GEOMETRY, FUR1 2015 VCAA 1 MC
CORE*, FUR1 2015 VCAA 3 MC
The closing price of a share on Wednesday was $160.
The closing price of the same share on Thursday was 3% less than its closing price on Wednesday.
The closing price of the same share on Friday was 4.5% more than its closing price on Thursday.
The closing price of the share on Friday is closest to
A. $157.38
B. $161.98
C. $162.18
D. $162.40
E. $172.22
CORE*, FUR1 2015 VCAA 1 MC
Fong’s gas bill is $368.40. If he pays this bill on time, it will be reduced by 5%.
In this case, the bill would be reduced by
- $1.84
- $5.00
- $18.42
- $184.20
- $349.98
PATTERNS, FUR1 2015 VCAA 5 MC
A family bought a country property.
At the end of the first year, there were two thistles per hectare on the property.
At the end of the second year, there were six thistles per hectare on the property.
At the end of the third year, there were 18 thistles per hectare on the property.
Assume the number of thistles per hectare continues to follow a geometric pattern of growth.
At the end of the seventh year, the number of thistles per hectare is expected to be
A. `972`
B. `1458`
C. `2916`
D. `4374`
E. `8748`
Calculus, SPEC2 2014 VCAA 11 MC
Let `(dy)/(dx) = x^3 - xy` and `y = 2` when `x = 1`.
Using Euler’s method with a step size of 0.1, the approximation to `y` when `x = 1.1` is
A. 0.9
B. 1.0
C. 1.1
D. 1.9
E. 2.1
CORE*, FUR1 2007 VCAA 1 MC
An agent charged $20 commission for selling a rare book for $500.
What percentage of the selling price is the commission?
A. 4%
B. 5%
C. 20%
D. 25%
E. 40%
CORE*, FUR1 2010 VCAA 4 MC
The price of a one-way airfare between two cities varies each day according to demand.
• On Monday the price is $160.
• The price on Tuesday is 25% greater than the price on Monday.
• The price on Wednesday is 10% less than the price on Tuesday.
• The price on Thursday is 25% less than the price on Wednesday.
• The price on Friday is 20% greater than the price on Thursday.
• The Saturday price is the same as the Friday price.
The price on Saturday is
A. $150
B. $162
C. $176
D. $288
E. $330
CORE*, FUR1 2010 VCAA 3 MC
Peter received a quote from the Artificial Grass Company for his new front lawn.
The quote is for $1880 plus a Goods and Services Tax (GST) of 10%.
The final amount that Peter pays for the new front lawn is
A. $188
B. $1880
C. $1890
D. $1899
E. $2068
CORE*, FUR1 2010 VCAA 2 MC
$6000 is invested in an account that earns simple interest at the rate of 3.5% per annum.
The total interest earned in the first four years is
A. `$70`
B. `$84`
C. `$210`
D. `$840`
E. `$885`
CORE*, FUR1 2010 VCAA 1 MC
Sally purchased an electronic game machine on hire purchase. She paid $140 deposit and then $25.50 per month for two years.
The total amount that Sally paid is
A. $191
B. $446
C. $612
D. $740
E. $752
CORE*, FUR1 2015 VCAA 2 MC
The second term of a Fibonacci-related sequence is 36 and the third term is 72.
The first term of this sequence is
- `2`
- `6`
- `18`
- `36`
- `108`
CORE, FUR1 2015 VCAA 11 MC
A log transformation is used to linearise the relationship between the weight of a mouse, in grams, and its age, in weeks.
When a least squares regression line is fitted to the transformed data, its equation is
`text(weight) = – 7 + 30 log_10(text(age))`
This equation predicts that a mouse aged five weeks has a weight, in grams, that is closest to
A. `14`
B. `21`
C. `23`
D. `41`
E. `143`
CORE, FUR1 2015 VCAA 2 MC
For an ordered set of data containing an odd number of values, the middle value is always
A. the mean.
B. the median.
C. the mode.
D. the mean and the median.
E. the mean, the median and the mode.
CORE*, FUR1 2006 VCAA 3-4 MC
The following information relates to Parts 1 and 2.
