Given \(y=\dfrac{\cos 2 x}{x^2}\), find the gradient of the tangent of its inverse function at \(\left(\dfrac{8 \sqrt{2}}{\pi^2}, \dfrac{\pi}{4}\right)\). (3 marks)
--- 7 WORK AREA LINES (style=lined) ---
Aussie Maths & Science Teachers: Save your time with SmarterEd
Given \(y=\dfrac{\cos 2 x}{x^2}\), find the gradient of the tangent of its inverse function at \(\left(\dfrac{8 \sqrt{2}}{\pi^2}, \dfrac{\pi}{4}\right)\). (3 marks)
--- 7 WORK AREA LINES (style=lined) ---
\(-\dfrac{\pi^2}{32}\)
\(y=\dfrac{\cos2x}{x^2}\)
\(\text{Inverse: Swap} \ \ x \leftrightarrow y\)
\(x=\dfrac{\cos 2 y}{y^2}\)
\(u=\cos 2 y \ \ \quad \quad \quad v=y^2\)
\(v^{\prime}=-2 \sin 2 y \ \ \quad v^{\prime}=2 y\)
\(\dfrac{dx}{dy}=\dfrac{-2 y^2 \sin 2 y-2 y\, \cos 2 y}{y^4}\)
\(\dfrac{dy}{dx}=\dfrac{y^4}{-2 y^2 \sin 2 y-2 y\, \cos 2 y}\)
\(\text{At}\ \ y=\dfrac{\pi}{4}:\)
| \(\dfrac{d y}{d x}\) | \(=\dfrac{\left(\dfrac{\pi}{4}\right)^4}{-2\left(\dfrac{\pi}{4}\right)^2 \sin \left(\dfrac{\pi}{2}\right)-2\left(\dfrac{\pi}{4}\right) \cos \left(\dfrac{\pi}{2}\right)}\) |
| \(=-\dfrac{\pi^4}{256} \times \dfrac{8}{\pi^2}\) | |
| \(=-\dfrac{\pi^2}{32}\) |
Prove that \(\dfrac{\cos \alpha-\cos (\alpha+2 \beta)}{2 \sin \beta}=\sin (\alpha+\beta)\). (3 marks)
--- 8 WORK AREA LINES (style=lined) ---
| \(\text{LHS}\) | \(=\dfrac{\cos \alpha-\cos (\alpha+2 \beta)}{2 \sin \beta}\) |
| \(=\dfrac{\cos \alpha-[\cos \alpha\, \cos 2 \beta+\sin \alpha\, \sin 2 \beta]}{2 \sin \beta}\) | |
| \(=\dfrac{\cos \alpha-\left[\cos \alpha\left(\cos ^2 \beta-\sin ^2 \beta\right)+\sin \alpha(2 \sin \beta\, \cos \beta)\right]}{2 \sin \beta}\) | |
| \(=\dfrac{\cos \alpha-\cos \alpha\, \cos ^2 \beta+\cos \alpha\, \sin ^2 \beta+2 \sin \alpha\, \sin \beta\, \cos \beta}{2 \sin \beta}\) | |
| \(=\dfrac{\cos \alpha-\cos \alpha\left(1-\sin ^2 \beta\right)+\cos \alpha\, \sin ^2 \beta+2 \sin \alpha\, \sin \beta\, \cos \beta}{2 \sin \beta}\) | |
| \(=\dfrac{\cos \alpha-\cos \alpha+\cos \alpha\, \sin ^2 \beta+\cos \alpha\, \sin ^2 \beta+2 \sin \alpha\, \sin \beta\, \cos \beta}{2 \sin \beta}\) | |
| \(=\dfrac{2 \sin \beta(\cos \alpha\, \sin \beta+\sin \alpha\, \cos \beta)}{2 \sin \beta}\) | |
| \(=\sin (\alpha+\beta)\) |
| \(\text{LHS}\) | \(=\dfrac{\cos \alpha-\cos (\alpha+2 \beta)}{2 \sin \beta}\) |
| \(=\dfrac{\cos \alpha-[\cos \alpha\, \cos 2 \beta+\sin \alpha\, \sin 2 \beta]}{2 \sin \beta}\) | |
| \(=\dfrac{\cos \alpha-\left[\cos \alpha\left(\cos ^2 \beta-\sin ^2 \beta\right)+\sin \alpha(2 \sin \beta\, \cos \beta)\right]}{2 \sin \beta}\) | |
| \(=\dfrac{\cos \alpha-\cos \alpha\, \cos ^2 \beta+\cos \alpha\, \sin ^2 \beta+2 \sin \alpha\, \sin \beta\, \cos \beta}{2 \sin \beta}\) | |
| \(=\dfrac{\cos \alpha-\cos \alpha\left(1-\sin ^2 \beta\right)+\cos \alpha\, \sin ^2 \beta+2 \sin \alpha\, \sin \beta\, \cos \beta}{2 \sin \beta}\) | |
| \(=\dfrac{\cos \alpha-\cos \alpha+\cos \alpha\, \sin ^2 \beta+\cos \alpha\, \sin ^2 \beta+2 \sin \alpha\, \sin \beta\, \cos \beta}{2 \sin \beta}\) | |
