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SoftMax Inc cnn-icp-softmax
A summary of examples of BMC classification automation.
Cnn Icp Softmax, supplied by SoftMax Inc, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
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1) Product Images from "Recent advancements in machine learning for bone marrow cell morphology analysis"

Article Title: Recent advancements in machine learning for bone marrow cell morphology analysis

Journal: Frontiers in Medicine

doi: 10.3389/fmed.2024.1402768

A summary of examples of BMC classification automation.
Figure Legend Snippet: A summary of examples of BMC classification automation.

Techniques Used: Selection, Construct, Diagnostic Assay, Imaging

Related Articles

Comparison:

Article Title: Fusion‐Brain‐Net: A Novel Deep Fusion Model for Brain Tumor Classification
Article Snippet: Subba and Sunaniya ( ) , Figshare , CNN + Softmax , 97.62%.

Article Title: Artificial intelligence for the detection of acute myeloid leukemia from microscopic blood images; a systematic review and meta-analysis
Article Snippet: Sakthiraj ( ) , Hybrid Convolutional Neural Network with Interactive Autodidactic School (HCNN-IAS) algorithm , HCNN-IASO , No , Softmax-CNN layer classifier (based on ResNet-34 and DenseNet-121) , IV , -Before augmentation: Healthy: 190 CML: 58 CLL: 30 AML: 56 ALL: 182 -After augmentation: Healthy: 1,291 CML: 1,244 CLL: 845 AML: 1,198 ALL: 1,082 , The proposed approach is used to generate results and to accurately identify and detect them. The data augmentation technique involved is utilized to practice big datasets and thus it processes large Leukemia images. The features from Leukemia datasets are extracted by using our proposed HCNN and further the attention layer in the HCNN is exploited to fuse the extracted features. The softmax layer of HCNN acts as a classifier and therefore it classifies the leukemia dataset into several subtypes. Furthermore, the accuracy of classification is optimized by utilizing Interactive autodidactic school optimization techniques. Finally, the optimized outcomes are sent to the medical institution/hospital via an IoMT platform for further processing. Based on the results retrieved, the physician/doctor provides a diagnosis to the patients..

Article Title: Fault Diagnosis Method of Rolling Bearing Based on 1D Multi-Channel Improved Convolutional Neural Network in Noisy Environment.
Article Snippet: Gong et al. [46] proposed an improved Convolutional Neural Network Support Vector Machine, which can directly input the original data from multiple sensors into the CNN– Softmax model, which inputs the extracted feature vector into the Support Vector Machine for fault classification.

Article Title: Recognition of Drill String Vibration State Based on WGAN-div and CNN-IWPSO-SVM
Article Snippet: During drilling operations, complex and variable dynamic nonlinear loads result in intricate vibrations in the drill string, severely impacting drilling safety and efficiency.. The vibration data collected on-site contains rich information about vibration conditions.. Addressing the limitations of existing signal processing methods in vibration state monitoring, this study proposes a hybrid method combining deep learning and machine learning for vibration state classification.

Article Title: Synergistic transfer learning and adversarial networks for breast cancer diagnosis: benign vs. invasive classification
Article Snippet: , 91% , , Multiclass , CNN + LSTM + Softmax + SVM.

Article Title: Deep learning based gasket fault detection: a CNN approach.
Article Snippet: Firstly, the temporal and spatial multichannel raw data from multiple sensors is directly input into the improved CNN-Softmax model for the training of the CNN model. Secondly, the improved CNN are used for extracting representative features from the raw fault data.

Article Title: Fault Diagnosis Method of Rolling Bearing Based on 1D Multi-Channel Improved Convolutional Neural Network in Noisy Environment
Article Snippet: Gong et al. [ ] proposed an improved Convolutional Neural Network Support Vector Machine, which can directly input the original data from multiple sensors into the CNN–Softmax model, which inputs the extracted feature vector into the Support Vector Machine for fault classification.

Article Title: Synergistic transfer learning and adversarial networks for breast cancer diagnosis: benign vs. invasive classification.
Article Snippet: The Methods BreakHis dataset Classification type Classification methodOptimal accuracy ICIAR dataset 41 91.38% Binary class VLAD 42 93.3% Binary class K-mean + DWT 43 86.67% Binary class Fisher Vector + CNN 44 91% Multiclass CNN + LSTM + Softmax + SVM 45 92.6% Binary class VGG_16 + Logistic Regression 46 94.5 Multiclass DCGAIN + VGG_16 47 87.4 Multiclass ResNet50 + KWELM 48 96.1% Multiclass Hybrid CNN 49 85% Multiclass Inception-V3 50 87% Multiclass CNN 51 97.25% Multiclass CNN + RNN + Attention 52 76% Multiclass Inception ResNet V2 53 98.73% Binary class ResNet18 (Transfer Learning) 54 98.51% Binary class InceptionV3 (Transfer Learning) 55 99.12% Binary class Transfer learning with pre-trained DCNN architectures (VGG-16, Xception, DenseNet-201) 29 96.5% Binary class ResNet + VGG16 Essemble (Transfer Learning) 31 92.2% Binary class ResNet 50 (Transfer Learning) 25 96% Binary class CNN + Transfer Learning Proposed method 98.8% Binary class Multi-scale Transfer Learning Proposed method 97.8% Multiclass Multi-scale Transfer Learning Proposed method 96.1% Binary class Multi-scale Transfer Learning + TradAug Proposed method 95.5% Multiclass Multi-scale Transfer Learning + TradAug Proposed method 99.6% Binary class Multi-scale Transfer Learning + TradAug + cWGAN Proposed method 98.2% Multiclass Multi-scale Transfer Learning + TradAug + cWGAN Table 14.

Biomarker Discovery:

Article Title: Fusion‐Brain‐Net: A Novel Deep Fusion Model for Brain Tumor Classification
Article Snippet: Subba and Sunaniya ( ) , Figshare , CNN + Softmax , 97.62%.

Article Title: Artificial intelligence for the detection of acute myeloid leukemia from microscopic blood images; a systematic review and meta-analysis
Article Snippet: Sakthiraj ( ) , Hybrid Convolutional Neural Network with Interactive Autodidactic School (HCNN-IAS) algorithm , HCNN-IASO , No , Softmax-CNN layer classifier (based on ResNet-34 and DenseNet-121) , IV , -Before augmentation: Healthy: 190 CML: 58 CLL: 30 AML: 56 ALL: 182 -After augmentation: Healthy: 1,291 CML: 1,244 CLL: 845 AML: 1,198 ALL: 1,082 , The proposed approach is used to generate results and to accurately identify and detect them. The data augmentation technique involved is utilized to practice big datasets and thus it processes large Leukemia images. The features from Leukemia datasets are extracted by using our proposed HCNN and further the attention layer in the HCNN is exploited to fuse the extracted features. The softmax layer of HCNN acts as a classifier and therefore it classifies the leukemia dataset into several subtypes. Furthermore, the accuracy of classification is optimized by utilizing Interactive autodidactic school optimization techniques. Finally, the optimized outcomes are sent to the medical institution/hospital via an IoMT platform for further processing. Based on the results retrieved, the physician/doctor provides a diagnosis to the patients..

Article Title: Fault Diagnosis Method of Rolling Bearing Based on 1D Multi-Channel Improved Convolutional Neural Network in Noisy Environment.
Article Snippet: Gong et al. [46] proposed an improved Convolutional Neural Network Support Vector Machine, which can directly input the original data from multiple sensors into the CNN– Softmax model, which inputs the extracted feature vector into the Support Vector Machine for fault classification.

