Have a query? Ask a Tutor!!

Access to best educators and exclusive paper discussions

Offsite Campus Turito Championship

Can’t find what you’re looking for?

Our tutors are from top schools around the world, and they are waiting for you 24/7, anytime, anywhere.

Homework- One to One Solutions
Understand concepts to solve better
Get your doubts solved instantly

Maths-

General

Easy

Question

The number of bijective functions from set A to itself when a contains 106 elements-

106
(106)²
106!
1¹⁰⁶

The correct answer is: 106!

Related Questions to study

The work done by a force acting on a body is as shown in the graph. The total work done in covering an initial distance of $20 blank m$ is

The work done by a force acting on a body is as shown in the graph. The total work done in covering an initial distance of $20 blank m$ is

physics-General

A particle is acted upon by a force $F$ which varies with position $x$ as shown in figure. If the particle at $x equals 0$ has kinetic energy of 25 J, then the kinetic energy of the particle at $x equals 16 blank m$ is

A particle is acted upon by a force $F$ which varies with position $x$ as shown in figure. If the particle at $x equals 0$ has kinetic energy of 25 J, then the kinetic energy of the particle at $x equals 16 blank m$ is

physics-General

A vertical spring with force constant $K$ is fixed on a table. A ball of mass $m$ at a height $h$ above the free upper end of the spring falls vertically on the spring so that the spring is compressed by a distance $d$ . The net work done in the process is

A vertical spring with force constant $K$ is fixed on a table. A ball of mass $m$ at a height $h$ above the free upper end of the spring falls vertically on the spring so that the spring is compressed by a distance $d$ . The net work done in the process is

physics-General

parallel

Figure shows the $F$ - $x$ graph. Where $F$ is the force applied and $x$ is the distance covered

By the body along a straight line path. Given that $F$ is in $n e w t o n$ and $x blank$ in $m e t r e$ , what is the work done?

Figure shows the $F$ - $x$ graph. Where $F$ is the force applied and $x$ is the distance covered

By the body along a straight line path. Given that $F$ is in $n e w t o n$ and $x blank$ in $m e t r e$ , what is the work done?

physics-General

Range of function f(x) = $fraction numerator x to the power of 2 end exponent plus 2 x plus 3 over denominator x end fraction$ , $x element of times R$ is given by -

Range of function f(x) = $fraction numerator x to the power of 2 end exponent plus 2 x plus 3 over denominator x end fraction$ , $x element of times R$ is given by -

A light inextensible string that goes over a smooth fixed pulley as shown in the figure connects two blocks of masses $0.36 blank k g$ and $0.72 blank k g$ . Taking $g equals 10 blank m divided by s to the power of 2 end exponent$ , find the work done (in joules) by the string on the block of mass $0.36 blank k g$ during the first second after the system is released from rest

A light inextensible string that goes over a smooth fixed pulley as shown in the figure connects two blocks of masses $0.36 blank k g$ and $0.72 blank k g$ . Taking $g equals 10 blank m divided by s to the power of 2 end exponent$ , find the work done (in joules) by the string on the block of mass $0.36 blank k g$ during the first second after the system is released from rest

physics-General

parallel

An object of mass $m$ is tied to a string of length $L$ and a variable horizontal force is applied on it which starts at zero and gradually increases until the string makes an angel $theta$ with the vertical. Work done by the force $F$ is

An object of mass $m$ is tied to a string of length $L$ and a variable horizontal force is applied on it which starts at zero and gradually increases until the string makes an angel $theta$ with the vertical. Work done by the force $F$ is

physics-General

A block of mass $m equals 25$ kg sliding on a smooth horizontal surface with a velocity $v equals 3 m s to the power of negative 1 end exponent$ meets the spring of spring constant $k equals 100 N m to the power of negative 1 end exponent$ fixed at one end as shown in figure. The maximum compression of the spring and velocity of block as is returns to the original position respectively are

A block of mass $m equals 25$ kg sliding on a smooth horizontal surface with a velocity $v equals 3 m s to the power of negative 1 end exponent$ meets the spring of spring constant $k equals 100 N m to the power of negative 1 end exponent$ fixed at one end as shown in figure. The maximum compression of the spring and velocity of block as is returns to the original position respectively are

physics-General

The relationship between the force F and position $x$ of a body is as shown in figure. The work done in displacing the body from $x equals 1 m$ to $x equals 5$ m will be

The relationship between the force F and position $x$ of a body is as shown in figure. The work done in displacing the body from $x equals 1 m$ to $x equals 5$ m will be

physics-General

parallel

Three objects $A comma B$ and $C$ are kept in a straight line on a frictionless horizontal surface. These have masses $m comma blank 2 m$ and $m$ respectively. The object $A$ moves towards $B$ with a speed $9 blank m divided by s$ and makes an elastic collision with it. Thereafter, $B$ makes completely inelastic collision with $C$ . All motions occur on the same straight line. Find the final speed (in $m divided by s$ ) of the object $C$

Three objects $A comma B$ and $C$ are kept in a straight line on a frictionless horizontal surface. These have masses $m comma blank 2 m$ and $m$ respectively. The object $A$ moves towards $B$ with a speed $9 blank m divided by s$ and makes an elastic collision with it. Thereafter, $B$ makes completely inelastic collision with $C$ . All motions occur on the same straight line. Find the final speed (in $m divided by s$ ) of the object $C$

physics-General

The relation between the displacement $X$ of an object produced by the application of the variable force $F$ is represented by a graph shown in the figure. If the object undergoes a displacement from $X equals 0.5 blank m$ to $X equals 2.5 blank m$ the work done will be approximately equal to

The relation between the displacement $X$ of an object produced by the application of the variable force $F$ is represented by a graph shown in the figure. If the object undergoes a displacement from $X equals 0.5 blank m$ to $X equals 2.5 blank m$ the work done will be approximately equal to