Harnessing dislocation motion using an electric field @IowaStateMSE @PKU1898 @DalhousieU @zou_mse_UofT https://t.co/Ecj8Rbkq21
Harnessing dislocation motion using an electric field.
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Nov 2022 – Aug 2023Where it's discussed
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News11 articles
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X / Twitter9 posts
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YouTube5 videos
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What people are saying
The group collectively praises the study’s innovative approach to controlling dislocations, with phrases like 'game-changing' and references to real-time experiments. The tone is excited and optimistic, showing both curiosity and belief in the research's transformative potential.
Most discussions express enthusiasm and support for the findings, highlighting the novelty of manipulating dislocation motion with electric fields.
Posts show high curiosity, with many mentioning potential applications and real-time observations, indicating strong interest.
Commenters reference specific aspects of the research, such as real-time experiments and charge control, demonstrating meaningful engagement.
The tone suggests that the research could significantly influence materials science and engineering, emphasizing its potential for future technological advancements.
Abstract in brief
- Dislocation motion is crucial for the plasticity of materials and is typically influenced by mechanical forces, but researchers have now manipulated it using only an electric field.
- Real-time experiments on single-crystalline zinc sulfide show that dislocations can move in both directions based on the electric field's orientation.
- The findings reveal the charges of dislocation cores and demonstrate that applying an electric field decreases the energy barriers for their movement, indicating a new way to control material properties.
Top posts
Most liked on X and BlueskyCan we use an electric field to control the movement of crystal defects? In today’s Nature Materials, our group and collaborators publish a paper entitled 'Harnessing dislocation motion using an electric field', in which we present real-time observations…https://t.co/mrn8Ag4hrl
Harnessing dislocation motion using an electric field https://t.co/6KDOVDshgG 転位の電場制御、面白そう
Related paper: Harnessing dislocation motion using an electric field https://t.co/Ecj8Rbkq21
RT @NatureMaterials: Harnessing dislocation motion using an electric field @IowaStateMSE @PKU1898 @DalhousieU @zou_mse_UofT https://t.co/Ec…
[2211.14933] Mingqiang Li, Yidi Shen, Kun Luo et al.: Harnessing dislocation motion using an electric field https://t.co/3MPlZi8jeV https://t.co/9xZXCtYLev #cond_mat_mtrl_sci
All mentions
Electric Field Control of Dislocation Movement in Zinc Sulfide
Dislocation motion is crucial for material plasticity and can be manipulated using electric fields. Real-time experiments on zinc sulfide demonstrate dislocation movement influenced by electric field orientation…
Electric Field-Controlled Dislocation Movement in Materials
Real-time in situ TEM observation shows how an electric field influences dislocation motion in zinc sulfide, demonstrating a new method to manipulate material properties by applying voltage.
Electric Field-Induced Dislocation Motion in Materials
Dislocation motion influences material plasticity. This study demonstrates how electric fields can manipulate dislocations, revealing charge effects and reducing energy barriers, offering new avenues for materials…
Controlling Dislocation Movement in Materials Using Electric Fields
Real-time observations of dislocation movement in zinc sulfide demonstrate that electric fields can manipulate dislocation motion, influencing material plasticity by lowering energy barriers for dislocation movement.
Electric Field Control of Dislocation Mobility in Zinc Sulfide
Dislocation motion is crucial for material plasticity and can be manipulated using electric fields. Real-time experiments on zinc sulfide demonstrate how dislocations move directionally in response to electric field…
Related paper: Harnessing dislocation motion using an electric field https://t.co/Ecj8Rbkq21
RT @NatureMaterials: Harnessing dislocation motion using an electric field @IowaStateMSE @PKU1898 @DalhousieU @zou_mse_UofT https://t.co/Ec…
RT @NatureMaterials: Harnessing dislocation motion using an electric field @IowaStateMSE @PKU1898 @DalhousieU @zou_mse_UofT https://t.co/Ec…
RT @NatureMaterials: Harnessing dislocation motion using an electric field @IowaStateMSE @PKU1898 @DalhousieU @zou_mse_UofT https://t.co/Ec…
RT @NatureMaterials: Harnessing dislocation motion using an electric field @IowaStateMSE @PKU1898 @DalhousieU @zou_mse_UofT https://t.co/Ec…
Harnessing dislocation motion using an electric field @IowaStateMSE @PKU1898 @DalhousieU @zou_mse_UofT https://t.co/Ecj8Rbkq21
Can we use an electric field to control the movement of crystal defects? In today’s Nature Materials, our group and collaborators publish a paper entitled 'Harnessing dislocation motion using an electric field', in which we present real-time observations…https://t.co/mrn8Ag4hrl
Harnessing dislocation motion using an electric field https://t.co/6KDOVDshgG 転位の電場制御、面白そう
[2211.14933] Mingqiang Li, Yidi Shen, Kun Luo et al.: Harnessing dislocation motion using an electric field https://t.co/3MPlZi8jeV https://t.co/9xZXCtYLev #cond_mat_mtrl_sci