Article Title: Recognition of Drill String Vibration State Based on WGAN-div and CNN-IWPSO-SVM
Article Snippet: During drilling operations, complex and variable dynamic nonlinear loads result in intricate vibrations in the drill string, severely impacting drilling safety and efficiency.. The vibration data collected on-site contains rich information about vibration conditions.. Addressing the limitations of existing signal processing methods in vibration state monitoring, this study proposes a hybrid method combining deep learning and machine learning for vibration state classification.

Article Title: Synergistic transfer learning and adversarial networks for breast cancer diagnosis: benign vs. invasive classification
Article Snippet: , 91% , , Multiclass , CNN + LSTM + Softmax + SVM.

Article Title: Deep learning based gasket fault detection: a CNN approach.
Article Snippet: Firstly, the temporal and spatial multichannel raw data from multiple sensors is directly input into the improved CNN-Softmax model for the training of the CNN model. Secondly, the improved CNN are used for extracting representative features from the raw fault data.

Article Title: Fault Diagnosis Method of Rolling Bearing Based on 1D Multi-Channel Improved Convolutional Neural Network in Noisy Environment
Article Snippet: Gong et al. [ ] proposed an improved Convolutional Neural Network Support Vector Machine, which can directly input the original data from multiple sensors into the CNN–Softmax model, which inputs the extracted feature vector into the Support Vector Machine for fault classification.

Article Title: Synergistic transfer learning and adversarial networks for breast cancer diagnosis: benign vs. invasive classification.
Article Snippet: The Methods BreakHis dataset Classification type Classification methodOptimal accuracy ICIAR dataset 41 91.38% Binary class VLAD 42 93.3% Binary class K-mean + DWT 43 86.67% Binary class Fisher Vector + CNN 44 91% Multiclass CNN + LSTM + Softmax + SVM 45 92.6% Binary class VGG_16 + Logistic Regression 46 94.5 Multiclass DCGAIN + VGG_16 47 87.4 Multiclass ResNet50 + KWELM 48 96.1% Multiclass Hybrid CNN 49 85% Multiclass Inception-V3 50 87% Multiclass CNN 51 97.25% Multiclass CNN + RNN + Attention 52 76% Multiclass Inception ResNet V2 53 98.73% Binary class ResNet18 (Transfer Learning) 54 98.51% Binary class InceptionV3 (Transfer Learning) 55 99.12% Binary class Transfer learning with pre-trained DCNN architectures (VGG-16, Xception, DenseNet-201) 29 96.5% Binary class ResNet + VGG16 Essemble (Transfer Learning) 31 92.2% Binary class ResNet 50 (Transfer Learning) 25 96% Binary class CNN + Transfer Learning Proposed method 98.8% Binary class Multi-scale Transfer Learning Proposed method 97.8% Multiclass Multi-scale Transfer Learning Proposed method 96.1% Binary class Multi-scale Transfer Learning + TradAug Proposed method 95.5% Multiclass Multi-scale Transfer Learning + TradAug Proposed method 99.6% Binary class Multi-scale Transfer Learning + TradAug + cWGAN Proposed method 98.2% Multiclass Multi-scale Transfer Learning + TradAug + cWGAN Table 14.

Extraction:

Article Title: Fusion‐Brain‐Net: A Novel Deep Fusion Model for Brain Tumor Classification
Article Snippet: Subba and Sunaniya ( ) , Figshare , CNN + Softmax , 97.62%.

Article Title: Artificial intelligence for the detection of acute myeloid leukemia from microscopic blood images; a systematic review and meta-analysis
Article Snippet: Sakthiraj ( ) , Hybrid Convolutional Neural Network with Interactive Autodidactic School (HCNN-IAS) algorithm , HCNN-IASO , No , Softmax-CNN layer classifier (based on ResNet-34 and DenseNet-121) , IV , -Before augmentation: Healthy: 190 CML: 58 CLL: 30 AML: 56 ALL: 182 -After augmentation: Healthy: 1,291 CML: 1,244 CLL: 845 AML: 1,198 ALL: 1,082 , The proposed approach is used to generate results and to accurately identify and detect them. The data augmentation technique involved is utilized to practice big datasets and thus it processes large Leukemia images. The features from Leukemia datasets are extracted by using our proposed HCNN and further the attention layer in the HCNN is exploited to fuse the extracted features. The softmax layer of HCNN acts as a classifier and therefore it classifies the leukemia dataset into several subtypes. Furthermore, the accuracy of classification is optimized by utilizing Interactive autodidactic school optimization techniques. Finally, the optimized outcomes are sent to the medical institution/hospital via an IoMT platform for further processing. Based on the results retrieved, the physician/doctor provides a diagnosis to the patients..

Article Title: Fault Diagnosis Method of Rolling Bearing Based on 1D Multi-Channel Improved Convolutional Neural Network in Noisy Environment.
Article Snippet: Gong et al. [46] proposed an improved Convolutional Neural Network Support Vector Machine, which can directly input the original data from multiple sensors into the CNN– Softmax model, which inputs the extracted feature vector into the Support Vector Machine for fault classification.

Article Title: Recognition of Drill String Vibration State Based on WGAN-div and CNN-IWPSO-SVM
Article Snippet: During drilling operations, complex and variable dynamic nonlinear loads result in intricate vibrations in the drill string, severely impacting drilling safety and efficiency.. The vibration data collected on-site contains rich information about vibration conditions.. Addressing the limitations of existing signal processing methods in vibration state monitoring, this study proposes a hybrid method combining deep learning and machine learning for vibration state classification.

Article Title: Synergistic transfer learning and adversarial networks for breast cancer diagnosis: benign vs. invasive classification
Article Snippet: , 91% , , Multiclass , CNN + LSTM + Softmax + SVM.

Article Title: Deep learning based gasket fault detection: a CNN approach.
Article Snippet: Firstly, the temporal and spatial multichannel raw data from multiple sensors is directly input into the improved CNN-Softmax model for the training of the CNN model. Secondly, the improved CNN are used for extracting representative features from the raw fault data.

Article Title: Fault Diagnosis Method of Rolling Bearing Based on 1D Multi-Channel Improved Convolutional Neural Network in Noisy Environment
Article Snippet: Gong et al. [ ] proposed an improved Convolutional Neural Network Support Vector Machine, which can directly input the original data from multiple sensors into the CNN–Softmax model, which inputs the extracted feature vector into the Support Vector Machine for fault classification.

Article Title: Synergistic transfer learning and adversarial networks for breast cancer diagnosis: benign vs. invasive classification.
Article Snippet: The Methods BreakHis dataset Classification type Classification methodOptimal accuracy ICIAR dataset 41 91.38% Binary class VLAD 42 93.3% Binary class K-mean + DWT 43 86.67% Binary class Fisher Vector + CNN 44 91% Multiclass CNN + LSTM + Softmax + SVM 45 92.6% Binary class VGG_16 + Logistic Regression 46 94.5 Multiclass DCGAIN + VGG_16 47 87.4 Multiclass ResNet50 + KWELM 48 96.1% Multiclass Hybrid CNN 49 85% Multiclass Inception-V3 50 87% Multiclass CNN 51 97.25% Multiclass CNN + RNN + Attention 52 76% Multiclass Inception ResNet V2 53 98.73% Binary class ResNet18 (Transfer Learning) 54 98.51% Binary class InceptionV3 (Transfer Learning) 55 99.12% Binary class Transfer learning with pre-trained DCNN architectures (VGG-16, Xception, DenseNet-201) 29 96.5% Binary class ResNet + VGG16 Essemble (Transfer Learning) 31 92.2% Binary class ResNet 50 (Transfer Learning) 25 96% Binary class CNN + Transfer Learning Proposed method 98.8% Binary class Multi-scale Transfer Learning Proposed method 97.8% Multiclass Multi-scale Transfer Learning Proposed method 96.1% Binary class Multi-scale Transfer Learning + TradAug Proposed method 95.5% Multiclass Multi-scale Transfer Learning + TradAug Proposed method 99.6% Binary class Multi-scale Transfer Learning + TradAug + cWGAN Proposed method 98.2% Multiclass Multi-scale Transfer Learning + TradAug + cWGAN Table 14.

