AI for forecasting
| Type of AI | Use/type of forecasting | Industry | Reference | Limitation |
|---|---|---|---|---|
| Neural networks + supervector machines | Predict project performances (cost and schedule) | Construction industry | Wang et al. (2012) | ANNs and SVMs act as “black boxes,” their decision-making processes are not transparent; SVMs are effective in classification tasks but they can struggle with generalizability when applied to new projects that differ from those in the training set |
| Neural networks + Support vector machines | Improve Cost and Duration Prediction Accuracy | Construction industry | Darko et al. (2023) | The introduction of Deep Neural Networks (DNN) and Support Vector Regression (SVR) introduces complexity in terms of model configuration, training, and optimization |
| Neural networks | Risk prediction in tunnel construction frastructure | Luo et al. (2024) | Feature selection does not consider interrelationships between variables | |
| Neural networks | Predict construction cost of large sport field facilities | Construction industry | Juszczyk et al. (2019) | Do not possible to update on different time frame the database, limiting analysis effectiveness |
| Neural networks | Predict waste generation rate of building demolitions | Construction industry | Cha et al. (2023) | ANNs are sensitive to the input data variations and might not perform well if the data is not representative of the typical scenarios encountered during demolition projects; ANN requires accurately labeled data for training |
| Neural networks | Predict project success | Construction industry | Ko and Cheng (2007) | The model used Fuzzy Lofic, Neural Networks and Genetic Algorithm. It requires extensive computational resources and time for training and optimizing hyper-parameters through Bayesian inference and Particle Swarm Optimization |
| Neural networks | Cost and time forecasting of megaprojects | Megaprojects and Infrastructure | Natarajan (2022) | The method cannot quantify all the projects risks and uncertainties; Outliers megaprojects cannot be predicted |
| Long short-term memory neural networks (LSTM) + ARIMA and ARIFMA | Predict the Volatility of Highway Construction Cost Index | Megaprojects and Infrastructure | Cao and Ashuri (2020) | If the change is in the testing period, ARIMA and ARIFMA can only detect the periodic ones, and cannot catch unhappened ones. If the change is in the training period, the time series model is insensitive to it when change hap-pens near the end of the training sample or distant to the end |
| Type of AI | Use/type of forecasting | Industry | Reference | Limitation |
|---|---|---|---|---|
| Neural networks + supervector machines | Predict project performances (cost and schedule) | Construction industry | ANNs and SVMs act as “black boxes,” their decision-making processes are not transparent; SVMs are effective in classification tasks but they can struggle with generalizability when applied to new projects that differ from those in the training set | |
| Neural networks + Support vector machines | Improve Cost and Duration | Construction industry | The introduction of Deep Neural Networks (DNN) and Support Vector Regression (SVR) introduces complexity in terms of model configuration, training, and optimization | |
| Neural networks | Risk prediction in tunnel construction frastructure | Feature selection does not consider interrelationships between variables | ||
| Neural networks | Predict construction cost of large sport field facilities | Construction industry | Do not possible to update on different time frame the database, limiting analysis effectiveness | |
| Neural networks | Predict waste generation rate of building demolitions | Construction industry | ANNs are sensitive to the input data variations and might not perform well if the data is not representative of the typical scenarios encountered during demolition projects; ANN requires accurately labeled data for training | |
| Neural networks | Predict project success | Construction industry | The model used Fuzzy Lofic, Neural Networks and Genetic Algorithm. It requires extensive computational resources and time for training and optimizing hyper-parameters through Bayesian inference and Particle Swarm Optimization | |
| Neural networks | Cost and time forecasting of megaprojects | Megaprojects and Infrastructure | The method cannot quantify all the projects risks and uncertainties; Outliers megaprojects cannot be predicted | |
| Long short-term memory neural networks (LSTM) + ARIMA and ARIFMA | Predict the Volatility of Highway Construction Cost Index | Megaprojects and Infrastructure | If the change is in the testing period, ARIMA and ARIFMA can only detect the periodic ones, and cannot catch unhappened ones. If the change is in the training period, the time series model is insensitive to it when change hap-pens near the end of the training sample or distant to the end |
Source(s): Authors’ own creation
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