A farmer plans to breed sheep to sell.
In the first year she starts with 50 breeding sheep.
During the first year, the sheep numbers increase by 84%.
At the end of the first year, the farmer sells 40 sheep.
Part 1
How many sheep does she have at the start of the second year?
A. 2
B. 42
C. 52
D. 84
E. 92
Part 2
If `S_n` is the number of sheep at the start of year `n`, a difference equation that can be used to model the growth in sheep numbers over time is
| A. `S_(n+1) = 1.84S_n - 40` | `\ \ \ \ \ text(where)\ \ S_1 = 50` | |
| B. `S_(n+1) = 0.84S_n - 50` | `\ \ \ \ \ text(where)\ \ S_1 = 40` | |
| C. `S_(n+1) = 0.84S_n - 40` | `\ \ \ \ \ text(where)\ \ S_1 = 50` | |
| D. `S_(n+1) = 0.16S_n - 50` | `\ \ \ \ \ text(where)\ \ S_1 = 40` | |
| E. `S_(n+1) = 0.16S_n - 40` | `\ \ \ \ \ text(where)\ \ S_1 = 50` |
PATTERNS, FUR1 2006 VCAA 2 MC
The first three terms of a geometric sequence are `6, x, 54.`
A possible value of `x` is
A. `9`
B. `15`
C. `18`
D. `24`
E. `30`
CORE, FUR1 2006 VCAA 5-6 MC
The distribution of test marks obtained by a large group of students is displayed in the percentage frequency histogram below.
Part 1
The pass mark on the test was 30 marks.
The percentage of students who passed the test is
A. `7text(%)`
B. `22text(%)`
C. `50text(%)`
D. `78text(%)`
E. `87text(%)`
Part 2
The median mark lies between
A. `35 and 40`
B. `40 and 45`
C. `45 and 50`
D. `50 and 55`
E. `55 and 60`
CORE, FUR1 2006 VCAA 1-3 MC
The back-to-back ordered stemplot below shows the distribution of maximum temperatures (in °Celsius) of two towns, Beachside and Flattown, over 21 days in January.
Part 1
The variables
temperature (°Celsius), and
town (Beachside or Flattown), are
A. both categorical variables.
B. both numerical variables.
C. categorical and numerical variables respectively.
D. numerical and categorical variables respectively.
E. neither categorical nor numerical variables.
Part 2
For Beachside, the range of maximum temperatures is
A. `3°text(C)`
B. `23°text(C)`
C. `32°text(C)`
D. `33°text(C)`
E. `38°text(C)`
Part 3
The distribution of maximum temperatures for Flattown is best described as
A. negatively skewed.
B. positively skewed.
C. positively skewed with outliers.
D. approximately symmetric.
E. approximately symmetric with outliers.
PATTERNS, FUR1 2007 VCAA 6 MC
In the first three layers of a stack of soup cans there are 20 cans in the first layer, 19 cans in the second layer and 18 cans in the third layer.
This pattern of stacking cans in layers continues.
The maximum number of cans that can be stacked in this way is
A. `190`
B. `210`
C. `220`
D. `380`
E. `590`
CORE*, FUR1 2007 VCAA 3 MC
The difference equation
`t_(n+1) = at_n + 6 quad text (where) quad t_1 = 5`
generates the sequence
`5, 21, 69, 213\ …`
The value of `a` is
A. – 1
B. 3
C. 4
D. 15
E. 16
PATTERNS, FUR1 2007 VCAA 2 MC
The yearly membership of a club follows an arithmetic sequence.
In the club’s first year it had 15 members.
In its third year it had 29 members.
How many members will the club have in the fourth year?
A. `8`
B. `22`
C. `36`
D. `43`
E. `57`
CORE, FUR1 2007 VCAA 1-2 MC
The dot plot below shows the distribution of the number of bedrooms in each of 21 apartments advertised for sale in a new high-rise apartment block.
Part 1
The mode of this distribution is
A. `1`
B. `2`
C. `3`
D. `7`
E. `8`
Part 2
The median of this distribution is
A. `1`
B. `2`
C. `3`
D. `4`
E. `5`
CORE*, FUR1 2008 VCAA 1 MC
A sequence is generated by a first-order linear difference equation.
