Problem 68
Question
Convert to scientific notation. $$6.27 \times 10^{-10}$$
Step-by-Step Solution
Verified Answer
The given number \(6.27 \times 10^{-10}\) is already in the correct scientific notation format. No conversion is needed.
1Step 1: Check if the coefficient is between 1 and 10
In this case, the coefficient is 6.27, which is between 1 and 10.
2Step 2: Check if the number is multiplied by a power of 10
We see that the number is multiplied by \(10^{-10}\), which is indeed a power of 10.
Since the given number meets both requirements, it is already in scientific notation. So, there is no conversion needed:
3Step 3: Final Answer
The scientific notation of \(6.27 \times 10^{-10}\) is already in the correct format:
\(6.27 \times 10^{-10}\)
Key Concepts
Mathematical NotationPowers of TenCoefficient in Scientific Notation
Mathematical Notation
Mathematical notation is a universal language used to express mathematical ideas unambiguously. It encompasses symbols and expressions that help convey mathematical concepts and operations.
It includes a wide range of symbols to represent numbers, operations, relationships, and other critical components like exponents. One common type of mathematical notation, especially in higher mathematics and sciences, is scientific notation.
Scientific notation is particularly useful for handling very large or very small numbers, which frequently appear in scientific and engineering contexts. For example, the number represented as \(6.27 \times 10^{-10}\) uses scientific notation to express a value that would otherwise be quite cumbersome to write out fully.
It includes a wide range of symbols to represent numbers, operations, relationships, and other critical components like exponents. One common type of mathematical notation, especially in higher mathematics and sciences, is scientific notation.
Scientific notation is particularly useful for handling very large or very small numbers, which frequently appear in scientific and engineering contexts. For example, the number represented as \(6.27 \times 10^{-10}\) uses scientific notation to express a value that would otherwise be quite cumbersome to write out fully.
- This format makes it easier to read, calculate, and communicate data.
- It ensures a clear understanding, improving flexibility in addressing various mathematical problems.
Powers of Ten
Powers of ten are an essential part of scientific notation, simplifying the representation of very large or very small numbers. The notation \(10^n\) signifies a power of ten, where \(n\) is an integer.
The integer \(n\) indicates how many times the number ten is used as a factor. For example, \(10^2\) equals 100, or \(10\times10\), while \(10^{-3}\) corresponds to 0.001, demonstrating repetitive division by ten.
The integer \(n\) indicates how many times the number ten is used as a factor. For example, \(10^2\) equals 100, or \(10\times10\), while \(10^{-3}\) corresponds to 0.001, demonstrating repetitive division by ten.
- A positive exponent (e.g., \(10^4\)) magnifies the base of ten, producing large numbers.
- A negative exponent (such as \(10^{-10}\)) diminishes it into a smaller number.
Coefficient in Scientific Notation
In scientific notation, the coefficient is a pivotal component that precedes the power of ten, responsible for scaling the base value.
The coefficient should ideally lie between 1 and 10, allowing numbers to be presented in a standardized form that is both precise and concise, such as in the expression \(6.27 \times 10^{-10}\).
Here, \(6.27\) is the coefficient:
The coefficient should ideally lie between 1 and 10, allowing numbers to be presented in a standardized form that is both precise and concise, such as in the expression \(6.27 \times 10^{-10}\).
Here, \(6.27\) is the coefficient:
- This ensures the expression is straightforward.
- It keeps the number of digits in the coefficient limited, facilitating ease of computation and interpretation.
- Check that it falls between 1 and 10.
- Adjust the exponent accordingly if it requires shifting.
Other exercises in this chapter
Problem 68
Use a graphing calculator to find the approximate solutions of the equation. $$4 \ln (x+3.4)=2.5$$
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Solve. $$\sqrt{2 m-3}=\sqrt{m+7}-2$$
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Solve each rational inequality. Graph the solution set and write the solution in interval notation. $$\frac{z^{2}+10}{z+6} \leq 0$$
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Use a graphing calculator to find the approximate solutions of the equation. $$\log _{8} x+\log _{8}(x+2)=2$$
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