Search alternatives:
largest decrease » largest decreases (Expand Search), marked decrease (Expand Search)
larger decrease » marked decrease (Expand Search)
step decrease » sizes decrease (Expand Search), teer decrease (Expand Search), we decrease (Expand Search)
a decrease » _ decrease (Expand Search), _ decreased (Expand Search), _ decreases (Expand Search)
largest decrease » largest decreases (Expand Search), marked decrease (Expand Search)
larger decrease » marked decrease (Expand Search)
step decrease » sizes decrease (Expand Search), teer decrease (Expand Search), we decrease (Expand Search)
a decrease » _ decrease (Expand Search), _ decreased (Expand Search), _ decreases (Expand Search)
-
8801
Image3_Dipyridamole activates adenosine A2B receptor and AMPK/cAMP signaling and promotes myogenic differentiation of myoblastic C2C12 cells.tif
Published 2023“…Extra-/intracellular nucleotides were examined via HPLC. The expression of muscle differentiation proteins (Pax7, Mif5, MyoD, MyoG, and MHC), PKA/CREB, adenosine receptors (A1, A2A, A2B, and A3), ATP-channel pannexin-1 and the P2X7 receptor was analyzed via WB and RT-PCR. cAMP and AMPK activation was measured.…”
-
8802
Image2_Dipyridamole activates adenosine A2B receptor and AMPK/cAMP signaling and promotes myogenic differentiation of myoblastic C2C12 cells.tif
Published 2023“…Extra-/intracellular nucleotides were examined via HPLC. The expression of muscle differentiation proteins (Pax7, Mif5, MyoD, MyoG, and MHC), PKA/CREB, adenosine receptors (A1, A2A, A2B, and A3), ATP-channel pannexin-1 and the P2X7 receptor was analyzed via WB and RT-PCR. cAMP and AMPK activation was measured.…”
-
8803
Image1_Dipyridamole activates adenosine A2B receptor and AMPK/cAMP signaling and promotes myogenic differentiation of myoblastic C2C12 cells.tif
Published 2023“…Extra-/intracellular nucleotides were examined via HPLC. The expression of muscle differentiation proteins (Pax7, Mif5, MyoD, MyoG, and MHC), PKA/CREB, adenosine receptors (A1, A2A, A2B, and A3), ATP-channel pannexin-1 and the P2X7 receptor was analyzed via WB and RT-PCR. cAMP and AMPK activation was measured.…”
-
8804
Image5_Dipyridamole activates adenosine A2B receptor and AMPK/cAMP signaling and promotes myogenic differentiation of myoblastic C2C12 cells.tif
Published 2023“…Extra-/intracellular nucleotides were examined via HPLC. The expression of muscle differentiation proteins (Pax7, Mif5, MyoD, MyoG, and MHC), PKA/CREB, adenosine receptors (A1, A2A, A2B, and A3), ATP-channel pannexin-1 and the P2X7 receptor was analyzed via WB and RT-PCR. cAMP and AMPK activation was measured.…”
-
8805
Dynamics of Liquid Transfer from Nanoporous Stamps in High-Resolution Flexographic Printing
Published 2019“…From the final contact area, the volume of ink transfer is mediated by rupture of a capillary bridge; and, after rupture, liquid spreads to fill the area defined by a precursor film matching the stamp geometry with high precision. …”
-
8806
Dynamics of Liquid Transfer from Nanoporous Stamps in High-Resolution Flexographic Printing
Published 2019“…From the final contact area, the volume of ink transfer is mediated by rupture of a capillary bridge; and, after rupture, liquid spreads to fill the area defined by a precursor film matching the stamp geometry with high precision. …”
-
8807
Dynamics of Liquid Transfer from Nanoporous Stamps in High-Resolution Flexographic Printing
Published 2019“…From the final contact area, the volume of ink transfer is mediated by rupture of a capillary bridge; and, after rupture, liquid spreads to fill the area defined by a precursor film matching the stamp geometry with high precision. …”
-
8808
Dynamics of Liquid Transfer from Nanoporous Stamps in High-Resolution Flexographic Printing
Published 2019“…From the final contact area, the volume of ink transfer is mediated by rupture of a capillary bridge; and, after rupture, liquid spreads to fill the area defined by a precursor film matching the stamp geometry with high precision. …”
-
8809
Dynamics of Liquid Transfer from Nanoporous Stamps in High-Resolution Flexographic Printing
