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Artificial intelligence in veterinary diagnostics

17 June 2024
8 mins read
Volume 29 · Issue sup6

Abstract

Artificial intelligence is becoming increasingly important in veterinary medicine and is likely to play a significant role in how the profession develops in the future. It is already impacting the way veterinarians practice, with several technologies readily available. Its application to the interpretation of diagnostic images, clinicopathological data and histopathology has been demonstrated. It is hoped that these technologies will increase the speed and accuracy of a diagnosis. This article reviews some studies investigating the application of artificial intelligence to the diagnosis of disease in animals and considers future uses and limitations of the technology.

Artificial intelligence has become commonplace, helping users select the next song on a playlist or the next word in a message. As it continues to develop, its use will also become routine in veterinary practice. As with any new technology developed within the profession, it is important to understand its application and how it works.

Many areas of veterinary medicine will benefit from the development of artificial intelligence, with research already showing how it can be applied for disease surveillance (Bollig et al, 2020) and predicting disease development within a population (Biourge et al, 2020). One of the areas where its use has already been demonstrated is in the diagnosis of disease. Technology that helps to make faster diagnoses with greater confidence will expedite how veterinary medicine is practised, allowing more time for other vital tasks.

Artificial intelligence is the development of technology that allows computer systems to perform tasks that would previously have required human intelligence. There are several different types of artificial intelligence. The subset that has been most investigated in veterinary medicine is machine learning, which is where sample data is used to train a system to recognise patterns and learn without explicit instructions (Cui et al, 2020), for example, a social media platform correctly grouping photographs of the same person. Deep learning is a subset of machine learning, and these models are made up of neuronal networks. Neuronal networks are based on neurons in the human brain and act to receive and process information before giving an output (Cui et al, 2020).

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