Selection:

Article Title: Fusion‐Brain‐Net: A Novel Deep Fusion Model for Brain Tumor Classification
Article Snippet: Subba and Sunaniya ( ) , Figshare , CNN + Softmax , 97.62%.

Article Title: Artificial intelligence for the detection of acute myeloid leukemia from microscopic blood images; a systematic review and meta-analysis
Article Snippet: Sakthiraj ( ) , Hybrid Convolutional Neural Network with Interactive Autodidactic School (HCNN-IAS) algorithm , HCNN-IASO , No , Softmax-CNN layer classifier (based on ResNet-34 and DenseNet-121) , IV , -Before augmentation: Healthy: 190 CML: 58 CLL: 30 AML: 56 ALL: 182 -After augmentation: Healthy: 1,291 CML: 1,244 CLL: 845 AML: 1,198 ALL: 1,082 , The proposed approach is used to generate results and to accurately identify and detect them. The data augmentation technique involved is utilized to practice big datasets and thus it processes large Leukemia images. The features from Leukemia datasets are extracted by using our proposed HCNN and further the attention layer in the HCNN is exploited to fuse the extracted features. The softmax layer of HCNN acts as a classifier and therefore it classifies the leukemia dataset into several subtypes. Furthermore, the accuracy of classification is optimized by utilizing Interactive autodidactic school optimization techniques. Finally, the optimized outcomes are sent to the medical institution/hospital via an IoMT platform for further processing. Based on the results retrieved, the physician/doctor provides a diagnosis to the patients..

Article Title: Fault Diagnosis Method of Rolling Bearing Based on 1D Multi-Channel Improved Convolutional Neural Network in Noisy Environment.
Article Snippet: Gong et al. [46] proposed an improved Convolutional Neural Network Support Vector Machine, which can directly input the original data from multiple sensors into the CNN– Softmax model, which inputs the extracted feature vector into the Support Vector Machine for fault classification.

Article Title: Recognition of Drill String Vibration State Based on WGAN-div and CNN-IWPSO-SVM
Article Snippet: During drilling operations, complex and variable dynamic nonlinear loads result in intricate vibrations in the drill string, severely impacting drilling safety and efficiency.. The vibration data collected on-site contains rich information about vibration conditions.. Addressing the limitations of existing signal processing methods in vibration state monitoring, this study proposes a hybrid method combining deep learning and machine learning for vibration state classification.

Article Title: Synergistic transfer learning and adversarial networks for breast cancer diagnosis: benign vs. invasive classification
Article Snippet: , 91% , , Multiclass , CNN + LSTM + Softmax + SVM.

Article Title: Deep learning based gasket fault detection: a CNN approach.
Article Snippet: Firstly, the temporal and spatial multichannel raw data from multiple sensors is directly input into the improved CNN-Softmax model for the training of the CNN model. Secondly, the improved CNN are used for extracting representative features from the raw fault data.

Article Title: Fault Diagnosis Method of Rolling Bearing Based on 1D Multi-Channel Improved Convolutional Neural Network in Noisy Environment
Article Snippet: Gong et al. [ ] proposed an improved Convolutional Neural Network Support Vector Machine, which can directly input the original data from multiple sensors into the CNN–Softmax model, which inputs the extracted feature vector into the Support Vector Machine for fault classification.

Article Title: Synergistic transfer learning and adversarial networks for breast cancer diagnosis: benign vs. invasive classification.
Article Snippet: The Methods BreakHis dataset Classification type Classification methodOptimal accuracy ICIAR dataset 41 91.38% Binary class VLAD 42 93.3% Binary class K-mean + DWT 43 86.67% Binary class Fisher Vector + CNN 44 91% Multiclass CNN + LSTM + Softmax + SVM 45 92.6% Binary class VGG_16 + Logistic Regression 46 94.5 Multiclass DCGAIN + VGG_16 47 87.4 Multiclass ResNet50 + KWELM 48 96.1% Multiclass Hybrid CNN 49 85% Multiclass Inception-V3 50 87% Multiclass CNN 51 97.25% Multiclass CNN + RNN + Attention 52 76% Multiclass Inception ResNet V2 53 98.73% Binary class ResNet18 (Transfer Learning) 54 98.51% Binary class InceptionV3 (Transfer Learning) 55 99.12% Binary class Transfer learning with pre-trained DCNN architectures (VGG-16, Xception, DenseNet-201) 29 96.5% Binary class ResNet + VGG16 Essemble (Transfer Learning) 31 92.2% Binary class ResNet 50 (Transfer Learning) 25 96% Binary class CNN + Transfer Learning Proposed method 98.8% Binary class Multi-scale Transfer Learning Proposed method 97.8% Multiclass Multi-scale Transfer Learning Proposed method 96.1% Binary class Multi-scale Transfer Learning + TradAug Proposed method 95.5% Multiclass Multi-scale Transfer Learning + TradAug Proposed method 99.6% Binary class Multi-scale Transfer Learning + TradAug + cWGAN Proposed method 98.2% Multiclass Multi-scale Transfer Learning + TradAug + cWGAN Table 14.

Imaging:

Article Title: Fusion‐Brain‐Net: A Novel Deep Fusion Model for Brain Tumor Classification
Article Snippet: Subba and Sunaniya ( ) , Figshare , CNN + Softmax , 97.62%.

Article Title: Artificial intelligence for the detection of acute myeloid leukemia from microscopic blood images; a systematic review and meta-analysis
Article Snippet: Sakthiraj ( ) , Hybrid Convolutional Neural Network with Interactive Autodidactic School (HCNN-IAS) algorithm , HCNN-IASO , No , Softmax-CNN layer classifier (based on ResNet-34 and DenseNet-121) , IV , -Before augmentation: Healthy: 190 CML: 58 CLL: 30 AML: 56 ALL: 182 -After augmentation: Healthy: 1,291 CML: 1,244 CLL: 845 AML: 1,198 ALL: 1,082 , The proposed approach is used to generate results and to accurately identify and detect them. The data augmentation technique involved is utilized to practice big datasets and thus it processes large Leukemia images. The features from Leukemia datasets are extracted by using our proposed HCNN and further the attention layer in the HCNN is exploited to fuse the extracted features. The softmax layer of HCNN acts as a classifier and therefore it classifies the leukemia dataset into several subtypes. Furthermore, the accuracy of classification is optimized by utilizing Interactive autodidactic school optimization techniques. Finally, the optimized outcomes are sent to the medical institution/hospital via an IoMT platform for further processing. Based on the results retrieved, the physician/doctor provides a diagnosis to the patients..

Article Title: Fault Diagnosis Method of Rolling Bearing Based on 1D Multi-Channel Improved Convolutional Neural Network in Noisy Environment.
Article Snippet: Gong et al. [46] proposed an improved Convolutional Neural Network Support Vector Machine, which can directly input the original data from multiple sensors into the CNN– Softmax model, which inputs the extracted feature vector into the Support Vector Machine for fault classification.

Article Title: Recognition of Drill String Vibration State Based on WGAN-div and CNN-IWPSO-SVM
Article Snippet: During drilling operations, complex and variable dynamic nonlinear loads result in intricate vibrations in the drill string, severely impacting drilling safety and efficiency.. The vibration data collected on-site contains rich information about vibration conditions.. Addressing the limitations of existing signal processing methods in vibration state monitoring, this study proposes a hybrid method combining deep learning and machine learning for vibration state classification.

