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This deck focuses on Exploring Behaviors Of Implicit Relations, giving you a quick way to review the definitions, rules, and examples that matter most for AP Calculus BC.
Study Exploring Behaviors Of Implicit Relations in AP Calculus BC with focused flashcards that help you recognize the idea, recall the key rule, and apply it in practice-style prompts.
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Find dxdy for xy=1 implicitly.
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dxdy=−xy. Use product rule: derivative of xy when product equals constant.
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This deck focuses on Exploring Behaviors Of Implicit Relations, giving you a quick way to review the definitions, rules, and examples that matter most for AP Calculus BC.
Work through these flashcards in short sessions. Try to answer each prompt before flipping the card, then revisit any cards you miss until the explanation feels automatic.
Answer: dxdy=−xy. Use product rule: derivative of xy when product equals constant.
Answer: Set dxdy=0 and solve for points. Zero slope occurs where numerator of dxdy equals zero.
Answer: dxdy=−xy. Use product rule: derivative of xy when product equals constant.
Answer: dxdy=x2+13−2xy. Apply product rule to x2y and solve for derivative.
Answer: dxdy=x+2y−2x−y. Apply product rule to xy and chain rule to other terms.
Answer: Product rule: xdxdy+y. Derivative of product xy requires both terms.
Answer: Where the concavity of the curve changes. Where second derivative changes sign, indicating concavity shift.
Answer: dxdy=y2x2. Apply chain rule to both cubic terms and simplify.
Answer: dxdy=yx. Differentiate both sides and solve for dxdy.
Answer: dxdy=12x−cos(x). Direct differentiation since y appears linearly.
Answer: dxdy=−exe−y. Apply chain rule to both exponential terms separately.
Answer: dxdy=y2x2. Apply chain rule to both cubic terms and simplify.
Answer: dxdy=12x−cos(x). Direct differentiation since y appears linearly.
Answer: dxdy=yx. Differentiate both sides and solve for dxdy.
Answer: 2y1dxdy. Chain rule: derivative of y is 2y1.
Answer: Set dxdy=0 and solve for points. Zero slope occurs where numerator of dxdy equals zero.
Answer: Differentiating both sides of an equation with respect to x. Treats y as function of x, applying chain rule when needed.
Answer: cos(y)dxdy. Chain rule applied to sine function with y as argument.
Answer: To differentiate composite functions. Essential for differentiating functions of y with respect to x.
Answer: dxdy=−yx. Solve for dxdy by isolating it algebraically.
Answer: To find dxdy for equations not solved for y. Allows finding slopes without solving for y explicitly.
Answer: Product rule: xdxdy+y. Derivative of product xy requires both terms.
Answer: cos(y)dxdy. Chain rule applied to sine function with y as argument.
Answer: An equation involving multiple variables not solved for one variable. Contrasts with explicit relations where one variable is isolated.
Answer: dxdy=−3yx. Apply chain rule to 3y2 term in ellipse equation.
Answer: dxdy=−3yx. Apply chain rule to 3y2 term in ellipse equation.
Answer: An equation involving multiple variables not solved for one variable. Contrasts with explicit relations where one variable is isolated.
Answer: Where the concavity of the curve changes. Where second derivative changes sign, indicating concavity shift.
Answer: dxdy=x+2y−2x−y. Apply product rule to xy and chain rule to other terms.
Answer: A point where dxdy is zero or undefined. Points where slope is zero or vertical tangent occurs.
Answer: Determine where dydx=0. Infinite slope occurs where denominator of dxdy is zero.
Answer: A function defined by an implicit relation. Function where relationship between variables is given implicitly.
Answer: dxdy=x2+2y−2xy. Use product rule on x2y and chain rule on y2.
Answer: dxdy=−exe−y. Apply chain rule to both exponential terms separately.
Answer: dxdy=x2+13−2xy. Apply product rule to x2y and solve for derivative.
Answer: 2y1dxdy. Chain rule: derivative of y is 2y1.
Answer: A point where dxdy is zero or undefined. Points where slope is zero or vertical tangent occurs.
Answer: To differentiate composite functions. Essential for differentiating functions of y with respect to x.
Answer: dxdy=−yx. Solve for dxdy by isolating it algebraically.
Answer: Determine where dydx=0. Infinite slope occurs where denominator of dxdy is zero.
Answer: To find dxdy for equations not solved for y. Allows finding slopes without solving for y explicitly.
Answer: dxdy=2y2−x2. Apply chain rule to cubic terms with different coefficients.
Answer: exy(y+xdxdy). Chain rule on exponential with product rule for xy.
Answer: dxdy=2y2−x2. Apply chain rule to cubic terms with different coefficients.
Answer: A function defined by an implicit relation. Function where relationship between variables is given implicitly.
Answer: exy(y+xdxdy). Chain rule on exponential with product rule for xy.
Answer: dxdy=x2+2y−2xy. Use product rule on x2y and chain rule on y2.
Answer: Differentiating both sides of an equation with respect to x. Treats y as function of x, applying chain rule when needed.