Simulation of constant current injection into the B1 motoneuron in normal saline and with octopamine by Ágnes Vehovszky (14366)

Pumpless, “Self-Driven” Microfluidic Channels with Controlled Blood Flow Using an Amphiphilic Silicone by Kokou S. Dogbevi (8636739)

Image 1_Epidemiological characteristics of severe fever with thrombocytopenia syndrome and the relationship with meteorological factors in Jiangsu Province, China.tif by Yuhao Tao (22152865)

“…However, excessively high temperatures can also lead to a decrease in the incidence of SFTS. Targeted strategies and measures should be taken to prevent its spread.…”

Image 2_Epidemiological characteristics of severe fever with thrombocytopenia syndrome and the relationship with meteorological factors in Jiangsu Province, China.tif by Yuhao Tao (22152865)

“…However, excessively high temperatures can also lead to a decrease in the incidence of SFTS. Targeted strategies and measures should be taken to prevent its spread.…”

Supplementary file 1_Epidemiological characteristics of severe fever with thrombocytopenia syndrome and the relationship with meteorological factors in Jiangsu Province, China.docx by Yuhao Tao (22152865)

“…However, excessively high temperatures can also lead to a decrease in the incidence of SFTS. Targeted strategies and measures should be taken to prevent its spread.…”

Superior Hard but Quickly Reversible Si–O–Si Network Enables Scalable Fabrication of Transparent, Self-Healing, Robust, and Programmable Multifunctional Nanocomposite Coatings by Yi Hou (148620)

“…The highly cross-linked continuous network endows the coating with a hardness (<i>H</i> = 0.83 GPa) higher than those of most polymers (<i>H</i> < 0.3 GPa), while the uniformly dispersed micelles decrease the Young’s modulus (<i>E</i> = 5.89 GPa) to a value as low as that of common plastics, resulting in excellent hardness and flexibility, with an <i>H</i>/<i>E</i> of 14.1% and an elastic recovery rate (<i>W</i>_e) of 86.3%. …”

Superior Hard but Quickly Reversible Si–O–Si Network Enables Scalable Fabrication of Transparent, Self-Healing, Robust, and Programmable Multifunctional Nanocomposite Coatings by Yi Hou (148620)

“…The highly cross-linked continuous network endows the coating with a hardness (<i>H</i> = 0.83 GPa) higher than those of most polymers (<i>H</i> < 0.3 GPa), while the uniformly dispersed micelles decrease the Young’s modulus (<i>E</i> = 5.89 GPa) to a value as low as that of common plastics, resulting in excellent hardness and flexibility, with an <i>H</i>/<i>E</i> of 14.1% and an elastic recovery rate (<i>W</i>_e) of 86.3%. …”

Superior Hard but Quickly Reversible Si–O–Si Network Enables Scalable Fabrication of Transparent, Self-Healing, Robust, and Programmable Multifunctional Nanocomposite Coatings by Yi Hou (148620)

“…The highly cross-linked continuous network endows the coating with a hardness (<i>H</i> = 0.83 GPa) higher than those of most polymers (<i>H</i> < 0.3 GPa), while the uniformly dispersed micelles decrease the Young’s modulus (<i>E</i> = 5.89 GPa) to a value as low as that of common plastics, resulting in excellent hardness and flexibility, with an <i>H</i>/<i>E</i> of 14.1% and an elastic recovery rate (<i>W</i>_e) of 86.3%. …”

Superior Hard but Quickly Reversible Si–O–Si Network Enables Scalable Fabrication of Transparent, Self-Healing, Robust, and Programmable Multifunctional Nanocomposite Coatings by Yi Hou (148620)

“…The highly cross-linked continuous network endows the coating with a hardness (<i>H</i> = 0.83 GPa) higher than those of most polymers (<i>H</i> < 0.3 GPa), while the uniformly dispersed micelles decrease the Young’s modulus (<i>E</i> = 5.89 GPa) to a value as low as that of common plastics, resulting in excellent hardness and flexibility, with an <i>H</i>/<i>E</i> of 14.1% and an elastic recovery rate (<i>W</i>_e) of 86.3%. …”

Superior Hard but Quickly Reversible Si–O–Si Network Enables Scalable Fabrication of Transparent, Self-Healing, Robust, and Programmable Multifunctional Nanocomposite Coatings by Yi Hou (148620)

“…The highly cross-linked continuous network endows the coating with a hardness (<i>H</i> = 0.83 GPa) higher than those of most polymers (<i>H</i> < 0.3 GPa), while the uniformly dispersed micelles decrease the Young’s modulus (<i>E</i> = 5.89 GPa) to a value as low as that of common plastics, resulting in excellent hardness and flexibility, with an <i>H</i>/<i>E</i> of 14.1% and an elastic recovery rate (<i>W</i>_e) of 86.3%. …”

Superior Hard but Quickly Reversible Si–O–Si Network Enables Scalable Fabrication of Transparent, Self-Healing, Robust, and Programmable Multifunctional Nanocomposite Coatings by Yi Hou (148620)

