To give the number of hydrogen atoms bonded to each carbon atom in the substance given, and to write its molecular formula. Concept introduction: In skeletal structures the carbon atoms are not usually shown. Instead a carbon is assumed to be at each intersection of two lines and at the end of each line. The hydrogen atoms bonded to carbons are also not shown. The correct number of hydrogen atoms for each carbon atom is assigned keeping in mind that carbon has a valence of 4. The end of a line represents a carbon atom with three hydrogen atoms, CH 3 ; a two-way intersection is a carbon atom with two hydrogen atoms, CH 2 ; a three way intersection is a carbon with one hydrogen, CH; a four way intersection is a carbon with no attached hydrogen. Atoms other than carbon and hydrogen are shown. The molecular formula can be obtained by counting the number of atoms of different elements present in the molecule. To determine: The number of hydrogen atoms bonded to each carbon atom in the substance given and to write its molecular formula.

Question

On the next page is an LC separation of the parabens found in baby wash. Parabens are suspected in a link to breast cancer therefore an accurate way to quantitate them is desired. a. In the chromatogram, estimate k' for ethyl paraben. Clearly indicate what values you used for all the terms in your calculation. b. Is this a "good" value for a capacity factor? Explain. c. What is the resolution between n-Propyl paraben and n-Butyl paraben? Again, indicate clearly what values you used in your calculation. MAU | Methyl paraben 40 20 0 -2 Ethyl paraben n-Propyl paraben n-Butyl paraben App ID 22925 6 8 min

Answer 1

Question

Chapter 1.SE, Problem 43AP

Interpretation Introduction

Interpretation:

To give the number of hydrogen atoms bonded to each carbon atom in the substance given, and to write its molecular formula.

Concept introduction:

In skeletal structures the carbon atoms are not usually shown. Instead a carbon is assumed to be at each intersection of two lines and at the end of each line. The hydrogen atoms bonded to carbons are also not shown. The correct number of hydrogen atoms for each carbon atom is assigned keeping in mind that carbon has a valence of 4. The end of a line represents a carbon atom with three hydrogen atoms, CH₃; a two-way intersection is a carbon atom with two hydrogen atoms, CH₂; a three way intersection is a carbon with one hydrogen, CH; a four way intersection is a carbon with no attached hydrogen. Atoms other than carbon and hydrogen are shown. The molecular formula can be obtained by counting the number of atoms of different elements present in the molecule.

To determine:

The number of hydrogen atoms bonded to each carbon atom in the substance given and to write its molecular formula.

Interpretation Introduction

Interpretation:

To give the number of hydrogen atoms bonded to each carbon atom in the substances given, and to write the molecular formula.

Concept introduction:

In skeletal structures the carbon atoms are not usually shown. Instead a carbon is assumed to be at each intersection of two lines and at the end of each line. The hydrogen atoms bonded to carbons are also not shown. The correct number of hydrogen atoms for each carbon atom is assigned keeping in mind that carbon has a valence of 4. The end of a line represents a carbon atom with three hydrogen atoms, CH₃; a two-way intersection is a carbon atom with two hydrogen atoms, CH₂; a three way intersection is a carbon with one hydrogen, CH; a four way intersection is a carbon with no attached hydrogen. Atoms other than carbon and hydrogen are shown. The molecular formula can be obtained by counting the number of atoms of different elements present in the molecule.

To determine:

The number of hydrogen atoms bonded to each carbon atom in the substance given, and to write its molecular formula.

Interpretation Introduction

Interpretation:

To give the number of hydrogen atoms bonded to each carbon atom in the substance given, and to write its molecular formula.

Concept introduction:

In skeletal structures the carbon atoms are not usually shown. Instead a carbon is assumed to be at each intersection of two lines and at the end of each line. The hydrogen atoms bonded to carbons are also not shown. The correct number of hydrogen atoms for each carbon atom is assigned keeping in mind that carbon has a valence of 4. The end of a line represents a carbon atom with three hydrogen atoms, CH₃; a two-way intersection is a carbon atom with two hydrogen atoms, CH₂; a three way intersection is a carbon with one hydrogen, CH; a four way intersection is a carbon with no attached hydrogen. Atoms other than carbon and hydrogen are shown. The molecular formula can be obtained by counting the number of atoms of different elements present in the molecule.

