Active Diffusion of Self-Propelled Particles in Flexible Polymer Networks by Yeongjin Kim (10878837)

“…However, when the particle size is increased to be comparable to the mesh size, the active particles explore the polymer network via the trapping-and-hopping mechanism. If the particle is larger than the mesh, it captures the collective viscoelastic dynamics from the polymer network at short times and the simple diffusion of the total system at large times. …”

Active Diffusion of Self-Propelled Particles in Flexible Polymer Networks by Yeongjin Kim (10878837)

“…However, when the particle size is increased to be comparable to the mesh size, the active particles explore the polymer network via the trapping-and-hopping mechanism. If the particle is larger than the mesh, it captures the collective viscoelastic dynamics from the polymer network at short times and the simple diffusion of the total system at large times. …”

Active Diffusion of Self-Propelled Particles in Flexible Polymer Networks by Yeongjin Kim (10878837)

“…However, when the particle size is increased to be comparable to the mesh size, the active particles explore the polymer network via the trapping-and-hopping mechanism. If the particle is larger than the mesh, it captures the collective viscoelastic dynamics from the polymer network at short times and the simple diffusion of the total system at large times. …”

Active Diffusion of Self-Propelled Particles in Flexible Polymer Networks by Yeongjin Kim (10878837)

“…However, when the particle size is increased to be comparable to the mesh size, the active particles explore the polymer network via the trapping-and-hopping mechanism. If the particle is larger than the mesh, it captures the collective viscoelastic dynamics from the polymer network at short times and the simple diffusion of the total system at large times. …”

Active Diffusion of Self-Propelled Particles in Flexible Polymer Networks by Yeongjin Kim (10878837)

“…However, when the particle size is increased to be comparable to the mesh size, the active particles explore the polymer network via the trapping-and-hopping mechanism. If the particle is larger than the mesh, it captures the collective viscoelastic dynamics from the polymer network at short times and the simple diffusion of the total system at large times. …”

Presentation_1_FcRn Antagonism Leads to a Decrease of Desmoglein-Specific B Cells: Secondary Analysis of a Phase 2 Study of Efgartigimod in Pemphigus Vulgaris and Pemphigus Foliace... by Maud Maho-Vaillant (7146206)

Figure highlights deleterious effects of ceiling effects on commonly used effect size <i>d_p</i> using both Henry et al. [14] data set and much larger data set included i... by Bob Uttl (53434)

“…Panel A highlights that the size of age declines measured by effect size index <i>d_p</i> decreases as performance of older adults increases, as the test becomes easier and data are more afflicted by ceiling effects. …”

The velocity contour and vector in all sections. by Renquan Tu (19556120)

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Variation maps in exposure risk within the passenger breathing zone across different inlet velocities. by Renquan Tu (19556120)

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Mesh independence test based on velocity field of the minimum air supply. by Renquan Tu (19556120)

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The velocity contour and vector of three cases with different velocity. by Renquan Tu (19556120)

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The droplets trajectories in three different cases of inlet velocity. by Renquan Tu (19556120)

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The scale and location of the breathing zone. by Renquan Tu (19556120)

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Three-dimensional bar chart based on the relative probability of infection distribution. by Renquan Tu (19556120)

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The comparison of the specific lines in experiment and simulation situation. by Renquan Tu (19556120)

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The surface mesh of the computational model. by Renquan Tu (19556120)

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The velocity contour in all sections of air cabin (0.51 m/s). by Renquan Tu (19556120)

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The velocity contour and vector in all sections. by Renquan Tu (19556120)

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Computational model of cabin section and passengers. by Renquan Tu (19556120)

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Comparative analysis of velocity vectors: Simulation and experimental measurements [17] at row 4. by Renquan Tu (19556120)

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