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Quasi-Linear Utility and Vertically Parallel Indifference Curves
Calculating the Vertical Shift of Indifference Curves
A consumer's preferences for free time (t) and consumption (c) are represented by the utility function U(t, c) = 8√t + c. One of the consumer's indifference curves passes through the point where t=4 and c=10. Another, higher indifference curve provides a total utility level of 30. What is the vertical distance between these two indifference curves, and why is this distance constant regardless of the amount of free time (t)?
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A consumer's preferences for goods X and Y can be represented by a utility function that is linear in good Y, such that U(X, Y) = v(X) + Y. Consider two different consumption bundles, A = (X₁, Y₁) and B = (X₁, Y₂), where Y₂ is greater than Y₁. What can be concluded about the consumer's marginal rate of substitution (the rate at which they are willing to trade Y for an additional unit of X) at these two bundles?
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Analyzing Indifference Curve Geometry
Predicting Consumer Behavior with Specific Preferences
Proving the Geometry of Quasi-Linear Preferences
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A consumer's preferences for two goods, X and Y, are described by a utility function that is linear with respect to good Y. This functional form implies that the consumer's indifference curves are vertically parallel. Consequently, the consumer's willingness to trade good Y for an additional unit of good X depends only on the amount of good X they currently have, and is completely unaffected by the amount of good ____ they possess.