Article Title: Synergistic transfer learning and adversarial networks for breast cancer diagnosis: benign vs. invasive classification
Article Snippet: , 91% , , Multiclass , CNN + LSTM + Softmax + SVM.

Article Title: Deep learning based gasket fault detection: a CNN approach.
Article Snippet: Firstly, the temporal and spatial multichannel raw data from multiple sensors is directly input into the improved CNN-Softmax model for the training of the CNN model. Secondly, the improved CNN are used for extracting representative features from the raw fault data.

Article Title: Fault Diagnosis Method of Rolling Bearing Based on 1D Multi-Channel Improved Convolutional Neural Network in Noisy Environment
Article Snippet: Gong et al. [ ] proposed an improved Convolutional Neural Network Support Vector Machine, which can directly input the original data from multiple sensors into the CNN–Softmax model, which inputs the extracted feature vector into the Support Vector Machine for fault classification.

Article Title: Synergistic transfer learning and adversarial networks for breast cancer diagnosis: benign vs. invasive classification.
Article Snippet: The Methods BreakHis dataset Classification type Classification methodOptimal accuracy ICIAR dataset 41 91.38% Binary class VLAD 42 93.3% Binary class K-mean + DWT 43 86.67% Binary class Fisher Vector + CNN 44 91% Multiclass CNN + LSTM + Softmax + SVM 45 92.6% Binary class VGG_16 + Logistic Regression 46 94.5 Multiclass DCGAIN + VGG_16 47 87.4 Multiclass ResNet50 + KWELM 48 96.1% Multiclass Hybrid CNN 49 85% Multiclass Inception-V3 50 87% Multiclass CNN 51 97.25% Multiclass CNN + RNN + Attention 52 76% Multiclass Inception ResNet V2 53 98.73% Binary class ResNet18 (Transfer Learning) 54 98.51% Binary class InceptionV3 (Transfer Learning) 55 99.12% Binary class Transfer learning with pre-trained DCNN architectures (VGG-16, Xception, DenseNet-201) 29 96.5% Binary class ResNet + VGG16 Essemble (Transfer Learning) 31 92.2% Binary class ResNet 50 (Transfer Learning) 25 96% Binary class CNN + Transfer Learning Proposed method 98.8% Binary class Multi-scale Transfer Learning Proposed method 97.8% Multiclass Multi-scale Transfer Learning Proposed method 96.1% Binary class Multi-scale Transfer Learning + TradAug Proposed method 95.5% Multiclass Multi-scale Transfer Learning + TradAug Proposed method 99.6% Binary class Multi-scale Transfer Learning + TradAug + cWGAN Proposed method 98.2% Multiclass Multi-scale Transfer Learning + TradAug + cWGAN Table 14.

Plasmid Preparation:

Article Title: Fusion‐Brain‐Net: A Novel Deep Fusion Model for Brain Tumor Classification
Article Snippet: Subba and Sunaniya ( ) , Figshare , CNN + Softmax , 97.62%.

Article Title: Artificial intelligence for the detection of acute myeloid leukemia from microscopic blood images; a systematic review and meta-analysis
Article Snippet: Sakthiraj ( ) , Hybrid Convolutional Neural Network with Interactive Autodidactic School (HCNN-IAS) algorithm , HCNN-IASO , No , Softmax-CNN layer classifier (based on ResNet-34 and DenseNet-121) , IV , -Before augmentation: Healthy: 190 CML: 58 CLL: 30 AML: 56 ALL: 182 -After augmentation: Healthy: 1,291 CML: 1,244 CLL: 845 AML: 1,198 ALL: 1,082 , The proposed approach is used to generate results and to accurately identify and detect them. The data augmentation technique involved is utilized to practice big datasets and thus it processes large Leukemia images. The features from Leukemia datasets are extracted by using our proposed HCNN and further the attention layer in the HCNN is exploited to fuse the extracted features. The softmax layer of HCNN acts as a classifier and therefore it classifies the leukemia dataset into several subtypes. Furthermore, the accuracy of classification is optimized by utilizing Interactive autodidactic school optimization techniques. Finally, the optimized outcomes are sent to the medical institution/hospital via an IoMT platform for further processing. Based on the results retrieved, the physician/doctor provides a diagnosis to the patients..

Article Title: Fault Diagnosis Method of Rolling Bearing Based on 1D Multi-Channel Improved Convolutional Neural Network in Noisy Environment.
Article Snippet: Gong et al. [46] proposed an improved Convolutional Neural Network Support Vector Machine, which can directly input the original data from multiple sensors into the CNN– Softmax model, which inputs the extracted feature vector into the Support Vector Machine for fault classification.

Article Title: Recognition of Drill String Vibration State Based on WGAN-div and CNN-IWPSO-SVM
Article Snippet: During drilling operations, complex and variable dynamic nonlinear loads result in intricate vibrations in the drill string, severely impacting drilling safety and efficiency.. The vibration data collected on-site contains rich information about vibration conditions.. Addressing the limitations of existing signal processing methods in vibration state monitoring, this study proposes a hybrid method combining deep learning and machine learning for vibration state classification.

Article Title: Synergistic transfer learning and adversarial networks for breast cancer diagnosis: benign vs. invasive classification
Article Snippet: , 91% , , Multiclass , CNN + LSTM + Softmax + SVM.

Article Title: Deep learning based gasket fault detection: a CNN approach.
Article Snippet: Firstly, the temporal and spatial multichannel raw data from multiple sensors is directly input into the improved CNN-Softmax model for the training of the CNN model. Secondly, the improved CNN are used for extracting representative features from the raw fault data.

Article Title: Fault Diagnosis Method of Rolling Bearing Based on 1D Multi-Channel Improved Convolutional Neural Network in Noisy Environment
Article Snippet: Gong et al. [ ] proposed an improved Convolutional Neural Network Support Vector Machine, which can directly input the original data from multiple sensors into the CNN–Softmax model, which inputs the extracted feature vector into the Support Vector Machine for fault classification.

Article Title: Synergistic transfer learning and adversarial networks for breast cancer diagnosis: benign vs. invasive classification.
Article Snippet: The Methods BreakHis dataset Classification type Classification methodOptimal accuracy ICIAR dataset 41 91.38% Binary class VLAD 42 93.3% Binary class K-mean + DWT 43 86.67% Binary class Fisher Vector + CNN 44 91% Multiclass CNN + LSTM + Softmax + SVM 45 92.6% Binary class VGG_16 + Logistic Regression 46 94.5 Multiclass DCGAIN + VGG_16 47 87.4 Multiclass ResNet50 + KWELM 48 96.1% Multiclass Hybrid CNN 49 85% Multiclass Inception-V3 50 87% Multiclass CNN 51 97.25% Multiclass CNN + RNN + Attention 52 76% Multiclass Inception ResNet V2 53 98.73% Binary class ResNet18 (Transfer Learning) 54 98.51% Binary class InceptionV3 (Transfer Learning) 55 99.12% Binary class Transfer learning with pre-trained DCNN architectures (VGG-16, Xception, DenseNet-201) 29 96.5% Binary class ResNet + VGG16 Essemble (Transfer Learning) 31 92.2% Binary class ResNet 50 (Transfer Learning) 25 96% Binary class CNN + Transfer Learning Proposed method 98.8% Binary class Multi-scale Transfer Learning Proposed method 97.8% Multiclass Multi-scale Transfer Learning Proposed method 96.1% Binary class Multi-scale Transfer Learning + TradAug Proposed method 95.5% Multiclass Multi-scale Transfer Learning + TradAug Proposed method 99.6% Binary class Multi-scale Transfer Learning + TradAug + cWGAN Proposed method 98.2% Multiclass Multi-scale Transfer Learning + TradAug + cWGAN Table 14.

