Larger example of stimuli with cue relevant for Task 3. by Marcel F. Hinss (14675457)

The small blue circles show the IC-volume (mean of left and right) from 72 males and the small red squares from 51 females as a function of age. by Pingling Kwok (14896191)

Biases in larger populations. by Sander W. Keemink (21253563)

“…<p>(<b>A</b>) Maximum absolute bias vs the number of neurons in the population for the Bayesian decoder. Bias decreases with increasing neurons in the population. …”

Madrasin decreases transcription of protein-coding genes. by Michael Tellier (8284752)

Madrasin decreases transcription of protein-coding genes. by Michael Tellier (8284752)

Introgression decreases allelic shuffling. by Enrique J. Schwarzkopf (6579275)

Mean values and 95% confidence intervals for recovery time, Average NN Interval (AVNN); Standard Deviation of NN Intervals (SDNN), Low Frequency/ High Frequency Ratio (LF/HF); and... by Robert Trybulski (10998702)

High-Temperature Resistance, Lightweight, and Thermally Insulating Silica Aerogel via Doping Hollow Silica Nanoparticles by Mingyang Yang (1405321)

“…To increase the thermal stability of standard aerogels comprising small full-density SiO₂ nanoparticles (SFPs) (typically 2–15 nm in diameter), SiO₂ aerogels were doped with large hollow SiO₂ nanoparticles (LHPs) with diameters of 100–250 nm. …”

High-Temperature Resistance, Lightweight, and Thermally Insulating Silica Aerogel via Doping Hollow Silica Nanoparticles by Mingyang Yang (1405321)

“…To increase the thermal stability of standard aerogels comprising small full-density SiO₂ nanoparticles (SFPs) (typically 2–15 nm in diameter), SiO₂ aerogels were doped with large hollow SiO₂ nanoparticles (LHPs) with diameters of 100–250 nm. …”

High-Temperature Resistance, Lightweight, and Thermally Insulating Silica Aerogel via Doping Hollow Silica Nanoparticles by Mingyang Yang (1405321)

“…To increase the thermal stability of standard aerogels comprising small full-density SiO₂ nanoparticles (SFPs) (typically 2–15 nm in diameter), SiO₂ aerogels were doped with large hollow SiO₂ nanoparticles (LHPs) with diameters of 100–250 nm. …”

High-Temperature Resistance, Lightweight, and Thermally Insulating Silica Aerogel via Doping Hollow Silica Nanoparticles by Mingyang Yang (1405321)

“…To increase the thermal stability of standard aerogels comprising small full-density SiO₂ nanoparticles (SFPs) (typically 2–15 nm in diameter), SiO₂ aerogels were doped with large hollow SiO₂ nanoparticles (LHPs) with diameters of 100–250 nm. …”

High-Temperature Resistance, Lightweight, and Thermally Insulating Silica Aerogel via Doping Hollow Silica Nanoparticles by Mingyang Yang (1405321)

“…To increase the thermal stability of standard aerogels comprising small full-density SiO₂ nanoparticles (SFPs) (typically 2–15 nm in diameter), SiO₂ aerogels were doped with large hollow SiO₂ nanoparticles (LHPs) with diameters of 100–250 nm. …”

High-Temperature Resistance, Lightweight, and Thermally Insulating Silica Aerogel via Doping Hollow Silica Nanoparticles by Mingyang Yang (1405321)

“…To increase the thermal stability of standard aerogels comprising small full-density SiO₂ nanoparticles (SFPs) (typically 2–15 nm in diameter), SiO₂ aerogels were doped with large hollow SiO₂ nanoparticles (LHPs) with diameters of 100–250 nm. …”

Participant demographics. * P-values were determined using Fisher-Freeman-Halton test when contingency tables are larger than 2 × 2. by Elie Mulhem (22537863)

Why does task performance decrease with burst length? by Swathi Anil (17382903)

Change in Watt’s Connectedness Scale, Subscales by Treatment Group. by Benjamin R. Lewis (22279166)

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Primary and secondary efficacy end points (intention-to-treat population). by Benjamin R. Lewis (22279166)

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Demographic and clinical characteristics of participants at baseline. by Benjamin R. Lewis (22279166)

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Study-related adverse events. by Benjamin R. Lewis (22279166)

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Study flow chart. by Benjamin R. Lewis (22279166)

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