To determine:

The number of hydrogen atoms bonded to each carbon atom in the substance given, and to write its molecular formula.

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On the next page is an LC separation of the parabens found in baby wash. Parabens are suspected in a link to breast cancer therefore an accurate way to quantitate them is desired. a. In the chromatogram, estimate k' for ethyl paraben. Clearly indicate what values you used for all the terms in your calculation. b. Is this a "good" value for a capacity factor? Explain. c. What is the resolution between n-Propyl paraben and n-Butyl paraben? Again, indicate clearly what values you used in your calculation. MAU | Methyl paraben 40 20 0 -2 Ethyl paraben n-Propyl paraben n-Butyl paraben App ID 22925 6 8 min

d. In Figure 4, each stationary phase shows some negative correlation between plate count and retention factor. In other words, as k' increases, N decreases. Explain this relationship between k' and N. Plate Count (N) 4000 3500 2500 2000 1500 1000 Figure 4. Column efficiency (N) vs retention factor (k') for 22 nonionizable solutes on FMS (red), PGC (black), and COZ (green). 3000 Eluent compositions (acetonitrile/water, A/W) were adjusted to obtain k' less than 15, which was achieved for most solutes as follows: FMS (30/70 A/W), PGC (60/40), COZ (80/20). Slightly different compositions were used for the most highly retained solutes. All columns were 50 mm × 4.6 mm id and packed with 5 um particles, except for COZ, which was packed with 3 um particles. All other chromatographic conditions were constant: column length 5 cm, column j.§. 4.6 mm, flow rate 2 mL/min, column temperature 40 °C, and injection volume 0.5 μL Log(k'x/K'ethylbenzene) FMS 1.5 1.0 0.5 0.0 ཐྭ ཋ ཤྩ བྷྲ ; 500 0 5 10…

f. Predict how the van Deemter curve in Figure 7 would change if the temperature were raised from 40 °C to 55 °C. Figure 7. van Desmter curves in reduced coordinates for four nitroalkane homologues (nitropropane, black; nitrobutane, red; nitropentane, blue; and nitrohexane, green) separated on the FMS phase. Chromatographic conditions: column dimensions 50 mm × 4.6 mm id, eluent 30/70 ACN/water, flow rates 0.2-5.0 mL/min, injection volume 0.5 and column temperature 40 °C. No corrections to the plate heights have been made to account for extracolumn dispersion. Reduced Plate Height (h) ° 20 40 60 Reduced Velocity (v) 8. (2) A water sample is analyzed for traces of benzene using headspace analysis. The sample and standard are spiked with a fixed amount of toluene as an internal standard. The following data are obtained: Ppb benzene Peak area benzene Peak area toluene 10.0 252 376 Sample 533 368 What is the concentration of benzene in the sample?

Answer 2

Question

Chapter 1.SE, Problem 43AP

Interpretation Introduction

Interpretation:

To give the number of hydrogen atoms bonded to each carbon atom in the substance given, and to write its molecular formula.

Concept introduction:

In skeletal structures the carbon atoms are not usually shown. Instead a carbon is assumed to be at each intersection of two lines and at the end of each line. The hydrogen atoms bonded to carbons are also not shown. The correct number of hydrogen atoms for each carbon atom is assigned keeping in mind that carbon has a valence of 4. The end of a line represents a carbon atom with three hydrogen atoms, CH₃; a two-way intersection is a carbon atom with two hydrogen atoms, CH₂; a three way intersection is a carbon with one hydrogen, CH; a four way intersection is a carbon with no attached hydrogen. Atoms other than carbon and hydrogen are shown. The molecular formula can be obtained by counting the number of atoms of different elements present in the molecule.

To determine:

The number of hydrogen atoms bonded to each carbon atom in the substance given and to write its molecular formula.

Interpretation Introduction

Interpretation:

To give the number of hydrogen atoms bonded to each carbon atom in the substances given, and to write the molecular formula.

