Match the entries in Group I (Mechanical system) with analogous quantities in Group II (Electrical system)
Group I Group II
P) Mass 1) Current
Q) Spring constant 2) Voltage
R) Displacement 3) Reciprocal capacitance
S) Velocity 4) Charge
5) Inductance
To solve this question, we need to understand the analogy between mechanical and electrical systems. The analogy helps us match quantities from one system to those in another system. Let's explore how these quantities relate:
Based on the above analogies, the correct matching is:
| Group I (Mechanical) | Group II (Electrical) |
|---|---|
| P) Mass | 5) Inductance |
| Q) Spring Constant | 3) Reciprocal Capacitance |
| R) Displacement | 2) Voltage |
| S) Velocity | 1) Current |
The correct answer is therefore: P-5, Q-3, R-2, S-1.
This understanding helps in the interpretation and translation of principles from one type of physical system to another, aiding in applications like system modeling and control systems.
Two springs of force constants \( k_1 \) and \( k_2 \) are connected to a mass \( m \) as shown. The angular frequency of this configuration is:
Identify the taxa that constitute a paraphyletic group in the given phylogenetic tree.
The vector, shown in the figure, has promoter and RBS sequences in the 300 bp region between the restriction sites for enzymes X and Y. There are no other sites for X and Y in the vector. The promoter is directed towards the Y site. The insert containing only an ORF provides 3 fragments after digestion with both enzymes X and Y. The ORF is cloned in the correct orientation in the vector using the single restriction enzyme Y. The size of the largest fragment of the recombinant plasmid expressing the ORF upon digestion with enzyme X is ........... bp. (answer in integer) 