Consider the quadratic function , for .
Write in the form .
Describe the transformations that transform the graph of to the graph of .
State the range of .
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Let
The graph of is a transformation of the graph of .
Give a full geometric description of the transformations from to .
Write down the equations of the two asymptotes of the graph of .
Find the value of for which .
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Let , . A function is defined by
State the domain and range of .
Give a full geometric description of the transformations from to .
Solve .
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The point lies on the graph of . The domain of is and the range of is .
A new function is defined by .
Find the coordinates of the image of on the graph of .
Find the domain and range of .
Describe fully the transformations that transform the graph of to the graph of .
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Let , , and let , .
Describe the transformations that transform the graph of to the graph of .
State the equations of the asymptotes of the graph of .
Solve .
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Let , for . A function is defined by .
Describe the transformations that transform the graph of to the graph of .
State the equation of the horizontal asymptote of the graph of .
Solve .
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The graph of has a vertical asymptote , a horizontal asymptote , and passes through the point .
A new function is defined by

Give a full geometric description of the transformations which map the graph of to the graph of .
Find the coordinates of the image of on the graph of .
Find the equations of the asymptotes of the graph of .
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The graph of is obtained from the graph of by a vertical stretch followed by a translation. The vertex of is and the graph passes through the point .
Write in the form .
Give a full geometric description of the transformations from to .
Find the -intercepts of the graph of .
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Let , for . A function is defined by
Describe the transformations which map the graph of to the graph of .
Find the -intercept of the graph of .
Solve .
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Let
for . A function is defined by
Give a full geometric description of the transformations from to .
Find the coordinates of the point on the graph of with -coordinate .
The inverse function exists. Hence find and state the corresponding point on the graph of .
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The graph of
is obtained from the graph of by transformations. It has vertical asymptote , horizontal asymptote , and passes through the point .

Find the values of and .
Find the value of .
Find the coordinates of the points where the graph of intersects the line .
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Let and , for .
Describe the transformations that transform the graph of to the graph of .
Find the period and range of .
Find the smallest positive value of for which is a maximum.
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The graph of has -intercepts at and . The range of is .
A function is defined by
Find the coordinates of the images of the two -intercepts on the graph of .
Describe the transformations that transform the graph of to the graph of .
State the range of .
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The graph of has stationary points at and . A transformed function is defined by
where and . The images of and on the graph of are and respectively.
Find and .
Find and .
Hence write in terms of .
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Let , for . A function is defined by
Describe a sequence of transformations that transforms the graph of to the graph of .
State the equations of the horizontal asymptotes of the graph of .
Find the -coordinate of the point where the graph of crosses the line .
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Let , . A function is defined by
Describe the transformations that transform the graph of to the graph of .
State the domain of and the equation of its vertical asymptote.
Solve .
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A function has domain and range . The point lies on the graph of .
A function is defined by
Describe the transformations which map the graph of to the graph of .
Find the coordinates of the image of the point on the graph of .
Find the domain and range of .
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Let
for . A function is defined by
Give a full geometric description of the transformations from the graph of to the graph of .
Find the coordinates of the local maximum points of the graph of .
Solve for .
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Let
for . A function is defined by

Describe how the graph of is obtained from the graph of .
Solve for .
Find the minimum value of and the values of at which it occurs.
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Let
for . For , a function is defined by
The graph of passes through the point .
Find the value of .
Describe the transformations from to .
Find the -intercept of the graph of .
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A function has domain and range . The points and lie on the graph of . A new function is defined by .
Describe fully the transformations that transform the graph of to the graph of .
Find the coordinates of the images of and on the graph of .
Find the domain and range of .
It is known that only when and . Find the solutions of .
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The graph of a quadratic function is obtained from the graph of by transformations. The vertex of the graph of is and the graph passes through .
Write in the form .
Describe fully the transformations that transform the graph of to the graph of .
Solve .
point on has coordinates . Find the coordinates of its image on .
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The function has the form , where , and are constants. The graph of has vertical asymptote , horizontal asymptote , and passes through the point .
Write down the values of and .
Find the value of , and hence write an expression for .
Describe fully the transformations that transform the graph of to the graph of .
Find the coordinates of the points where the graph of intersects the line .
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Let , for . A function is defined by .
Describe fully the transformations that transform the graph of to the graph of .
Find the equation of the horizontal asymptote and the -intercept of the graph of .
Solve .
Find .
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Let , for . A function is defined by .
Describe fully the transformations that transform the graph of to the graph of .
Find the coordinates of the vertex and the intercepts with the coordinate axes.
Sketch the graph of , clearly indicating the vertex and intercepts.
Solve .
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Let , for , and let .
Write in vertex form, and describe the transformations that transform the graph of to the graph of .
Describe how the graph of is obtained from the graph of , and state the coordinates of its local minimum points.
Solve .
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A one-to-one function has domain and range . The point lies on an extension of the graph of .
A function is defined by
Find the image of the point on the graph of .
Find the domain and range of .
Find an expression for in terms of .
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The polynomial function has zeros at , and . A function is defined by
Find the values of for which .
Describe the transformations that transform the graph of to the graph of .
point on the graph of has coordinates . Find the coordinates of its image on the graph of .
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Let , for . A function is defined by

Describe fully the transformations which map the graph of to the graph of .
The graph of has two stationary points.
Find the coordinates of the two stationary points of .
Hence find the coordinates of the corresponding stationary points of . If you did not obtain the stationary points in part (b)(i), use and .
Solve .
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A fountain jet is modelled by a transformed parabola , where is the horizontal distance in metres and is the height in metres. The maximum height is m and occurs when . The jet passes through .

