Research

Postgraduate profiles: Full alphabetical listing

 

Our postgraduates carry out interesting and often vital research into all manner of subjects across all research areas. Some are interested in politics, others in law, epidemiology, seagrasses or information and communications technology.

To promote their efforts, and to encourage others who are inspired to make their own mark on the world, we present the work of our current and past postgraduate students here.

Monica Furaste Danilevicz

Monica Furaste Danilevicz profile photo

Thesis

Automatic detection model using deep learning algorithms for recognition of biotic and abiotic stress signs in canola leaf.

Summary

Agriculture has played a major role on the way societies have developed. As global population continues to grow, agriculture productivity must increase in order to meet new food demands. My PhD project will research the application of deep learning models for crop health monitoring, enabling the accurate identification of infectious diseases and abiotic stress (such as poor nutrition, water deficit and others). Initially the project will focus on canola leaf images, targeting the main visual indications of stress and disease infection. Deep learning algorithms have revolutionized data and image processing in several fields, due to their capability of autonomously identifing features that better represent each condition, generating a classification or prediction from observed data. A crop health monitoring tool will be based on a convolutional neural network and integrated to novel approaches, developing a new state-of-art tool for assessing plant health.

Why my research is important

Canola is Australia’s third largest broad acre crop, with Western Australia as the major producer. The development of a plant health monitoring application will support a rapid response to early stages of disease development. Pests and disease infections are widely recognized as one of the major constraints to food security, causing the loss of 20-40% of major crop yield worldwide. An automatic stress identification tool will enable farmers to treat the diseased area, avoiding its spread throughout the field. By enabling the targeted application of pesticides and fertilisers, the tool will decrease the environmental impacts associated with agriculture. It will also be useful for crop breeders to rapidly characterise plant responses to stress under field trials, assisting in the development of improved crop varieties that are better adapted to resist major diseases and changing climate conditions.

Funding

  • Research Training Program
  • Forrest Research Foundation