Derivative Assay:

Article Title: Fusion‐Brain‐Net: A Novel Deep Fusion Model for Brain Tumor Classification
Article Snippet: Subba and Sunaniya ( ) , Figshare , CNN + Softmax , 97.62%.

Article Title: Artificial intelligence for the detection of acute myeloid leukemia from microscopic blood images; a systematic review and meta-analysis
Article Snippet: Sakthiraj ( ) , Hybrid Convolutional Neural Network with Interactive Autodidactic School (HCNN-IAS) algorithm , HCNN-IASO , No , Softmax-CNN layer classifier (based on ResNet-34 and DenseNet-121) , IV , -Before augmentation: Healthy: 190 CML: 58 CLL: 30 AML: 56 ALL: 182 -After augmentation: Healthy: 1,291 CML: 1,244 CLL: 845 AML: 1,198 ALL: 1,082 , The proposed approach is used to generate results and to accurately identify and detect them. The data augmentation technique involved is utilized to practice big datasets and thus it processes large Leukemia images. The features from Leukemia datasets are extracted by using our proposed HCNN and further the attention layer in the HCNN is exploited to fuse the extracted features. The softmax layer of HCNN acts as a classifier and therefore it classifies the leukemia dataset into several subtypes. Furthermore, the accuracy of classification is optimized by utilizing Interactive autodidactic school optimization techniques. Finally, the optimized outcomes are sent to the medical institution/hospital via an IoMT platform for further processing. Based on the results retrieved, the physician/doctor provides a diagnosis to the patients..

Article Title: Fault Diagnosis Method of Rolling Bearing Based on 1D Multi-Channel Improved Convolutional Neural Network in Noisy Environment.
Article Snippet: Gong et al. [46] proposed an improved Convolutional Neural Network Support Vector Machine, which can directly input the original data from multiple sensors into the CNN– Softmax model, which inputs the extracted feature vector into the Support Vector Machine for fault classification.

Article Title: Recognition of Drill String Vibration State Based on WGAN-div and CNN-IWPSO-SVM
Article Snippet: During drilling operations, complex and variable dynamic nonlinear loads result in intricate vibrations in the drill string, severely impacting drilling safety and efficiency.. The vibration data collected on-site contains rich information about vibration conditions.. Addressing the limitations of existing signal processing methods in vibration state monitoring, this study proposes a hybrid method combining deep learning and machine learning for vibration state classification.

Article Title: Synergistic transfer learning and adversarial networks for breast cancer diagnosis: benign vs. invasive classification
Article Snippet: , 91% , , Multiclass , CNN + LSTM + Softmax + SVM.

Article Title: Deep learning based gasket fault detection: a CNN approach.
Article Snippet: Firstly, the temporal and spatial multichannel raw data from multiple sensors is directly input into the improved CNN-Softmax model for the training of the CNN model. Secondly, the improved CNN are used for extracting representative features from the raw fault data.

Article Title: Fault Diagnosis Method of Rolling Bearing Based on 1D Multi-Channel Improved Convolutional Neural Network in Noisy Environment
Article Snippet: Gong et al. [ ] proposed an improved Convolutional Neural Network Support Vector Machine, which can directly input the original data from multiple sensors into the CNN–Softmax model, which inputs the extracted feature vector into the Support Vector Machine for fault classification.

Article Title: Synergistic transfer learning and adversarial networks for breast cancer diagnosis: benign vs. invasive classification.
Article Snippet: The Methods BreakHis dataset Classification type Classification methodOptimal accuracy ICIAR dataset 41 91.38% Binary class VLAD 42 93.3% Binary class K-mean + DWT 43 86.67% Binary class Fisher Vector + CNN 44 91% Multiclass CNN + LSTM + Softmax + SVM 45 92.6% Binary class VGG_16 + Logistic Regression 46 94.5 Multiclass DCGAIN + VGG_16 47 87.4 Multiclass ResNet50 + KWELM 48 96.1% Multiclass Hybrid CNN 49 85% Multiclass Inception-V3 50 87% Multiclass CNN 51 97.25% Multiclass CNN + RNN + Attention 52 76% Multiclass Inception ResNet V2 53 98.73% Binary class ResNet18 (Transfer Learning) 54 98.51% Binary class InceptionV3 (Transfer Learning) 55 99.12% Binary class Transfer learning with pre-trained DCNN architectures (VGG-16, Xception, DenseNet-201) 29 96.5% Binary class ResNet + VGG16 Essemble (Transfer Learning) 31 92.2% Binary class ResNet 50 (Transfer Learning) 25 96% Binary class CNN + Transfer Learning Proposed method 98.8% Binary class Multi-scale Transfer Learning Proposed method 97.8% Multiclass Multi-scale Transfer Learning Proposed method 96.1% Binary class Multi-scale Transfer Learning + TradAug Proposed method 95.5% Multiclass Multi-scale Transfer Learning + TradAug Proposed method 99.6% Binary class Multi-scale Transfer Learning + TradAug + cWGAN Proposed method 98.2% Multiclass Multi-scale Transfer Learning + TradAug + cWGAN Table 14.

Microscopy:

Article Title: Fusion‐Brain‐Net: A Novel Deep Fusion Model for Brain Tumor Classification
Article Snippet: Subba and Sunaniya ( ) , Figshare , CNN + Softmax , 97.62%.

Article Title: Artificial intelligence for the detection of acute myeloid leukemia from microscopic blood images; a systematic review and meta-analysis
Article Snippet: Sakthiraj ( ) , Hybrid Convolutional Neural Network with Interactive Autodidactic School (HCNN-IAS) algorithm , HCNN-IASO , No , Softmax-CNN layer classifier (based on ResNet-34 and DenseNet-121) , IV , -Before augmentation: Healthy: 190 CML: 58 CLL: 30 AML: 56 ALL: 182 -After augmentation: Healthy: 1,291 CML: 1,244 CLL: 845 AML: 1,198 ALL: 1,082 , The proposed approach is used to generate results and to accurately identify and detect them. The data augmentation technique involved is utilized to practice big datasets and thus it processes large Leukemia images. The features from Leukemia datasets are extracted by using our proposed HCNN and further the attention layer in the HCNN is exploited to fuse the extracted features. The softmax layer of HCNN acts as a classifier and therefore it classifies the leukemia dataset into several subtypes. Furthermore, the accuracy of classification is optimized by utilizing Interactive autodidactic school optimization techniques. Finally, the optimized outcomes are sent to the medical institution/hospital via an IoMT platform for further processing. Based on the results retrieved, the physician/doctor provides a diagnosis to the patients..

Article Title: Fault Diagnosis Method of Rolling Bearing Based on 1D Multi-Channel Improved Convolutional Neural Network in Noisy Environment.
Article Snippet: Gong et al. [46] proposed an improved Convolutional Neural Network Support Vector Machine, which can directly input the original data from multiple sensors into the CNN– Softmax model, which inputs the extracted feature vector into the Support Vector Machine for fault classification.

Article Title: Recognition of Drill String Vibration State Based on WGAN-div and CNN-IWPSO-SVM
Article Snippet: During drilling operations, complex and variable dynamic nonlinear loads result in intricate vibrations in the drill string, severely impacting drilling safety and efficiency.. The vibration data collected on-site contains rich information about vibration conditions.. Addressing the limitations of existing signal processing methods in vibration state monitoring, this study proposes a hybrid method combining deep learning and machine learning for vibration state classification.