Find in the form .
Consider the graph of as a transformation of .
Describe fully the transformations from to .
State the coordinates of the image of the vertex of .
Find the horizontal distance between the two points where the jet is at ground level.
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The concentration of a medicine, in mg per litre, is modelled by
where is the time in hours. The horizontal asymptote is and the graph passes through .

Find the values of and .
The graph of is obtained from the graph of .
Describe fully the transformations.
State the equations of the two asymptotes.
The medicine is considered active while . Find how long after the medicine remains active.
Find the average concentration during the first hours.
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Let . The temperature , in degrees Celsius, of a cooling object is modelled by
where is measured in hours and .
Describe fully the transformations from the graph of to the graph of .
Use the model to answer the following.
Find .
State the horizontal asymptote of the graph of .
Explain the meaning of this asymptote in the context of the model.
Find the time at which the temperature first reaches .
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A function has domain and range . The zeros of are , and . A function is defined by
![Possible graph of y=f(x) on [-4,6].](https://d2zrdy595vmtgz.cloudfront.net/7431938df45ad9c5703fd3b6899b01e3a049fad4.png)
Describe fully the transformations which map the graph of to the graph of .
Determine the domain and range of .
Find the domain of .
Find the range of .
Solve .
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Let
For , define
It is given that .
Find the value of .
Using this value of , describe the transformations from to .
Using the unrounded exact value of , solve .
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For a function , two vertical transformations are considered: a vertical stretch by scale factor , where , and a vertical translation by units. The transformations are applied in different orders.
Write an expression for the function obtained by applying the stretch first and then the translation.
Write an expression for the function obtained by applying the translation first and then the stretch.
It is known that the graph obtained by translating first and then stretching is 10 units vertically above the graph obtained by stretching first and then translating. A point whose original -coordinate is has final -coordinate on the graph obtained by stretching first and then translating. Assume additionally that . Find and .
Prove that the two vertical transformations commute if and only if or .
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Let , for . A function is defined by , for .
Describe fully the transformations that transform the graph of to the graph of .
State the period and range of .
Solve for .
Find the values of in the interval at which attains its maximum and minimum values.
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A differentiable function has stationary points and , and a point of inflexion . A transformed function is defined by , where and . The images of and on the graph of are and respectively.
Find the values of and .
Find the values of and .
Find the coordinates of the image of on the graph of .
Assuming exists on a suitable restricted domain, find in terms of .
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Let , for . A function is defined by .
Write in vertex form.
Let . Find and describe the transformations from to .
Find the zeros of .
Describe how the graph of is obtained from the graph of .
Solve .
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Let , for . A function is defined by .
(a)(i) Describe fully the transformations that transform the graph of to the graph of .
(a)(ii) State the equations of the horizontal asymptotes of the graph of .
(b)(i) Find the -coordinate of the point where the graph of crosses its midline.
(b)(ii) Find and state its domain.
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The height metres of a cabin on a Ferris wheel is modelled by
where is the time in minutes after the wheel starts moving. The maximum height is m, the minimum height is m, and one complete rotation takes minutes. The cabin is at maximum height when .

Find the values of , , and , taking , and .
Consider as a transformation of .
Describe the horizontal transformations from to the graph of .
Describe the vertical transformations from to the graph of .
During the first rotation, find the times when the cabin is m above the ground.
Find the length of time during the first rotation for which the cabin is above m.
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Let , for . For , define
Find the coordinates of the local maximum and local minimum points of .
The horizontal distance between the two local minimum points of is .
Show that .
Using this value of , find the local maximum point of .
Using , solve .
Describe fully the transformations from to when .
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Let , for . A function is defined by

Describe fully the transformations from the graph of to the graph of .
Consider the asymptotes and intercept of .
State the equations of the two horizontal asymptotes.
Find the -intercept of the graph of .
Find the area between the graph of and its lower horizontal asymptote for .
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A function has points , and on its graph. A transformed function is defined by
where and . The corresponding image points on the graph of are , and .
Use the images of and to find and .
Use the images of and to find and .
Verify that is mapped to .
Find the image of the -coordinate of .
Find the image of the -coordinate of .
Suppose is differentiable and has a stationary point at . Show that the corresponding stationary point of has -coordinate .
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A function has three marked points , and on its graph. The finite region between the graph of , the -axis, and the lines and has area square units. A transformed function is defined by
where and . The images of , and on the graph of are , and respectively.