“…The highly cross-linked continuous network endows the coating with a hardness (<i>H</i> = 0.83 GPa) higher than those of most polymers (<i>H</i> < 0.3 GPa), while the uniformly dispersed micelles decrease the Young’s modulus (<i>E</i> = 5.89 GPa) to a value as low as that of common plastics, resulting in excellent hardness and flexibility, with an <i>H</i>/<i>E</i> of 14.1% and an elastic recovery rate (<i>W</i>_e) of 86.3%. …”

Superior Hard but Quickly Reversible Si–O–Si Network Enables Scalable Fabrication of Transparent, Self-Healing, Robust, and Programmable Multifunctional Nanocomposite Coatings by Yi Hou (148620)

“…The highly cross-linked continuous network endows the coating with a hardness (<i>H</i> = 0.83 GPa) higher than those of most polymers (<i>H</i> < 0.3 GPa), while the uniformly dispersed micelles decrease the Young’s modulus (<i>E</i> = 5.89 GPa) to a value as low as that of common plastics, resulting in excellent hardness and flexibility, with an <i>H</i>/<i>E</i> of 14.1% and an elastic recovery rate (<i>W</i>_e) of 86.3%. …”

Regulation of macroscopic Cx46 currents by external Ca and Mg by Vytas K. Verselis (53583)

“…(A) Representative current–voltage (I-V) relationships (top) at different external Ca concentrations ranging from nominal (0 added) to 1.8 mM were obtained by applying slow (3 min) voltage ramps from +50 to −100 mV to a Cx46-expressing oocyte. …”

Superior Hard but Quickly Reversible Si–O–Si Network Enables Scalable Fabrication of Transparent, Self-Healing, Robust, and Programmable Multifunctional Nanocomposite Coatings by Yi Hou (148620)

“…The highly cross-linked continuous network endows the coating with a hardness (<i>H</i> = 0.83 GPa) higher than those of most polymers (<i>H</i> < 0.3 GPa), while the uniformly dispersed micelles decrease the Young’s modulus (<i>E</i> = 5.89 GPa) to a value as low as that of common plastics, resulting in excellent hardness and flexibility, with an <i>H</i>/<i>E</i> of 14.1% and an elastic recovery rate (<i>W</i>_e) of 86.3%. …”

Superior Hard but Quickly Reversible Si–O–Si Network Enables Scalable Fabrication of Transparent, Self-Healing, Robust, and Programmable Multifunctional Nanocomposite Coatings by Yi Hou (148620)

“…The highly cross-linked continuous network endows the coating with a hardness (<i>H</i> = 0.83 GPa) higher than those of most polymers (<i>H</i> < 0.3 GPa), while the uniformly dispersed micelles decrease the Young’s modulus (<i>E</i> = 5.89 GPa) to a value as low as that of common plastics, resulting in excellent hardness and flexibility, with an <i>H</i>/<i>E</i> of 14.1% and an elastic recovery rate (<i>W</i>_e) of 86.3%. …”

Superior Hard but Quickly Reversible Si–O–Si Network Enables Scalable Fabrication of Transparent, Self-Healing, Robust, and Programmable Multifunctional Nanocomposite Coatings by Yi Hou (148620)

“…The highly cross-linked continuous network endows the coating with a hardness (<i>H</i> = 0.83 GPa) higher than those of most polymers (<i>H</i> < 0.3 GPa), while the uniformly dispersed micelles decrease the Young’s modulus (<i>E</i> = 5.89 GPa) to a value as low as that of common plastics, resulting in excellent hardness and flexibility, with an <i>H</i>/<i>E</i> of 14.1% and an elastic recovery rate (<i>W</i>_e) of 86.3%. …”

Superior Hard but Quickly Reversible Si–O–Si Network Enables Scalable Fabrication of Transparent, Self-Healing, Robust, and Programmable Multifunctional Nanocomposite Coatings by Yi Hou (148620)

“…The highly cross-linked continuous network endows the coating with a hardness (<i>H</i> = 0.83 GPa) higher than those of most polymers (<i>H</i> < 0.3 GPa), while the uniformly dispersed micelles decrease the Young’s modulus (<i>E</i> = 5.89 GPa) to a value as low as that of common plastics, resulting in excellent hardness and flexibility, with an <i>H</i>/<i>E</i> of 14.1% and an elastic recovery rate (<i>W</i>_e) of 86.3%. …”

CEMP1 induces anchorage-independent growth in HGF cells. by Mercedes Bermúdez (483146)

“…RT-qPCR showed that RNAi against CEMP1 decreased its expression in more than 50% at transcriptional level (A). …”

File S1 - Impaired Functionality of Antiviral T Cells in G-CSF Mobilized Stem Cell Donors: Implications for the Selection of CTL Donor by Carola E. Bunse (492512)

“…After 48 h of storage at 4°C, a mean of 93% (mCMV_pp65_A02, n = 4) and 96% (mCMV_pp65_B07, n = 5) of the frequency in the fresh sample (baseline) was obtained. …”

53 proteins change in abundance with age. by Stephanie M. Zimmerman (449532)