Scientists unlock secret to Venus flytrap’s hair-trigger response 🪴 | Ion channel at base of plant's sensory hairs amplifies initial signals above critical threshold ⚡️.
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#VenusFlytrap #PlantScience #IonChannels #ResearchInnovation #Botany
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#VenusFlytrap #PlantScience #IonChannels #ResearchInnovation #Botany
Ars Technica
Scientists unlock secret to Venus flytrap’s hair-trigger response
Ion channel at base of plant’s sensory hairs amplifies initial signals above critical threshold.
Scientists finally solved the mystery of how Venus flytraps snap shut — Molecular mechanism may inspire new techniques to help soft robots and other smart materials move without muscles
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#VenusFlytrap #SoftRobotics #SmartMaterials
Read Full Article
#VenusFlytrap #SoftRobotics #SmartMaterials
Gizmodo
Scientists Finally Solved the Mystery of How Venus Flytraps Snap Shut
New research seems to bust a common hypothesis for how a Venus flytrap's trap begins to close, while supporting another.
Science News
Scientists finally solved the mystery of how Venus flytraps snap shut — Molecular mechanism may inspire new techniques to help soft robots and other smart materials move without muscles Read Full Article #VenusFlytrap #SoftRobotics #SmartMaterials
🌿 A new study by researchers at Aix-Marseille University has uncovered how Venus flytraps (Dionaea muscipula) initiate their rapid trap closures. They discovered the plant's cell walls lining the outer epidermis quickly soften, releasing stored energy.
🔬 Published on Thursday in Science, the findings suggest this rapid softening is the primary mechanism for the trap's initial closing motion, not water movement. This "fastest modulation of wall mechanics reported in plants" could inspire advancements in soft robotics.
🤔 The research team, led by Jeongeun Ryu, examined two previous hypotheses: water movement and cell wall relaxation. Their experiments showed water moved too slowly for the initial closure, supporting the cell wall softening theory.
#VenusFlytrap #PlantScience #Robotics
🔬 Published on Thursday in Science, the findings suggest this rapid softening is the primary mechanism for the trap's initial closing motion, not water movement. This "fastest modulation of wall mechanics reported in plants" could inspire advancements in soft robotics.
🤔 The research team, led by Jeongeun Ryu, examined two previous hypotheses: water movement and cell wall relaxation. Their experiments showed water moved too slowly for the initial closure, supporting the cell wall softening theory.
#VenusFlytrap #PlantScience #Robotics