Table 7.
Qualitative comparison of smart industry related works.
| Use Case | Ref | Contribution | AI Role (At the Edge) |
AI Algorithm | Dataset | AI Placement | Employed Technology |
Platform | Metrics | Benefits AI-Edge |
Drawbacks | |
|---|---|---|---|---|---|---|---|---|---|---|---|---|
| Smart Industry | FI | [69] | Financial data analysis | Prediction | SVM | (Credit card fraud, credit card risk, Customer Churn, Insurance Claim) dataset | Edge devices, cloud | Low-cost model task offloading | Simulator (Not mentioned ) | Task assignment over delay power consumption precision recall F1-score | High accuracy | Communication overhead |
| [70] | Early-warning of financial risks | Prediction | BPNN | Real-world dataset | MEC | Quantization HARDWARE-CPU | Matlab | Accuracy, hit rate | Less response time | Accuracy needs improvement | ||
| C.I | [71] | Locality-based product demand prediction and decision making | Feature selection, classification, decision-making | RL, PCA, K-means | Kaggle open data | Edge device (GPU NVIDIA-SMI) | Low-cost model | Scikit-learn Python | Clustering score maximum/average cumulative reward execution time | Outperform others existing methods | Stability not tested | |
| MMM | [72] | Machine malfunction monitoring | RF SVM Adab LR MlP | (MIMII dataset | Fog (controller unit (ICU)/Microdata center) | Hardware accelerator | Lightweight model | Not mentioned | Time complexity, accuracy, precision, FScore | Response time reduction | – | |
| [73] | Abnormal events detection during assembly line production | Outlier detection prediction | RF, DBSCAN | Real-world dataset | Edge devices (Raspberry Pi) | Low-cost model | MongoDB Python | Accuracy recall F1-score precision | High accuracy | Dynamic of IoT data not addressed | ||
| [74] | Fault detection in a hydraulic system | Data reduction classification | LSTM, AE, GA | Real-world dataset | Edge server | Transfer learning | TensorFlow | Complexity DL accuracy detection time, data reduction | Reduction of load to cloud Low detection time Robust to noisy data | Communication overhead | ||
| Smart Industry | MM | [75] | Faults of machine detection | Classification | LSTM | Real-world dataset | Edge device (Raspberry Pi) | Lightweight model | Keras Python | Accuracy | Low-cost model Short fault detection | Memory usage overhead |
| [76] | Fast manufacture inspection | Feature extraction classification | CNN | Real-world dataset | Fog gateway | Early exit-DNN splitting | Not mentioned | ROC curve running efficiency | High accuracy | High communication cost | ||
| PQMP | [77] | Fast prediction of assembly quality | Feature selection, prediction | RF Adaboost | Real-world dataset | Edge server (PC) | Transfer learning | Python | Accuracy | Efficacy flexibility complexity reduction | Online learning not improved | |
| [78] | Fast tool wear monitoring and prediction | Feature extraction classification | CNN LSTM BiLSTM | Real-world dataset | Edge server (PC) | Transfer learning | Python TensorFlow | Response time, network bandwidth, data transmission RMSE MAPE | High monitoring accuracy, low-cost model, low response latency | Accuracy loss | ||
| [79] | Scheduling tasks production for smart production line | Task scheduling, resource allocation | PSO, ACO | Not mentioned | Fog gateway | - | Matlab | Completion time, energy consumption, reliability | Solves the problem of limited computing resources, high energy consumption, real-time/efficient processing | Does not consider heterogeneity of IoT devices. |