The way from isostructurality to polymorphism. Where are the borders? The role of supramolecular interactions and crystal symmetries by Petra Bombicz (1392931)

Comet assay results associated with As exposure in human lymphocytes from the New Hampshire population by Angeline S. Andrew (65118)

Supplemental Material_Saliba et al. 2025.pdf by Afaf Saliba (21491183)

The <i>Plasmodium falciparum</i> transcriptome in severe malaria reveals altered expression of genes involved in important processes including surface antigen–encoding <i>var</i> g... by Gerry Q. Tonkin-Hill (4951915)

Effects of mesenchymal stem cells (MSCs) on the inflammation and fibrosis of acute peritoneal adhesions. by Nan Wang (21935)

“…Sections were evaluated from five randomly selected fields under a magnification of ×100 by an independent pathologist. …”

Confounding factors in algal phosphorus limitation experiments by Whitney S. Beck (5870537)

“…To address whether inhibition of algal growth results from direct P toxicity, NDS preparation artifacts, or environmental covariates, we first quantified the frequency of nutrient inhibition in published experiments. We also conducted a meta-analysis to determine whether heterotrophic microbial competition or selective grazing could explain decreases in algal biomass with P additions. …”

Supplementary Figure 1 from Heterogeneous Mechanisms of Primary and Acquired Resistance to Third-Generation EGFR Inhibitors by Sandra Ortiz-Cuaran (320342)

Tuning UV Absorption in Imine-Linked Covalent Organic Frameworks via Methylation by Ellen Dautzenberg (14169199)

“…By comparing the properties of all COFs, the following trends were found: (1) upon methylation of the aldehyde nodes, COFs show increased Brunauer–Emmett–Teller surface areas, reduced pore collapse, blue-shifted absorbance spectra, and ∼0.2 eV increases in their optical band gaps. (2) COFs with dimethylated amine linkers show a lower porosity. (3) In tetramethylated amine linkers, the COF porosity even further decreases, the absorbance spectra are clearly red-shifted, and smaller optical band gaps are obtained. …”

Engineering Single-Atomic Ni‑N₄‑O Sites on Semiconductor Photoanodes for High-Performance Photoelectrochemical Water Splitting by Xiaomeng Zhang (182897)

“…This state-of-the-art OEC/Ni-N₄-O/BiVO₄ photoanode exhibits a record high photocurrent density of 6.0 mA cm^–2 at 1.23 V versus reversible hydrogen electrode (vs RHE), over approximately 3.97 times larger than that of BiVO₄, achieving outstanding long-term photostability. …”

DataSheet1_Bridging Size and Charge Effects of Mesoporous Silica Nanoparticles for Crossing the Blood–Brain Barrier.docx by Yi-Ping Chen (530619)

“…A series of MSNs with various charges and two different sizes of 50 and 200 nm were synthesized, which showed a uniform mesoporous structure with various surface zeta potentials ranging from +42.3 to −51.6 mV. …”

Presentation2_Bridging Size and Charge Effects of Mesoporous Silica Nanoparticles for Crossing the Blood–Brain Barrier.PPTX by Yi-Ping Chen (530619)

“…A series of MSNs with various charges and two different sizes of 50 and 200 nm were synthesized, which showed a uniform mesoporous structure with various surface zeta potentials ranging from +42.3 to −51.6 mV. …”

Presentation1_Bridging Size and Charge Effects of Mesoporous Silica Nanoparticles for Crossing the Blood–Brain Barrier.PPTX by Yi-Ping Chen (530619)

“…A series of MSNs with various charges and two different sizes of 50 and 200 nm were synthesized, which showed a uniform mesoporous structure with various surface zeta potentials ranging from +42.3 to −51.6 mV. …”

DataSheet1_Bridging Size and Charge Effects of Mesoporous Silica Nanoparticles for Crossing the Blood–Brain Barrier.docx by Yi-Ping Chen (530619)

“…A series of MSNs with various charges and two different sizes of 50 and 200 nm were synthesized, which showed a uniform mesoporous structure with various surface zeta potentials ranging from +42.3 to −51.6 mV. …”

DataSheet1_Bridging Size and Charge Effects of Mesoporous Silica Nanoparticles for Crossing the Blood–Brain Barrier.docx by Yi-Ping Chen (530619)

“…A series of MSNs with various charges and two different sizes of 50 and 200 nm were synthesized, which showed a uniform mesoporous structure with various surface zeta potentials ranging from +42.3 to −51.6 mV. …”

Presentation2_Bridging Size and Charge Effects of Mesoporous Silica Nanoparticles for Crossing the Blood–Brain Barrier.PPTX by Yi-Ping Chen (530619)

“…A series of MSNs with various charges and two different sizes of 50 and 200 nm were synthesized, which showed a uniform mesoporous structure with various surface zeta potentials ranging from +42.3 to −51.6 mV. …”

Presentation3_Bridging Size and Charge Effects of Mesoporous Silica Nanoparticles for Crossing the Blood–Brain Barrier.PPTX by Yi-Ping Chen (530619)

“…A series of MSNs with various charges and two different sizes of 50 and 200 nm were synthesized, which showed a uniform mesoporous structure with various surface zeta potentials ranging from +42.3 to −51.6 mV. …”

Presentation1_Bridging Size and Charge Effects of Mesoporous Silica Nanoparticles for Crossing the Blood–Brain Barrier.PPTX by Yi-Ping Chen (530619)

“…A series of MSNs with various charges and two different sizes of 50 and 200 nm were synthesized, which showed a uniform mesoporous structure with various surface zeta potentials ranging from +42.3 to −51.6 mV. …”

Presentation1_Bridging Size and Charge Effects of Mesoporous Silica Nanoparticles for Crossing the Blood–Brain Barrier.PPTX by Yi-Ping Chen (530619)

“…A series of MSNs with various charges and two different sizes of 50 and 200 nm were synthesized, which showed a uniform mesoporous structure with various surface zeta potentials ranging from +42.3 to −51.6 mV. …”

Presentation2_Bridging Size and Charge Effects of Mesoporous Silica Nanoparticles for Crossing the Blood–Brain Barrier.PPTX by Yi-Ping Chen (530619)

“…A series of MSNs with various charges and two different sizes of 50 and 200 nm were synthesized, which showed a uniform mesoporous structure with various surface zeta potentials ranging from +42.3 to −51.6 mV. …”

Presentation3_Bridging Size and Charge Effects of Mesoporous Silica Nanoparticles for Crossing the Blood–Brain Barrier.PPTX by Yi-Ping Chen (530619)

“…A series of MSNs with various charges and two different sizes of 50 and 200 nm were synthesized, which showed a uniform mesoporous structure with various surface zeta potentials ranging from +42.3 to −51.6 mV. …”