Question
The general value of
satisfies the equation
is
The correct answer is: ![open left parenthesis 6 n plus 1 right parenthesis pi over 18 comma straight for all n element of Z 2 close parentheses](data:image/png;base64,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)
Related Questions to study
A block of weight W is suspended by a string of fixed length. The ends of the string are held at various positions as shown in the figures below. In which case, if any, is the magnitude of the tension along the string largest?
A block of weight W is suspended by a string of fixed length. The ends of the string are held at various positions as shown in the figures below. In which case, if any, is the magnitude of the tension along the string largest?
If
then the general solution of x=
If
then the general solution of x=
An ideal string is passing over a smooth pulley as shown. Two blocks and are connected at the ends of the string. If = 1 kg and tension in the string is 10 N, mass m2 is equal to ![open parentheses straight g equals 10 straight m divided by straight s squared close parentheses](data:image/png;base64,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)
![](data:image/png;base64,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)
An ideal string is passing over a smooth pulley as shown. Two blocks and are connected at the ends of the string. If = 1 kg and tension in the string is 10 N, mass m2 is equal to ![open parentheses straight g equals 10 straight m divided by straight s squared close parentheses](data:image/png;base64,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)
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)
; then the general solution of A=
; then the general solution of A=
Three forces , and act on an object simultaneously. These force vectors are shown in the following free-body diagram. In which direction does the object accelerate?
Three forces , and act on an object simultaneously. These force vectors are shown in the following free-body diagram. In which direction does the object accelerate?
The general solution of
is
The general solution of
is
If
then x = - ....
Sin2x + Cos2x = 1
If
then x = - ....
Sin2x + Cos2x = 1
The general solution of
i
tan ( A - B) = tan A - tan B / 1 + tan A. tan B
The general solution of
i
tan ( A - B) = tan A - tan B / 1 + tan A. tan B
If
then ![Error converting from MathML to accessible text.](data:image/png;base64,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)
If
then ![Error converting from MathML to accessible text.](data:image/png;base64,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)
The most general value of
satisfying the equations
is
The most general value of
satisfying the equations
is
The smallest value of
satisfying the equation
IS
The smallest value of
satisfying the equation
IS
If
and
is acute then ![theta](data:image/png;base64,iVBORw0KGgoAAAANSUhEUgAAAAsAAAANCAYAAAB/9ZQ7AAAACXBIWXMAAA7EAAAOxAGVKw4bAAAABGJhU0UAAAAMyZLetQAAAJNJREFUeNpjYMAE1kC8DoifAvFBIDZnwAHMoQqZoHxRIL6LS/EFIJZGE9sBxHroCl2AeD4WA5YDsRe64GwgDsKiGOQsN3TBa0D8HwcWR1YI8tAnLKZiFQfp3ItFsSkQr8EVZOigHogT0QV5oMGGDASB+BwQs2EL4ytAnAdlawDxcSD2wRUhelDTfwHxJSD2Y6AEAAAtDR3FA6PhyAAAAE90RVh0TWF0aE1MADxtYXRoIHhtbG5zPSJodHRwOi8vd3d3LnczLm9yZy8xOTk4L01hdGgvTWF0aE1MIj48bWk+JiN4M0I4OzwvbWk+PC9tYXRoPpXIFCkAAAAASUVORK5CYII=)
If
and
is acute then ![theta](data:image/png;base64,iVBORw0KGgoAAAANSUhEUgAAAAsAAAANCAYAAAB/9ZQ7AAAACXBIWXMAAA7EAAAOxAGVKw4bAAAABGJhU0UAAAAMyZLetQAAAJNJREFUeNpjYMAE1kC8DoifAvFBIDZnwAHMoQqZoHxRIL6LS/EFIJZGE9sBxHroCl2AeD4WA5YDsRe64GwgDsKiGOQsN3TBa0D8HwcWR1YI8tAnLKZiFQfp3ItFsSkQr8EVZOigHogT0QV5oMGGDASB+BwQs2EL4ytAnAdlawDxcSD2wRUhelDTfwHxJSD2Y6AEAAAtDR3FA6PhyAAAAE90RVh0TWF0aE1MADxtYXRoIHhtbG5zPSJodHRwOi8vd3d3LnczLm9yZy8xOTk4L01hdGgvTWF0aE1MIj48bWk+JiN4M0I4OzwvbWk+PC9tYXRoPpXIFCkAAAAASUVORK5CYII=)
If
then x=
If
then x=
The adjoining figure shows a force of 40 N pulling a body of mass 5 kg in a direction above the horizontal. The body is in rest on a smooth horizontal surface. Assuming acceleration of free-fall is 10 . Which of the following statements I and II is/are correct?
I) The weight of the 5 kg mass acts vertically downwards
II) The net vertical force acting on the body is 30 N.
The adjoining figure shows a force of 40 N pulling a body of mass 5 kg in a direction above the horizontal. The body is in rest on a smooth horizontal surface. Assuming acceleration of free-fall is 10 . Which of the following statements I and II is/are correct?
I) The weight of the 5 kg mass acts vertically downwards
II) The net vertical force acting on the body is 30 N.
A sphere of mass m is kept in equilibrium with the help of several springs as shown in the figure. Measurement shows that one of the springs applies a force on the sphere. With what acceleration the sphere will move immediately after this particular spring is cut?
A sphere of mass m is kept in equilibrium with the help of several springs as shown in the figure. Measurement shows that one of the springs applies a force on the sphere. With what acceleration the sphere will move immediately after this particular spring is cut?