Concept introduction:

In skeletal structures the carbon atoms are not usually shown. Instead a carbon is assumed to be at each intersection of two lines and at the end of each line. The hydrogen atoms bonded to carbons are also not shown. The correct number of hydrogen atoms for each carbon atom is assigned keeping in mind that carbon has a valence of 4. The end of a line represents a carbon atom with three hydrogen atoms, CH₃; a two-way intersection is a carbon atom with two hydrogen atoms, CH₂; a three way intersection is a carbon with one hydrogen, CH; a four way intersection is a carbon with no attached hydrogen. Atoms other than carbon and hydrogen are shown. The molecular formula can be obtained by counting the number of atoms of different elements present in the molecule.

To determine:

The number of hydrogen atoms bonded to each carbon atom in the substance given, and to write its molecular formula.

Interpretation Introduction

Interpretation:

To give the number of hydrogen atoms bonded to each carbon atom in the substance given, and to write its molecular formula.

Concept introduction:

In skeletal structures the carbon atoms are not usually shown. Instead a carbon is assumed to be at each intersection of two lines and at the end of each line. The hydrogen atoms bonded to carbons are also not shown. The correct number of hydrogen atoms for each carbon atom is assigned keeping in mind that carbon has a valence of 4. The end of a line represents a carbon atom with three hydrogen atoms, CH₃; a two-way intersection is a carbon atom with two hydrogen atoms, CH₂; a three way intersection is a carbon with one hydrogen, CH; a four way intersection is a carbon with no attached hydrogen. Atoms other than carbon and hydrogen are shown. The molecular formula can be obtained by counting the number of atoms of different elements present in the molecule.

To determine:

The number of hydrogen atoms bonded to each carbon atom in the substance given, and to write its molecular formula.

Expert Solution & Answer

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Answer 3

Question

Chapter 1.SE, Problem 43AP

Interpretation Introduction

Interpretation:

To give the number of hydrogen atoms bonded to each carbon atom in the substance given, and to write its molecular formula.

Concept introduction:

In skeletal structures the carbon atoms are not usually shown. Instead a carbon is assumed to be at each intersection of two lines and at the end of each line. The hydrogen atoms bonded to carbons are also not shown. The correct number of hydrogen atoms for each carbon atom is assigned keeping in mind that carbon has a valence of 4. The end of a line represents a carbon atom with three hydrogen atoms, CH₃; a two-way intersection is a carbon atom with two hydrogen atoms, CH₂; a three way intersection is a carbon with one hydrogen, CH; a four way intersection is a carbon with no attached hydrogen. Atoms other than carbon and hydrogen are shown. The molecular formula can be obtained by counting the number of atoms of different elements present in the molecule.

To determine:

The number of hydrogen atoms bonded to each carbon atom in the substance given and to write its molecular formula.

Interpretation Introduction

Interpretation:

To give the number of hydrogen atoms bonded to each carbon atom in the substances given, and to write the molecular formula.

Concept introduction:

In skeletal structures the carbon atoms are not usually shown. Instead a carbon is assumed to be at each intersection of two lines and at the end of each line. The hydrogen atoms bonded to carbons are also not shown. The correct number of hydrogen atoms for each carbon atom is assigned keeping in mind that carbon has a valence of 4. The end of a line represents a carbon atom with three hydrogen atoms, CH₃; a two-way intersection is a carbon atom with two hydrogen atoms, CH₂; a three way intersection is a carbon with one hydrogen, CH; a four way intersection is a carbon with no attached hydrogen. Atoms other than carbon and hydrogen are shown. The molecular formula can be obtained by counting the number of atoms of different elements present in the molecule.

To determine:

The number of hydrogen atoms bonded to each carbon atom in the substance given, and to write its molecular formula.

Interpretation Introduction

Interpretation:

To give the number of hydrogen atoms bonded to each carbon atom in the substance given, and to write its molecular formula.

Concept introduction:

In skeletal structures the carbon atoms are not usually shown. Instead a carbon is assumed to be at each intersection of two lines and at the end of each line. The hydrogen atoms bonded to carbons are also not shown. The correct number of hydrogen atoms for each carbon atom is assigned keeping in mind that carbon has a valence of 4. The end of a line represents a carbon atom with three hydrogen atoms, CH₃; a two-way intersection is a carbon atom with two hydrogen atoms, CH₂; a three way intersection is a carbon with one hydrogen, CH; a four way intersection is a carbon with no attached hydrogen. Atoms other than carbon and hydrogen are shown. The molecular formula can be obtained by counting the number of atoms of different elements present in the molecule.

