(a) Interpretation: The number 3.4 × 10 8 is to be converted to standard form. Concept introduction: The scientific notation is the standard method of representation of a long or tedious measurement. The number is expressed as number times ten raised to some power. For instance, mass of a proton is conveniently expressed as 1.627 × 10 − 27 kg . While a number is written in scientific notations it is scaled down to some digit between 1 to10 ten and the places that previously contain zeroes are changed to ten raised to some power.

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Answer 1

Question

Chapter 1, Problem 1.57P

Interpretation Introduction

(a)

Interpretation:

The number 3.4×108 is to be converted to standard form.

Concept introduction:

The scientific notation is the standard method of representation of a long or tedious measurement. The number is expressed as number times ten raised to some power.

For instance, mass of a proton is conveniently expressed as 1.627×10−27 kg.

While a number is written in scientific notations it is scaled down to some digit between 1 to10 ten and the places that previously contain zeroes are changed to ten raised to some power.

Interpretation Introduction

(b)

Interpretation:

The number 3×102 is to be converted to standard form.

Concept introduction:

The scientific notation is the standard method of representation of a long or tedious measurement. The number is expressed as number times ten raised to some power.

For instance, mass of a proton is conveniently expressed as 1.627×10−27 kg.

While a number is written in scientific notations it is scaled down to some digit between 1 to10 ten and the places that previously contain zeroes are changed to ten raised to some power.

Interpretation Introduction

(c)

Interpretation:

The number 5.822×10−5 is to be converted to standard form.

Concept introduction:

The scientific notation is the standard method of representation of a long or tedious measurement. The number is expressed as number times ten raised to some power.

For instance, mass of a proton is conveniently expressed as 1.627×10−27 kg.

While a number is written in scientific notations it is scaled down to some digit between 1 to10 ten and the places that previously contain zeroes are changed to ten raised to some power.

Interpretation Introduction

(d)

Interpretation:

The number 6.86×10−8 is to be converted to standard form.

Concept introduction:

The scientific notation is the standard method of representation of a long or tedious measurement. The number is expressed as number times ten raised to some power.

For instance, mass of a proton is conveniently expressed as 1.627×10−27 kg.

While a number is written in scientific notations it is scaled down to some digit between 1 to10 ten and the places that previously contain zeroes are changed to ten raised to some power.

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Students have asked these similar questions

Write each of the following numbers as “ordinary” decimal numbers. 6.244 x 10^3 9.117 x 10^-2 8.299 x 10^1 1.771 x 10^-4 5.451 x 10^2 2.934 x 10^-5

56. Round the number on the left to the number of significant figures indicated by the example in the first row. (Use scientific notation as needed to avoid ambiguity.) Rounded to 4 Rounded to 2 Rounded to 1 Significant Figures Significant Figures Significant Figure Number 9 × 101 94.52118 94.52 95 105.4545 0.455981 0.009999991

Translate each number into standard notation, maintaining the same number of significant figures. 4.52×10^3 = 8.11×10^-2 =

Answer 2

Question

Chapter 1, Problem 1.57P

Interpretation Introduction

(a)

Interpretation:

The number 3.4×108 is to be converted to standard form.

Concept introduction:

The scientific notation is the standard method of representation of a long or tedious measurement. The number is expressed as number times ten raised to some power.

For instance, mass of a proton is conveniently expressed as 1.627×10−27 kg.

While a number is written in scientific notations it is scaled down to some digit between 1 to10 ten and the places that previously contain zeroes are changed to ten raised to some power.

Interpretation Introduction

(b)

Interpretation:

The number 3×102 is to be converted to standard form.

Concept introduction:

The scientific notation is the standard method of representation of a long or tedious measurement. The number is expressed as number times ten raised to some power.

For instance, mass of a proton is conveniently expressed as 1.627×10−27 kg.

While a number is written in scientific notations it is scaled down to some digit between 1 to10 ten and the places that previously contain zeroes are changed to ten raised to some power.

Interpretation Introduction

(c)

Interpretation:

The number 5.822×10−5 is to be converted to standard form.

Concept introduction:

The scientific notation is the standard method of representation of a long or tedious measurement. The number is expressed as number times ten raised to some power.

For instance, mass of a proton is conveniently expressed as 1.627×10−27 kg.

While a number is written in scientific notations it is scaled down to some digit between 1 to10 ten and the places that previously contain zeroes are changed to ten raised to some power.

Interpretation Introduction

(d)

Interpretation:

The number 6.86×10−8 is to be converted to standard form.

Concept introduction:

The scientific notation is the standard method of representation of a long or tedious measurement. The number is expressed as number times ten raised to some power.

For instance, mass of a proton is conveniently expressed as 1.627×10−27 kg.

While a number is written in scientific notations it is scaled down to some digit between 1 to10 ten and the places that previously contain zeroes are changed to ten raised to some power.

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Answer 3

Question

Chapter 1, Problem 1.57P

Interpretation Introduction

(a)

Interpretation:

The number 3.4×108 is to be converted to standard form.

