Table 2.
Applications of Artificial Intelligence and Machine Learning in Animal Biotechnology.
| Description | Citation |
|---|---|
| Applications of machine learning in livestock management | |
| Analyzing Internal and External Factors in Livestock Supply Forecasting: This study uses machine learning algorithms to predict future livestock values, focusing on sustainability in the pork market. | ( 1 ) |
| Predictive Models for Livestock Output: This research applies machine learning techniques to predict livestock outputs, utilizing various predictors such as livestock units and costs to improve forecasting. | ( 2 ) |
| Predicting the Weight of Livestock: A machine learning model that utilizes algorithms like Random Forest and Ridge Regression to predict livestock weight based on different input features. | ( 5 ) |
| Applications of machine learning in the field of animal genetics | |
| Identification of Potential Feature Genes for Drug Efficacy in Non-Alcoholic Steatohepatitis Animal Model: This study uses machine learning algorithms to identify key genes that predict treatment responses, focusing on genetic and epigenetic RNA markers in an animal model. | ( 7 ) |
| Genomic Prediction of Cow Behavioral Traits Using Machine Learning: This research focuses on predicting behavioral traits in Holstein cattle, using data from automated milking systems and machine learning models to enhance genetic selection. | ( 9 ) |
| Genomic Prediction in Chickens Using Bioinformatics and Machine Learning: Integrating bioinformatics and machine learning, this research aims to predict genetic pathways in chickens, identifying crucial genes related to growth and other traits. | ( 11 ) |
| Recent advances in animal cloning coupled with machine learning | |
| Serine Protease Inhibitor Identification Using Machine Learning: This research utilized machine learning strategies to identify and analyze serine protease inhibitors, key proteins that play a role in cloning experiments in the animal's physiological context. | ( 13 ) |
| In-Silico Cloning for Vaccine Constructs against Bovine Coronavirus: This study applied machine learning for immunogenic epitope mapping and in-silico cloning to expedite the creation of vaccine constructs, focusing on expression vectors for animal applications. | ( 15 ) |
| Mapping Protective Precision Vaccines using Machine Learning: Researchers applied machine learning to structural proteomics and in-silico cloning to develop precision vaccines for Mycoplasma pulmonis, optimizing the vaccine before animal testing. | ( 17 ) |
| The integration of AI & ML in embryo transfer technologies | |
| Time-lapse Imaging to Differentiate Embryos: This study uses machine learning algorithms to analyze time-lapse imaging and differentiate embryos from young and old mice for more efficient embryo transfer, with or without preimplantation genetic testing. | ( 19 ) |
| Spectroscopy and Machine Learning for Bovine Embryo Grading: The research focuses on integrating imaging, spectroscopy, and machine learning models to automatically predict embryo quality, aiming to improve pregnancy success rates in bovine embryo transfer. | ( 21 ) |
| AI-Assisted Embryo Selection in Newts: This study developed an AI-assisted system for selecting viable embryos in Iberian ribbed newts, which is used for fetal development toxicity testing in embryo transfer technologies. | ( 23 ) |
| Selective Breeding and AI | |
| Machine Learning for Genomic Selection in Pacific White Shrimp: This study evaluates machine learning methods for genomic selection, focusing on growth traits in Pacific white shrimp, enhancing selective breeding programs. | ( 25 ) |
| Machine Learning and Survival Traits in Olive Flounder: This study compares machine learning models with traditional methods for genomic selection related to viral resistance traits in olive flounder, enhancing survival traits. | ( 27 ) |
| Bioinformatics in Animal Breeding: A review discussing the integration of bioinformatics and machine learning in animal breeding and genetics to enhance the accuracy of selective breeding programs. | ( 29 ) |
| Machine Learning Techniques for Enhancing Accuracy of prediction | |
| Prediction of Growth and Feed Efficiency in Mink: This study applies machine learning algorithms to predict growth and feed efficiency traits in mink, enhancing the accuracy of predictions for selective breeding programs. | ( 31 ) |
| Genomic Prediction of Cow Behavioral Traits: Machine learning methods, including CNN and MLP, are used to predict cow behavioral traits in Holstein cattle, achieving moderate accuracies, with CNN showing the highest accuracy. | ( 9 ) |
| Animal Healthcare and Diagnostic Accuracy: A review on the role of machine learning in animal healthcare, emphasizing its ability to improve diagnostic accuracy in various animal health-related applications. | ( 34 ) |
| Aquaculture and AI | |
| ANN Algorithm | |
| Random Forest: Used to identify aquaculture ponds and optimize aquaculture area management | ( 36 ) |
| Deep Learning: Image dataset for fish disease detection to ensure aquaculture health | ( 38 ) |
| Decision Trees: AI-based fish growth prediction and optimization of water quality | ( 40 ) |
| Artificial Intelligence and Machine Learning in forest animals | |
| Study examining vertical foraging niches in mammals and birds using functional traits and phylogenetic data to understand ecological and evolutionary patterns. | ( 41 ) |
| Deep learning-based model called Deep Indel for predicting outcomes of CRISPR/Cas9 genome editing with improved accuracy and interpretability. | ( 43 ) |
| Research on the local adaptation of Aedesaegypti mosquitoes, highlighting genomic variations linked to environmental conditions. | ( 45 ) |
| Investigation of microbial compositions in ticks from neotropical forest fragments, analyzing intrinsic and extrinsic factors influencing microbiome structure. | ( 46 ) |