A) Right- and left-hand derivatives B) Only the left-hand derivative C) Only the right-hand derivative D) No derivatives exist
A) Somewhere between a and b B) Outside the interval [a, b] C) At exactly a or b D) Only at the endpoints
A) The derivative is undefined B) The function is strictly increasing C) The function is strictly decreasing D) The function is constant on [a, b]
A) Indeterminate B) Greater than or equal to 0 C) Less than or equal to 0 D) Exactly 1
A) Always zero B) Negative infinity C) Less than or equal to 0 D) Greater than or equal to 0
A) It is negative B) It must be zero C) It is undefined D) It is positive
A) The mean value theorem B) Bolzano's theorem C) Taylor's theorem D) Fermat's stationary point theorem
A) f'(x+) = f'(y-) B) f'(x-) <= f'(x+) <= f'(y-) C) f'(x-) > f'(y-) D) f'(x+) >= f'(x-) >= f'(y+)
A) Non-real B) Step-wise C) Continuous D) Discontinuous
A) The set of all rational numbers B) The extended real line [-∞, ∞] C) The set of all complex numbers D) Only the interval (0, 1)
A) 0+ B) a C) 0- D) b
A) Cauchy B) Moritz Wilhelm Drobisch C) Bhāskara II D) Michel Rolle
A) 18th century B) 12th century C) 19th century D) 17th century
A) Exponential functions B) Absolute value functions C) Polynomial functions D) Trigonometric functions
A) Bhāskara II B) Michel Rolle C) Cauchy D) Giusto Bellavitis
A) 1823 B) 1834 C) 1691 D) 1846
A) Yes, but only for polynomials B) Yes, always C) Only if the function is a semicircle D) No
A) Bhāskara II B) Michel Rolle C) Cauchy D) Giusto Bellavitis
A) He preferred geometry B) They had not been invented yet C) He lacked formal training in calculus D) He considered them fallacious
A) Rational numbers B) Complex numbers C) Real numbers D) Integers
A) Integration by parts B) Mean value theorem C) Contradiction D) Mathematical induction
A) 2 intervals B) n intervals C) n+1 intervals D) n-1 intervals
A) Voorhoeve property B) Kaplansky's property C) Differentiable property D) Rolle's property
A) n = 2 B) n = 1 C) n = 0 D) The limit as n approaches infinity |