The period of function f(x) = \(e^{log(sinx)}+(tanx)^3 - cosec(3x - 5)\)is
π
π/2
2π
2π/3
To find the period of the function \( f(x) = e^{\log(\sin x)} + (\tan x)^3 - \csc(3x - 5) \), we need to determine the period of each individual component and then find their least common multiple (LCM).
The function \( e^{\log(\sin x)} \) simplifies to \( \sin x \). The basic period of \( \sin x \) is \( 2\pi \).
The function \( (\tan x)^3 \) is based on \( \tan x \), which has a fundamental period of \( \pi \). Therefore, the period of \( (\tan x)^3 \) is also \( \pi \).
The function \(\csc(3x - 5)\) has the same period as \(\sin(3x - 5)\) since \(\csc(x) = 1/\sin(x)\). The period of \(\sin(3x)\) is \(\frac{2\pi}{3}\). Hence, the period of \(\csc(3x - 5)\) is also \(\frac{2\pi}{3}\).
To find the overall period of \( f(x) \), we take the LCM of the individual periods:
\(\text{LCM}(2\pi, \pi, \frac{2\pi}{3})\).
Converting these to a common base:
The LCM of \(\frac{6\pi}{3}\), \(\frac{3\pi}{3}\), and \(\frac{2\pi}{3}\) is \(2\pi\).
Thus, the period of the function \( f(x) \) is \( 2\pi \).
Conclusion: The correct answer is \( 2\pi \).
If cosθ = \(\frac{-3}{5}\)- and π < θ < \(\frac{3π}{2}\), then tan \(\frac{ θ}{2}\) + sin \(\frac{ θ}{2}\)+ 2cos \(\frac{ θ}{2}\) =
If sin 2θ and cos 2θ are solutions of x2 + ax - c = 0, then
lim n→∞ \(\frac{1}{n^3}\) \(\sum_{k=1}^{n} k^{2} =\)
The maximum value of the function \[ f(x) = 3\sin^{12}x + 4\cos^{16}x \] is ?
Trigonometric equation is an equation involving one or more trigonometric ratios of unknown angles. It is expressed as ratios of sine(sin), cosine(cos), tangent(tan), cotangent(cot), secant(sec), cosecant(cosec) angles. For example, cos2 x + 5 sin x = 0 is a trigonometric equation. All possible values which satisfy the given trigonometric equation are called solutions of the given trigonometric equation.
A list of trigonometric equations and their solutions are given below:
| Trigonometrical equations | General Solutions |
| sin θ = 0 | θ = nπ |
| cos θ = 0 | θ = (nπ + π/2) |
| cos θ = 0 | θ = nπ |
| sin θ = 1 | θ = (2nπ + π/2) = (4n+1) π/2 |
| cos θ = 1 | θ = 2nπ |
| sin θ = sin α | θ = nπ + (-1)n α, where α ∈ [-π/2, π/2] |
| cos θ = cos α | θ = 2nπ ± α, where α ∈ (0, π] |
| tan θ = tan α | θ = nπ + α, where α ∈ (-π/2, π/2] |
| sin 2θ = sin 2α | θ = nπ ± α |
| cos 2θ = cos 2α | θ = nπ ± α |
| tan 2θ = tan 2α | θ = nπ ± α |