Excess glucose availability negatively impacts healthspan of young and old animals; conversely, the benefits of disrupting glycolysis do not include extended maximal lifespan. by Brian Onken (86790)

“…Maximal lifespan is defined as the mean age at death of the longest-lived 10% of a given population [<a href="http://www.plosgenetics.org/article/info:doi/10.1371/journal.pgen.1008982#pgen.1008982.ref100" target="_blank">100</a>].…”

Prisma study flow diagram. by Manuela Llano-León (14599800)

The bottom panel shows the global field power of the grand average ERP calculated over condition and participant. by Amanda C. Hahn (17241106)

Evaluation of aortic arch atheroma plaques development in response to 12 weeks exposure to HFFD. by Michelle Moughaizel (12127202)

Cell remodelling during dorsal collapse. by Christine M. Tait (8648631)

Comparative genomics heatmap, amino acid sequence alignment, and phylogenetic tree of <i>sinH</i> sequence. by Yikun Xing (9427893)

Main challenges conducting telehealth HIV test counseling visits among HIV testing agency staff. by Dovie L. Watson (20933751)

TEMPO-Oxidized Microcrystalline Cellulose for Rapid Adsorption of Ammonium by Jia Hui Ong (12085606)

“…Despite a slight decrease in adsorption performance, the material can be regenerated and applied in a real water sample. …”

Monocyte subpopulation reflects coordinated changes with both the immunotherapy progression and MCC severity. by Quyuan Tao (12261798)

The I827K substitution destabilizes the 3D fold of E6AP^C-lobe (residues 761–875). by Steven A. Beasley (9099461)

“…<p>(A) The assigned ¹H-¹⁵N-HSQC spectrum of 3.5 mM human E6AP catalytic C-lobe (residues 761–875) using the one-letter amino acid code and residue number according to the human E6AP sequence. …”

Morphology, Growth Kinetics, and Porous Structure of Surfactant-Promoted Gas Hydrates: Roles of Subcooling and Surfactant Formulation by Belkacem Samar (19122984)

“…The porosity and pore sizes of the resulting porous structure decrease with increasing subcooling, down to values in the range of 40–50% and a few microns for the highest subcooling investigated (≈10 K). …”

Morphology, Growth Kinetics, and Porous Structure of Surfactant-Promoted Gas Hydrates: Roles of Subcooling and Surfactant Formulation by Belkacem Samar (19122984)

“…The porosity and pore sizes of the resulting porous structure decrease with increasing subcooling, down to values in the range of 40–50% and a few microns for the highest subcooling investigated (≈10 K). …”

Morphology, Growth Kinetics, and Porous Structure of Surfactant-Promoted Gas Hydrates: Roles of Subcooling and Surfactant Formulation by Belkacem Samar (19122984)

“…The porosity and pore sizes of the resulting porous structure decrease with increasing subcooling, down to values in the range of 40–50% and a few microns for the highest subcooling investigated (≈10 K). …”

Morphology, Growth Kinetics, and Porous Structure of Surfactant-Promoted Gas Hydrates: Roles of Subcooling and Surfactant Formulation by Belkacem Samar (19122984)

“…The porosity and pore sizes of the resulting porous structure decrease with increasing subcooling, down to values in the range of 40–50% and a few microns for the highest subcooling investigated (≈10 K). …”

Morphology, Growth Kinetics, and Porous Structure of Surfactant-Promoted Gas Hydrates: Roles of Subcooling and Surfactant Formulation by Belkacem Samar (19122984)

“…The porosity and pore sizes of the resulting porous structure decrease with increasing subcooling, down to values in the range of 40–50% and a few microns for the highest subcooling investigated (≈10 K). …”

Morphology, Growth Kinetics, and Porous Structure of Surfactant-Promoted Gas Hydrates: Roles of Subcooling and Surfactant Formulation by Belkacem Samar (19122984)

“…The porosity and pore sizes of the resulting porous structure decrease with increasing subcooling, down to values in the range of 40–50% and a few microns for the highest subcooling investigated (≈10 K). …”

Morphology, Growth Kinetics, and Porous Structure of Surfactant-Promoted Gas Hydrates: Roles of Subcooling and Surfactant Formulation by Belkacem Samar (19122984)

“…The porosity and pore sizes of the resulting porous structure decrease with increasing subcooling, down to values in the range of 40–50% and a few microns for the highest subcooling investigated (≈10 K). …”

Morphology, Growth Kinetics, and Porous Structure of Surfactant-Promoted Gas Hydrates: Roles of Subcooling and Surfactant Formulation by Belkacem Samar (19122984)

“…The porosity and pore sizes of the resulting porous structure decrease with increasing subcooling, down to values in the range of 40–50% and a few microns for the highest subcooling investigated (≈10 K). …”

Morphology, Growth Kinetics, and Porous Structure of Surfactant-Promoted Gas Hydrates: Roles of Subcooling and Surfactant Formulation by Belkacem Samar (19122984)

“…The porosity and pore sizes of the resulting porous structure decrease with increasing subcooling, down to values in the range of 40–50% and a few microns for the highest subcooling investigated (≈10 K). …”

HSF2 regulates lytic gene expression in latency and during the lytic phase. by Lorenza Cutrone (21144285)