Final answer:
The independent variable in this scenario is the measurement of time, denoted as x. The dependent variable is the height of the tides, which can be represented by a trigonometric function. For example, let's say we use the sine function to model the height of the tides. The equation can be written as h(x) = A * sin(Bx + C) + D.
Step-by-step explanation:
The independent variable in this scenario is the measurement of time, denoted as x. The dependent variable is the height of the tides, which can be represented by a trigonometric function.
For example, let's say we use the sine function to model the height of the tides. The equation can be written as:
h(x) = A * sin(Bx + C) + D
- A represents the amplitude of the tides, in this case, 6 feet.
- B represents the frequency of the tides, which determines the time period for a complete cycle. In this scenario, since there are two high tides and two low tides in one day, the time period would be 12 hours, or 0.5 units if we use the x variable.
- C represents the phase shift, which determines the starting point of the cycle. Since the first high tide occurs at x = 0, there is no phase shift.
- D represents the vertical shift, which determines the average sea level. In this scenario, the average sea level is 0 feet.
Therefore, the equation to model the height of the tides using a trigonometric function would be:
h(x) = 6 * sin(0.5x)