Project AURIONAI Use-Cases Research & Innovation

Image Classification Backbone Architectures (CNN and Vision Transformer)

Designing the core networks that turn an image into features, from residual CNNs to vision transformers.

Tier Grades

feasible

Tier A: Frontier AI labs

feasible

Big-tech labs introduced ViT and Swin with large pretraining sets.

feasible

Tier B: Indonesian AI labs

feasible

Training and comparing backbones on ImageNet-scale data is within an Indonesian lab reach.

feasible

Tier C: Institution units such as ITB

feasible

Many backbone papers come from small university teams; transfer to CIFAR-100 and VTAB fits a unit.

feasible

Tier D: Organisations such as SEMAI (PoT, PoC, PoV)

feasible

Pretrained backbones are the default starting point of any vision proof of concept.

Where this comes from
Tiers: a) frontier AI labs, b) Indonesian AI labs, c) institution units such as ITB, d) organisations such as SEMAI delivering proof of technology, concept and value. Each rationale cites the anchors below.

Anchors

  • ComputeViT needs substantially fewer computational resources to train than comparable CNNs when pretrained on large data, per the abstract; no figure is given there.
  • DataPretraining on large data, then transfer to ImageNet, CIFAR-100 and VTAB.
  • Team size (proxy)Proxy only (author count of an exemplar paper, not a headcount): 12 authors on the ViT paper (arXiv 2010.11929).
  • Time horizonYears: classic backbones stay in use long after newer ones appear.
  • Shelf-life signalsA new architecture family (for example state-space or large-kernel) tops ImageNet, Backbone choice moves to pretrained foundation encoders
  • Pipeline roleTier A and academia publish backbones; Tier C benchmarks them on local data; Tier D picks pretrained ones as the base of client models.
Where this comes from
Team size is a proxy (author counts of exemplar papers), not a headcount.

Who and What

Exemplars
Observed actors
Linked models
+81
Tsinghua UniversityRepLKNetvisionproduced byTsinghua UniversityVAN (Visual Attention Network)visionproduced byCarnegie Mellon UniversityConvMixervisionproduced byShenzhen Institutes of Advanced Technology, Chinese Academy of SciencesUniFormervisionproduced byMetaConvNeXtvisionproduced byStony Brook UniversitySwin S3 (AutoFormerV2)visionproduced bySea AI LabMetaFormer (PoolFormer, ConvFormer, CAFormer)visionproduced byMicrosoft AISwin Transformer V2visionproduced byPeking UniversityHRFormervisionproduced byGoogle DeepMindPerceiver (vision)visionproduced bySea AI LabVOLOvisionproduced byMicrosoft ResearchVideo Swin Transformervisionproduced byGoogleViT AugRegvisionproduced byMetaXCiTvisionproduced byGoogleCoAtNetvisionproduced byNesTvisionproduced byUniversity of Chinese Academy of SciencesConformer (vision)visionproduced byGoogleMLP-Mixervisionproduced byMeituanTwinsvisionproduced byVisformervisionproduced byMetaMViT (Multiscale Vision Transformers)visionproduced byUC San DiegoCoaTvisionproduced byMetaCaiTvisionproduced byNaverPiT (Pooling-based ViT)visionproduced byMicrosoft AICvTvisionproduced byGoogleViViTvisionproduced byIBMCrossViTvisionproduced byMicrosoft AISwin-Bvisionproduced byMicrosoft AISwin-Tvisionproduced byIntelDPT (Dense Prediction Transformer)visionproduced byEcole Normale Superieure (Paris)ConViTvisionproduced byGoogleResNet-RSvisionproduced byMetaRegNetZvisionproduced byHuaweiTNT (Transformer in Transformer)visionproduced byNanjing UniversityPVT (Pyramid Vision Transformer)visionproduced byGoogle DeepMindNFNetvisionproduced byNational University of SingaporeT2T-ViTvisionproduced byUC BerkeleyBottleneck Transformers (BoTNet)visionproduced byTsinghua UniversityRepVGGvisionproduced byMetaDeiTvisionproduced byMetaDeiT-B distilledvisionproduced byMetaDeiT-Tivisionproduced byGoogleViT-B/16visionproduced byGoogleViT-L/16visionproduced byMEAL V2visionproduced byMetaResNeStvisionproduced byMetaRegNetvisionproduced byAlibaba DAMOTResNetvisionproduced byGoogleBiT (Big Transfer)visionproduced byAcademia SinicaCSPNetvisionproduced byTianjin UniversityECA-ResNetvisionproduced byHarDNetvisionproduced byMicrosoft ResearchHRNetV2visionproduced byETRI (Electronics and Telecommunications Research Institute)VoVNetvisionproduced byRes2Netvisionproduced byNanjing University of Science and TechnologySelective Kernel Networks (SK-ResNet)visionproduced byUniversity of Science and Technology of China (USTC)HRNetvisionproduced byThe Chinese University of Hong KongIBN-Netvisionproduced byMetaResNeXt-101 32x8d WSLvisionproduced byMomentaSE-ResNet and SE-ResNeXt (Squeeze-and-Excitation)visionproduced byUC BerkeleyDLA (Deep Layer Aggregation)visionproduced byNational University of SingaporeDPN (Dual Path Network)visionproduced byUC San DiegoResNeXtvisionproduced byUC San DiegoResNeXt-50 32x4dvisionproduced byGoogleXceptionvisionproduced byCornell UniversityDenseNetvisionproduced byIslamic Azad UniversitySimpleNet (classifier)visionproduced byWide ResNetvisionproduced byGoogleInception v4visionproduced byGoogleInception-ResNet v2visionproduced byGoogleInception v3visionproduced byGoogleInception (GoogLeNet)visionproduced byGoogleGoogLeNet (Inception v1)visionproduced byUniversity of OxfordVGGvisionproduced byUniversity of OxfordVGG-16visionproduced byUniversity of OxfordVGG-19visionproduced byNew York UniversityZFNetvisionproduced byAlexNetvisionproduced byCaffeNetvisionproduced byShanghai AI LabInternImagevisionproduced byGoogleMUSIQvisionproduced by

Papers

Where this comes from
The papers to read first: where the direction began, its current best, and a survey when one exists.

Sources

  1. arxiv.org/abs/2010.11929 https://arxiv.org/abs/2010.11929

To cite this page: Project AURION, AI Use-Cases Research & Innovation, "Image Classification Backbone Architectures (CNN and Vision Transformer)", https://aurion.semai.id/topics/vision-backbone-architectures/, records of October 2026.