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Novel antimicrobials for swine health

The main goal of the project has been to enhance the performance and reduce the toxicity of a novel synthetic AMP (HHC-36), employ machine learning (ML) methods for discovering new, more potent antimicrobial peptides and to determine the hemolytic activity of these AMPs.

To that end, we aimed at exploring the extent to which publicly available data on antimicrobial peptides (AMPs) can be utilized using the state of the art models and training algorithms in machine learning (ML) to yield predictors that can screen any peptide sequence for their antimicrobial activity. Within this project we collected datasets on some pathogens of interest to the pork industry, performed ML trainings on best of the available models for this purpose, optimized the design (hyperparameters) of these models and explored the limits of the training using the currently available data.

We determined the asymptotic limits of the training scores for the graph convolutional models we employed on the available data. Within a mostly uncharted territory, these training results set one of the very first machine learning results on quantitatively predicting antimicrobial activity of AMPs. What is more, our results show a clear correlation between the dataset size and the final training score.

These results set the stage for next round of studies, globally and within Canada, where targeted AMP library screening can be performed with the aim of usability by ML models.

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Seeing the Whole Season: How Continuous Crop Modeling Is Changing Breeding

Video: Seeing the Whole Season: How Continuous Crop Modeling Is Changing Breeding

Plant breeding has long been shaped by snapshots. A walk through a plot. A single set of notes. A yield check at the end of the season. But crops do not grow in moments. They change every day.

In this conversation, Gary Nijak of AerialPLOT explains how continuous crop modeling is changing the way breeders see, measure, and select plants by capturing growth, stress, and recovery across the entire season, not just at isolated points in time.

Nijak breaks down why point-in-time observations can miss critical performance signals, how repeated, season-long data collection removes the human bottleneck in breeding, and what becomes possible when every plot is treated as a living data set. He also explores how continuous modeling allows breeding programs to move beyond vague descriptors and toward measurable, repeatable insights that connect directly to on-farm outcomes.

This conversation explores:

• What continuous crop modeling is and how it works

• Why traditional field observations fall short over a full growing season

• How scale and repeated measurement change breeding decisions

• What “digital twins” of plots mean for selection and performance

• Why data, not hardware, is driving the next shift in breeding innovation As data-driven breeding moves from research into real-world programs, this discussion offers a clear look at how seeing the whole season is reshaping value for breeders, seed companies, and farmers, and why this may be only the beginning.