Concept introduction:

The scientific notation is the standard method of representation of a long or tedious measurement. The number is expressed as number times ten raised to some power.

For instance, mass of a proton is conveniently expressed as 1.627×10−27 kg.

While a number is written in scientific notations it is scaled down to some digit between 1 to10 ten and the places that previously contain zeroes are changed to ten raised to some power.

Interpretation Introduction

(b)

Interpretation:

The number 3×102 is to be converted to standard form.

Concept introduction:

The scientific notation is the standard method of representation of a long or tedious measurement. The number is expressed as number times ten raised to some power.

For instance, mass of a proton is conveniently expressed as 1.627×10−27 kg.

While a number is written in scientific notations it is scaled down to some digit between 1 to10 ten and the places that previously contain zeroes are changed to ten raised to some power.

Interpretation Introduction

(c)

Interpretation:

The number 5.822×10−5 is to be converted to standard form.

Concept introduction:

The scientific notation is the standard method of representation of a long or tedious measurement. The number is expressed as number times ten raised to some power.

For instance, mass of a proton is conveniently expressed as 1.627×10−27 kg.

While a number is written in scientific notations it is scaled down to some digit between 1 to10 ten and the places that previously contain zeroes are changed to ten raised to some power.

Interpretation Introduction

(d)

Interpretation:

The number 6.86×10−8 is to be converted to standard form.

Concept introduction:

The scientific notation is the standard method of representation of a long or tedious measurement. The number is expressed as number times ten raised to some power.

For instance, mass of a proton is conveniently expressed as 1.627×10−27 kg.

While a number is written in scientific notations it is scaled down to some digit between 1 to10 ten and the places that previously contain zeroes are changed to ten raised to some power.

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Answer 4

Question

Chapter 1, Problem 1.57P

Interpretation Introduction

(a)

Interpretation:

The number 3.4×108 is to be converted to standard form.

Concept introduction:

The scientific notation is the standard method of representation of a long or tedious measurement. The number is expressed as number times ten raised to some power.

For instance, mass of a proton is conveniently expressed as 1.627×10−27 kg.

While a number is written in scientific notations it is scaled down to some digit between 1 to10 ten and the places that previously contain zeroes are changed to ten raised to some power.

Interpretation Introduction

(b)

Interpretation:

The number 3×102 is to be converted to standard form.

Concept introduction:

The scientific notation is the standard method of representation of a long or tedious measurement. The number is expressed as number times ten raised to some power.

For instance, mass of a proton is conveniently expressed as 1.627×10−27 kg.

While a number is written in scientific notations it is scaled down to some digit between 1 to10 ten and the places that previously contain zeroes are changed to ten raised to some power.

Interpretation Introduction

(c)

Interpretation:

The number 5.822×10−5 is to be converted to standard form.

Concept introduction:

The scientific notation is the standard method of representation of a long or tedious measurement. The number is expressed as number times ten raised to some power.

For instance, mass of a proton is conveniently expressed as 1.627×10−27 kg.

While a number is written in scientific notations it is scaled down to some digit between 1 to10 ten and the places that previously contain zeroes are changed to ten raised to some power.

Interpretation Introduction

(d)

Interpretation:

The number 6.86×10−8 is to be converted to standard form.

Concept introduction:

The scientific notation is the standard method of representation of a long or tedious measurement. The number is expressed as number times ten raised to some power.

For instance, mass of a proton is conveniently expressed as 1.627×10−27 kg.

While a number is written in scientific notations it is scaled down to some digit between 1 to10 ten and the places that previously contain zeroes are changed to ten raised to some power.

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Answer 5

Chapter 1, Problem 1.57P

Interpretation Introduction

(a)

Interpretation:

The number 3.4×108 is to be converted to standard form.

Concept introduction:

The scientific notation is the standard method of representation of a long or tedious measurement. The number is expressed as number times ten raised to some power.

For instance, mass of a proton is conveniently expressed as 1.627×10−27 kg.

While a number is written in scientific notations it is scaled down to some digit between 1 to10 ten and the places that previously contain zeroes are changed to ten raised to some power.

Interpretation Introduction

(b)

Interpretation:

The number 3×102 is to be converted to standard form.

Concept introduction:

The scientific notation is the standard method of representation of a long or tedious measurement. The number is expressed as number times ten raised to some power.

For instance, mass of a proton is conveniently expressed as 1.627×10−27 kg.

While a number is written in scientific notations it is scaled down to some digit between 1 to10 ten and the places that previously contain zeroes are changed to ten raised to some power.

Interpretation Introduction

(c)

Interpretation:

The number 5.822×10−5 is to be converted to standard form.

Concept introduction:

The scientific notation is the standard method of representation of a long or tedious measurement. The number is expressed as number times ten raised to some power.

For instance, mass of a proton is conveniently expressed as 1.627×10−27 kg.

While a number is written in scientific notations it is scaled down to some digit between 1 to10 ten and the places that previously contain zeroes are changed to ten raised to some power.

