Hiro is riding a carousel that is next to a wall. His horizontal distance C(t)C(t)C, left parenthesis, t, right parenthesis (in \text{m}mstart text, m, end text) away from the wall as a function of time ttt (in seconds) can be modeled by a sinusoidal expression of the form a\cdot\cos(b\cdot t)+da⋅cos(b⋅t)+da, dot, cosine, left parenthesis, b, dot, t, right parenthesis, plus, d. At t=0t=0t, equals, 0, when he starts, he is closest to the wall, a distance of 2\text{ m}2 m2, start text, space, m, end text away. After 7\pi7π7, pi seconds he reaches his mid-way point from the wall, which is 7\text{ m}7 m7, start text, space, m, end text away. Find C(t)C(t)C, left parenthesis, t, right parenthesis. \textit{t}tstart text, t, end text should be in radians.

.24

step-by-step explanation:

the probability is   .24

the first player had the highest probability of getting a silver marble

the game could be made fair by adding back the marble that was drawn after each draw

c. y = 1/4 x + 5

step-by-step explanation:

first, put the equation of the line on the graph into slope-intercept form

(y = mx + b):   y = -4x + 8

second, a perpendicular line has to have "an opposite/reciprocal slope" to the original slope. so, find the "m" value in your original equation (it's -4, right? )

original slope: m = -4   perpendicular slope: change the sign to its opposite and find the reciprocal ("flip" the number)

new slope is now positive (b/c the original slope was negative 4), and it's 1/4 (not the original slope of 4 or 4/1)

ℓσℓ ιт ∂σит тяσυвℓє мє αт αℓℓ ιм gℓα∂ тσ нєℓρ ρρℓ συт

ωє ιт ¢αи вє ωяιттєи αѕ

step-by-step explanation:

нσρє ι ¢συℓ∂ нєℓρ уσυ συт