Operators, product owners, and people affected by the neural networks decision.
Neural networks from scratch
A nonlinear sensor classifier defeats every classical baseline.
A measurable problem, before a model.
affine layers, ReLU/GELU, cross-entropy, chain rule with version, owner, event time, and availability contracts.
A nonlinear sensor classifier defeats every classical baseline. Every solution must state latency, cost, capacity, and fallback limits.
Offline evidence plus a deployable resolution: A small network built from forward pass through backpropagation and optimization.
Build the computation
Assemble the nonlinear computation and output contract.
- 01↗
Beyond linear boundaries
Use beyond linear boundaries to move the neural networks production brief toward a defensible release.
65–90 min · checkpoint · deterministic lab - 02↗
Forward pass, activations, losses, and initialization
Use forward pass, activations, losses, and initialization to move the neural networks production brief toward a defensible release.
65–90 min · checkpoint · deterministic lab
Differentiate and optimize
Derive gradients and optimize a hand-checkable network.
- 03↗
Backpropagation without magic
Use backpropagation without magic to move the neural networks production brief toward a defensible release.
65–90 min · checkpoint · deterministic lab - 04↗
SGD, momentum, AdamW, and schedules
Use sgd, momentum, adamw, and schedules to move the neural networks production brief toward a defensible release.
65–90 min · checkpoint · deterministic lab
Diagnose signal and ship
Choose trainable signal paths, diagnose failures, and ship the smallest reliable model.
- 05↗
Regularize, normalize, debug, and ship
Use regularize, normalize, debug, and ship to move the neural networks production brief toward a defensible release.
65–90 min · checkpoint · deterministic lab - 06↗
Activation functions: geometry, gradients, and failure modes
Select activation functions by signal range, gradient flow, architecture, precision, and failure mode; then diagnose saturation and dead units from telemetry.
65–90 min · checkpoint · deterministic lab - 07↗
Loss functions by task, data, and deployment constraints
Choose and debug training objectives as optimization surrogates for the real task, including imbalance, outliers, uncertainty, ranking, dense prediction, and generation.
65–90 min · checkpoint · deterministic lab - HW↗
Network from first principles
Specify a NumPy MLP, finite-difference checks, PyTorch parity, calibrated inference, and debugging report.
Rubric · staged hints · reference resolution
2 concepts make this faster.
Prerequisites are guidance, never hard gates.