FreezeNet: Full Performance by Reduced Storage Costs
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Abstract (arXiv)
Pruning generates sparse networks by setting parameters to zero. In this work we improve one-shot pruning methods, applied before training, without adding any additional storage costs while preserving the sparse gradient computations. The main difference to pruning is that we do not sparsify the network's weights but learn just a few key parameters and keep the other ones fixed at their random initialized value. This mechanism is called freezing the parameters. Those frozen weights can be stored efficiently with a single 32bit random seed number. The parameters to be frozen are determined one-shot by a single for- and backward pass applied before training starts. We call the introduced method FreezeNet. In our experiments we show that FreezeNets achieve good results, especially for extreme freezing rates. Freezing weights preserves the gradient flow throughout the network and consequently, FreezeNets train better and have an increased capacity compared to their pruned counterparts. On the classification tasks MNIST and CIFAR-10/100 we outperform SNIP, in this setting the best reported one-shot pruning method, applied before training. On MNIST, FreezeNet achieves 99.2% performance of the baseline LeNet-5-Caffe architecture, while compressing the number of trained and stored parameters by a factor of x 157.
Key facts. Cited by 13 papers in the map (data through 7 Oct 2026). First posted on arXiv 28 Nov 2020.
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Citing papers per year: 2021: 3; 2022: 5; 2023: 2; 2024: 0; 2025: 2; 2026: 1.
13 papers.
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- 2021MEST: Accurate and Fast Memory-Economic Sparse Training Framework on the Edgecited by 77
- 2022SparCL: Sparse Continual Learning on the Edgecited by 55
- 2022Compute-Efficient Deep Learning: Algorithmic Trends and Opportunitiescited by 38
- 2021Effective Model Sparsification by Scheduled Grow-and-Prune Methodscited by 25
- 2022Interspace Pruning: Using Adaptive Filter Representations to Improve Training of Sparse CNNscited by 16
- 2022Dimensionality Reduced Training by Pruning and Freezing Parts of a Deep Neural Network, a Surveycited by 12
- 2022Layer Freezing & Data Sieving: Missing Pieces of a Generic Framework for Sparse Trainingcited by 11
- 2021COPS: Controlled Pruning Before Training Startscited by 6
- 2025Variance-Based Pruning for Accelerating and Compressing Trained Networkscited by 3
- 2023Weight Compander: A Simple Weight Reparameterization for Regularizationcited by 1
- 2023ELSA: Partial Weight Freezing for Overhead-Free Sparse Network Deploymentcited by 0
- 2025An Analysis of Layer-Freezing Strategies for Enhanced Transfer Learning in YOLO Architecturescited by 0
1 more
- 2026Meta-Learning Guided Pruning for Few-Shot Plant Pathology on Edge Devices5 Jan 2026
- 2025An Analysis of Layer-Freezing Strategies for Enhanced Transfer Learning in YOLO Architectures5 Sep 2025
- 2025Variance-Based Pruning for Accelerating and Compressing Trained Networks17 Jul 2025
- 2023ELSA: Partial Weight Freezing for Overhead-Free Sparse Network Deployment11 Dec 2023
- 2023Weight Compander: A Simple Weight Reparameterization for Regularization29 Jun 2023
- 2022Compute-Efficient Deep Learning: Algorithmic Trends and Opportunities13 Oct 2022
- 2022Layer Freezing & Data Sieving: Missing Pieces of a Generic Framework for Sparse Training22 Sep 2022
- 2022SparCL: Sparse Continual Learning on the Edge20 Sep 2022
- 2022Dimensionality Reduced Training by Pruning and Freezing Parts of a Deep Neural Network, a Survey17 May 2022
- 2022Interspace Pruning: Using Adaptive Filter Representations to Improve Training of Sparse CNNs15 Mar 2022
- 2021MEST: Accurate and Fast Memory-Economic Sparse Training Framework on the Edge26 Oct 2021
- 2021COPS: Controlled Pruning Before Training Starts27 Jul 2021
1 more
- 2021MEST: Accurate and Fast Memory-Economic Sparse Training Framework on the Edgecited by 77
- 2022SparCL: Sparse Continual Learning on the Edgecited by 55
- 2022Compute-Efficient Deep Learning: Algorithmic Trends and Opportunitiescited by 38
- 2021Effective Model Sparsification by Scheduled Grow-and-Prune Methodscited by 25
- 2022Interspace Pruning: Using Adaptive Filter Representations to Improve Training of Sparse CNNscited by 16
- 2022Dimensionality Reduced Training by Pruning and Freezing Parts of a Deep Neural Network, a Surveycited by 12
- 2022Layer Freezing & Data Sieving: Missing Pieces of a Generic Framework for Sparse Trainingcited by 11
- 2021COPS: Controlled Pruning Before Training Startscited by 6
- 2025Variance-Based Pruning for Accelerating and Compressing Trained Networkscited by 3
- 2023Weight Compander: A Simple Weight Reparameterization for Regularizationcited by 1
- 2023ELSA: Partial Weight Freezing for Overhead-Free Sparse Network Deploymentcited by 0
- 2025An Analysis of Layer-Freezing Strategies for Enhanced Transfer Learning in YOLO Architecturescited by 0
12 most cited of 13 All 13 (JSON)
- 2026Meta-Learning Guided Pruning for Few-Shot Plant Pathology on Edge Devices5 Jan 2026
- 2025An Analysis of Layer-Freezing Strategies for Enhanced Transfer Learning in YOLO Architectures5 Sep 2025
- 2025Variance-Based Pruning for Accelerating and Compressing Trained Networks17 Jul 2025
- 2023ELSA: Partial Weight Freezing for Overhead-Free Sparse Network Deployment11 Dec 2023
- 2023Weight Compander: A Simple Weight Reparameterization for Regularization29 Jun 2023
- 2022Compute-Efficient Deep Learning: Algorithmic Trends and Opportunities13 Oct 2022
- 2022Layer Freezing & Data Sieving: Missing Pieces of a Generic Framework for Sparse Training22 Sep 2022
- 2022SparCL: Sparse Continual Learning on the Edge20 Sep 2022
- 2022Dimensionality Reduced Training by Pruning and Freezing Parts of a Deep Neural Network, a Survey17 May 2022
- 2022Interspace Pruning: Using Adaptive Filter Representations to Improve Training of Sparse CNNs15 Mar 2022
- 2021MEST: Accurate and Fast Memory-Economic Sparse Training Framework on the Edge26 Oct 2021
- 2021COPS: Controlled Pruning Before Training Starts27 Jul 2021
12 newest of 13 All 13 (JSON)