f is decreasing Concave Down f has a relative min Mean Value Theorem L'Hospitals Intermediate Value Theorem f'(a)=1/(f^-1)'(b) Jump Discontinuity 2nd FTC Rate of Change Critical Value f' is decreasing Newton's Method f' is increasing Rolle's Theorem Normal Line f' has a turning point Area under the curve Concave Up Average Value of the Function Turning Point Derivative Displacement Point of Inflection Approximating Area Average Rate of Change 2nd reason for Discontinuity 1st reason for discontinuity Step Discontinuity f is increasing Point Discontinuity Acceleration 1st FTC 3rd Reason for Discontinuity Velocity Orthogonal Accumulation Function Distance Position f has a relative max Linear Approximations Differentiable f is decreasing Concave Down f has a relative min Mean Value Theorem L'Hospitals Intermediate Value Theorem f'(a)=1/(f^-1)'(b) Jump Discontinuity 2nd FTC Rate of Change Critical Value f' is decreasing Newton's Method f' is increasing Rolle's Theorem Normal Line f' has a turning point Area under the curve Concave Up Average Value of the Function Turning Point Derivative Displacement Point of Inflection Approximating Area Average Rate of Change 2nd reason for Discontinuity 1st reason for discontinuity Step Discontinuity f is increasing Point Discontinuity Acceleration 1st FTC 3rd Reason for Discontinuity Velocity Orthogonal Accumulation Function Distance Position f has a relative max Linear Approximations Differentiable
(Print) Use this randomly generated list as your call list when playing the game. There is no need to say the BINGO column name. Place some kind of mark (like an X, a checkmark, a dot, tally mark, etc) on each cell as you announce it, to keep track. You can also cut out each item, place them in a bag and pull words from the bag.
f is decreasing
Concave Down
f has a relative min
Mean Value Theorem
L'Hospitals
Intermediate Value Theorem
f'(a)=1/(f^-1)'(b)
Jump Discontinuity
2nd FTC
Rate of Change
Critical Value
f' is decreasing
Newton's Method
f' is increasing
Rolle's Theorem
Normal Line
f' has a turning point
Area under the curve
Concave Up
Average Value of the Function
Turning Point
Derivative
Displacement
Point of Inflection
Approximating Area
Average Rate of Change
2nd reason for Discontinuity
1st reason for discontinuity
Step Discontinuity
f is increasing
Point Discontinuity
Acceleration
1st FTC
3rd Reason for Discontinuity
Velocity
Orthogonal
Accumulation Function
Distance
Position
f has a relative max
Linear Approximations
Differentiable