The first four terms of this sequence are 1, 3, 7, 15.
The next term in the sequence is
A. 17
B. 19
C. 22
D. 23
E. 31
`1,3,7,15\ ...`
`text(Sequence has the pattern,)`
`Τ_(n+1)=2T_n+1`
| `:. T_5` | `= 2 xx T_4 +1` |
| `=2 xx 15 +1` | |
| `=31` |
`=>E`
CORE*, FUR1 2008 VCAA 7 MC
The sequence `12, 15, 27, 42, 69, 111 …` can best be described as
A. fibonacci-related
B. arithmetic with `d > 1`
C. arithmetic with `d < 1`
D. geometric with `r > 1`
E. geometric with `r < 1`
PATTERNS, FUR1 2008 VCAA 3 MC
The values of the first seven terms of a geometric sequence are plotted on the graph above.
Values of `a` and `r` that could apply to this sequence are respectively
| (A) `a=90` | `\ \ \ \ r= – 0.9` |
| (B) `a=100` | `\ \ \ \ r= – 0.9` |
| (C) `a=100` | `\ \ \ \ r= – 0.8` |
| (D) `a=100` | `\ \ \ \ r=0.8` |
| (E) `a=90` | `\ \ \ \ r=0.9` |
Probability, MET2 2015 VCAA 14 MC
Calculus, MET2 2015 VCAA 4 MC
Consider the tangent to the graph of `y = x^2` at the point `(2, 4).`
Which of the following points lies on this tangent?
A. `text{(1, −4)}`
B. `(3, 8)`
C. `text{(−2, 6)}`
D. `(1, 8)`
E. `text{(4, −4)}`
Algebra, MET2 2014 VCAA 9 MC
The inverse of the function `f: R^+ -> R,\ f(x) = 1/sqrt x + 4` is
| A. | `f^-1: (4, oo) -> R` | `f^-1(x) = 1/(x - 4)^2` |
| B. | `f^-1: R^+ -> R` | `f^-1(x) = 1/x^2 + 4` |
| C. | `f^-1: R^+ -> R` | `f^-1(x) = (x + 4)^2` |
| D. | `f^-1:\ text{(−4, ∞)} -> R` | `f^-1(x) = 1/(x + 4)^2` |
| E. | `f^-1:\ text{(−∞, 4)} -> R` | `f^-1(x) = 1/(x - 4)^2` |
Graphs, MET2 2014 VCAA 2 MC
The linear function `f: D -> R, f (x) = 4 - x` has range `text{[−2, 6)}`.
The domain `D` of the function is
- `text{[−2, 6)}`
- `text{(−2, 2]}`
- `R`
- `text{(−2, 6]}`
- `text{[−6, 2]}`
Graphs, MET2 2014 VCAA 1 MC
The point `P\ text{(4, −3)}` lies on the graph of a function `f`. The graph of `f` is translated four units vertically up and then reflected in the `y`-axis.
The coordinates of the final image of `P` are
- `text{(−4, 1)}`
- `text{(−4, 3)}`
- `text{(0, −3)}`
- `text{(4, −6)}`
- `text{(−4, −1)}`
MATRICES, FUR1 2014 VCAA 2 MC
| `y - z` | `= 8` |
| `5x - y` | `= 0` |
| `x + z` | `= 4` |
The system of three simultaneous linear equations above can be written in matrix form as
| A. | `[[0,1,-1],[0,5,-1],[1,0,1]][[x],[y],[z]]=[[8],[0],[4]]` | B. | `[[0,1,-1],[5,-1,0],[1,0,1]][[x],[y],[z]]=[[8],[0],[4]]` |
| C. | `[[1,-1],[5,-1],[1,1]][[x],[y],[z]]=[[8],[0],[4]]` | D. | `[[0,5,1],[1,-1,0],[-1,0,1]][[x],[y],[z]]=[[8],[0],[4]]` |
| E. | `[[0,5,0],[-1,-1,0],[1,1,0]][[x],[y],[z]]=[[8],[0],[4]]` |
Calculus, EXT1 C1 2008 HSC 4a
A turkey is taken from the refrigerator. Its temperature is 5°C when it is placed in an oven preheated to 190°C.
