(a) Interpretation: The given number should be converted into standard scientific notation. Concept Introduction: Scientific notation for a number is written in such a way that large numbers are written in small decimal form which is then multiplied by the power of 10. For numbers less than 1, the power of 10 in scientific notation has negative exponent and for numbers greater than 1, the power is either zero or has positive exponent.
(a) Interpretation: The given number should be converted into standard scientific notation. Concept Introduction: Scientific notation for a number is written in such a way that large numbers are written in small decimal form which is then multiplied by the power of 10. For numbers less than 1, the power of 10 in scientific notation has negative exponent and for numbers greater than 1, the power is either zero or has positive exponent.
The given number should be converted into standard scientific notation.
Concept Introduction:
Scientific notation for a number is written in such a way that large numbers are written in small decimal form which is then multiplied by the power of 10.
For numbers less than 1, the power of 10 in scientific notation has negative exponent and for numbers greater than 1, the power is either zero or has positive exponent.
Expert Solution
Answer to Problem 14QAP
3.125×103.
Explanation of Solution
The given measurement is 10.00032. It is equal to 3125, to convert this into scientific notation; the decimal will be shift four places to the right. The decimal will be placed after first digit, after placing the decimal, there will be three digits after the decimal. The power of 10 will be + 3 and the scientific notation will be 3.125×103.
Interpretation Introduction
(b)
Interpretation:
The given number should be converted into standard scientific notation.
Concept Introduction:
Scientific notation for a number is written in such a way that large numbers are written in small decimal form which is then multiplied by the power of 10.
For numbers less than 1, the power of 10 in scientific notation has negative exponent and for numbers greater than 1, the power is either zero or has positive exponent.
Expert Solution
Answer to Problem 14QAP
1.0×106.
Explanation of Solution
The given measurement is 10310−3. It is equal to 106, to convert this into scientific notation; the decimal number should be written ranges from 1 to 10 thus, the scientific notation will be 1.0×106.
Interpretation Introduction
(c)
Interpretation:
The given number should be converted into standard scientific notation.
Concept Introduction:
Scientific notation for a number is written in such a way that large numbers are written in small decimal form which is then multiplied by the power of 10.
For numbers less than 1, the power of 10 in scientific notation has negative exponent and for numbers greater than 1, the power is either zero or has positive exponent.
Expert Solution
Answer to Problem 14QAP
1.0×100.
Explanation of Solution
The given measurement is 103103. It is equal to 1, to convert this into scientific notation; the decimal number should be written ranges from 1 to 10 thus, the scientific notation will be 1.0×100.
Interpretation Introduction
(d)
Interpretation:
The given number should be converted into standard scientific notation.
Concept Introduction:
Scientific notation for a number is written in such a way that large numbers are written in small decimal form which is then multiplied by the power of 10.
For numbers less than 1, the power of 10 in scientific notation has negative exponent and for numbers greater than 1, the power is either zero or has positive exponent.
Expert Solution
Answer to Problem 14QAP
1.818×10−5.
Explanation of Solution
The given measurement is 155, 000. It is equal to 0.00001818, to convert this into scientific notation; the decimal number should be written ranges from 1 to 10 thus, decimal will move five digits to the right. Since, the decimal is moving right, the power of 10 will be negative. Thus, the scientific notation will be 1.818×10−5.
Interpretation Introduction
(e)
Interpretation:
The given number should be converted into standard scientific notation.
Concept Introduction:
Scientific notation for a number is written in such a way that large numbers are written in small decimal form which is then multiplied by the power of 10.
For numbers less than 1, the power of 10 in scientific notation has negative exponent and for numbers greater than 1, the power is either zero or has positive exponent.
Expert Solution
Answer to Problem 14QAP
1.0×107.
Explanation of Solution
The given measurement is (105)(104)(10−4)/10−2. It is equal to 107, to convert this into scientific notation; the decimal number should be written ranges from 1 to 10 thus, the scientific notation will be 1.0×107.
Interpretation Introduction
(f)
Interpretation:
The given number should be converted into standard scientific notation.
Concept Introduction:
Scientific notation for a number is written in such a way that large numbers are written in small decimal form which is then multiplied by the power of 10.
For numbers less than 1, the power of 10 in scientific notation has negative exponent and for numbers greater than 1, the power is either zero or has positive exponent.
Expert Solution
Answer to Problem 14QAP
1.0×106.
Explanation of Solution
The given measurement is 43.2(4.32×10−5). It is equal to 106, to convert this into scientific notation; the decimal number should be written ranges from 1 to 10 thus the scientific notation will be 1.0×106.
Interpretation Introduction
(g)
Interpretation:
The given number should be converted into standard scientific notation.
Concept Introduction:
Scientific notation for a number is written in such a way that large numbers are written in small decimal form which is then multiplied by the power of 10.
For numbers less than 1, the power of 10 in scientific notation has negative exponent and for numbers greater than 1, the power is either zero or has positive exponent.
Expert Solution
Answer to Problem 14QAP
1.0×10−7.
Explanation of Solution
The given measurement is (4.32×10−5)/432. It is equal to 10−7, to convert this into scientific notation; the decimal number should be written ranges from 1 to 10 thus the scientific notation will be 1.0×10−7.
Interpretation Introduction
(h)
Interpretation:
The given number should be converted into standard scientific notation.
Concept Introduction:
Scientific notation for a number is written in such a way that large numbers are written in small decimal form which is then multiplied by the power of 10.
For numbers less than 1, the power of 10 in scientific notation has negative exponent and for numbers greater than 1, the power is either zero or has positive exponent.
Expert Solution
Answer to Problem 14QAP
1.0×101.
Explanation of Solution
The given measurement is 1/(105)(10−6). It is equal to 101, to convert this into scientific notation; the decimal number should be written ranges from 1 to 10 thus decimal thus, the scientific notation will be 1.0×101.
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5) Confidence interval. Berglund and Wichardt investigated the quantitative determination
of Cr in high-alloy steels using a potentiometric titration of Cr(VI). Before the titration,
samples of the steel were dissolved in acid and the chromium oxidized to Cr(VI) using
peroxydisulfate. Shown here are the results (as %w/w Cr) for the analysis of a reference
steel.
16.968, 16.922, 16.840, 16.883, 16.887, 16.977, 16.857, 16.728
Calculate the mean, the standard deviation, and the 95% confidence interval about the
mean. What does this confidence interval mean?
In the Nitrous Acid Test for Amines, what is the observable result for primary amines?
Group of answer choices
nitrogen gas bubbles
form a soluble nitrite salt
yellow oily layer of nitrosoamine
3.
a.
Use the MS to propose at least two possible molecular formulas.
For an unknown compound:
101.
27.0
29.0
41.0
50.0
52.0
55.0
57.0
100
57.5
58.0
58.5
62.0
63.0
64.0
65.0
74.0
40
75.0
76.0
20
20
40
60
80
100
120
140
160
180
200 220
m/z
99.5
68564810898409581251883040
115.0
116.0
77404799
17417M
117.0
12.9
118.0
33.5
119.0
36
133 0
1.2
157.0
2.1
159.0
16
169.0
219
170.0
17
171.0
21.6
172.0
17
181.0
1.3
183.0
197.0
100.0
198.0
200.
784
Relative Intensity
2
2
8
ō (ppm)
6
2
Chapter 2 Solutions
Introductory Chemistry: Foundation - Text (Looseleaf)