Published 2019“…From the final contact area, the volume of ink transfer is mediated by rupture of a capillary bridge; and, after rupture, liquid spreads to fill the area defined by a precursor film matching the stamp geometry with high precision. …”
-
8810
Dynamics of Liquid Transfer from Nanoporous Stamps in High-Resolution Flexographic Printing
Published 2019“…From the final contact area, the volume of ink transfer is mediated by rupture of a capillary bridge; and, after rupture, liquid spreads to fill the area defined by a precursor film matching the stamp geometry with high precision. …”
-
8811
Dynamics of Liquid Transfer from Nanoporous Stamps in High-Resolution Flexographic Printing
Published 2019“…From the final contact area, the volume of ink transfer is mediated by rupture of a capillary bridge; and, after rupture, liquid spreads to fill the area defined by a precursor film matching the stamp geometry with high precision. …”
-
8812
Dynamics of Liquid Transfer from Nanoporous Stamps in High-Resolution Flexographic Printing
Published 2019“…From the final contact area, the volume of ink transfer is mediated by rupture of a capillary bridge; and, after rupture, liquid spreads to fill the area defined by a precursor film matching the stamp geometry with high precision. …”
-
8813
Dynamics of Liquid Transfer from Nanoporous Stamps in High-Resolution Flexographic Printing
Published 2019“…From the final contact area, the volume of ink transfer is mediated by rupture of a capillary bridge; and, after rupture, liquid spreads to fill the area defined by a precursor film matching the stamp geometry with high precision. …”
-
8814
Dynamics of Liquid Transfer from Nanoporous Stamps in High-Resolution Flexographic Printing
Published 2019“…From the final contact area, the volume of ink transfer is mediated by rupture of a capillary bridge; and, after rupture, liquid spreads to fill the area defined by a precursor film matching the stamp geometry with high precision. …”
-
8815
Dynamics of Liquid Transfer from Nanoporous Stamps in High-Resolution Flexographic Printing
Published 2019“…From the final contact area, the volume of ink transfer is mediated by rupture of a capillary bridge; and, after rupture, liquid spreads to fill the area defined by a precursor film matching the stamp geometry with high precision. …”
-
8816
Dynamics of Liquid Transfer from Nanoporous Stamps in High-Resolution Flexographic Printing
Published 2019“…From the final contact area, the volume of ink transfer is mediated by rupture of a capillary bridge; and, after rupture, liquid spreads to fill the area defined by a precursor film matching the stamp geometry with high precision. …”
-
8817
Dynamics of Liquid Transfer from Nanoporous Stamps in High-Resolution Flexographic Printing
Published 2019“…From the final contact area, the volume of ink transfer is mediated by rupture of a capillary bridge; and, after rupture, liquid spreads to fill the area defined by a precursor film matching the stamp geometry with high precision. …”
-
8818
Dynamics of Liquid Transfer from Nanoporous Stamps in High-Resolution Flexographic Printing
Published 2019“…From the final contact area, the volume of ink transfer is mediated by rupture of a capillary bridge; and, after rupture, liquid spreads to fill the area defined by a precursor film matching the stamp geometry with high precision. …”
-
8819
Dynamics of Liquid Transfer from Nanoporous Stamps in High-Resolution Flexographic Printing
Published 2019“…From the final contact area, the volume of ink transfer is mediated by rupture of a capillary bridge; and, after rupture, liquid spreads to fill the area defined by a precursor film matching the stamp geometry with high precision. …”
-
8820
Dynamics of Liquid Transfer from Nanoporous Stamps in High-Resolution Flexographic Printing
Published 2019“…From the final contact area, the volume of ink transfer is mediated by rupture of a capillary bridge; and, after rupture, liquid spreads to fill the area defined by a precursor film matching the stamp geometry with high precision. …”