Global transcriptional analysis for activated gametocytes of Δ<i>pbpp6</i> parasites by RNA-seq. by Yonghui Feng (12227596)

Pharmacological characterization of WT BMP9 and A347E variant <i>in vitro</i> and <i>in vivo.</i> by Tobias G. Schips (21799838)

Subjects:

Pharmacological characterization of WT BMP9 and A347E variant <i>in vitro</i> and <i>in vivo.</i> by Tobias G. Schips (21799838)

Subjects:

Fig 1 - by Ingmar Lundquist (46422)

PIK3C3 promotes <i>Listeria monocytogenes</i> cell-to-cell spread in HT-29 cells through DMV escape. by Steven J. Rolland (21376879)

PIK3C3 promotes <i>Shigella flexneri</i> cell-to-cell spread in HT-29 cells. by Steven J. Rolland (21376879)

PIK3C3 promotes <i>Shigella flexneri</i> cell-to-cell spread through resolution of VLPs into DMVs. by Steven J. Rolland (21376879)

PIK3C3 is required for efficient cell-to-cell spread <i>in vivo.</i> by Steven J. Rolland (21376879)

PIK3C3 is not involved in the formation of PtdIns(3)P at the inner membrane of protrusions. by Steven J. Rolland (21376879)

DNM2 promotes <i>Shigella flexneri</i> cell-to-cell spread. by Steven J. Rolland (21376879)

Flow cytometry measurement of CD11b, F-actin expression and content, and MHC Class II antigen expression of neutrophils from patients with CGD. by Daniel R. Ambruso (12042605)

Phosphoproteomic analysis of Δ<i>pbpp6</i> and WT <i>P. berghei</i> gametocytes. by Yonghui Feng (12227596)

PIK3C3 promotes <i>Listeria monocytogenes</i> cell-to-cell spread in Caco-2 cells. by Steven J. Rolland (21376879)

PIK3C3 promotes <i>Shigella flexneri</i> cell-to-cell spread in Caco-2 cells. by Steven J. Rolland (21376879)

Top view of the experimental setup. by Muhammad Hammad Bucha (21736111)

“…By increasing the surface roughness of the bluff body, the lock-in region decreases and as a result, the harvested power from that bluff body is reduced. …”

Parameters of energy harvesting. by Muhammad Hammad Bucha (21736111)

“…By increasing the surface roughness of the bluff body, the lock-in region decreases and as a result, the harvested power from that bluff body is reduced. …”

Graph for Max Amplitude/Length at G_y = 0. by Muhammad Hammad Bucha (21736111)

“…By increasing the surface roughness of the bluff body, the lock-in region decreases and as a result, the harvested power from that bluff body is reduced. …”

Graph for maximum Frequency at G_y = 0. by Muhammad Hammad Bucha (21736111)

“…By increasing the surface roughness of the bluff body, the lock-in region decreases and as a result, the harvested power from that bluff body is reduced. …”

Graph for maximum Power at G_y = 0. by Muhammad Hammad Bucha (21736111)

“…By increasing the surface roughness of the bluff body, the lock-in region decreases and as a result, the harvested power from that bluff body is reduced. …”

Summary of experimentation results. by Muhammad Hammad Bucha (21736111)

“…By increasing the surface roughness of the bluff body, the lock-in region decreases and as a result, the harvested power from that bluff body is reduced. …”