To determine:

The number of hydrogen atoms bonded to each carbon atom in the substance given, and to write its molecular formula.

Expert Solution & Answer

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Answer 4

Question

Chapter 1.SE, Problem 43AP

Interpretation Introduction

Interpretation:

To give the number of hydrogen atoms bonded to each carbon atom in the substance given, and to write its molecular formula.

Concept introduction:

In skeletal structures the carbon atoms are not usually shown. Instead a carbon is assumed to be at each intersection of two lines and at the end of each line. The hydrogen atoms bonded to carbons are also not shown. The correct number of hydrogen atoms for each carbon atom is assigned keeping in mind that carbon has a valence of 4. The end of a line represents a carbon atom with three hydrogen atoms, CH₃; a two-way intersection is a carbon atom with two hydrogen atoms, CH₂; a three way intersection is a carbon with one hydrogen, CH; a four way intersection is a carbon with no attached hydrogen. Atoms other than carbon and hydrogen are shown. The molecular formula can be obtained by counting the number of atoms of different elements present in the molecule.

To determine:

The number of hydrogen atoms bonded to each carbon atom in the substance given and to write its molecular formula.

Interpretation Introduction

Interpretation:

To give the number of hydrogen atoms bonded to each carbon atom in the substances given, and to write the molecular formula.

Concept introduction:

In skeletal structures the carbon atoms are not usually shown. Instead a carbon is assumed to be at each intersection of two lines and at the end of each line. The hydrogen atoms bonded to carbons are also not shown. The correct number of hydrogen atoms for each carbon atom is assigned keeping in mind that carbon has a valence of 4. The end of a line represents a carbon atom with three hydrogen atoms, CH₃; a two-way intersection is a carbon atom with two hydrogen atoms, CH₂; a three way intersection is a carbon with one hydrogen, CH; a four way intersection is a carbon with no attached hydrogen. Atoms other than carbon and hydrogen are shown. The molecular formula can be obtained by counting the number of atoms of different elements present in the molecule.

To determine:

The number of hydrogen atoms bonded to each carbon atom in the substance given, and to write its molecular formula.

Interpretation Introduction

Interpretation:

To give the number of hydrogen atoms bonded to each carbon atom in the substance given, and to write its molecular formula.

Concept introduction:

In skeletal structures the carbon atoms are not usually shown. Instead a carbon is assumed to be at each intersection of two lines and at the end of each line. The hydrogen atoms bonded to carbons are also not shown. The correct number of hydrogen atoms for each carbon atom is assigned keeping in mind that carbon has a valence of 4. The end of a line represents a carbon atom with three hydrogen atoms, CH₃; a two-way intersection is a carbon atom with two hydrogen atoms, CH₂; a three way intersection is a carbon with one hydrogen, CH; a four way intersection is a carbon with no attached hydrogen. Atoms other than carbon and hydrogen are shown. The molecular formula can be obtained by counting the number of atoms of different elements present in the molecule.

To determine:

The number of hydrogen atoms bonded to each carbon atom in the substance given, and to write its molecular formula.

Expert Solution & Answer

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See solution

Check out sample textbook solution

Answer 5

Chapter 1.SE, Problem 43AP

Interpretation Introduction

Interpretation:

To give the number of hydrogen atoms bonded to each carbon atom in the substance given, and to write its molecular formula.

Concept introduction:

In skeletal structures the carbon atoms are not usually shown. Instead a carbon is assumed to be at each intersection of two lines and at the end of each line. The hydrogen atoms bonded to carbons are also not shown. The correct number of hydrogen atoms for each carbon atom is assigned keeping in mind that carbon has a valence of 4. The end of a line represents a carbon atom with three hydrogen atoms, CH₃; a two-way intersection is a carbon atom with two hydrogen atoms, CH₂; a three way intersection is a carbon with one hydrogen, CH; a four way intersection is a carbon with no attached hydrogen. Atoms other than carbon and hydrogen are shown. The molecular formula can be obtained by counting the number of atoms of different elements present in the molecule.