| \(=\dfrac{2 \sin \beta(\cos \alpha\, \sin \beta+\sin \alpha\, \cos \beta)}{2 \sin \beta}\) | |
| \(=\sin (\alpha+\beta)\) |
Four Year 7 students on a school camp are participating in archery. Each student had five shots at the target. The centre of the target represents the best possible shot.
The location of each student's five shots are represented by X on the targets shown.
Which student is most likely to be at the associative stage of skill acquisition?
\(A\)
Other Options:
The following graph represents aerobic and anaerobic threshold training zones.
Which letter on the graph represents the minimum intensity for an athlete to train to produce a physiological improvement in performance?
\(B\)
Other Options:
Which row of the table correctly matches the type of cancer?
| Carcinoma | Leukaemia | |
| A. | Forms only on the skin | Originates in bones and connective tissues |
| B. | Forms from cells that release hormones into the blood |
Develops in the body’s infection-fighting organs |
| C. | Forms in epithelial tissue | Originates in the blood-forming tissue of the bone marrow |
| D. | Usually found in the gastrointestinal system |
Originates in plasma cells |
\(C\)
Other Options:
Which of the following best describes an athlete who is a skilled performer?
\(D\)
Other Options:
The following graphs represent the age and biological sex of Australia's population in 2000 (observed) and 2051 (projected).
Which action would the Australian Government need to implement in 2023 to best support the health of Australians in 2051?
\(D\)
Other Options:
Which of the following incentives was introduced by the Australian Government to encourage individuals to take out private health insurance?
\(D\)
Other Options:
What strategy would be most effective in improving equity of access to health services for Aboriginal and Torres Strait Islander peoples?
\(D\)
Other Options:
The following table represents the number of deaths per 100000 population in males aged 55-64 years in 1980 and again in 2020 for a range of conditions.
| Conditions | Male deaths per 100 000 population aged 55–64 |
|
| 1980 | 2020 | |
| J | 14 | 7 |
| K | 100 | 20 |
| L | 173 | 53 |
| M | 600 | 79 |
Which condition is represented by the letter \(J\) in the table?
\(A\)
Other Options:
Using ONE health-related issue affecting young people, analyse both the causes and protective factors that can protect and enhance young people's health. (8 marks)
--- 22 WORK AREA LINES (style=lined) ---
*PEEL – Solution is structured using an adjusted PEEL method; [P] Identify components and their relationship, [E] explain the interaction/influence between them, [Ev] provide evidence showing the relationship in action, [L] linking sentence back to question.
Sample Answer – Health issue: Sense of body and self
*PEEL – Solution is structured using an adjusted PEEL method; [P] Identify components and their relationship, [E] explain the interaction/influence between them, [Ev] provide evidence showing the relationship in action, [L] linking sentence back to question.