Its temperature, `T`° C, after `t` hours in the oven satisfies the equation
`(dT)/(dt) = -k(T − 190)`.
- Show that `T = 190 - 185e^(-kt)` satisfies both this equation and the initial condition. (2 marks)
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- The turkey is placed into the oven at 9 am. At 10 am the turkey reaches a temperature of 29°C. The turkey will be cooked when it reaches a temperature of 80°C.
At what time (to the nearest minute) will it be cooked? (3 marks)
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Calculus, EXT1* C1 2004 HSC 7b
At the beginning of 1991 Australia’s population was 17 million. At the beginning of 2004 the population was 20 million.
Assume that the population `P` is increasing exponentially and satisfies an equation of the form `P = Ae^(kt)`, where `A` and `k` are constants, and `t` is measured in years from the beginning of 1991.
- Show that `P = Ae^(kt)` satisfies `(dP)/(dt) =kP`. (1 mark)
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- What is the value of `A`? (1 mark)
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- Find the value of `k`. (2 marks)
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- Predict the year during which Australia’s population will reach 30 million. (2 marks)
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Plane Geometry, 2UA 2004 HSC 6b
The diagram shows a right-angled triangle `ABC` with `∠ABC = 90^@`. The point `M` is the midpoint of `AC`, and `Y` is the point where the perpendicular to `AC` at `M` meets `BC`.
- Show that `ΔAYM ≡ ΔCYM`. (2 marks)
- Suppose that it is also given that `AY` bisects `∠BAC`. Find the size of `∠YCM` and hence find the exact ratio `MY : AC`. (3 marks)
Calculus, 2ADV C3 2004 HSC 5b
A particle moves along a straight line so that its displacement, `x` metres, from a fixed point `O` is given by `x = 1 + 3 cos 2t`, where `t` is measured in seconds.
- What is the initial displacement of the particle? (1 mark)
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- Sketch the graph of `x` as a function of `t` for `0 ≤ t ≤ pi`. (2 marks)
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- Hence, or otherwise, find when AND where the particle first comes to rest after `t = 0`. (2 marks)
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- Find a time when the particle reaches its greatest magnitude of velocity. What is this velocity? (2 marks)
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Financial Maths, 2ADV M1 2004 HSC 5a
Clare is learning to drive. Her first lesson is 30 minutes long. Her second lesson is 35 minutes long. Each subsequent lesson is 5 minutes longer than the lesson before.
- How long will Clare’s twenty-first lesson be? (1 mark)
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- How many hours of lessons will Clare have completed after her twenty-first lesson? (2 marks)
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- During which lesson will Clare have completed a total of 50 hours of driving lessons? (2 marks)
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Calculus, MET2 2012 VCAA 15 MC
Probability, MET2 2012 VCAA 12 MC
Demelza is a badminton player. If she wins a game, the probability that she will win the next game is 0.7. If she loses a game, the probability that she will lose the next game is 0.6. Demelza has just won a game.
