?? AI for Malt Barley: Traits Prediction
AI optimizes malting barley by predicting quality traits, improving yield, and enhancing the malting process through data analysis

?? AI for Malt Barley: Traits Prediction

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Which types of barley exist?

Barley is categorized by its usage into malting barley (for brewing and distilling), food barley (for human consumption), and feed barley (for animal feed).

It also comes in two-row and six-row varieties, with two-row barley favored for brewing due to its higher starch content. Additionally, barley can be hulled (with the husk intact) or hulless (where the husk falls off naturally), with the latter being ideal for food products.


Structure of barley. Source: Glen Fox, 2010


Barley spikes showing different row-types; (a) tworowed barley, (b) six-rowed barley, (c) deficiens, (d) spikelets, (e) different genotypes of malt barley. Source: Youssef, 2011



How is malt barley used?

The process of using malting barley begins with the malting stage, where harvested barley grains are soaked in water to encourage germination. This step activates enzymes that break down starches into fermentable sugars.

Once germination begins, the barley is allowed to sprout for a few days. Afterward, the germination is halted by drying the grains in a kiln, a process known as kilning, which stops enzyme activity and stabilizes the malt.

The resulting malted barley is then cleaned and processed further, either milled or used as is, depending on the brewing or distilling process.

In brewing, the malted barley is mashed with hot water to extract sugars, which are then fermented by yeast to produce alcohol.

Malted barley is prized for its ability to create rich flavors, color, and sugars necessary for alcohol production in beer and whiskey.


Diagrammatic presentation of preparation of malt grains of seven genotypes: Xveola‐45, Coll#112‐114/Muktinath, Xveola‐38, Solu uwa, NB‐1003/37‐1038, NB‐1003/37‐1034, Bonus. Source: Ojha et al., 2020
Appearance of barley and malt. Resource: Park et al., 2023

In the figure above: (A) Malt (HHM, HPM, and KMM); the coleoptiles are indicated by arrows; (B) A scheme of pilot-scale malting process; (C) Coleoptile elongation (%) and malt yield. Y-axis, coleoptile elongation (%) and malt yield; a, b Values are statistically significant (P < 0.05) as determined via Duncan's multiple range test; NS not statistically significant, HHB Heugho barley, HPB Hopum barley, KMB Kwangmaeg barley, HHM Heugho malt, HPM Hopum malt, KMM Kwangmaeg malt


Schematic flow diagram for the preparation of malt from different genotypes of barley found in Nepal. Source: Ojha et al., 2020


Malting and brewing processes. Source: Arja Laitila, 2007


Factors influencing the malting ecosystem. Source: Arja Laitila, 2007

Leveraging multi-omics and machine learning approaches in malting barley research: From farm cultivation to the final products

Country: Iran ????

Published: 22 June 2024

This study explores the potential of multi-omics and machine learning approaches to enhance understanding of malting processes and cultivation systems in barley.

The research integrates genomics, transcriptomics, proteomics, metabolomics, and phenomics data with machine learning techniques to analyze complex datasets in malting barley.

Key methods include genome-wide association studies, RNA sequencing, mass spectrometry-based proteomics, metabolite profiling, high-throughput phenotyping, and various machine learning algorithms such as random forests, artificial neural networks, and deep learning models.


Key findings

  1. The study found that integrating multi-omics data with machine learning improved prediction accuracy for traits like yield, malting quality, and stress tolerance. For example, multi-trait genomic prediction models enhanced the ability to predict complex traits such as grain yield and protein content.
  2. The heritability of malting traits ranges from 0.50 to 0.98, demonstrating the high predictive ability of genomic data for refining selection processes in barley breeding. The research also identified key genes, proteins, and metabolites associated with desirable malting characteristics, enabling more targeted breeding efforts.
  3. A study using a deep neural network model reduced total supply chain costs by 80% compared to traditional methods .
  4. Proteomic studies revealed that nearly 63% of the identified proteins were present during all stages of malting, highlighting coordinated activation of major metabolic pathways

Barley breeders, maltsters, brewers, and agricultural scientists can practically apply these results to improve barley varieties, optimize malting processes, and enhance product quality.        

