Question is ⇒ Which of the following is linear and bilateral parameter ?, Options are ⇒ (A) resistors, (B) semi-conductor diodes, (C) electron tubes, (D) transistor, (E) , Leave your comments or Download question paper.

Question is ⇒ Which of the following is linear and bilateral parameter ?, Options are ⇒ (A) resistors, (B) semi-conductor diodes, (C) electron tubes, (D) transistor, (E) , Leave your comments or Download question paper. Previous question Next question


Q1.	Which of the following is linear and bilateral parameter ?
A.	resistors [Correct Answer]
B.	semi-conductor diodes [Wrong Answer]
C.	electron tubes [Wrong Answer]
D.	transistor [Wrong Answer]
View Answer 4 -3 Explanation:- Answer : A Discuss it below : !! OOPS Login [Click here] is required to post your answer/result Help other students, write article, leave your comments

Previous question Next question

Also Read Similar Questions Below :

⇒ A delta circuit has each element of value R/2. The equivalent elements of star circuit with be
R/6
R/3
2R
3R

⇒ Millman's theorem yields equivalent
impedance or resistance
current source
voltage source.
voltage or current source

⇒ According to Kirchhoff's voltage law, the algebraic sum of all IR drops and e.m.fs. in any closed loop of a network is always
negative
positive
determined by battery e.m.fs.
zero

⇒ A network having one or more than one source of emf is known as____ network.
passive
active
linear
nonlinear

⇒ When the power transferred to the load is maximum, the efficiency of power transfer is
25%.
75%.
50%.
100%.

⇒ "In any network containing more than one sources of e.m.f. the current in any branch is the algebraic sum of a number of individual fictitious currents (the number being equal to the number of sources of e.m.f.), each of which is due to separate action of each source of e.m.f., taken in order, when the remaining sources of e.m.f. are replaced by conductors, the resistances of which are equal to the internal resistances of the respective sources".
The above statement is associated with
Thevenin's theorem
Norton's theorem
Superposition theorem
None of the above

⇒ In a series parallel circuit, any two resistances in the same current path must be in
series with each other
parallel with each other
series with the voltage source
parallel with the voltage source

⇒ Kirchhoff's s law is applicable to
passive networks only
a.c. circuits only
d.c. circuits only
both ac. as well d.c. circuits

⇒ Which of the following is not a nonlinear element?
Gas diode
Heater coil
Tunnel diode
Electric arc

⇒ A network has 4 nodes and 3 independent loops. What is the number of branches in the network?
5
6
7
8

⇒ The superposition theorem is applicable to
voltage only
current only
both current and voltage
current voltage and power

⇒ A dependent source
may be a current source or a voltage source
is always a voltage source
is always a current source
neither a current source nor a voltage source

⇒ An ideal voltage source should have
large value of emE
small value of e.m.f.
zero source resistance
infinite source resistance

⇒ There are b branches and n nodes the number of equations will be
n - 1
b
b - n
b - n + 1

⇒ While determining R_TH of a circuit
voltage and current sources should be left as they are.
all sources should be replaced by their source resistances.
all independent current and voltage sources are shortcircuited
none of the above

⇒ Millman's theorem yields
equivalent resistance
equivalent impedance
equivalent voltage source
equivalent voltage or current source

⇒ While calculating R_th in Thevenin's theorem and Norton equivalent
all independent sources are made dead
only current sources are made dead
only voltage sources are made dead
all voltage and current sources are made dead

⇒ The graph of an electrical network has N nodes and B branches. The number of links, L, with respect to the choice of a tree, is given by
B - N + l
B + N
N - B + 1
N - 2B - 1

⇒ Ideal current source have
zero internal resistance.
infinite internal resistance.
low value of voltage.
large value of current.

⇒ If the number of branches in a network is 'B', the number of nodes is 'N' and the number of dependent loops is 'L' then the number of independent node equations will be
N + L - 1
B - 1
B - N
N - 1

⇒ Kirchhoff's current law states that
net current flow at the junction is positive
algebraic sum of the currents meeting at the junction is zero
no current can leave the junction without some current entering it.
total sum of currents meeting at the junction is zero

⇒ "Maximum power output is obtained from a network when the load resistance is equal to the output resistance of the network as seen from the terminals of the load".
The above statement is associated with
Millman's theorem
Thevenin's theorem
Superposition theorem
Maximum power transfer theorem

⇒ To neglect a voltage source, the terminals across the source are
open-circuited.
short-circuited.
replaced by some resistance.
replaced by inductor.

⇒ The elements which are not capable of delivering energy by its own are known as
unilateral elements.
nonlinear elements.
passive elements.
active elements

⇒ For a two-port symmetrical bilateral network, if A = 3 and B = 1 ω, the value of parameter C will be
4 s
6 s
8 s
16 s

⇒ Which of the following is not bilateral element?
Constant current source
Resistor.
Inductor.
Capacitor.

⇒ Kirchhoff's current law is applicable to only
junction in a network
closed loops in a network
electric circuits
electronic circuits

⇒ The poles and zeroes of an all-pass network are located in which part of the s-plane?
Poles and zeroes are in the right half s-plane.
Poles and zeroes are in the left half s-plane.
Poles in right half and zeroes in left half of s-plane.
Poles in the left half and zeroes in right half of s-plane.

⇒ Application of Norton's theorm to a circuit yields
equivalent current source and impedance in series
equivalent current source and impedance in parallel
equivalent impedance
equivalent current source

⇒ An ideal voltage source has
zero internal resistance
open circuit voltage equal to the voltage on full load
terminal voltage in proportion to current
terminal voltage in proportion to load