The probability that she will win exactly one of her next two games is
A. `0.33`
B. `0.35`
C. `0.42`
D. `0.49`
E. `0.82`
CORE*, FUR2 2014 VCAA 1
The adult membership fee for a cricket club is $150. Junior members are offered a discount of $30 off the adult membership fee. --- 2 WORK AREA LINES (style=lined) --- Adult members of the cricket club pay $15 per match in addition to the membership fee of $150. --- 3 WORK AREA LINES (style=lined) --- If a member does not pay the membership fee by the due date, the club will charge simple interest at the rate of 5% per month until the fee is paid. Michael paid the $150 membership fee exactly two months after the due date. --- 2 WORK AREA LINES (style=lined) --- The cricket club received a statement of the transactions in its savings account for the month of January 2014. The statement is shown below. --- 2 WORK AREA LINES (style=lined) --- --- 3 WORK AREA LINES (style=lined) ---
Graphs, MET2 2012 VCAA 6 MC
Algebra, STD2 A1 EQ-Bank 2
If `A = P(1 + r)^n`, find `A` given `P = $300`, `r = 0.12` and `n = 3` (give your answer to the nearest cent). (2 marks)
Algebra, STD2 A1 EQ-Bank 21
What is the value of `5a^2-b`, if `a =-4` and `b = 3`. (2 marks)
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Algebra, MET2 2013 VCAA 5 MC
If `f: text{(−∞, 1)} -> R,\ \ f(x) = 2 log_e (1 - x)\ \ text(and)\ \ g: text{[−1, ∞)} -> R, g(x) = 3 sqrt (x + 1),` then the maximal domain of the function `f + g` is
- `text{[−1, 1)}`
- `(1, oo)`
- `text{(−1, 1]}`
- `text{(−∞, −1]}`
- `R`
Graphs, MET2 2013 VCAA 4 MC
Algebra, MET2 2013 VCAA 1 MC
The function with rule `f(x) = -3 tan(2 pi x)` has period
- `2/pi`
- `2`
- `1/2`
- `1/4`
- `2 pi`
Functions, EXT1′ F2 2015 HSC 14b
The cubic equation `x^3 – px + q = 0` has roots `alpha, beta` and `gamma`.
It is given that `alpha^2 + beta^2 + gamma^2 = 16` and `a^3 + beta^3 + gamma^3 = -9`.
- Show that `p = 8.` (1 mark)
- Find the value of `q.` (2 marks)
- Find the value of `alpha^4 + beta^4 + gamma^4.` (2 marks)
Calculus, EXT2 C1 2015 HSC 14a
- Differentiate `sin^(n - 1) theta cos theta`, expressing the result in terms of `sin theta` only. (2 marks)
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- Hence, or otherwise, deduce that
`int_0^(pi/2) sin^n theta\ d theta = ((n-1))/n int_0^(pi/2) sin^(n - 2) theta\ d theta`, for `n>1.` (2 marks)
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- Find `int_0^(pi/2) sin^4 theta\ d theta.` (1 mark)
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Harder Ext1 Topics, EXT2 2015 HSC 13c
A small spherical balloon is released and rises into the air. At time `t` seconds, it has radius `r` cm, surface area `S = 4 pi r^2` and volume `V = 4/3 pi r^3`.
As the balloon rises it expands, causing its surface area to increase at a rate of `((4 pi)/3)^(1/3)\ \text(cm)^2 text(s)^-1`. As the balloon expands it maintains a spherical shape.
- By considering the surface area, show that
- `(dr)/(dt) = 1/(8 pi r) (4/3 pi)^(1/3).` (2 marks)
- `(dr)/(dt) = 1/(8 pi r) (4/3 pi)^(1/3).` (2 marks)
- Show that
- `(dV)/(dt) = 1/2 V^(1/3).` (2 marks)
- `(dV)/(dt) = 1/2 V^(1/3).` (2 marks)
- When the balloon is released its volume is `8000\ text(cm³)`. When the volume of the balloon reaches `64000\ text(cm³)` it will burst.
- How long after it is released will the balloon burst? (2 marks)
Conics, EXT2 2015 HSC 13a
The hyperbolas `H_1:\ \ x^2/a^2 - y^2/b^2 = 1` and `H_2:\ \ x^2/a^2 - y^2/b^2 = -1` are shown in the diagram.
Let `P(a sec theta, b tan theta)` lie on `H_1` as shown on the diagram.
Let `Q` be the point `(a tan theta, b sec theta)`.