Article Title: Synergistic transfer learning and adversarial networks for breast cancer diagnosis: benign vs. invasive classification
Article Snippet: , 91% , , Multiclass , CNN + LSTM + Softmax + SVM.

Article Title: Deep learning based gasket fault detection: a CNN approach.
Article Snippet: Firstly, the temporal and spatial multichannel raw data from multiple sensors is directly input into the improved CNN-Softmax model for the training of the CNN model. Secondly, the improved CNN are used for extracting representative features from the raw fault data.

Article Title: Fault Diagnosis Method of Rolling Bearing Based on 1D Multi-Channel Improved Convolutional Neural Network in Noisy Environment
Article Snippet: Gong et al. [ ] proposed an improved Convolutional Neural Network Support Vector Machine, which can directly input the original data from multiple sensors into the CNN–Softmax model, which inputs the extracted feature vector into the Support Vector Machine for fault classification.

Article Title: Synergistic transfer learning and adversarial networks for breast cancer diagnosis: benign vs. invasive classification.
Article Snippet: The Methods BreakHis dataset Classification type Classification methodOptimal accuracy ICIAR dataset 41 91.38% Binary class VLAD 42 93.3% Binary class K-mean + DWT 43 86.67% Binary class Fisher Vector + CNN 44 91% Multiclass CNN + LSTM + Softmax + SVM 45 92.6% Binary class VGG_16 + Logistic Regression 46 94.5 Multiclass DCGAIN + VGG_16 47 87.4 Multiclass ResNet50 + KWELM 48 96.1% Multiclass Hybrid CNN 49 85% Multiclass Inception-V3 50 87% Multiclass CNN 51 97.25% Multiclass CNN + RNN + Attention 52 76% Multiclass Inception ResNet V2 53 98.73% Binary class ResNet18 (Transfer Learning) 54 98.51% Binary class InceptionV3 (Transfer Learning) 55 99.12% Binary class Transfer learning with pre-trained DCNN architectures (VGG-16, Xception, DenseNet-201) 29 96.5% Binary class ResNet + VGG16 Essemble (Transfer Learning) 31 92.2% Binary class ResNet 50 (Transfer Learning) 25 96% Binary class CNN + Transfer Learning Proposed method 98.8% Binary class Multi-scale Transfer Learning Proposed method 97.8% Multiclass Multi-scale Transfer Learning Proposed method 96.1% Binary class Multi-scale Transfer Learning + TradAug Proposed method 95.5% Multiclass Multi-scale Transfer Learning + TradAug Proposed method 99.6% Binary class Multi-scale Transfer Learning + TradAug + cWGAN Proposed method 98.2% Multiclass Multi-scale Transfer Learning + TradAug + cWGAN Table 14.

Staining:

Article Title: Fusion‐Brain‐Net: A Novel Deep Fusion Model for Brain Tumor Classification
Article Snippet: Subba and Sunaniya ( ) , Figshare , CNN + Softmax , 97.62%.

Article Title: Artificial intelligence for the detection of acute myeloid leukemia from microscopic blood images; a systematic review and meta-analysis
Article Snippet: Sakthiraj ( ) , Hybrid Convolutional Neural Network with Interactive Autodidactic School (HCNN-IAS) algorithm , HCNN-IASO , No , Softmax-CNN layer classifier (based on ResNet-34 and DenseNet-121) , IV , -Before augmentation: Healthy: 190 CML: 58 CLL: 30 AML: 56 ALL: 182 -After augmentation: Healthy: 1,291 CML: 1,244 CLL: 845 AML: 1,198 ALL: 1,082 , The proposed approach is used to generate results and to accurately identify and detect them. The data augmentation technique involved is utilized to practice big datasets and thus it processes large Leukemia images. The features from Leukemia datasets are extracted by using our proposed HCNN and further the attention layer in the HCNN is exploited to fuse the extracted features. The softmax layer of HCNN acts as a classifier and therefore it classifies the leukemia dataset into several subtypes. Furthermore, the accuracy of classification is optimized by utilizing Interactive autodidactic school optimization techniques. Finally, the optimized outcomes are sent to the medical institution/hospital via an IoMT platform for further processing. Based on the results retrieved, the physician/doctor provides a diagnosis to the patients..

Article Title: Fault Diagnosis Method of Rolling Bearing Based on 1D Multi-Channel Improved Convolutional Neural Network in Noisy Environment.
Article Snippet: Gong et al. [46] proposed an improved Convolutional Neural Network Support Vector Machine, which can directly input the original data from multiple sensors into the CNN– Softmax model, which inputs the extracted feature vector into the Support Vector Machine for fault classification.

Article Title: Recognition of Drill String Vibration State Based on WGAN-div and CNN-IWPSO-SVM
Article Snippet: During drilling operations, complex and variable dynamic nonlinear loads result in intricate vibrations in the drill string, severely impacting drilling safety and efficiency.. The vibration data collected on-site contains rich information about vibration conditions.. Addressing the limitations of existing signal processing methods in vibration state monitoring, this study proposes a hybrid method combining deep learning and machine learning for vibration state classification.

Article Title: Synergistic transfer learning and adversarial networks for breast cancer diagnosis: benign vs. invasive classification
Article Snippet: , 91% , , Multiclass , CNN + LSTM + Softmax + SVM.

Article Title: Deep learning based gasket fault detection: a CNN approach.
Article Snippet: Firstly, the temporal and spatial multichannel raw data from multiple sensors is directly input into the improved CNN-Softmax model for the training of the CNN model. Secondly, the improved CNN are used for extracting representative features from the raw fault data.

Article Title: Fault Diagnosis Method of Rolling Bearing Based on 1D Multi-Channel Improved Convolutional Neural Network in Noisy Environment
Article Snippet: Gong et al. [ ] proposed an improved Convolutional Neural Network Support Vector Machine, which can directly input the original data from multiple sensors into the CNN–Softmax model, which inputs the extracted feature vector into the Support Vector Machine for fault classification.

Article Title: Synergistic transfer learning and adversarial networks for breast cancer diagnosis: benign vs. invasive classification.
Article Snippet: The Methods BreakHis dataset Classification type Classification methodOptimal accuracy ICIAR dataset 41 91.38% Binary class VLAD 42 93.3% Binary class K-mean + DWT 43 86.67% Binary class Fisher Vector + CNN 44 91% Multiclass CNN + LSTM + Softmax + SVM 45 92.6% Binary class VGG_16 + Logistic Regression 46 94.5 Multiclass DCGAIN + VGG_16 47 87.4 Multiclass ResNet50 + KWELM 48 96.1% Multiclass Hybrid CNN 49 85% Multiclass Inception-V3 50 87% Multiclass CNN 51 97.25% Multiclass CNN + RNN + Attention 52 76% Multiclass Inception ResNet V2 53 98.73% Binary class ResNet18 (Transfer Learning) 54 98.51% Binary class InceptionV3 (Transfer Learning) 55 99.12% Binary class Transfer learning with pre-trained DCNN architectures (VGG-16, Xception, DenseNet-201) 29 96.5% Binary class ResNet + VGG16 Essemble (Transfer Learning) 31 92.2% Binary class ResNet 50 (Transfer Learning) 25 96% Binary class CNN + Transfer Learning Proposed method 98.8% Binary class Multi-scale Transfer Learning Proposed method 97.8% Multiclass Multi-scale Transfer Learning Proposed method 96.1% Binary class Multi-scale Transfer Learning + TradAug Proposed method 95.5% Multiclass Multi-scale Transfer Learning + TradAug Proposed method 99.6% Binary class Multi-scale Transfer Learning + TradAug + cWGAN Proposed method 98.2% Multiclass Multi-scale Transfer Learning + TradAug + cWGAN Table 14.

