Penetration fractions of photons from the cell-medium system for photons with incident energies of (a) 10 keV, (b) 100 keV and (c) 1 MeV. by Mehrdad Shahmohammadi Beni (796228)

Mirror of S5 Fig, using a homogeneous contact structure. by Simon Bauer (11378195)

Silencing of RCC1L isoforms alter the levels of mitochondrial ribosomal proteins and biogenesis factors resulting in decreased mitochondrial translation. by Aurelio Reyes (412135)

The capsid of SIV_MAC, HIV-2, or SIV_SM is sufficient to decrease HIV-1 transduction efficiency in a T cell-specific manner. by Massimo Pizzato (126906)

The influence of S226 phosphorylation on the interaction between SNX5 and SNX1 or SNX2. by Nao Itai (5954666)

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The phosphorylation of sorting nexin 5 at serine 226 regulates retrograde transport and macropinocytosis by Nao Itai (5954666)

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SNX5 S226 localize in the hydrophobic region of α-helix on BAR domain. by Nao Itai (5954666)

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Effect of SNX5 S226 phosphorylation on the retrograde transport of CI-M6PR. by Nao Itai (5954666)

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Api5 depletion induces a decrease in E2F1-target gene mRNA levels without affecting E2F1 expression. by Marina Garcia-Jove Navarro (442768)

“…<p><b>A.</b> Api5 and E2F1 reciprocal regulation. After depletion of Api5 and E2F1 with specific siRNAs, H1299 cells were made quiescent by serum starvation for 48 h (0% FBS) and then allowed to progress through the cell cycle over 10 hours by FBS addition (10 h refeeding). …”

Six out of fourteen evaluable advanced breast cancer patients demonstrated a decrease in the quantity of CTCs in 7.5 ml blood following the first cycle of Lapatinib treatment. by Justin Stebbing (181883)

The dynamics of sickle RBCs interacting with a macrophage under a blood flow with step-wise changes. by Guansheng Li (10170467)

“…<p>A Sequential snapshots of RBCs adhering to macrophages under velocities that are decreased step-wise. …”

Predicted acceptance probabilities to a top 5 journal against Alma mater ranking at the time of graduation using splines. by Sergey V. Popov (6719075)

HDR brachytherapy decreases proliferation rate and cellular progression of a radioresistant human squamous cell carcinoma in vitro by Jony M. Geraldo (4107100)

“…</p> <p><b>Conclusion:</b> HDR brachytherapy led to a decreased proliferation rate and cell survival and also hampered cellular progression to mitosis suggesting that tumor cell death mainly occurred due to mitotic death and G₂/M cell cycle arrest.…”

Fig 5 - by Elizabeth A. Moore (18083377)

Failure mode of the sample. by Zhenhua Wang (426041)

“…At the same temperature, shear strength increases at a rate of 5.6 MPa/°C with increasing confining pressure; as freezing temperature decreases, the shear strength increases at 0.34 MPa/°C, and cohesion increases at 0.6 MPa/°C. …”

Sampling site. by Zhenhua Wang (426041)

“…At the same temperature, shear strength increases at a rate of 5.6 MPa/°C with increasing confining pressure; as freezing temperature decreases, the shear strength increases at 0.34 MPa/°C, and cohesion increases at 0.6 MPa/°C. …”

Test schemes for soft rocks. by Zhenhua Wang (426041)

“…At the same temperature, shear strength increases at a rate of 5.6 MPa/°C with increasing confining pressure; as freezing temperature decreases, the shear strength increases at 0.34 MPa/°C, and cohesion increases at 0.6 MPa/°C. …”

Failure mode of the sample. by Zhenhua Wang (426041)

“…At the same temperature, shear strength increases at a rate of 5.6 MPa/°C with increasing confining pressure; as freezing temperature decreases, the shear strength increases at 0.34 MPa/°C, and cohesion increases at 0.6 MPa/°C. …”

MTS-370.25 fatigue resting system. by Zhenhua Wang (426041)

“…At the same temperature, shear strength increases at a rate of 5.6 MPa/°C with increasing confining pressure; as freezing temperature decreases, the shear strength increases at 0.34 MPa/°C, and cohesion increases at 0.6 MPa/°C. …”

Strain at different positions of the sample. by Zhenhua Wang (426041)

“…At the same temperature, shear strength increases at a rate of 5.6 MPa/°C with increasing confining pressure; as freezing temperature decreases, the shear strength increases at 0.34 MPa/°C, and cohesion increases at 0.6 MPa/°C. …”