The diffusion coefficient of hemoglobin in water at 20°C is equal to 6.9 x 10-11 m2 s-1. Assuming the hemoglobin molecule to be spherical, calculate its effective radius. The vis- cosity coefficient of water at this temperature is equal to 1.002 x 10-3 kg m-1 s-1.

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Chapter1: Chemical Foundations
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Solve for the following problems.
a. Find the value of the limiting molar conductivity for acetic acid from the values in
Table A.20.
b. Following are data on the molar conductivity of acetic acid as a function of concentration
at 25°C:
concentration/mol L- Alohm-' cm? mol-
0.0001
134.6
0.0010
49.2
0.0100
16.18
0.0500
7.36
0.1000
5.20
0.2000
3.65
Can you carry out an extrapolation as in Example 10.21 to determine the limiting molar
conductivity?
The diffusion coefficient of hemoglobin in water at 20°C is equal to 6.9 × 10–1l m² s-1.
Assuming the hemoglobin molecule to be spherical, calculate its effective radius. The vis-
cosity coefficient of water at this temperature is equal to 1.002 × 10–3 kg m-l s-1.
Transcribed Image Text:Solve for the following problems. a. Find the value of the limiting molar conductivity for acetic acid from the values in Table A.20. b. Following are data on the molar conductivity of acetic acid as a function of concentration at 25°C: concentration/mol L- Alohm-' cm? mol- 0.0001 134.6 0.0010 49.2 0.0100 16.18 0.0500 7.36 0.1000 5.20 0.2000 3.65 Can you carry out an extrapolation as in Example 10.21 to determine the limiting molar conductivity? The diffusion coefficient of hemoglobin in water at 20°C is equal to 6.9 × 10–1l m² s-1. Assuming the hemoglobin molecule to be spherical, calculate its effective radius. The vis- cosity coefficient of water at this temperature is equal to 1.002 × 10–3 kg m-l s-1.
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