Overview of pipeline steps and study design. by Alireza Talesh Jafadideh (14227404)

Stepped-Wedge Trial Diagram. by Sugy Choi (800862)

“…</p><p>Methods and analysis</p><p>The QM2-RC encompasses three interconnected projects (Project 1, 2, and 3) aimed at developing a quality management strategy and evaluating its impact on system performance across New York State. …”

Effects of S100A6 on CayBP/SIP-mediated β –catenin degradation. by Xiaoxuan Ning (334218)

“…<p>(A) Co-immunoprecipitation assay showed that truncated mutant CacyBP/SIPΔS100 bind both Skp1 and Siah1, suggesting S100A6 did not affect the formation of Siah1-CacyBP/SIP-Skp1 unbiquitin ligase complex. …”

Bonding, Ion Mobility, and Rate-Limiting Steps in Deintercalation Reactions with ThCr₂Si₂-type KNi₂Se₂ by James R. Neilson (1896145)

“…Here, we study the nature of metal–metal bonding in the ThCr₂Si₂ structure type by probing the rate-limiting steps in the oxidative deintercalation of KNi₂Se₂. …”

Bonding, Ion Mobility, and Rate-Limiting Steps in Deintercalation Reactions with ThCr₂Si₂-type KNi₂Se₂ by James R. Neilson (1896145)

“…Here, we study the nature of metal–metal bonding in the ThCr₂Si₂ structure type by probing the rate-limiting steps in the oxidative deintercalation of KNi₂Se₂. …”

Bonding, Ion Mobility, and Rate-Limiting Steps in Deintercalation Reactions with ThCr₂Si₂-type KNi₂Se₂ by James R. Neilson (1896145)

“…Here, we study the nature of metal–metal bonding in the ThCr₂Si₂ structure type by probing the rate-limiting steps in the oxidative deintercalation of KNi₂Se₂. …”

Bonding, Ion Mobility, and Rate-Limiting Steps in Deintercalation Reactions with ThCr₂Si₂-type KNi₂Se₂ by James R. Neilson (1896145)

“…Here, we study the nature of metal–metal bonding in the ThCr₂Si₂ structure type by probing the rate-limiting steps in the oxidative deintercalation of KNi₂Se₂. …”

Reduced cellular glucose uptake in response to insulin and decreased expression of a mitochondrial ETC complex subunit in <i>ALAS1</i>-knockdown C2C12 myocytes. by Shinichi Saitoh (4794345)

Geometric mean anti-<i>Na</i>-GST-1 IgG subclass levels over time. by David J. Diemert (8135568)

Growth Kinetics of Elementary Spiral Steps on Ice Prism Faces Grown in Vapor and Their Temperature Dependence by Genki Miyamoto (13914416)

Subjects:

Step length asymmetry and step width during split-belt adaptation. by Samantha Jeffcoat (22783930)

[2+2] Cycloadditions with an Iron Carbene: A Critical Step in Enyne Metathesis by Melissa R. Hoffbauer (5452868)

Mean survival proportions (to 28 d) for each incision metric score as rated by examiners at 7 d for all treatments combined. by April S. Cameron (8622711)

Deficiency of CRL4^CRBN promotes the destruction of BK channel α subunit. by Tianyu Song (4797417)

Metformin inhibits glutaminase activity in a dose dependent manner: from 17.5% at 10 mM up to 68% at 100 mM (A) (* p<0.05). by M. Mar Díaz-Herrero (646639)

Growth kinetics of the spheroids in the microfluidic device. by Sreerupa Sarkar (9628788)

Parrotfish Teeth: Stiff Biominerals Whose Microstructure Makes Them Tough and Abrasion-Resistant To Bite Stony Corals by Matthew A. Marcus (115744)

“…To investigate how their teeth endure the associated contact stresses, we examine the chemical composition, nano- and microscale structure, and the mechanical properties of the steephead parrotfish <i>Chlorurus microrhinos</i> tooth. Its enameloid is a fluorapatite (Ca₅(PO₄)₃F) biomineral with outstanding mechanical characteristics: the mean elastic modulus is 124 GPa, and the mean hardness near the biting surface is 7.3 GPa, making this one of the stiffest and hardest biominerals measured; the mean indentation yield strength is above 6 GPa, and the mean fracture toughness is ∼2.5 MPa·m^1/2, relatively high for a highly mineralized material. …”

Parrotfish Teeth: Stiff Biominerals Whose Microstructure Makes Them Tough and Abrasion-Resistant To Bite Stony Corals by Matthew A. Marcus (115744)

“…To investigate how their teeth endure the associated contact stresses, we examine the chemical composition, nano- and microscale structure, and the mechanical properties of the steephead parrotfish <i>Chlorurus microrhinos</i> tooth. Its enameloid is a fluorapatite (Ca₅(PO₄)₃F) biomineral with outstanding mechanical characteristics: the mean elastic modulus is 124 GPa, and the mean hardness near the biting surface is 7.3 GPa, making this one of the stiffest and hardest biominerals measured; the mean indentation yield strength is above 6 GPa, and the mean fracture toughness is ∼2.5 MPa·m^1/2, relatively high for a highly mineralized material. …”

Parrotfish Teeth: Stiff Biominerals Whose Microstructure Makes Them Tough and Abrasion-Resistant To Bite Stony Corals by Matthew A. Marcus (115744)

“…To investigate how their teeth endure the associated contact stresses, we examine the chemical composition, nano- and microscale structure, and the mechanical properties of the steephead parrotfish <i>Chlorurus microrhinos</i> tooth. Its enameloid is a fluorapatite (Ca₅(PO₄)₃F) biomineral with outstanding mechanical characteristics: the mean elastic modulus is 124 GPa, and the mean hardness near the biting surface is 7.3 GPa, making this one of the stiffest and hardest biominerals measured; the mean indentation yield strength is above 6 GPa, and the mean fracture toughness is ∼2.5 MPa·m^1/2, relatively high for a highly mineralized material. …”

Parrotfish Teeth: Stiff Biominerals Whose Microstructure Makes Them Tough and Abrasion-Resistant To Bite Stony Corals by Matthew A. Marcus (115744)

“…To investigate how their teeth endure the associated contact stresses, we examine the chemical composition, nano- and microscale structure, and the mechanical properties of the steephead parrotfish <i>Chlorurus microrhinos</i> tooth. Its enameloid is a fluorapatite (Ca₅(PO₄)₃F) biomineral with outstanding mechanical characteristics: the mean elastic modulus is 124 GPa, and the mean hardness near the biting surface is 7.3 GPa, making this one of the stiffest and hardest biominerals measured; the mean indentation yield strength is above 6 GPa, and the mean fracture toughness is ∼2.5 MPa·m^1/2, relatively high for a highly mineralized material. …”