Please help me fill the remaining spaces. The spaces marked with NA don't need to be calculate. Name Molecular Weight Amounts used mmol Equivalents M.P or BP (C) Density (g/mL) Indene 116.16 .5mL MP=-2 BP=181-182 .996 Borane-tetrahydrofuran Complex 85.94 2.8mL 1 MP= -108 BP=66 NA 30% Hydrogen Peroxide 34.01 1mL MP= -33 BP=108 NA 3 M NaOH(aq) 40 .7mL MP=318 BP=1390 NA Diethyl Ether 74.12 NA NA NA BP=75-78 .902

Please help me fill the remaining spaces. The spaces marked with NA don't need to be calculate. Name Molecular Weight Amounts used mmol Equivalents M.P or BP (C) Density (g/mL) Indene 116.16 .5mL MP=-2 BP=181-182 .996 Borane-tetrahydrofuran Complex 85.94 2.8mL 1 MP= -108 BP=66 NA 30% Hydrogen Peroxide 34.01 1mL MP= -33 BP=108 NA 3 M NaOH(aq) 40 .7mL MP=318 BP=1390 NA Diethyl Ether 74.12 NA NA NA BP=75-78 .902

Fundamentals Of Analytical Chemistry

9th Edition

ISBN:9781285640686

Author:Skoog

Publisher:Skoog

Chapter31: Introduction To Analytical Separations

Section: Chapter Questions

Problem 31.18QAP

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A 50.00mL sample with BaCl2 was diluted to 650 mL. Aliquots of 100.00 mL of this solution were analysed using Mohr and Volhard methods. The following data were obtained. Volhard method: Volume of AgNO3 = 100mL; Volume of KSCN = 18.25mL Mohr Method: volume of AgNO3: sample = 27.80mL (blank) = 0.30mLWhat is the %BaCl2 using Mohr and Volhard Method. Concentration of KSCN: 0.04000M Concentration of AgNO3: 0.03000M
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Name	Molecular Weight	Amounts used	mmol	Equivalents	M.P or BP (C)	Density (g/mL)
Indene	116.16	.5mL			MP=-2 BP=181-182	.996
Borane-tetrahydrofuran Complex	85.94	2.8mL		1	MP= -108 BP=66	NA
30% Hydrogen Peroxide	34.01	1mL			MP= -33 BP=108	NA
3 M NaOH(aq)	40	.7mL			MP=318 BP=1390	NA
Diethyl Ether	74.12	NA	NA	NA	BP=75-78	.902
Hexanes	86.17	NA	NA	NA	BP=65.5-68.3	.659
Potassium Permanganate	158.03	NA	NA	NA	BP=100	1.0
1-Indanol (Product)	134.13			NA	MP=50-54	NA
2-Indanol (Product)	Same as Above	Same as Above	Same as Above	NA	MP=68-71	NA