- Verify that the coordinates of `Q(a tan theta, b sec theta)` satisfy the equation for `H_2.` (1 mark)
- Show that the equation of the line `PQ` is `bx + ay = ab (tan theta + sec theta).` (2 marks)
- Prove that the area of `Delta OPQ` is independent of `theta.` (3 marks)
Functions, EXT1′ F1 2015 HSC 12c
- By writing `((x -2) (x - 5))/(x - 1)` in the form `mx + b + a/(x - 1)`, find the equation of the oblique asymptote of `y = ((x -2) (x - 5))/(x - 1).` (2 marks)
- Hence sketch the graph `y = ((x -2) (x - 5))/(x - 1)`, clearly indicating all intercepts and asymptotes. (2 marks)
Polynomials, EXT2 2015 HSC 12b
The polynomial `P(x) = x^4 - 4x^3 + 11x^2 - 14x + 10` has roots `a + ib` and `a + 2ib` where `a` and `b` are real and `b != 0.`
- By evaluating `a` and `b`, find all the roots of `P(x).` (3 marks)
- Hence, or otherwise, find one quadratic polynomial with real coefficients that is a factor of `P(x).` (1 mark)
Complex Numbers, EXT2 N1 2015 HSC 12a
The complex number `z` is such that `|\ z\ |=2` and `text(arg)(z) = pi/4.`
Plot each of the following complex numbers on the same half-page Argand diagram.
- `z` (1 mark)
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- `u = z^2` (1 mark)
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- `v = z^2 - bar z` (1 mark)
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Calculus, EXT2 C1 2015 HSC 11f
- Show that
`cot theta + text(cosec)\ theta = cot(theta/2).` (2 marks)
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- Hence, or otherwise, find
`int (cot theta + text(cosec)\ theta)\ d theta.` (1 mark)
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Graphs, EXT2 2015 HSC 11e
Find the value of `(dy)/(dx)` at the point `(2, text(−1))` on the curve `x + x^2 y^3 = -2.` (3 marks)
Complex Numbers, EXT2 N1 2015 HSC 11b
Consider the complex numbers `z = -sqrt 3 + i` and `w = 3 (cos\ pi/7 + i sin\ pi/7).`
- Evaluate `|\ z\ |.` (1 mark)
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- Evaluate `text(arg)(z).` (1 mark)
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- Find the argument of `z/w.` (1 mark)
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Mechanics, EXT2 2006 HSC 5c
A particle, `P`, of mass `m` is attached by two strings, each of length `l`, to two fixed points, `A` and `B`, which lie on a vertical line as shown in the diagram.
The system revolves with constant angular velocity `omega` about `AB`. The string `AP` makes an angle `alpha` with the vertical. The tension in the string `AP` is `T_1` and the tension in the string `BP` is `T_2` where `T_1 >= 0` and `T_2 >= 0`. The particle is also subject to a downward force, `mg`, due to gravity.
- Resolve the forces on `P` in the horizontal and vertical directions. (2 marks)
- If `T_2 = 0`, find the value of `omega` in terms of `l, g` and `alpha.` (1 mark)
Conics, EXT2 2006 HSC 4c
Let `P(p, 1/p), Q(q, 1/q)` and `R(r, 1/r)` be three distinct points on the hyperbola `xy = 1.`
- Show that the equation of the line, `l`, through `R`, perpendicular to `PQ`, is `y = pqx - pqr + 1/r.` (2 marks)
- Write down the equation of the line, `m`, through `P`, perpendicular to `QR.` (1 mark)
- The lines `l` and `m` intersect at `T.`
- Show that `T` lies on the hyperbola. (2 marks)
Functions, EXT1′ F2 2006 HSC 4a
The polynomial `p(x) = ax^3 + bx + c` has a multiple zero at 1 and has remainder 4 when divided by `x + 1`. Find `a, b` and `c`. (3 marks)
Conics, EXT2 2006 HSC 3b
The diagram shows the graph of the hyperbola
`x^2/144 - y^2/25 = 1.`
- Find the coordinates of the points where the hyperbola intersects the `x`-axis. (1 mark)
- Find the coordinates of the foci of the hyperbola. (2 marks)
- Find the equations of the directrices and the asymptotes of the hyperbola. (2 marks)
Functions, EXT1′ F1 2006 HSC 3a
The diagram shows the graph of `y =f(x)`. The graph has a horizontal asymptote at `y =2`.
Draw separate one-third page sketches of the graphs of the following:
- `y = (f(x))^2` (2 marks)
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- `y = 1/(f(x))` (2 marks)
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- `y = x\ f(x)` (2 marks)
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