SOTAVerified

Model Compression

Model Compression is an actively pursued area of research over the last few years with the goal of deploying state-of-the-art deep networks in low-power and resource limited devices without significant drop in accuracy. Parameter pruning, low-rank factorization and weight quantization are some of the proposed methods to compress the size of deep networks.

Source: KD-MRI: A knowledge distillation framework for image reconstruction and image restoration in MRI workflow

Papers

Recently AddedMost HypedMost ActiveNeeds VerificationMost Verified

Showing 926–950 of 1356 papers

TitleStatusHype
Language model compression with weighted low-rank factorization—0
Large Language Model Compression via the Nested Activation-Aware Decomposition—0
Large receptive field strategy and important feature extraction strategy in 3D object detection—0
Large-Scale Generative Data-Free Distillation—0
LatentLLM: Attention-Aware Joint Tensor Compression—0
LayerCollapse: Adaptive compression of neural networks—0
Layer-specific Optimization for Mixed Data Flow with Mixed Precision in FPGA Design for CNN-based Object Detectors—0
LCQ: Low-Rank Codebook based Quantization for Large Language Models—0
Learning a Neural Diff for Speech Models—0
Learning-Based Symbol Level Precoding: A Memory-Efficient Unsupervised Learning Approach—0
Learning Compressed Embeddings for On-Device Inference—0
Learning Disentangled Representation with Mutual Information Maximization for Real-Time UAV Tracking—0
Learning Efficient Image Super-Resolution Networks via Structure-Regularized Pruning—0
Learning Efficient Object Detection Models with Knowledge Distillation—0
Learning by Sampling and Compressing: Efficient Graph Representation Learning with Extremely Limited Annotations—0
MixMix: All You Need for Data-Free Compression Are Feature and Data Mixing—0
Learning Interpretation with Explainable Knowledge Distillation—0
Learning Low-Rank Approximation for CNNs—0
Learning Low-Rank Representations for Model Compression—0
Model Compression Method for S4 with Diagonal State Space Layers using Balanced Truncation—0
Learning to Collide: Recommendation System Model Compression with Learned Hash Functions—0
Learning to Prune Deep Neural Networks via Reinforcement Learning—0
Legal-Tech Open Diaries: Lesson learned on how to develop and deploy light-weight models in the era of humongous Language Models—0
LegoDNN: Block-grained Scaling of Deep Neural Networks for Mobile Vision—0
Leveraging Different Learning Styles for Improved Knowledge Distillation in Biomedical Imaging—0
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All datasetsImageNetQNLI

Benchmark Results

#ModelMetricClaimedVerifiedStatus
1ADLIK-MO-ResNet50+W4A4Top-177.88—Unverified
2ADLIK-MO-ResNet50+W3A4Top-177.34—Unverified
3ResNet-18 + 4bit-1dim model compression using DKMTop-170.52—Unverified
4MobileNet-v1 + 4bit-1dim model compression using DKMTop-169.63—Unverified
5ResNet-18 + 2bit-1dim model compression using DKMTop-168.63—Unverified
6MobileNet-v1 + 2bit-1dim model compression using DKMTop-167.62—Unverified
7ResNet-18 + 4bit-4dim model compression using DKMTop-166.1—Unverified
8ResNet-18 + 2bit-2dim model compression using DKMTop-164.7—Unverified
9MobileNet-v1 + 4bit-4dim model compression using DKMTop-161.4—Unverified
10ResNet-18 + 1bit-1dim model compression using DKMTop-159.7—Unverified
#ModelMetricClaimedVerifiedStatus
1MobileBERT + 2bit-1dim model compression using DKMAccuracy82.13—Unverified
2MobileBERT + 1bit-1dim model compression using DKMAccuracy63.17—Unverified