Supplementary Table from Decreased DNA Damage and Improved p53 Specificity of RITA Analogs by Yue Zhan (15093619)

Fig 19 - by Mostafa Mirzaei Aliabadi (11060636)

Fig 19 - by Zhezhe Zhang (19704587)

Self-confidence for LIO-ROP after each step of training (score 0–4). by Narisa Rattanalert (21445983)

Nineteen SNPs with significant association (<i>P < </i>5 × 10⁻⁸) with risk on minJSW decrease in knee OA. by Mieke L. M. Bentvelzen (21594442)

Relative importance of each variable according to mean decrease accuracy, scaled to the most important one. by Miguel Marcos (564056)

Fig 5 - by David Mathar (9707947)

S5 Fig - by David Mathar (9707947)

E₅₀ values. by Junxia Zhou (14381598)

Summary T-P-R-S monitoring descriptive analysis (N = 43,719 newborns from 19 hospitals). by Naomi Muinga (11474744)

The different degree of genus level (p value) in mild and moderate patients (mild = 57, moderate = 19). by Guangying Cui (459719)

Indicator changes in courses with decreased interaction scale from before the COVID-19 pandemic until the outbreak. by Junyi Zhang (290426)

“…<p>Indicator changes in courses with decreased interaction scale from before the COVID-19 pandemic until the outbreak.…”

The standard deviation of the mean total population abundance was calculated at each time step. by Cyrine Chenaoui (22177098)

Data_Sheet_1_Microclimatic Warming Leads to a Decrease in Species and Growth Form Diversity: Insights From a Tropical Alpine Grassland.PDF by Sisimac A. Duchicela (11503918)

“…(2) What are the effects of 7 years of warming on (a) the aboveground biomass (AGB) and (b) the plant taxonomic and growth form diversity? We installed five monitoring blocks in 2012 at ca. 4,200 m asl with 20 OTCs and 50 control plots randomly distributed within each block. …”

Values for vertical foot clearance, foot overhang, anteroposterior MoS and mediolateral MoS on steps 4, 5 and 6 across conditions. by Timmion K. Skervin (11432568)

Subjects:

Image_1_Contribution of Connexin Hemichannels to the Decreases in Cell Viability Induced by Linoleic Acid in the Human Lens Epithelial Cells (HLE-B3).JPEG by Vania A. Figueroa (8332773)

Table_1_Contribution of Connexin Hemichannels to the Decreases in Cell Viability Induced by Linoleic Acid in the Human Lens Epithelial Cells (HLE-B3).DOCX by Vania A. Figueroa (8332773)

Table_1_Contribution of Connexin Hemichannels to the Decreases in Cell Viability Induced by Linoleic Acid in the Human Lens Epithelial Cells (HLE-B3).DOCX by Vania A. Figueroa (8332773)

Image_2_Contribution of Connexin Hemichannels to the Decreases in Cell Viability Induced by Linoleic Acid in the Human Lens Epithelial Cells (HLE-B3).TIF by Vania A. Figueroa (8332773)

Image_2_Contribution of Connexin Hemichannels to the Decreases in Cell Viability Induced by Linoleic Acid in the Human Lens Epithelial Cells (HLE-B3).TIF by Vania A. Figueroa (8332773)