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image-architectures

image-architectures

Routes vit-pytorch 2D image classification backbones, architecture-family selection, constructor shape constraints, and image-only variant troubleshooting.

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name: image-architectures description: "Routes vit-pytorch 2D image classification backbones, architecture-family selection, constructor shape constraints, and image-only variant troubleshooting." disable-model-invocation: true metadata: disco-role: operating license: MIT

image-architectures

Use this sub-skill when the user wants a vit-pytorch model that consumes a regular image tensor shaped (batch, channels, height, width) and returns classification logits, or when they need to choose among the 2D architecture zoo.

Route here for

  • Baseline image classifiers: ViT, SimpleViT, DeepViT, CaiT, T2TViT, and CCT.
  • Multi-scale or hierarchical 2D image classifiers: CrossViT, PiT, LeViT, CvT, TwinsSVT, RegionViT, CrossFormer, ScalableViT, SepViT, MaxViT, NesT, MobileViT, XCiT, JetViT, and ViT-5.
  • Image-only variants: patch dropout, patch merger, small-dataset SPT/LSA, QK-norm, relative projected position bias, specialized CLS, value residual, KEEL post-LN, local/rotary/normalized/look/detection-pooling variants, and simple_flash_attn_vit as a PyTorch SDPA-backed image classifier.
  • Practical tasks such as selecting a small-memory backbone for 32x32 or 64x64 tensors, repairing image_size / patch_size divisibility errors, choosing pool='cls' vs pool='mean', and keeping README-style examples small enough for CPU smoke checks.

Route elsewhere

  • Variable-resolution image lists, grouped NaViT packing, nested tensors, 1D/3D/N-D tensors, medical/video tensors, or ViViT: route to variable-shapes-video.
  • Distillation, MAE/SimMIM/MPP/MP3/DINO/EsViT and other loss/pretraining/adaptation wrappers: route to pretraining-and-adaptation.
  • Attention maps, embeddings, hook wrappers, external efficient/custom transformer injection, and Recorder/Extractor usage: route to introspection-and-customization.

First steps for future agents

  1. Confirm the input is a fixed-size 4D image batch and the desired output is logits. If the user has variable image sizes, videos, patch-token outputs, or training losses, stop and route as above.
  2. Read references/model-overview.md to pick a family. Start with ViT / SimpleViT / CCT for baselines, use hierarchical families only when the user needs local windows, convolutional stems, mobile efficiency, or multi-scale structure.
  3. Keep constructors tiny until the shape works. For 32x32 or 64x64 tests, use dimensions like dim=32, depth=1, heads=2, dim_head=16, mlp_dim=64, and small num_classes; do not copy large README dimensions unless the user is explicitly benchmarking.
  4. Check shape constraints before instantiating: image_size and patch_size must divide exactly for patch-based families; many hierarchical/window families also require input feature-map sizes divisible by their window or stage settings.
  5. For classifier heads, set a positive num_classes. In base ViT-style classes, pool='cls' and pool='mean' are the valid pooling choices when that argument exists; many SimpleViT-style and hierarchical classes hard-code mean/global pooling and do not accept pool.
  6. If a constructor or forward pass fails, read references/troubleshooting.md before changing families.
  7. Use the bundled smoke helper for safe CPU checks: python scripts/smoke_image_architectures.py --case quick. It uses reduced random tensors, asserts logits shapes, and never downloads data.

Bundled runtime files

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