\(\frac{E_e}{E_{\text{ph}}} = \frac{2c}{v}\)
\(\frac{E_e}{E_{\text{ph}}} = \frac{v}{2c}\)
\(\frac{p_e}{p_{\text{ph}}} = \frac{2c}{v}\)
\(\frac{p_e}{p_{\text{ph}}} = \frac{v}{2c}\)
\(\lambda_e = \lambda_{\text{ph}}\)
\(⇒\) \(\frac{h}{p_e} = \frac{hc}{E_{\text{ph}}}\)
\(⇒\) \(E_{\text{ph}} = p_e \cdot c = 2E_e \left(\frac{c}{v}\right)\)
\(⇒\) \(\frac{E_e}{E_{\text{ph}}} = \frac{v}{2c}\)
So, Option (B)
A body of mass 1000 kg is moving horizontally with a velocity of 6 m/s. If 200 kg extra mass is added, the final velocity (in m/s) is:
The electron transport chain or system is the sequence of electron carriers, enzymes, and cytochrome that passes electrons from one to another through the redox reaction. It is electron transport-linked phosphorylation.
It contains flavin nucleotides (FAD), nicotinamide adenine dinucleotide (NAD), coenzyme Q, and cytochromes localized in F1 particles of mitochondria. It occurs in the inner mitochondrial membrane along with cristae.
In this process five (5) complexes are involved namely, I- NADH-UQ reductase, II- Succinate-UQ reductase, III- UQH2 -cytochrome C reductase, IV- Cytochrome C oxidase, and V is connected with F0−F1 particles.
In this process, NAD and FAD are minimized.
Steps: