Computer Science & AI12 January 2026

Beyond the Shell: Machine Learning for Egg Quality Classification in Noiler Chickens

Source PublicationScientific Publication

Primary AuthorsDudusola, Bashiru, Adetola et al.

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The egg is a biological fortress. Smooth, calcified, and deceptively uniform, it presents a challenge to standardisation. For the poultry breeder, variation is the enemy of efficiency. A Noiler hen at the flush of youth—26 weeks—constructs a different vessel than she does at a weary 46 weeks. The shell thickness varies, the albumen shifts, the yolk fluctuates. These changes dictate the economic fate of a farm, yet quantifying how these complex biological traits interact to define the final product has often been an imprecise art. The industry has long needed a way to categorise organic chaos with mathematical certainty. The stakes are not merely about sorting; they are about the efficiency of food systems in a demanding world.

The triumph of machine learning for egg quality classification

Into this biological uncertainty, researchers introduced a digital lens. The study turned to data science to solve the riddle of the Noiler egg. Three hundred eggs were collected, representing the full spectrum of the laying cycle. To build a robust dataset, the researchers had to deconstruct their subjects: measuring external dimensions alongside internal realities like yolk index and albumen height. These organic metrics served as the inputs for a digital contest. The goal was to see which mathematical model could best process this complex data to accurately classify the egg's size.

The organic metrics were fed into four distinct algorithms: Support Vector Machine (SVM), Random Forest (RF), Logistic Regression (LR), and Linear Regression (LRG). The results offered a dramatic twist in the narrative of agricultural grading. While traditional linear regression struggled to fully capture the complexity of the biological data, achieving 92% accuracy, the more advanced models thrived on the nuance.

The Random Forest algorithm emerged as the undisputed victor, achieving a staggering 98% classification accuracy. It displayed perfect precision (1.00) and a recall of 0.98. Where linear models stumbled over the messy reality of biology, Random Forest navigated the web of variables with near-flawless execution. The data suggests that machine learning for egg quality classification is a powerful tool for making sense of poultry metrics. While this specific study relied on invasive data to train the models, the authors note that future research could pair this algorithmic brain with computer vision eyes. This would finally allow breeders to assess the 'hidden compartments' of quality non-destructively, transforming the humble egg from a closed box into a known quantity.

Cite this Article (Harvard Style)

Dudusola et al. (2026). 'Metrics Comparison of Machine Learning Algorithms used to classify Noiler Chicken Egg from Egg QualityTrait'. Scientific Publication. Available at: https://doi.org/10.21203/rs.3.rs-8431208/v1

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machine learningNoiler chickensagritechpoultry science