(a)
Interpretation:
The explanation whether the raffinose is a reducing sugar should be determined.
Concept introduction:
A reducing sugar can be defined as any sugar which is capable of acting as a reducing agent. It contains a free
(b)
Interpretation:
The monosaccharides present in the raffinose should be determined.
Concept introduction:
A reducing sugar can be defined as any sugar which is capable of acting as a reducing agent. It contains a free ketone group or a free aldehyde group. The reducing sugars are monosaccharides, together with some disaccharides, polysaccharides, and oligosaccharides.
(c)
Interpretation:
The products of raffinose after treating it with β-galactosidase enzyme should be determined.
Concept introduction:
A reducing sugar can be defined as any sugar which is capable of acting as a reducing agent. It contains a free ketone group or a free aldehyde group. The reducing sugars are monosaccharides, together with some disaccharides, polysaccharides, and oligosaccharides.
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Chapter 11 Solutions
BIOCHEMISTRY 2 TERM ACCESS
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- Redox Chemistry: Give standard free energy changes expected for the following reactions:-Succinate -> fumarate (using FAD/FADH2)-Oxaloacetate -> Malate (using NAD/NADH)-NADH --> NAD+ (using FMN/FMNH2)-CoQ --> CoQH2 (using Cytochrome C)arrow_forwardGive examples of balanced redox reactions that match the following:-Catabolic-Anabolic-Oxidative-Reductivearrow_forwardIf there are 20uM of a GLUT2 transporter on the surface of a cell, each able to move 8 per second, and 50mM glucose outside of the cell, what is the flux into the cell in mM/sec?arrow_forward
- A transporter is responsible for antiporting calcium and glucose. The transporter brings glucose into the cell and sends calcium out of the cell. If blood [calcium] = 2.55mM and intracellular [calcium] = 7uM, blood [glucose] = 5.2mM, and intracellular [glucose] = 40uM, what is the free energy of transport? Assume a membrane potential of 62mV (negative inside).arrow_forwardAn ATP-coupled transporter is used to import 1 phosphate from the extracellular environment. Intracellular phosphate exists at 65mM, while it is 2mM outside.Assume a free energy change of ATP hydrolysis of -42.7 kJ/mol. What is the net free energy change of the coupled reaction? Assume a membrane potential of 70mV.arrow_forwardAnother transporter brings 3 chloride ions into the cell. Outside, chloride has a concentration of 107mM, and 4mM inside the cell. Assuming a membrane potential of 62mV (negative inside), what is the free energy of transport of these ions?arrow_forward
- For the Oxaloacetate -> Malate reaction, assume the normal ratio of NAD/NADH, what is the maximum ratio of Malate/Oxaloacetate that will allow reaction progress?arrow_forwardA particular particle is trying to cross a membrane by simple diffusion from a high concentration of 20mM to a low concentration of 20uM. If a membrane is 15uM in width, and the diffusion coefficient of the particle is 5 uM/sec, what is the influx in uM/sec?arrow_forwardMechanisms: 1. Give a full arrow-pushing mechanism for the hydrolysis of the gamma phosphate of ATP by an ATPase. 2. Give a full arrow pushing mechanism of the spontaneous redox reaction between NAD+/NADH and oxaloacetate/malate.arrow_forward
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