A number of capacitors, each of equal capacitance
, are arranged as shown in Fig. The equivalent capacitance between
and
is

Answer:The correct answer is: 
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Effective capacitance between points
in the figure, shown is

Effective capacitance between points
in the figure, shown is

Figure shows three points A, B and C in a region of uniform electric field E. The line AB is perpendicular and BC is parallel to the field lines. Then which of the following holds good?

Where
represent the electric potential at the points A, B and C respectively.
Figure shows three points A, B and C in a region of uniform electric field E. The line AB is perpendicular and BC is parallel to the field lines. Then which of the following holds good?

Where
represent the electric potential at the points A, B and C respectively.
Two capacitors and with capacities and are charged to potential difference of and, respectively. The plates of the capacitors are connected as shown in the figure with one wire free from each capacitor. The upper plate of is positive and that of is negative. An uncharged capacitor of capacitance and lead wires falls on the free ends to complete circuit, then

Two capacitors and with capacities and are charged to potential difference of and, respectively. The plates of the capacitors are connected as shown in the figure with one wire free from each capacitor. The upper plate of is positive and that of is negative. An uncharged capacitor of capacitance and lead wires falls on the free ends to complete circuit, then

Three charges are placed at the vertex of an equilateral triangle as shown in figure. For what value of
, the electrostatic potential energy of the system is zero?

Three charges are placed at the vertex of an equilateral triangle as shown in figure. For what value of
, the electrostatic potential energy of the system is zero?

The equivalent capacitance of the combination of three capacitors, each of capacitance C shown in figure between points A and B is

The equivalent capacitance of the combination of three capacitors, each of capacitance C shown in figure between points A and B is

Find the capacitance between
and
(Fig). Each capacitor has capacitance C.
Find the capacitance between
and
(Fig). Each capacitor has capacitance C.
Find the electric dipole moment of a non-conducting ring of radius
, made of two semicircular rings having linear charge densities
and
as shown in Figure.

Find the electric dipole moment of a non-conducting ring of radius
, made of two semicircular rings having linear charge densities
and
as shown in Figure.

A parallel plate capacitor with air as the dielectric has capacitance
A slab of dielectric constant
and having the same thickness as the separation between the plates is introduced so as to fill one-fourth of the capacitor as shown in the figure. The new capacitance will be

A parallel plate capacitor with air as the dielectric has capacitance
A slab of dielectric constant
and having the same thickness as the separation between the plates is introduced so as to fill one-fourth of the capacitor as shown in the figure. The new capacitance will be

The equivalent capacitance of the combination shown in figure below is

The equivalent capacitance of the combination shown in figure below is

Two parallel-plate capacitors of capacitance C and 2C are connected in parallel and charged to potential difference V . The battery is then disconnected and the region between the plates of C is filled completely with a material of dielectric constant K. The common potential difference across the combination becomes
Two parallel-plate capacitors of capacitance C and 2C are connected in parallel and charged to potential difference V . The battery is then disconnected and the region between the plates of C is filled completely with a material of dielectric constant K. The common potential difference across the combination becomes