Sample Answer – Health issue: Sense of body and self
To what extent do the determinants of health influence the health status of young Australians? In your response, consider major determinants that most significantly impact young people's health. (12 marks)
--- 30 WORK AREA LINES (style=lined) ---
Judgment Statement
Socioeconomic Determinants
Biomedical Determinants
Environmental Determinants
Interactions of Determinants
Reaffirmation
Judgment Statement
Socioeconomic Determinants
Biomedical Determinants
Environmental Determinants
Interactions of Determinants
Reaffirmation
Which of the following statements accurately reflects the trend in obesity rates among young people in Australia from 1995 to 2017-18?
\(C\)
Other options:
Jordan is trying to push a heavy filing cabinet across the office floor, but it’s not budging. The cabinet has been used by physics students, and someone has stuck a post-it note on it with a “reminder” that reads:
“According to Newton’s third law, the cabinet pushes back with the same force you apply — so you’ll never move it!”
Jordan sighs and tries harder. Another note on the cabinet reads:
“Don’t bother! The law of conservation of momentum says that if the cabinet is at rest, its momentum must stay at zero forever.”
Identify and explain the two misunderstandings about Newton’s third law and the law of conservation of momentum. Use correct physics principles to explain how Jordan can, in fact, move the filing cabinet. (5 marks)
--- 16 WORK AREA LINES (style=lined) ---
Newton’s third law misconception:
Conservation of momentum misconception:
How Jordan can move the cabinet:
Newton’s third law misconception:
Conservation of momentum misconception:
How Jordan can move the cabinet:
The polynomial \(P(x)=x^3+2 x^2-19 x-20\) has three distinct roots, where one root is the sum of the other two roots.
Find the values of the three roots. (3 marks)
--- 8 WORK AREA LINES (style=lined) ---
\(\text{Roots: \(-5,-1\) and \(4\).}\)
\(P(x)=x^3+2 x^2-19 x-20\)
\(\text{Let roots}=\alpha, \beta, \alpha+\beta\)
| \(\alpha+\beta+(\alpha+\beta)\) | \(=-\dfrac{b}{a}=-2\) |
| \(2 \alpha+2 \beta\) | \(=-2\) |
| \(\alpha\) | \(=-1-\beta\ \ldots\ (1)\) |
| \(\alpha \times \beta \times(\alpha+\beta)\) | \(=-\dfrac{d}{a}=20\) |
| \(\alpha^2 \beta+\alpha \beta^2\) | \(=20\ \ldots\ (2)\) |
\(\text{Substitute (1) into (2):}\)
| \((-1-\beta)^2 \beta+(-1-\beta) \beta^2\) | \(=20\) |
| \(\left(1+2 \beta+\beta^2\right) \beta+\left(-\beta^2-\beta^3\right)\) | \(=20\) |
| \(\beta+2 \beta^2+\beta^3-\beta^2-\beta^3\) | \(=20\) |
| \(\beta^2+\beta-20\) | \(=0\) |
| \((\beta+5)(\beta-4)\) | \(=0\) |
\(\Rightarrow \ \beta=-5 \ \ \text {or} \ \ 4\)
\(\text{If} \ \ \beta=-5, \alpha=4 \ \ \text {and if} \ \ \beta=4, \alpha=-5\)
\(\therefore \ \text{Roots: \(-5, -1\) and \(4\).}\)
Research into youth mental health shows increasing rates of anxiety and depression.
Which of the following most accurately represents the causal factors behind this trend?
\(C\)
Other options:
The risk factors and protective factors that influence health outcomes primarily vary according to which of the following?
\(B\)
Other options:
The graph below shows the life expectancy of indigenous vs non-indigenous males and females in city and rural locations.
Analyse the key trends in this data. (8 marks)
--- 22 WORK AREA LINES (style=lined) ---
*PEEL – Solution is structured using an adjusted PEEL method; [P] Identify components and their relationship, [E] explain the interaction/influence between them, [Ev] provide evidence showing the relationship in action, [L] linking sentence back to question.
Geographic Disparities Within ATSI Population
ATSI vs Non-Indigenous Life Expectancy Gap
Gender Disparities Within ATSI Population
*PEEL – Solution is structured using an adjusted PEEL method; [P] Identify components and their relationship, [E] explain the interaction/influence between them, [Ev] provide evidence showing the relationship in action, [L] linking sentence back to question.
