Home
Class 12
PHYSICS
A beam of length l is supported at one ...

A beam of length `l` is supported at one end. If `W` is the uniform load per unit length, the bending moment `M` at a distance `x` from the end is given by `M=1/2l x-1/2W x^2dot` Find the point on the beam at which the bending moment has the maximum value.

Promotional Banner

Similar Questions

Explore conceptually related problems

A beam of length l is supported at one end.If W is the uniform load per unit length,the bending moment M at a distance x from the end is given by M=(1)/(2)lx-(1)/(2)Wx^(2). Find the point on the beam at which the bending moment has the maximum value.

A beam is supported at the two ends and is uniformly loaded.The bending moment M at a distance x from one end is given by M=(WL)/(2)x-(W)/(2)x^(2). Find the point at which M is maximum.

A beam is supported at the two ends and is uniformly loaded.The bending moment M at a distance x from one end is given by M=(Wx)/(3)-(W)/(3)(x^(3))/(L^(2)). Find the point at which M is maximum.

A beam is supported at the two ends and is uniformly loaded.The bending moment M at a distance x from one end is given by M=(WL)/(2)x-(W)/(2)x^(2)M=(Wx)/(3)-(W)/(3)(x^(3))/(L^(2)) Find the point at which M is maximum in each case.

A uniform rope of length of length L is pulled by a force F on a smooth surface. Find tension in the rope at a distance x from the end where force is applied.

The radius of gyration of a uniform rod of mass m and length l about an axis perpendicular to its length and at distance l/4 from its one end will be

A string of length L and mass M hangs freely from a fixed point. Then the velocity of transverse waves along the string at a distance x from the free end is

A uniform rope of mass M and length L , on which a force F is applied at one end, then find stress in the ropw at a distance x form the end where force is applied?

The moment of inertia of a thin rod of mass M and length L about an axis perpendicular to the rod at a distance L/4 from one end is

A uniform thin rod of length 3 L is bent at right angles at a distance L from one end as shown in Fig. If length of rod is 1.8m , find the co-ordinates and position vector of the mass of the system.