The ratio of the volume of a hemoglobin molecule (65 kD) of the four O 2 molecules that bind and the ratio of the volume of a typical office (4×4×3m) of the typical (70-Kg) office worker that occupies it.

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Answer 1

Question

Chapter 6, Problem 33CQ

Summary Introduction

To calculate: The ratio of the volume of a hemoglobin molecule (65 kD) of the four O₂ molecules that bind and the ratio of the volume of a typical office (4×4×3m) of the typical (70-Kg) office worker that occupies it.

Summary Introduction

To compare: The ratio of volume of a hemoglobin molecule (65 kD) of the four O₂ molecules in equal proportions to their molecular masses in office (4×4×3m) and that the office worker has a density of 1.0 g/cm³ and check if it matches with the expected results.

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Answer 2

Question

Chapter 6, Problem 33CQ

Summary Introduction

To calculate: The ratio of the volume of a hemoglobin molecule (65 kD) of the four O₂ molecules that bind and the ratio of the volume of a typical office (4×4×3m) of the typical (70-Kg) office worker that occupies it.

Summary Introduction

To compare: The ratio of volume of a hemoglobin molecule (65 kD) of the four O₂ molecules in equal proportions to their molecular masses in office (4×4×3m) and that the office worker has a density of 1.0 g/cm³ and check if it matches with the expected results.

Expert Solution & Answer

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Check out a sample textbook solution

See solution

Answer 3

Question

Chapter 6, Problem 33CQ

Summary Introduction

To calculate: The ratio of the volume of a hemoglobin molecule (65 kD) of the four O₂ molecules that bind and the ratio of the volume of a typical office (4×4×3m) of the typical (70-Kg) office worker that occupies it.

Summary Introduction

To compare: The ratio of volume of a hemoglobin molecule (65 kD) of the four O₂ molecules in equal proportions to their molecular masses in office (4×4×3m) and that the office worker has a density of 1.0 g/cm³ and check if it matches with the expected results.

Expert Solution & Answer

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Check out a sample textbook solution

See solution

Answer 4

Question

Chapter 6, Problem 33CQ

Summary Introduction

To calculate: The ratio of the volume of a hemoglobin molecule (65 kD) of the four O₂ molecules that bind and the ratio of the volume of a typical office (4×4×3m) of the typical (70-Kg) office worker that occupies it.

Summary Introduction

To compare: The ratio of volume of a hemoglobin molecule (65 kD) of the four O₂ molecules in equal proportions to their molecular masses in office (4×4×3m) and that the office worker has a density of 1.0 g/cm³ and check if it matches with the expected results.

Expert Solution & Answer

Want to see the full answer?

Check out a sample textbook solution

See solution

Answer 5

Chapter 6, Problem 33CQ

Summary Introduction

To calculate: The ratio of the volume of a hemoglobin molecule (65 kD) of the four O₂ molecules that bind and the ratio of the volume of a typical office (4×4×3m) of the typical (70-Kg) office worker that occupies it.

Summary Introduction

To compare: The ratio of volume of a hemoglobin molecule (65 kD) of the four O₂ molecules in equal proportions to their molecular masses in office (4×4×3m) and that the office worker has a density of 1.0 g/cm³ and check if it matches with the expected results.

Answer 6

Chapter 6, Problem 33CQ

Summary Introduction

To calculate: The ratio of the volume of a hemoglobin molecule (65 kD) of the four O₂ molecules that bind and the ratio of the volume of a typical office (4×4×3m) of the typical (70-Kg) office worker that occupies it.

Answer 7

Chapter 6, Problem 33CQ

Summary Introduction

To calculate: The ratio of the volume of a hemoglobin molecule (65 kD) of the four O₂ molecules that bind and the ratio of the volume of a typical office (4×4×3m) of the typical (70-Kg) office worker that occupies it.

Answer 8

Summary Introduction

To compare: The ratio of volume of a hemoglobin molecule (65 kD) of the four O₂ molecules in equal proportions to their molecular masses in office (4×4×3m) and that the office worker has a density of 1.0 g/cm³ and check if it matches with the expected results.

Answer 9

Summary Introduction

To compare: The ratio of volume of a hemoglobin molecule (65 kD) of the four O₂ molecules in equal proportions to their molecular masses in office (4×4×3m) and that the office worker has a density of 1.0 g/cm³ and check if it matches with the expected results.

Answer 10

Expert Solution & Answer

Answer 11

Expert Solution & Answer

Answer 12

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Answer 13

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The ratio of the volume of a hemoglobin molecule (65 kD) of the four O 2 molecules that bind and the ratio of the volume of a typical office (4×4×3m) of the typical (70-Kg) office worker that occupies it.

To calculate: The ratio of the volume of a hemoglobin molecule (65 kD) of the four O2 molecules that bind and the ratio of the volume of a typical office (4×4×3m) of the typical (70-Kg) office worker that occupies it.

To compare: The ratio of volume of a hemoglobin molecule (65 kD) of the four O2 molecules in equal proportions to their molecular masses in office (4×4×3m) and that the office worker has a density of 1.0 g/cm3 and check if it matches with the expected results.

Want to see the full answer?

Chapter 6 Solutions

To calculate: The ratio of the volume of a hemoglobin molecule (65 kD) of the four O₂ molecules that bind and the ratio of the volume of a typical office (4×4×3m) of the typical (70-Kg) office worker that occupies it.

To compare: The ratio of volume of a hemoglobin molecule (65 kD) of the four O₂ molecules in equal proportions to their molecular masses in office (4×4×3m) and that the office worker has a density of 1.0 g/cm³ and check if it matches with the expected results.