To determine:

The number of hydrogen atoms bonded to each carbon atom in the substance given and to write its molecular formula.

Interpretation Introduction

Interpretation:

To give the number of hydrogen atoms bonded to each carbon atom in the substances given, and to write the molecular formula.

Concept introduction:

In skeletal structures the carbon atoms are not usually shown. Instead a carbon is assumed to be at each intersection of two lines and at the end of each line. The hydrogen atoms bonded to carbons are also not shown. The correct number of hydrogen atoms for each carbon atom is assigned keeping in mind that carbon has a valence of 4. The end of a line represents a carbon atom with three hydrogen atoms, CH₃; a two-way intersection is a carbon atom with two hydrogen atoms, CH₂; a three way intersection is a carbon with one hydrogen, CH; a four way intersection is a carbon with no attached hydrogen. Atoms other than carbon and hydrogen are shown. The molecular formula can be obtained by counting the number of atoms of different elements present in the molecule.

To determine:

The number of hydrogen atoms bonded to each carbon atom in the substance given, and to write its molecular formula.

Interpretation Introduction

Interpretation:

To give the number of hydrogen atoms bonded to each carbon atom in the substance given, and to write its molecular formula.

Concept introduction:

In skeletal structures the carbon atoms are not usually shown. Instead a carbon is assumed to be at each intersection of two lines and at the end of each line. The hydrogen atoms bonded to carbons are also not shown. The correct number of hydrogen atoms for each carbon atom is assigned keeping in mind that carbon has a valence of 4. The end of a line represents a carbon atom with three hydrogen atoms, CH₃; a two-way intersection is a carbon atom with two hydrogen atoms, CH₂; a three way intersection is a carbon with one hydrogen, CH; a four way intersection is a carbon with no attached hydrogen. Atoms other than carbon and hydrogen are shown. The molecular formula can be obtained by counting the number of atoms of different elements present in the molecule.

To determine:

The number of hydrogen atoms bonded to each carbon atom in the substance given, and to write its molecular formula.

Answer 6

Chapter 1.SE, Problem 43AP

Interpretation Introduction

Interpretation:

To give the number of hydrogen atoms bonded to each carbon atom in the substance given, and to write its molecular formula.

Concept introduction:

In skeletal structures the carbon atoms are not usually shown. Instead a carbon is assumed to be at each intersection of two lines and at the end of each line. The hydrogen atoms bonded to carbons are also not shown. The correct number of hydrogen atoms for each carbon atom is assigned keeping in mind that carbon has a valence of 4. The end of a line represents a carbon atom with three hydrogen atoms, CH₃; a two-way intersection is a carbon atom with two hydrogen atoms, CH₂; a three way intersection is a carbon with one hydrogen, CH; a four way intersection is a carbon with no attached hydrogen. Atoms other than carbon and hydrogen are shown. The molecular formula can be obtained by counting the number of atoms of different elements present in the molecule.

To determine:

The number of hydrogen atoms bonded to each carbon atom in the substance given and to write its molecular formula.

Answer 7

Chapter 1.SE, Problem 43AP

Interpretation Introduction

Interpretation:

To give the number of hydrogen atoms bonded to each carbon atom in the substance given, and to write its molecular formula.

Concept introduction:

In skeletal structures the carbon atoms are not usually shown. Instead a carbon is assumed to be at each intersection of two lines and at the end of each line. The hydrogen atoms bonded to carbons are also not shown. The correct number of hydrogen atoms for each carbon atom is assigned keeping in mind that carbon has a valence of 4. The end of a line represents a carbon atom with three hydrogen atoms, CH₃; a two-way intersection is a carbon atom with two hydrogen atoms, CH₂; a three way intersection is a carbon with one hydrogen, CH; a four way intersection is a carbon with no attached hydrogen. Atoms other than carbon and hydrogen are shown. The molecular formula can be obtained by counting the number of atoms of different elements present in the molecule.

To determine:

The number of hydrogen atoms bonded to each carbon atom in the substance given and to write its molecular formula.

Answer 8

Interpretation Introduction

Interpretation:

To give the number of hydrogen atoms bonded to each carbon atom in the substances given, and to write the molecular formula.

