A cell membrane is 8.7 nm thick and has an electrical
resistivity of 1.3 x 107Ωm. If
the potential difference between the inner and outer surfaces of a
cell membrane is 63 mV, how much current flows through a circular
patch of membrane with radius 1.0
μm?
Please
rate, Thanks!
A cell membrane is 8.7 nm thick and has an electrical resistivity of 1.3 x 107Ωm....
A typical cell membrane is 8.0 nm thick and has an electrical resistivity of 1.3 ✕ 107 ·m. If the potential difference between the inner and outer surfaces of a cell membrane is 65 mV, how much current flows through a square area of membrane 1.0µm on a side? _____A
A typical cell membrane is 8.15 nm thick and has an electrical resistivity of 1.35E+7 Ω·m. If the potential difference between the inner and outer surfaces of a cell membrane is 78.2 mV, how much current flows through a square area of membrane 1.07 μm on a side? Suppose the thickness of the membrane is quadrupled, but the resistivity and potential difference remain the same. How much current flows through the same area of membrane now?
A typical cell membrane is 7.96 nm thick and has an electrical resistivity of 1.40E+7 Ω·m. If the potential difference between the inner and outer surfaces of a cell membrane is 71.7 mV, how much current flows through a square area of membrane 1.12 μm on a side? b) Suppose the thickness of the membrane is doubled, but the resistivity and potential difference remain the same. How much current flows through the same area of membrane now?
0 Attempt 1 of 22> Potassium ions (K) move across a 9.0-nm-thick cell membrane from the inside to the outside. The potential inside the cell is -70.0 mV, and the potential outside is zero. What is the change in the electrical potential energy AU of the potassium ions as they move across the membrane? AUelectric =1 1.214 ×10-20
Potassium ions (K+) move across a 7.0-nm- thick cell membrane from the inside to the outside. The potential inside the cell is −80.0 mV, and the potential outside is zero. What is the change in the electrical potential energy Δ? electric of the potassium ions as they move across the membrane?
A potential difference AV exists between the inner and outer surfaces of the membrane of a cell. The inner surface is negative relative to the outer surface. If 1.40 × 10 20 J of work is required to eject a positive potassium ion (K+) from the interior of the cell, what is the magnitude of the potential difference (in millivolts) between the inner and outer surfaces of the cell? lav mV
A potential difference Δ? exists between the inner and outer surfaces of the membrane of a cell. The inner surface is negative relative to the outer surface. If 2.50×10−20 J of work is required to eject a positive potassium ion (K+) from the interior of the cell, what is the magnitude of the potential difference (in millivolts) between the inner and outer surfaces of the cell? |Δ?|= ????? mV
A potential difference Δ V exists between the inner and outer surfaces of the membrane of a cell. The inner surface is negative relative to the outer surface. If 2.70 x 10-20 of work is required to eject a positive sodium ion (Na+) from the interior of the cell, what is the magnitude of the potential difference (in millivolts) between the inner and outer surfaces of the cell? AVI mV
A potential difference exists between the inner and outer surfaces of the membrane of a cell. The inner surface is negative relative to the outer surface. If 1.15 x 10-20 J of work is required to eject a positive sodium ion (Na ) from the interior of the cell, what is the magnitude of the potential difference between the inner and outer surfaces of the cell?
(a) Find the capacitance of the cell membrane.
(b) Suppose the potential difference across the cell wall is
92 mV. Find the magnitude of the charge stored on either side of
the cell wall.
hboard> My courses > Spring Semester 2019 SP2019-PHYS-142-001 Topic 3 HW CH18.2 Capacitance due 1/22 Question 3 Partially correct 0.33 points out of 1.00 The fuids Inside and outside a cell are good conductors separated by the cell wall, which is a dielectric. Thus the cell...