Find the values of and .
Find the values of and .
Find the area of the region between the graph of , the -axis, and the lines and .
Suppose instead that a region under from to has area and on this interval. For , where and , show that the corresponding signed area is
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The graph of is transformed horizontally. A horizontal stretch by scale factor , where , and a horizontal translation by units are applied in different orders. A point on the original graph is followed through the transformations.
Find the image of if the stretch is applied first and then the translation.
Find the image of if the translation is applied first and then the stretch.
The graph of has zeros at and . A horizontal stretch by scale factor is applied first, followed by a translation units. The new zeros are at and . Find .
Deduce the function notation for the transformed graph in part (b).
Show that a horizontal stretch by scale factor and a horizontal translation by commute if and only if or .
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A parabolic arch is modelled as a transformation of the graph of . Its highest point is and it passes through . The model is written in the form
where .

Find , and .
Describe the transformations from to .
Find the -intercepts of the arch, giving exact values.
new family of arches is defined by . Determine the values of , where is real, for which the graph of has no -intercepts.
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A transformed reciprocal graph has equation
Its vertical asymptote is , its horizontal asymptote is , and it passes through .

Find , and .
Describe the transformations from to .
Find the exact area between the graph of and its horizontal asymptote from to .
Show that for any point on the graph of , the product of its horizontal and vertical directed distances from the asymptotes is constant.
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A transformed logarithmic function has vertical asymptote and passes through the points and . It is assumed to have the form
where .

Find , and .
Describe the transformations from to .
second graph is defined by . State the domain and vertical asymptote of .
Find the point of intersection of the graphs of and .
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A sinusoidal graph is a transformation of and has equation
where and . Consecutive maximum points occur at and , and the minimum point between them is .

Find and .
Find and one possible value of with .
Using the values found in part (a), solve for .
The graph is transformed to . Determine and if the maximum point is mapped to .
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Let , where .
Write in the form , and state the equations of its asymptotes.
Describe fully the transformations that transform the graph of to the graph of .
Find .
Find the coordinates of the points where the graphs of and intersect.
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Let , for . A function is defined by .
Describe fully the transformations that transform the graph of to the graph of .
Show that .
Find the coordinates of the stationary points of the graph of .
Solve .
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A point lies on the graph of . The two sequences of transformations applied to the graph of are:
Sequence A consists of a horizontal stretch by scale factor , followed by a translation unit to the right, followed by a vertical stretch by scale factor , followed by a translation units down.
Write the transformed function in the form .
Find the image of under Sequence A.
Sequence B consists of a translation unit to the right, followed by a horizontal stretch by scale factor , followed by a translation units down, followed by a vertical stretch by scale factor .
Write the transformed function in the form .
Find the image of under Sequence B.
horizontal translation by units to the right, where , and a horizontal stretch by scale factor , where , are applied in both possible orders. Determine the condition on and for the final graphs to be identical for every possible function . Justify your answer.
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Let , for . A function is defined by

Describe how the graph of is obtained from the graph of .
The local minimum points of occur where .
Write down the equation that must be solved to find the -coordinates of the local minimum points of .
Find the coordinates of the local minimum points of .
Solve .
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Let , for . A function is defined by
Describe fully the transformations from the graph of to the graph of .
Since is one-to-one, exists.
Find an expression for in terms of .
Find .
Find the fixed point of , that is, solve .
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For a real parameter , define

Describe the transformations from the graph of to the graph of .
Consider the asymptotes of .
State the equations of the asymptotes.
Hence describe the locus of the point of intersection of the asymptotes as varies.
Find the coordinates of the two points of intersection of the graph of with the line .
Prove that the distance between these two intersection points is independent of , and state this distance.
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Let
A transformed modulus function is defined by

Write in the form .
Describe the transformation represented by replacing with its modulus.
Find the coordinates of all local minimum points of .
Determine the range of . Justify your answer using transformations.
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Let be a one-to-one function with inverse . A transformed function is defined by
Describe fully the transformations from to .
point lies on . Find the corresponding point on .
Find an expression for in terms of .
Show that the image of under reflection in the line lies on the graph of .
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A transformation maps a point on the graph of a function to the point
Repeated applications of are considered, starting from a point on an initial graph. Let after applications of .
Find and .
Write down recurrence relations for and .
Find the fixed point of .
Show that .
Determine whether the sequence of points approaches the fixed point. Justify your answer.
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For each real value of , define
Each graph is obtained from the graph of by a transformation.

Describe the transformation from to .
State the equations of the asymptotes of .
Find the intersections of with the line .
Show that the distance between the two intersection points found in part (b) is independent of .
Deduce the set of centres of the family of graphs .
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The function
has a bell-shaped graph with maximum value . A transformed family is defined by
where and . The width of the graph of at height is the horizontal distance between the two points where .

Show that the two -coordinates where are .
Hence write the width at height in terms of .
particular graph in the family has maximum value and width at half its height above the horizontal asymptote. Find and .
It is known that
For the graph found in part (b), find the exact area between and its horizontal asymptote over all real .
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