Diagnostic Assay:

Article Title: Fusion‐Brain‐Net: A Novel Deep Fusion Model for Brain Tumor Classification
Article Snippet: Subba and Sunaniya ( ) , Figshare , CNN + Softmax , 97.62%.

Article Title: Artificial intelligence for the detection of acute myeloid leukemia from microscopic blood images; a systematic review and meta-analysis
Article Snippet: Sakthiraj ( ) , Hybrid Convolutional Neural Network with Interactive Autodidactic School (HCNN-IAS) algorithm , HCNN-IASO , No , Softmax-CNN layer classifier (based on ResNet-34 and DenseNet-121) , IV , -Before augmentation: Healthy: 190 CML: 58 CLL: 30 AML: 56 ALL: 182 -After augmentation: Healthy: 1,291 CML: 1,244 CLL: 845 AML: 1,198 ALL: 1,082 , The proposed approach is used to generate results and to accurately identify and detect them. The data augmentation technique involved is utilized to practice big datasets and thus it processes large Leukemia images. The features from Leukemia datasets are extracted by using our proposed HCNN and further the attention layer in the HCNN is exploited to fuse the extracted features. The softmax layer of HCNN acts as a classifier and therefore it classifies the leukemia dataset into several subtypes. Furthermore, the accuracy of classification is optimized by utilizing Interactive autodidactic school optimization techniques. Finally, the optimized outcomes are sent to the medical institution/hospital via an IoMT platform for further processing. Based on the results retrieved, the physician/doctor provides a diagnosis to the patients..

Article Title: Fault Diagnosis Method of Rolling Bearing Based on 1D Multi-Channel Improved Convolutional Neural Network in Noisy Environment.
Article Snippet: Gong et al. [46] proposed an improved Convolutional Neural Network Support Vector Machine, which can directly input the original data from multiple sensors into the CNN– Softmax model, which inputs the extracted feature vector into the Support Vector Machine for fault classification.

Article Title: Recognition of Drill String Vibration State Based on WGAN-div and CNN-IWPSO-SVM
Article Snippet: During drilling operations, complex and variable dynamic nonlinear loads result in intricate vibrations in the drill string, severely impacting drilling safety and efficiency.. The vibration data collected on-site contains rich information about vibration conditions.. Addressing the limitations of existing signal processing methods in vibration state monitoring, this study proposes a hybrid method combining deep learning and machine learning for vibration state classification.

Article Title: Synergistic transfer learning and adversarial networks for breast cancer diagnosis: benign vs. invasive classification
Article Snippet: , 91% , , Multiclass , CNN + LSTM + Softmax + SVM.

Article Title: Deep learning based gasket fault detection: a CNN approach.
Article Snippet: Firstly, the temporal and spatial multichannel raw data from multiple sensors is directly input into the improved CNN-Softmax model for the training of the CNN model. Secondly, the improved CNN are used for extracting representative features from the raw fault data.

Article Title: Fault Diagnosis Method of Rolling Bearing Based on 1D Multi-Channel Improved Convolutional Neural Network in Noisy Environment
Article Snippet: Gong et al. [ ] proposed an improved Convolutional Neural Network Support Vector Machine, which can directly input the original data from multiple sensors into the CNN–Softmax model, which inputs the extracted feature vector into the Support Vector Machine for fault classification.

Article Title: Synergistic transfer learning and adversarial networks for breast cancer diagnosis: benign vs. invasive classification.
Article Snippet: The Methods BreakHis dataset Classification type Classification methodOptimal accuracy ICIAR dataset 41 91.38% Binary class VLAD 42 93.3% Binary class K-mean + DWT 43 86.67% Binary class Fisher Vector + CNN 44 91% Multiclass CNN + LSTM + Softmax + SVM 45 92.6% Binary class VGG_16 + Logistic Regression 46 94.5 Multiclass DCGAIN + VGG_16 47 87.4 Multiclass ResNet50 + KWELM 48 96.1% Multiclass Hybrid CNN 49 85% Multiclass Inception-V3 50 87% Multiclass CNN 51 97.25% Multiclass CNN + RNN + Attention 52 76% Multiclass Inception ResNet V2 53 98.73% Binary class ResNet18 (Transfer Learning) 54 98.51% Binary class InceptionV3 (Transfer Learning) 55 99.12% Binary class Transfer learning with pre-trained DCNN architectures (VGG-16, Xception, DenseNet-201) 29 96.5% Binary class ResNet + VGG16 Essemble (Transfer Learning) 31 92.2% Binary class ResNet 50 (Transfer Learning) 25 96% Binary class CNN + Transfer Learning Proposed method 98.8% Binary class Multi-scale Transfer Learning Proposed method 97.8% Multiclass Multi-scale Transfer Learning Proposed method 96.1% Binary class Multi-scale Transfer Learning + TradAug Proposed method 95.5% Multiclass Multi-scale Transfer Learning + TradAug Proposed method 99.6% Binary class Multi-scale Transfer Learning + TradAug + cWGAN Proposed method 98.2% Multiclass Multi-scale Transfer Learning + TradAug + cWGAN Table 14.

Control:

Article Title: Fusion‐Brain‐Net: A Novel Deep Fusion Model for Brain Tumor Classification
Article Snippet: Subba and Sunaniya ( ) , Figshare , CNN + Softmax , 97.62%.

Article Title: Artificial intelligence for the detection of acute myeloid leukemia from microscopic blood images; a systematic review and meta-analysis
Article Snippet: Sakthiraj ( ) , Hybrid Convolutional Neural Network with Interactive Autodidactic School (HCNN-IAS) algorithm , HCNN-IASO , No , Softmax-CNN layer classifier (based on ResNet-34 and DenseNet-121) , IV , -Before augmentation: Healthy: 190 CML: 58 CLL: 30 AML: 56 ALL: 182 -After augmentation: Healthy: 1,291 CML: 1,244 CLL: 845 AML: 1,198 ALL: 1,082 , The proposed approach is used to generate results and to accurately identify and detect them. The data augmentation technique involved is utilized to practice big datasets and thus it processes large Leukemia images. The features from Leukemia datasets are extracted by using our proposed HCNN and further the attention layer in the HCNN is exploited to fuse the extracted features. The softmax layer of HCNN acts as a classifier and therefore it classifies the leukemia dataset into several subtypes. Furthermore, the accuracy of classification is optimized by utilizing Interactive autodidactic school optimization techniques. Finally, the optimized outcomes are sent to the medical institution/hospital via an IoMT platform for further processing. Based on the results retrieved, the physician/doctor provides a diagnosis to the patients..

Article Title: Fault Diagnosis Method of Rolling Bearing Based on 1D Multi-Channel Improved Convolutional Neural Network in Noisy Environment.
Article Snippet: Gong et al. [46] proposed an improved Convolutional Neural Network Support Vector Machine, which can directly input the original data from multiple sensors into the CNN– Softmax model, which inputs the extracted feature vector into the Support Vector Machine for fault classification.

Article Title: Recognition of Drill String Vibration State Based on WGAN-div and CNN-IWPSO-SVM
Article Snippet: During drilling operations, complex and variable dynamic nonlinear loads result in intricate vibrations in the drill string, severely impacting drilling safety and efficiency.. The vibration data collected on-site contains rich information about vibration conditions.. Addressing the limitations of existing signal processing methods in vibration state monitoring, this study proposes a hybrid method combining deep learning and machine learning for vibration state classification.

