. === Exactly — now you’re getting very close to the core. Let me explain carefully and intuitively. ==== - Each neuron is essentially a tiny calculator. ==== * It receives multiple inputs (numbers from previous layer’s neurons) and produces an output (another number) for the next layer. * Neurons don’t have “physical” form — they are just mathematical functions. ==== - Each input to a neuron comes via a connection. ==== * Every connection has a weight, which determines how strongly the input affects the neuron. - Think of it as the thickness of a dendrite: thicker = stronger influence, thinner = weaker influence. * Formally, the neuron does something like: <syntaxhighlight>output = activation(sum(input_i * weight_i) + bias) </syntaxhighlight> * Here: - input_i = signal from previous neuron - weight_i = strength of that connection (like thickness) - bias = baseline adjustment - activation = non-linear function (e.g., ReLU, GELU) to decide output ==== 1. Layer L → group of neurons ==== # Layer L+1 → another group of neurons # Each neuron in L+1 is connected to all neurons in L (in most transformer architectures). # Weights determine how much each neuron in L influences neurons in L+1. : ==== - Normally, connections are static (weights fixed during inference). ==== * Attention heads temporarily adjust the “strength” of connections depending on which tokens matter most. * So you can think of attention as moving spotlights, highlighting which input neurons should have more influence in this particular token processing step. ===== - Neurons = tiny calculators ===== * Connections = links between neurons * Weights = how strongly the input travels across the connection (thicker = stronger) * Activation = the decision function the neuron uses * Attention = dynamic adjustment of which connections are emphasized during processing : If you want, I can make a visual diagram showing neurons, connections, weights as thickness, and attention as moving spotlights, which makes the whole picture very concrete. Do you want me to do that?
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