A) The sum of the powers of all terms in the polynomial. B) The number of terms in the polynomial. C) The coefficient of the highest power term. D) The highest power of the variable in the polynomial.
A) Finding the exact values of data points. B) Estimating values between known data points. C) Manipulating data to fit a specific pattern. D) Ignoring data outliers for better accuracy.
A) Minimizing the sum of squared differences between data points and the approximating function. B) Using the median instead of the mean. C) Maximizing the outliers in the data. D) Fitting the data points exactly.
A) Weierstrass Approximation Theorem B) Cauchy's Mean Value Theorem C) Rolle's Theorem D) Bolzano's Intermediate Value Theorem
A) Interpolation is used for discrete data while approximation is for continuous data. B) Approximation provides exact values while interpolation provides estimates. C) Interpolation is less accurate than approximation. D) Interpolation passes through all data points while approximation does not.
A) They are piecewise polynomial functions used for interpolation. B) They are rational functions used for error analysis. C) They are trigonometric functions used for data smoothing. D) They are exponential functions used for least squares approximation.
A) The number of data points in the approximation. B) The sum of all computed errors in the approximation. C) The difference between the actual function and its approximation. D) The absence of errors in the approximation.
A) It introduces more noise into the data for better accuracy. B) It increases the complexity of the approximation model. C) It prevents overfitting and improves the generalization of the approximation. D) It applies more weight to outliers in the data.
A) They require fewer data points for accurate results. B) They are less computationally intensive than univariate techniques. C) They can handle functions of multiple variables and interactions. D) They are limited to only linear approximations. |