Technologies used

? Next-generation sequencing platforms

? Mass spectrometers

? High-performance liquid chromatography

? Near-infrared spectroscopy

? Hyperspectral imaging systems

? High-throughput phenotyping platforms

? Bioinformatics software

? Machine learning libraries (e.g., TensorFlow, scikit-learn)

? High-performance computing clusters


Main figures of the article "Leveraging multi-omics and machine learning approaches in malting barley research: From farm cultivation to the final products"


Summary of application of multi omics approach in malting barley. Source: Panahi et al., 2024


Overview on supply chain components in malting barley industry. Source: Panahi et al., 2024


Application of ML in supply chain management. Source: Panahi et al., 2024

Simple explanation of the role of AI in this research

In this barley research, AI played a crucial role by acting like a super-smart assistant to the scientists.

Imagine having tons of complex information about barley - its genes, proteins, and how it reacts to different conditions - that would take forever for humans to analyze. This is where AI stepped in. Machine learning algorithms, which are like the brains of AI, were used to quickly sift through this massive amount of data and spot patterns that humans might miss.

  • These AI tools helped predict which barley plants would grow best or make the tastiest beer, without having to plant and test every single one.
  • They also helped identify the most important genes and traits to focus on when breeding new barley varieties.
  • AI made the whole research process faster, more accurate, and allowed scientists to make discoveries that might have taken years to find otherwise.


Key Takeaways for Designing Experiments

Top-3 key takeaways for designing experiments based on the research from the document:

1. Leverage Multi-Omics Integration: Combining genomics, proteomics, and metabolomics offers a complete view of malting barley traits, enhancing experimental precision.

2. Use Machine Learning for Prediction: Incorporating machine learning helps analyze complex data and predict malting quality, improving decision-making in breeding and processing.

3. Apply High-Throughput Phenotyping: Advanced imaging and phenotyping tools allow for efficient, accurate assessment of key malting traits, streamlining experimental processes.


Mobile app Petiole Pro can help with leaf area measurement, greenness assessment, leaf length measurement, germination count and calculating other parameters for malt barley farming and malt barley research
Mobile app Petiole Pro can help with leaf area measurement, greenness assessment, leaf length measurement, germination count and calculating other parameters for malt barley farming and malt barley research


Quality assurance functionality can be adjusted for malt barley grains to provide automatic quality control and numerical data about number of grains, area, diameter, standard deviation, and other visual traits
Are you looking to automate your quality control of malt barley production with tablets and smartphones? Let us know by sending an email to [email protected]        

References for "AI for Malt Barley: Traits Prediction"


FYI (For Your Interest)


Vertical Farming: A Guide for Growing Minds by Maryna Kuzmenko. Click on the image to be transferred to your local Amazon
Vertical Farming: A Guide for Growing Minds by Maryna Kuzmenko. Click on the image to be transferred to your local Amazon


Avinash Chandra Pandey

Crop Improvement Researcher

6 个月

Maryna Kuzmenko, Ph.D ???? Excellent Presentation. Many thanks for this topic selection and your deep dive into Malt Barley Research. About 80-90% world's cultivated area of barley belongs to 2 row and rest for 6 Row. Where About 60 to 70% of barley grain is used for cattle feed 20-30% for Malt Production and 5- 10% for human consumption. Europe produces about world 60% barley and consumes about 60-70%, Russia and Ukraine contribute about 30% of the whole world's barley exports and as they lower in prices so limit market prices. Now they fighting each other so market prices increased sharply after this war. Global South Australia and Argentina grow barley when the rest of the world is in summer so they also affect on barley grain market. India contributes only 1% of global production and 1% in export. In India, about 90% area is under 6 rows and 10% 2 Row. Saudi Arabia imports barley for cattle feed. Post Covid China is the largest importer in the world. There are many countries that just import and export barley neither producing nor consuming, just do business on stocking and earning margin on sale.

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