Discovery of New Ice Binding Proteins (IBP's) in Fungi

Proteins perform a variety of essential biological functions through diverse structures and mechanisms, ranging from catalyzing reactions to regulating cellular processes. Ice-binding proteins (IBPs) are specialized proteins that are generally found in organisms living in cold environments. IBPs work to prevent damage to cells by blocking the formation of ice crystals. Our research interest is looking at IBPs in fungi samples. IBPs in fungi play a crucial role in enabling these organisms to survive in cold environments by preventing the growth of ice crystals that could damage cellular structures. In species like Fusarium and Mortierella, IBPs have evolved to specifically bind to ice, inhibiting ice recrystallization and allowing these fungi to thrive in subzero temperatures, ensuring their survival in freezing conditions. This process is done through ice nucleation and visualizing the formation and shaping of ice crystals from these samples. The discovery of ice-binding proteins (IBPs) in fungi offers significant insight into how exactly organisms adapt to cold environments. This research contributes to our understanding of how microorganisms survive in freezing environments and opens possibilities for their use in biotechnology, cryopreservation, and even agriculture.

Publication Details

Journal
Scholar Works (Boise State University)
Published
2025-04-15
Primary Topic
Silicon and Solar Cell Technologies
Type
article
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article

Discovery of New Ice Binding Proteins (IBP's) in Fungi

Scholar Works (Boise State University)
Silicon and Solar Cell Technologies
article

Discovery of New Ice Binding Proteins (IBP's) in Fungi

article en

Abstract

Proteins perform a variety of essential biological functions through diverse structures and mechanisms, ranging from catalyzing reactions to regulating cellular processes. Ice-binding proteins (IBPs) are specialized proteins that are generally found in organisms living in cold environments. IBPs work to prevent damage to cells by blocking the formation of ice crystals. Our research interest is looking at IBPs in fungi samples. IBPs in fungi play a crucial role in enabling these organisms to survive in cold environments by preventing the growth of ice crystals that could damage cellular structures. In species like Fusarium and Mortierella, IBPs have evolved to specifically bind to ice, inhibiting ice recrystallization and allowing these fungi to thrive in subzero temperatures, ensuring their survival in freezing conditions. This process is done through ice nucleation and visualizing the formation and shaping of ice crystals from these samples. The discovery of ice-binding proteins (IBPs) in fungi offers significant insight into how exactly organisms adapt to cold environments. This research contributes to our understanding of how microorganisms survive in freezing environments and opens possibilities for their use in biotechnology, cryopreservation, and even agriculture.

Scholar Works (Boise State University)
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Silicon and Solar Cell Technologies
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