Interpretation Introduction

(d)

Interpretation:

The number 6.86×10−8 is to be converted to standard form.

Concept introduction:

The scientific notation is the standard method of representation of a long or tedious measurement. The number is expressed as number times ten raised to some power.

For instance, mass of a proton is conveniently expressed as 1.627×10−27 kg.

While a number is written in scientific notations it is scaled down to some digit between 1 to10 ten and the places that previously contain zeroes are changed to ten raised to some power.

Answer 6

Chapter 1, Problem 1.57P

Interpretation Introduction

(a)

Interpretation:

The number 3.4×108 is to be converted to standard form.

Concept introduction:

The scientific notation is the standard method of representation of a long or tedious measurement. The number is expressed as number times ten raised to some power.

For instance, mass of a proton is conveniently expressed as 1.627×10−27 kg.

While a number is written in scientific notations it is scaled down to some digit between 1 to10 ten and the places that previously contain zeroes are changed to ten raised to some power.

Answer 7

Chapter 1, Problem 1.57P

Interpretation Introduction

(a)

Interpretation:

The number 3.4×108 is to be converted to standard form.

Concept introduction:

The scientific notation is the standard method of representation of a long or tedious measurement. The number is expressed as number times ten raised to some power.

For instance, mass of a proton is conveniently expressed as 1.627×10−27 kg.

While a number is written in scientific notations it is scaled down to some digit between 1 to10 ten and the places that previously contain zeroes are changed to ten raised to some power.

Answer 8

Interpretation Introduction

(b)

Interpretation:

The number 3×102 is to be converted to standard form.

Concept introduction:

The scientific notation is the standard method of representation of a long or tedious measurement. The number is expressed as number times ten raised to some power.

For instance, mass of a proton is conveniently expressed as 1.627×10−27 kg.

While a number is written in scientific notations it is scaled down to some digit between 1 to10 ten and the places that previously contain zeroes are changed to ten raised to some power.

Answer 9

Interpretation Introduction

(b)

Interpretation:

The number 3×102 is to be converted to standard form.

Concept introduction:

The scientific notation is the standard method of representation of a long or tedious measurement. The number is expressed as number times ten raised to some power.

For instance, mass of a proton is conveniently expressed as 1.627×10−27 kg.

While a number is written in scientific notations it is scaled down to some digit between 1 to10 ten and the places that previously contain zeroes are changed to ten raised to some power.

Answer 10

Interpretation Introduction

(c)

Interpretation:

The number 5.822×10−5 is to be converted to standard form.

Concept introduction:

The scientific notation is the standard method of representation of a long or tedious measurement. The number is expressed as number times ten raised to some power.

For instance, mass of a proton is conveniently expressed as 1.627×10−27 kg.

While a number is written in scientific notations it is scaled down to some digit between 1 to10 ten and the places that previously contain zeroes are changed to ten raised to some power.

Answer 11

Interpretation Introduction

(c)

Interpretation:

The number 5.822×10−5 is to be converted to standard form.

Concept introduction:

The scientific notation is the standard method of representation of a long or tedious measurement. The number is expressed as number times ten raised to some power.

For instance, mass of a proton is conveniently expressed as 1.627×10−27 kg.

While a number is written in scientific notations it is scaled down to some digit between 1 to10 ten and the places that previously contain zeroes are changed to ten raised to some power.

Answer 12

Interpretation Introduction

(d)

Interpretation:

The number 6.86×10−8 is to be converted to standard form.

Concept introduction:

The scientific notation is the standard method of representation of a long or tedious measurement. The number is expressed as number times ten raised to some power.

For instance, mass of a proton is conveniently expressed as 1.627×10−27 kg.

While a number is written in scientific notations it is scaled down to some digit between 1 to10 ten and the places that previously contain zeroes are changed to ten raised to some power.

Answer 13

Interpretation Introduction

(d)

Interpretation:

The number 6.86×10−8 is to be converted to standard form.

Concept introduction:

The scientific notation is the standard method of representation of a long or tedious measurement. The number is expressed as number times ten raised to some power.

For instance, mass of a proton is conveniently expressed as 1.627×10−27 kg.

While a number is written in scientific notations it is scaled down to some digit between 1 to10 ten and the places that previously contain zeroes are changed to ten raised to some power.

Answer 14

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Answer 15

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Answer 16

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Answer 17

Ch. 1.1 - Prob. 1.1P Ch. 1.2 - Characterize each process as a physical change or...Ch. 1.2 - Does the molecular art represent a chemical change...Ch. 1.3 - Classify each example of molecular art as a pure...Ch. 1.3 - Classify each item as a pure substance or a...Ch. 1.3 - Classify each item as an element or a compound:...Ch. 1.4 - What term is used for each of the following units:...Ch. 1.4 - If a nanometer is one-billionth of a meter...Ch. 1.4 - Prob. 1.9P Ch. 1.4 - Using the prefixes in Table 1.2, determine which...

Solution Summary: The author explains that scientific notation is the standard method of representation of a long or tedious measurement.

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