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significantly faster » significantly alter (Expand Search), significantly better (Expand Search), significantly larger (Expand Search)
faster increases » factors increases (Expand Search), larger increases (Expand Search), greater increases (Expand Search)
larger decrease » marked decrease (Expand Search)
alter decrease » water decreases (Expand Search), teer decrease (Expand Search), alter disease (Expand Search)
significantly faster » significantly alter (Expand Search), significantly better (Expand Search), significantly larger (Expand Search)
faster increases » factors increases (Expand Search), larger increases (Expand Search), greater increases (Expand Search)
larger decrease » marked decrease (Expand Search)
alter decrease » water decreases (Expand Search), teer decrease (Expand Search), alter disease (Expand Search)
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Chemical Micromotors Move Faster at Oil–Water Interfaces
Published 2024“…Such speed increases are likely caused by faster chemical reactions at an oil–water interface than at a glass–water interface, but the exact mechanism remains unknown. …”
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Chemical Micromotors Move Faster at Oil–Water Interfaces
Published 2024“…Such speed increases are likely caused by faster chemical reactions at an oil–water interface than at a glass–water interface, but the exact mechanism remains unknown. …”
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Chemical Micromotors Move Faster at Oil–Water Interfaces
Published 2024“…Such speed increases are likely caused by faster chemical reactions at an oil–water interface than at a glass–water interface, but the exact mechanism remains unknown. …”
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Chemical Micromotors Move Faster at Oil–Water Interfaces
Published 2024“…Such speed increases are likely caused by faster chemical reactions at an oil–water interface than at a glass–water interface, but the exact mechanism remains unknown. …”
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Chemical Micromotors Move Faster at Oil–Water Interfaces
Published 2024“…Such speed increases are likely caused by faster chemical reactions at an oil–water interface than at a glass–water interface, but the exact mechanism remains unknown. …”
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Chemical Micromotors Move Faster at Oil–Water Interfaces
Published 2024“…Such speed increases are likely caused by faster chemical reactions at an oil–water interface than at a glass–water interface, but the exact mechanism remains unknown. …”
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Chemical Micromotors Move Faster at Oil–Water Interfaces
Published 2024“…Such speed increases are likely caused by faster chemical reactions at an oil–water interface than at a glass–water interface, but the exact mechanism remains unknown. …”
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Chemical Micromotors Move Faster at Oil–Water Interfaces
Published 2024“…Such speed increases are likely caused by faster chemical reactions at an oil–water interface than at a glass–water interface, but the exact mechanism remains unknown. …”
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(a) YOLOv5s; (b) FasterNet-YOLO.
Published 2025“…The results indicated that when comparing FasterNet-YOLO with the original model, the parameters were reduced by 49.4%, GFLOPs were reduced by 57.0%, mAP increased by 6.2%, and FPS increased by 54.1%. …”
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Spatial information of excitatory neurons in APP/PS1 mice are decreased in dCA1 and vCA1.
Published 2024“…The spatial information in dCA1 was significantly larger than circularly shuffled spike trains with similar mean firing rates for C57BL/6 mice (mean ± std: empirical = 0.134 ± 0.050, shuffled = 0.123 ± 0.035, p < 0.005, two-sided Wilcoxon rank-sum test, n<sub>empirical</sub> = 229 units from 5 recording sessions, n<sub>shuffled</sub> = 22900 simulated units from 5 recording sessions), but not for APP/PS1 mice (mean ± std: empirical = 0.132 ± 0.054, shuffled = 0.124 ± .054, p = 0.13, two-sided Wilcoxon rank-sum test, n<sub>empirical</sub> = 124 units from 4 recording sessions, n<sub>shuffled</sub> = 12400 simulated units from 4 recording sessions). …”
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