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larger decrease » marked decrease (Expand Search)
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23123
Non-linear rheology of F-actin networks in the presence of α-actinin, filamin or both.
Published 2013“…<p>A and B. Time-dependent shear modulus <i>G</i>(t, γ<sub>0</sub>) of an F-actin network in the presence of (A) both α-actinin and filamin or (B) filamin alone for low shear deformation amplitude γ<sub>0</sub>. …”
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23124
Expected costs and endpoint variance for the SOC model of [19] for simulated movements with (A) and without (B) vision.
Published 2021“…The positional endpoint variance (gray trace) can also be seen to decrease and plateau to a value which mainly corresponds to that of visually-guided movements. …”
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23125
DataSheet_1_A safe and effective vaccine against bovine leukemia virus.docx
Published 2022“…After facing a series of challenges pertaining to effectiveness and biosafety, the vaccine is now available for further large-scale delivery. …”
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23126
Putting Brain Training to the Test in the Workplace: A Randomized, Blinded, Multisite, Active-Controlled Trial
Published 2013“…</p> <p>Methods and Findings</p><p>135 white collar employees of a large Australian public sector organization were randomised to either 16 weeks (20 minutes three times per week) of online CT or an active control (AC) program of equal length and structure. …”
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23127
Modeling sediment oxygen demand in a highly productive lake under various trophic scenarios
Published 2019“…Using a diagenetic reaction-transport model supported by a large data set of sediment porewater concentrations, bulk sediment core data and lake monitoring data, the behavior of F<sub>red</sub> was simulated in eutrophic Lake Baldegg. …”
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23128
Invasion Dynamics of a Fish-Free Landscape by Brown Trout (<i>Salmo trutta</i>)
Published 2013“…Propagule pressure increased over the course of colonization, whereas the colonization function decreased, conditional on propagule pressure. The resulting pattern of this antagonistic interplay is an initial rapid invasion phase followed by a strong decrease in the invasion rate. …”
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23129
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23130
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23131
Quad-Nanopore Array Enables High-Resolution Identification of Four Single-Stranded DNA Homopolymers
Published 2025“…This dual benefit not only reduced the large driving force on DNA but also facilitated molecule capture through nanopores, therefore decreasing the voltage thresholds. …”
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23132
Quad-Nanopore Array Enables High-Resolution Identification of Four Single-Stranded DNA Homopolymers
Published 2025“…This dual benefit not only reduced the large driving force on DNA but also facilitated molecule capture through nanopores, therefore decreasing the voltage thresholds. …”
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23133
Layer-Thickness-Dependent Strengthening–Toughening Mechanisms in Crystalline/Amorphous Nanolaminates
Published 2025“…The mechanical performance of these materials is strongly governed by the crystalline–amorphous interfaces (CAIs), yet the underlying strengthening and toughening mechanisms remain poorly understood. Here, we employ large-scale molecular dynamics simulations to investigate the compressive deformation of C/A nanopillars composed of alternating equal-thickness crystalline Cu and amorphous Cu<sub>50</sub>Zr<sub>50</sub> layers. …”
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23134
Layer-Thickness-Dependent Strengthening–Toughening Mechanisms in Crystalline/Amorphous Nanolaminates
Published 2025“…The mechanical performance of these materials is strongly governed by the crystalline–amorphous interfaces (CAIs), yet the underlying strengthening and toughening mechanisms remain poorly understood. Here, we employ large-scale molecular dynamics simulations to investigate the compressive deformation of C/A nanopillars composed of alternating equal-thickness crystalline Cu and amorphous Cu<sub>50</sub>Zr<sub>50</sub> layers. …”
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23135
Layer-Thickness-Dependent Strengthening–Toughening Mechanisms in Crystalline/Amorphous Nanolaminates
Published 2025“…The mechanical performance of these materials is strongly governed by the crystalline–amorphous interfaces (CAIs), yet the underlying strengthening and toughening mechanisms remain poorly understood. Here, we employ large-scale molecular dynamics simulations to investigate the compressive deformation of C/A nanopillars composed of alternating equal-thickness crystalline Cu and amorphous Cu<sub>50</sub>Zr<sub>50</sub> layers. …”
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23136
Layer-Thickness-Dependent Strengthening–Toughening Mechanisms in Crystalline/Amorphous Nanolaminates
Published 2025“…The mechanical performance of these materials is strongly governed by the crystalline–amorphous interfaces (CAIs), yet the underlying strengthening and toughening mechanisms remain poorly understood. Here, we employ large-scale molecular dynamics simulations to investigate the compressive deformation of C/A nanopillars composed of alternating equal-thickness crystalline Cu and amorphous Cu<sub>50</sub>Zr<sub>50</sub> layers. …”
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23137
Layer-Thickness-Dependent Strengthening–Toughening Mechanisms in Crystalline/Amorphous Nanolaminates
Published 2025“…The mechanical performance of these materials is strongly governed by the crystalline–amorphous interfaces (CAIs), yet the underlying strengthening and toughening mechanisms remain poorly understood. Here, we employ large-scale molecular dynamics simulations to investigate the compressive deformation of C/A nanopillars composed of alternating equal-thickness crystalline Cu and amorphous Cu<sub>50</sub>Zr<sub>50</sub> layers. …”
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23138
Layer-Thickness-Dependent Strengthening–Toughening Mechanisms in Crystalline/Amorphous Nanolaminates
Published 2025“…The mechanical performance of these materials is strongly governed by the crystalline–amorphous interfaces (CAIs), yet the underlying strengthening and toughening mechanisms remain poorly understood. Here, we employ large-scale molecular dynamics simulations to investigate the compressive deformation of C/A nanopillars composed of alternating equal-thickness crystalline Cu and amorphous Cu<sub>50</sub>Zr<sub>50</sub> layers. …”
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23139
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23140