3) For Run 1, which reaction was closest to 100% yield? For Run 2, which reaction was closest to 100% yield? DATARecord all masses to the maximum number ofRun 1Run 2sig figs200°C400°C1.Mass of beaker81.06127.9862.Mass of beaker + NaHCO385.45732.2673.Initial mass of NaHCO34.4764.292Mass of beaker plus products afterheating.4.84.3 8030.7425.Mass of product (actual yield)There are three theoretically possible chemical reactions that could occur during the thermal decomposition of bakingsoda.1)sodium bicarbonate (s) → sodium hydroxide (s) + carbon dioxide (g)2)sodium bicarbonate (s) → sodium oxide (s) + carbon dioxide (g) + water (g)3)sodium bicarbonate (s)→ sodium carbonate (s) + carbon dioxide (g) + water (g)

The percent yield is the actual yield divided by the theoretical yield. It is determined by dividing…

Answered: 3) For Run 1, which reaction was…

Biochemistry

9th Edition

ISBN:9781319114671

Author:Lubert Stryer, Jeremy M. Berg, John L. Tymoczko, Gregory J. Gatto Jr.

Publisher:Lubert Stryer, Jeremy M. Berg, John L. Tymoczko, Gregory J. Gatto Jr.

Chapter1: Biochemistry: An Evolving Science

Section: Chapter Questions

Problem 1P

See similar textbooks

Similar questions

You set up the following two tubes: Tube 1: 1mL of alkaline phosphatase + 4mL of 400 µM p-NPP Tube 2: 1mL of alkaline phosphatase + 4mL of 200 µM p-NPP Which tube would have a faster reaction rate? Explain your reasoning (why does concentration of p-NPP matter? Relate it back to week 4 lab concepts). Week 4 lab concepts: - concentration gradient - differentially permeable membrane - solute, solvent, diffusion, osmosis, hypotonic, isotonic, hypertonic, molarity, osmolarity
What is an electrochemical gradient? What purpose does it serve?
What reaction would you expect when performing a positive control in the oxidase assay? What would it mean if a known oxidase-positive bacterium did not cause the expected reaction?
Droplet based single cell DNA sequencing uses a microfluidic platform which generates droplets encapsulating individual cells. A micrograph of such a device [Zilionis et al, Nature Protocols 2016] is presented in Figure Q3. The channels are 25 μm deep. (a) (b) Oil Figure Q3. Micrograph of the microfluidic droplet device. Scale bars are 100 µm. Adapted from Zilionis et al, Nature Protocols 2016. Red arrowheads show individual cells, and black arrows indicate flow direction. (c) RT/lysis reagents Cells Barcoding hydrogel beads A company wants to explore the design of a prototype of the device made from PDMS. Describe a suitable fabrication process, explaining the rationale behind each individual step. Schematics can be drawn to illustrate your response. You may want to refer to the datasheets at the end of the script. Testing of the prototype was successful and the company wants to explore the feasibility of manufacturing the device from glass. Describe the fabrication process for this…
What factors could explain a transformation efficiency?
Select all that apply from the following to each transformation process : The following are White non-glowing colonies White glowing colonies Blue non-glowing colonies Blue glowing colonies None of the above The transformation are: a. LB + kanamycin plates that have been spread with the E. coli cells transformed with your ligations, what phenotype of the colonies do you expect to obtain . b. LB + kanamycin plates that have been spread with the E. coli cells transformed with water, what phenotype of the colonies do you expect to obtain. c. LB plates that have been spread with the E. coli cells transformed with your pHSG298, what phenotype of the colonies do you expect to obtain. d. LB + kanamycin plates that have been spread with the E. coli cells transformed with PHSG298, what phenotype of the colonies do you expect to obtain. e. LB plates that have been spread with the E. coli cells transformed with your ligations, what phenotype of the colonies do you expect to obtain. f. LB plates…
A continuous enzyme reactor consists of a stirred tank of volume 0.01 m3 through which liquid is pumped at 0.02 m3⁄h. The enzyme is immobilised onto non-porous, spherical support particles, and the contents are stirred well to ensure that the composition is uniform and that the particles remain in suspension. A plastic mesh has been placed in front of the exit pipe to prevent the particles from leaving the vessel. The reactor is used to carried out a 98% conversion of a substrate entering at 0.1 kmol m3 ⁄ . Michaelis-Menten kinetics apply, with the following enzyme characteristics: Turnover number = 1 × 10^3 s KM = 5 × 10−3 kmol m3 ⁄ Enzyme RMM = 65,000 (a) If the enzyme is stable, calculate the mass of enzyme that needs to be immobilised. (b) If the enzyme is not stable and experiences exponential denaturation with a half-life of 10 h at the reaction temperature, determine the denaturation constant. (c) How would you expect denaturation to affect the reactor performance?
Which is the best method for producing phase-separated GUVs (at least 20 um in size)?
In an electrochemical cell, Q = 0.00025 and K = 0.70. What can you conclude about Ecell and E°cell? Ecell is positive and E°cell is positive Ecell is negative and E°cell is positive Ecell is negative and E°cell is negative Ecell is positive and E°cell is negative
The IAP kinetics assay was preformed at a basic pH. What does this tell you about the reaction environment ?
Could you please assist as to what would be the correct reaction?

Recommended textbooks for you

Biochemistry

ISBN:

9781319114671

Author:

Lubert Stryer, Jeremy M. Berg, John L. Tymoczko, Gregory J. Gatto Jr.

Publisher:

W. H. Freeman

Lehninger Principles of Biochemistry

Biochemistry

ISBN:

9781464126116

Author:

David L. Nelson, Michael M. Cox

Publisher:

W. H. Freeman

Fundamentals of Biochemistry: Life at the Molecul…

Biochemistry

ISBN:

9781118918401

Author:

Donald Voet, Judith G. Voet, Charlotte W. Pratt

Publisher:

WILEY

Biochemistry

ISBN:

9781319114671

Author:

Lubert Stryer, Jeremy M. Berg, John L. Tymoczko, Gregory J. Gatto Jr.

Publisher:

W. H. Freeman

Lehninger Principles of Biochemistry

Biochemistry

ISBN:

9781464126116

Author:

David L. Nelson, Michael M. Cox

Publisher:

W. H. Freeman

Fundamentals of Biochemistry: Life at the Molecul…

Biochemistry

ISBN:

9781118918401

Author:

Donald Voet, Judith G. Voet, Charlotte W. Pratt

Publisher:

WILEY

Biochemistry

ISBN:

9781305961135

Author:

Mary K. Campbell, Shawn O. Farrell, Owen M. McDougal

Publisher:

Cengage Learning

Biochemistry

ISBN:

9781305577206

Author:

Reginald H. Garrett, Charles M. Grisham

Publisher:

Cengage Learning

Fundamentals of General, Organic, and Biological …

Biochemistry

ISBN:

9780134015187

Author:

John E. McMurry, David S. Ballantine, Carl A. Hoeger, Virginia E. Peterson

Publisher:

PEARSON

SEE MORE TEXTBOOKS