Article Title: Synergistic transfer learning and adversarial networks for breast cancer diagnosis: benign vs. invasive classification
Article Snippet: , 91% , , Multiclass , CNN + LSTM + Softmax + SVM.

Article Title: Deep learning based gasket fault detection: a CNN approach.
Article Snippet: Firstly, the temporal and spatial multichannel raw data from multiple sensors is directly input into the improved CNN-Softmax model for the training of the CNN model. Secondly, the improved CNN are used for extracting representative features from the raw fault data.

Article Title: Fault Diagnosis Method of Rolling Bearing Based on 1D Multi-Channel Improved Convolutional Neural Network in Noisy Environment
Article Snippet: Gong et al. [ ] proposed an improved Convolutional Neural Network Support Vector Machine, which can directly input the original data from multiple sensors into the CNN–Softmax model, which inputs the extracted feature vector into the Support Vector Machine for fault classification.

Article Title: Synergistic transfer learning and adversarial networks for breast cancer diagnosis: benign vs. invasive classification.
Article Snippet: The Methods BreakHis dataset Classification type Classification methodOptimal accuracy ICIAR dataset 41 91.38% Binary class VLAD 42 93.3% Binary class K-mean + DWT 43 86.67% Binary class Fisher Vector + CNN 44 91% Multiclass CNN + LSTM + Softmax + SVM 45 92.6% Binary class VGG_16 + Logistic Regression 46 94.5 Multiclass DCGAIN + VGG_16 47 87.4 Multiclass ResNet50 + KWELM 48 96.1% Multiclass Hybrid CNN 49 85% Multiclass Inception-V3 50 87% Multiclass CNN 51 97.25% Multiclass CNN + RNN + Attention 52 76% Multiclass Inception ResNet V2 53 98.73% Binary class ResNet18 (Transfer Learning) 54 98.51% Binary class InceptionV3 (Transfer Learning) 55 99.12% Binary class Transfer learning with pre-trained DCNN architectures (VGG-16, Xception, DenseNet-201) 29 96.5% Binary class ResNet + VGG16 Essemble (Transfer Learning) 31 92.2% Binary class ResNet 50 (Transfer Learning) 25 96% Binary class CNN + Transfer Learning Proposed method 98.8% Binary class Multi-scale Transfer Learning Proposed method 97.8% Multiclass Multi-scale Transfer Learning Proposed method 96.1% Binary class Multi-scale Transfer Learning + TradAug Proposed method 95.5% Multiclass Multi-scale Transfer Learning + TradAug Proposed method 99.6% Binary class Multi-scale Transfer Learning + TradAug + cWGAN Proposed method 98.2% Multiclass Multi-scale Transfer Learning + TradAug + cWGAN Table 14.

Generated:

Article Title: Fusion‐Brain‐Net: A Novel Deep Fusion Model for Brain Tumor Classification
Article Snippet: Subba and Sunaniya ( ) , Figshare , CNN + Softmax , 97.62%.

Article Title: Artificial intelligence for the detection of acute myeloid leukemia from microscopic blood images; a systematic review and meta-analysis
Article Snippet: Sakthiraj ( ) , Hybrid Convolutional Neural Network with Interactive Autodidactic School (HCNN-IAS) algorithm , HCNN-IASO , No , Softmax-CNN layer classifier (based on ResNet-34 and DenseNet-121) , IV , -Before augmentation: Healthy: 190 CML: 58 CLL: 30 AML: 56 ALL: 182 -After augmentation: Healthy: 1,291 CML: 1,244 CLL: 845 AML: 1,198 ALL: 1,082 , The proposed approach is used to generate results and to accurately identify and detect them. The data augmentation technique involved is utilized to practice big datasets and thus it processes large Leukemia images. The features from Leukemia datasets are extracted by using our proposed HCNN and further the attention layer in the HCNN is exploited to fuse the extracted features. The softmax layer of HCNN acts as a classifier and therefore it classifies the leukemia dataset into several subtypes. Furthermore, the accuracy of classification is optimized by utilizing Interactive autodidactic school optimization techniques. Finally, the optimized outcomes are sent to the medical institution/hospital via an IoMT platform for further processing. Based on the results retrieved, the physician/doctor provides a diagnosis to the patients..

Article Title: Fault Diagnosis Method of Rolling Bearing Based on 1D Multi-Channel Improved Convolutional Neural Network in Noisy Environment.
Article Snippet: Gong et al. [46] proposed an improved Convolutional Neural Network Support Vector Machine, which can directly input the original data from multiple sensors into the CNN– Softmax model, which inputs the extracted feature vector into the Support Vector Machine for fault classification.

Article Title: Recognition of Drill String Vibration State Based on WGAN-div and CNN-IWPSO-SVM
Article Snippet: During drilling operations, complex and variable dynamic nonlinear loads result in intricate vibrations in the drill string, severely impacting drilling safety and efficiency.. The vibration data collected on-site contains rich information about vibration conditions.. Addressing the limitations of existing signal processing methods in vibration state monitoring, this study proposes a hybrid method combining deep learning and machine learning for vibration state classification.

Article Title: Synergistic transfer learning and adversarial networks for breast cancer diagnosis: benign vs. invasive classification
Article Snippet: , 91% , , Multiclass , CNN + LSTM + Softmax + SVM.

Article Title: Deep learning based gasket fault detection: a CNN approach.
Article Snippet: Firstly, the temporal and spatial multichannel raw data from multiple sensors is directly input into the improved CNN-Softmax model for the training of the CNN model. Secondly, the improved CNN are used for extracting representative features from the raw fault data.

Article Title: Fault Diagnosis Method of Rolling Bearing Based on 1D Multi-Channel Improved Convolutional Neural Network in Noisy Environment
Article Snippet: Gong et al. [ ] proposed an improved Convolutional Neural Network Support Vector Machine, which can directly input the original data from multiple sensors into the CNN–Softmax model, which inputs the extracted feature vector into the Support Vector Machine for fault classification.

Article Title: Synergistic transfer learning and adversarial networks for breast cancer diagnosis: benign vs. invasive classification.
Article Snippet: The Methods BreakHis dataset Classification type Classification methodOptimal accuracy ICIAR dataset 41 91.38% Binary class VLAD 42 93.3% Binary class K-mean + DWT 43 86.67% Binary class Fisher Vector + CNN 44 91% Multiclass CNN + LSTM + Softmax + SVM 45 92.6% Binary class VGG_16 + Logistic Regression 46 94.5 Multiclass DCGAIN + VGG_16 47 87.4 Multiclass ResNet50 + KWELM 48 96.1% Multiclass Hybrid CNN 49 85% Multiclass Inception-V3 50 87% Multiclass CNN 51 97.25% Multiclass CNN + RNN + Attention 52 76% Multiclass Inception ResNet V2 53 98.73% Binary class ResNet18 (Transfer Learning) 54 98.51% Binary class InceptionV3 (Transfer Learning) 55 99.12% Binary class Transfer learning with pre-trained DCNN architectures (VGG-16, Xception, DenseNet-201) 29 96.5% Binary class ResNet + VGG16 Essemble (Transfer Learning) 31 92.2% Binary class ResNet 50 (Transfer Learning) 25 96% Binary class CNN + Transfer Learning Proposed method 98.8% Binary class Multi-scale Transfer Learning Proposed method 97.8% Multiclass Multi-scale Transfer Learning Proposed method 96.1% Binary class Multi-scale Transfer Learning + TradAug Proposed method 95.5% Multiclass Multi-scale Transfer Learning + TradAug Proposed method 99.6% Binary class Multi-scale Transfer Learning + TradAug + cWGAN Proposed method 98.2% Multiclass Multi-scale Transfer Learning + TradAug + cWGAN Table 14.



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