Final Answer:
The helix r(t) = sin(t), cos(t), t intersects the sphere x² + y² + z² = 37 at two points: (-√10/√2, √10/√2, π/2) and (√10/√2, -√10/√2, 3π/2).
Step-by-step explanation:
To find the intersection points, we'll substitute the parametric equations of the helix r(t) = sin(t), cos(t), t into the equation of the sphere x² + y² + z² = 37.
Substituting sin(t) for x, cos(t) for y, and t for z in the equation of the sphere, we get:
(sin(t))² + (cos(t))² + t² = 37
1 + t² = 37
t² = 36
t = ±6
Now, since x = sin(t) and y = cos(t), using t = 6 and t = -6 in the parametric equations gives us the points of intersection:
When t = 6, x = sin(6) ≈ -√10/√2, y = cos(6) ≈ √10/√2, and z = 6.
When t = -6, x = sin(-6) ≈ √10/√2, y = cos(-6) ≈ -√10/√2, and z = -6.
Thus, the points of intersection are (-√10/√2, √10/√2, π/2) and (√10/√2, -√10/√2, 3π/2), where t = 6 and t = -6 respectively. These points lie on the given sphere and correspond to the intersections between the helix and the sphere.