The problem asks us to analyze the graph of the function $y = \tan(\theta - \frac{\pi}{2})$. We are to determine its characteristics based on its graph.

TrigonometryTrigonometric FunctionsTangent FunctionGraphingPeriodAsymptotesTransformations
2025/4/30

1. Problem Description

The problem asks us to analyze the graph of the function y=tan(θπ2)y = \tan(\theta - \frac{\pi}{2}). We are to determine its characteristics based on its graph.

2. Solution Steps

The general form of the tangent function is y=atan(b(xc))+dy = a \tan(b(x-c)) + d, where:
- a|a| is the vertical stretch factor.
- The period is πb\frac{\pi}{|b|}.
- cc is the horizontal shift.
- dd is the vertical shift.
For the given function y=tan(θπ2)y = \tan(\theta - \frac{\pi}{2}), we have a=1a = 1, b=1b = 1, c=π2c = \frac{\pi}{2}, and d=0d = 0.
Therefore, the period of the function is π1=π\frac{\pi}{|1|} = \pi, and the graph is shifted horizontally by π2\frac{\pi}{2} to the right.
The standard tangent function y=tan(θ)y = \tan(\theta) has vertical asymptotes at θ=π2+nπ\theta = \frac{\pi}{2} + n\pi, where nn is an integer.
For y=tan(θπ2)y = \tan(\theta - \frac{\pi}{2}), the vertical asymptotes occur when θπ2=π2+nπ\theta - \frac{\pi}{2} = \frac{\pi}{2} + n\pi, which simplifies to θ=π+nπ=(n+1)π\theta = \pi + n\pi = (n+1)\pi.
So, the vertical asymptotes are at θ=π,2π,3π,\theta = \pi, 2\pi, 3\pi, \dots and θ=0,π,2π,\theta = 0, -\pi, -2\pi, \dots
From the graph, we can see that the period is indeed π\pi.
The standard tan(x)\tan(x) function has asymptotes at x=±π2x = \pm\frac{\pi}{2}.
The given function y=tan(θπ2)y = \tan(\theta - \frac{\pi}{2}) has asymptotes shifted by π2\frac{\pi}{2} to the right. Thus, asymptotes are at π2±π2+nπ\frac{\pi}{2} \pm \frac{\pi}{2} + n\pi where n is an integer. When n=0n = 0 and we choose the positive option, we get π2+π2=π\frac{\pi}{2} + \frac{\pi}{2} = \pi and when we choose the negative option we get zero.

3. Final Answer

The period of the function y=tan(θπ2)y = \tan(\theta - \frac{\pi}{2}) is π\pi. The graph has vertical asymptotes at integer multiples of π\pi.

Related problems in "Trigonometry"

We need to find the exact value of $\sin(\frac{3\pi}{4})$.

TrigonometrySine FunctionUnit CircleAngle CalculationReference Angle
2025/5/1

Determine the quadrant in which $\csc \theta > 0$ and $\sec \theta < 0$.

Trigonometric FunctionsQuadrantsSineCosineCosecantSecant
2025/5/1

We need to find the value of $sec(\frac{11\pi}{6})$.

TrigonometrySecant FunctionUnit CircleAngle ConversionReference Angle
2025/5/1

We are given that $\sin 3y = \cos 2y$ and $0^{\circ} \le y \le 90^{\circ}$. We are asked to find the...

TrigonometryTrigonometric EquationsSineCosine
2025/4/29

We are given that $\tan x = 1$, where $0^\circ \le x \le 90^\circ$. We are asked to evaluate $\frac{...

TrigonometryTrigonometric IdentitiesTangent FunctionSine FunctionCosine FunctionAngle Evaluation
2025/4/29

Prove the following trigonometric identity: $\frac{1 + \sin\theta - \cos\theta}{1 + \sin\theta + \co...

Trigonometric IdentitiesTrigonometric EquationsProof
2025/4/29

The problem asks us to find an angle given its tangent value. We are given that $\tan(x) = 0.4774$ a...

TrigonometryTangentArctangentAngle Calculation
2025/4/28

Prove the trigonometric identity: $tan(\frac{\theta}{2}) + cot(\frac{\theta}{2}) = 2csc(\theta)$.

Trigonometric IdentitiesDouble Angle FormulaTangentCotangentCosecantProof
2025/4/28

The image shows a set of trigonometry problems. I will solve problem number 15: $(cos\theta + cos\al...

TrigonometryTrigonometric IdentitiesCosine Angle Sum/DifferenceHalf-Angle Formula
2025/4/28

We are given that $\sin{\alpha} = \frac{4}{5}$ and $\frac{\pi}{2} \le \alpha < \pi$. We need to find...

TrigonometrySine FunctionAngle Addition FormulaTrigonometric Identities
2025/4/27