Concept introduction:

In skeletal structures the carbon atoms are not usually shown. Instead a carbon is assumed to be at each intersection of two lines and at the end of each line. The hydrogen atoms bonded to carbons are also not shown. The correct number of hydrogen atoms for each carbon atom is assigned keeping in mind that carbon has a valence of 4. The end of a line represents a carbon atom with three hydrogen atoms, CH₃; a two-way intersection is a carbon atom with two hydrogen atoms, CH₂; a three way intersection is a carbon with one hydrogen, CH; a four way intersection is a carbon with no attached hydrogen. Atoms other than carbon and hydrogen are shown. The molecular formula can be obtained by counting the number of atoms of different elements present in the molecule.

To determine:

The number of hydrogen atoms bonded to each carbon atom in the substance given, and to write its molecular formula.

Answer 9

Interpretation Introduction

Interpretation:

To give the number of hydrogen atoms bonded to each carbon atom in the substances given, and to write the molecular formula.

Concept introduction:

In skeletal structures the carbon atoms are not usually shown. Instead a carbon is assumed to be at each intersection of two lines and at the end of each line. The hydrogen atoms bonded to carbons are also not shown. The correct number of hydrogen atoms for each carbon atom is assigned keeping in mind that carbon has a valence of 4. The end of a line represents a carbon atom with three hydrogen atoms, CH₃; a two-way intersection is a carbon atom with two hydrogen atoms, CH₂; a three way intersection is a carbon with one hydrogen, CH; a four way intersection is a carbon with no attached hydrogen. Atoms other than carbon and hydrogen are shown. The molecular formula can be obtained by counting the number of atoms of different elements present in the molecule.

To determine:

The number of hydrogen atoms bonded to each carbon atom in the substance given, and to write its molecular formula.

Answer 10

Interpretation Introduction

Interpretation:

To give the number of hydrogen atoms bonded to each carbon atom in the substance given, and to write its molecular formula.

Concept introduction:

In skeletal structures the carbon atoms are not usually shown. Instead a carbon is assumed to be at each intersection of two lines and at the end of each line. The hydrogen atoms bonded to carbons are also not shown. The correct number of hydrogen atoms for each carbon atom is assigned keeping in mind that carbon has a valence of 4. The end of a line represents a carbon atom with three hydrogen atoms, CH₃; a two-way intersection is a carbon atom with two hydrogen atoms, CH₂; a three way intersection is a carbon with one hydrogen, CH; a four way intersection is a carbon with no attached hydrogen. Atoms other than carbon and hydrogen are shown. The molecular formula can be obtained by counting the number of atoms of different elements present in the molecule.

To determine:

The number of hydrogen atoms bonded to each carbon atom in the substance given, and to write its molecular formula.

Answer 11

Interpretation Introduction

Interpretation:

To give the number of hydrogen atoms bonded to each carbon atom in the substance given, and to write its molecular formula.

Concept introduction:

In skeletal structures the carbon atoms are not usually shown. Instead a carbon is assumed to be at each intersection of two lines and at the end of each line. The hydrogen atoms bonded to carbons are also not shown. The correct number of hydrogen atoms for each carbon atom is assigned keeping in mind that carbon has a valence of 4. The end of a line represents a carbon atom with three hydrogen atoms, CH₃; a two-way intersection is a carbon atom with two hydrogen atoms, CH₂; a three way intersection is a carbon with one hydrogen, CH; a four way intersection is a carbon with no attached hydrogen. Atoms other than carbon and hydrogen are shown. The molecular formula can be obtained by counting the number of atoms of different elements present in the molecule.

To determine:

The number of hydrogen atoms bonded to each carbon atom in the substance given, and to write its molecular formula.

Answer 12

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Ch. 1.3 - Give the ground-state electron configuration for...Ch. 1.3 - How many electrons does each of the following...Ch. 1.4 - Prob. 3P Ch. 1.4 - Convert the following representation of ethane,...Ch. 1.4 - What are likely formulas for the following...Ch. 1.4 - Prob. 6P Ch. 1.4 - Prob. 7P Ch. 1.7 - Draw a line-bond structure for propane, CH3CH2CH3....Ch. 1.7 - Convert the following molecular model of hexane, a...Ch. 1.8 - Draw a line-bond structure for propene, CH3CH=CH2....

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