Create a new post comparing and contrasting sine and cosine functions.

Compare and contrast the key features of the functions Latex: f(x)=\sin{x}
f
(
x
)
=
sin
x
and Latex: g(x)=\cos{x}\textsf{.} Keep in mind the following characteristics:
Midline
Amplitude
Period
Frequency
Maximum/minimum values
Latex: y\textsf{-}intercept
Think through what you know about sine functions, cosine functions, and transformations of functions. Do you think it is possible for a function to be both a sine function and a cosine function? Why or why not?

Sine and cosine functions are both trigonometric functions that represent the relationship between the angles of a right triangle and the lengths of its sides. While they have several similarities, they also differ in certain key characteristics.

Similarities:
1. Midline: Both sine and cosine functions have a midline that represents the average value of the function. The midline is the horizontal line that passes through the center of the graph.
2. Period: Both functions have a period, which is the distance between two consecutive complete cycles of the function. The period for both sine and cosine is 2π or 360 degrees.
3. Frequency: Frequency is the number of complete cycles that occur in a unit interval. In both sine and cosine functions, the frequency is 1. This means that there is exactly one complete cycle per unit interval.

Differences:
1. Amplitude: The amplitude of a function is the maximum distance between the function and its midline. For the sine function, the amplitude is always positive. In contrast, for the cosine function, the amplitude can be positive or negative.
2. Maximum/Minimum Values: The sine function reaches its maximum value of 1 and its minimum value of -1. On the other hand, the cosine function reaches its maximum value of 1 but its minimum value of -1 is shifted horizontally by a quarter of a period.
3. Y-intercept: The y-intercept of a function is the point at which the graph intersects the y-axis. For the sine function, the y-intercept is always 0. However, for the cosine function, the y-intercept is 1, as it is at maximum value at that point.

While sine and cosine functions have distinct characteristics, it is indeed possible for a function to be both a sine function and a cosine function. This can be achieved through phase shifts of the sine and cosine graphs. By introducing a horizontal translation, the sine graph can be transformed into a cosine graph, and vice versa. This means that a function can exhibit the characteristics of both sine and cosine, depending on the phase shift applied to its original sine or cosine form.