Abbreviated Jablonski energy diagram depicting intra- and extra-molecular quantum mechanical processes involved in fluorescence. by Nicholas H. Vitale (20469289)

The grouping of the networks from the Yeo et al (2011) parcellation according to their involvement in consolidation (DMN, black) storage (blue) or retrieval (brown) processes. by Yinan Xu (12440894)

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The simulation of OSCNN involves loading data from a laser and SLM and simulating different optical free space components. by Reyhane Ahmadi (14857363)

Distribution of the observed speeds of forgetting (N = 33). by Yinan Xu (12440894)

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Functional network connectivity predictive of individual speeds of forgetting. by Yinan Xu (12440894)

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The flowchart for model solving process. by Tianhe Sun (21145341)

Comparison of computational speed between HAS and SSA. by Nils Gubela (21463855)

Table_4_Theta burst stimulation on the fronto-cerebellar connective network promotes cognitive processing speed in the simple cognitive task.DOCX by Ning Zhao (84707)

“…Background<p>The fronto-cerebellar functional network has been proposed to subserve cognitive processing speed. This study aims to elucidate how the long-range frontal-to-cerebellar effective connectivity contributes to faster speed.…”

Table_2_Theta burst stimulation on the fronto-cerebellar connective network promotes cognitive processing speed in the simple cognitive task.DOCX by Ning Zhao (84707)

“…Background<p>The fronto-cerebellar functional network has been proposed to subserve cognitive processing speed. This study aims to elucidate how the long-range frontal-to-cerebellar effective connectivity contributes to faster speed.…”

Table_3_Theta burst stimulation on the fronto-cerebellar connective network promotes cognitive processing speed in the simple cognitive task.DOCX by Ning Zhao (84707)

“…Background<p>The fronto-cerebellar functional network has been proposed to subserve cognitive processing speed. This study aims to elucidate how the long-range frontal-to-cerebellar effective connectivity contributes to faster speed.…”

Image_2_Theta burst stimulation on the fronto-cerebellar connective network promotes cognitive processing speed in the simple cognitive task.TIF by Ning Zhao (84707)

“…Background<p>The fronto-cerebellar functional network has been proposed to subserve cognitive processing speed. This study aims to elucidate how the long-range frontal-to-cerebellar effective connectivity contributes to faster speed.…”

Image_1_Theta burst stimulation on the fronto-cerebellar connective network promotes cognitive processing speed in the simple cognitive task.TIF by Ning Zhao (84707)

“…Background<p>The fronto-cerebellar functional network has been proposed to subserve cognitive processing speed. This study aims to elucidate how the long-range frontal-to-cerebellar effective connectivity contributes to faster speed.…”

Table_1_Theta burst stimulation on the fronto-cerebellar connective network promotes cognitive processing speed in the simple cognitive task.DOCX by Ning Zhao (84707)

“…Background<p>The fronto-cerebellar functional network has been proposed to subserve cognitive processing speed. This study aims to elucidate how the long-range frontal-to-cerebellar effective connectivity contributes to faster speed.…”

Interpretable functional connectivity predictive of individual speeds of forgetting, organized according to the DMN subnetwork they refer to (in dark gray). by Yinan Xu (12440894)

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Twin-Perovskite Structured Ba₈Ti₃Nb₄O₂₄: Pr³⁺: A Fast Photochromics with Millisecond-Level Response Speed for Optical Storage by Gaoming Dong (20479513)

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Twin-Perovskite Structured Ba₈Ti₃Nb₄O₂₄: Pr³⁺: A Fast Photochromics with Millisecond-Level Response Speed for Optical Storage by Gaoming Dong (20479513)

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Twin-Perovskite Structured Ba₈Ti₃Nb₄O₂₄: Pr³⁺: A Fast Photochromics with Millisecond-Level Response Speed for Optical Storage by Gaoming Dong (20479513)

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Direct Observation of Secondary Nucleation in Huntingtin Amyloid Formation by High-Speed Atomic Force Microscopy by Chris van Ewijk (21533925)

“…The protein aggregation process involves slow nucleation events followed by rapid growth and elongation of formed fibrils. …”

Direct Observation of Secondary Nucleation in Huntingtin Amyloid Formation by High-Speed Atomic Force Microscopy by Chris van Ewijk (21533925)

“…The protein aggregation process involves slow nucleation events followed by rapid growth and elongation of formed fibrils. …”

Optimum slip ratio estimation process. by Huan Liu (281351)