Geographic Disparities Within ATSI Population
ATSI vs Non-Indigenous Life Expectancy Gap
Gender Disparities Within ATSI Population
Assess the extent to which socioeconomic and environmental determinants influence the health behaviours and outcomes of young people. (8 marks)
--- 22 WORK AREA LINES (style=lined) ---
Judgment Statement
Determinants and Health Disparities
Intervention Effectiveness
Overall Assessment
Judgment Statement
Determinants and Health Disparities
Intervention Effectiveness
Overall Assessment
Explain how the increased accessibility of technology and global events has influenced the health behaviours of young people in Australia. In your answer, provide specific examples. (5 marks)
--- 15 WORK AREA LINES (style=lined) ---
*Language highlighting the cause-effect relationship is bolded in the answer below.
*Language highlighting the cause-effect relationship is bolded in the answer below.
A 200 g tennis ball is dropped from a height of 2.0 m onto a hard surface. After the first bounce, it reaches a height of 1.4 m. After a second bounce, it reaches a height of 0.98 m.
What is the percentage of mechanical energy lost in the second bounce?
\(A\)
| \(\Delta PE\) | \(=mgh_1-mgh_2\) | |
| \(=0.2 \times 9.8 \times 1.4-0.2 \times 9.8 \times 0.98\) | ||
| \(=0.8232\ \text{J}\) |
| \(\text{Energy loss (%)}\) | \(=\dfrac{0.8232}{0.2 \times 9.8 \times 1.4} \times 100=30\%\) |
\(\Rightarrow A\)
Liam is carrying two boxes stacked on top of each other to a customer. The lighter 2.8 kg box is placed on top of the heavier 4.2 kg box.
Liam lifts the stack by applying an upward force of 40 N with each hand to the bottom of the heavier box, as shown below.
--- 4 WORK AREA LINES (style=lined) ---
--- 5 WORK AREA LINES (style=lined) ---
a. \(1.63\ \text{ms}^{-2}\)
b. When the boxes are at rest:
When the boxes are accelerating:
| a. | \(F_{\text{net}}\) | \(=\) total applied force upwards \(-\) weight force of the two boxes |
| \(= (2 \times 40)-(7 \times 9.8)\) | ||
| \(=11.4\ \text{N}\) |
\(a=\dfrac{F_{\text{net}}}{m}=\dfrac{11.4}{7.0}=1.63\ \text{ms}^{-2}\)
b. When the boxes are at rest:
When the boxes are accelerating:
Cleo owns equipment that was purchased for $50 000. She depreciates the value of the equipment using the unit cost method. Let \(V_n\) be the value of the equipment, in dollars, after \(n\) units of use. A recurrence relation that can model this value from one unit of use to the next is given by \(V_0=50\,000, \quad V_{n+1}=V_n-k\) --- 1 WORK AREA LINES (style=lined) --- --- 2 WORK AREA LINES (style=lined) --- Another option for Cleo is to depreciate the value of the $50 000 equipment using the reducing balance method. The value of the equipment, in dollars, after \(n\) months, \(V_n\), can be modelled by a recurrence relation of the form \(V_0=50\,000, \quad V_{n+1}=R V_n\) --- 2 WORK AREA LINES (style=lined) --- --- 2 WORK AREA LINES (style=lined) --- a. \(k\ \text{represents the depreciation per unit of use.}\) b. \(V_{730} =\$40\,875\) c. \(R=0.985\) d. \(R=0.95\) a. \(k\ \text{represents the depreciation per unit of use.}\) b. \(\text{Units of use}\ = 365 \times 2=730\) \(V_{730} = 50\,000-(730 \times 12.5)=\$40\,875\) c. \(R=1-0.015=0.985\) d. \(\text{Find \(R\) such that:}\)
\(R^{3} \times 50\,000\)
\(= 42\,868.75 \)
\(R\)
\(=\sqrt[3]{\dfrac{42\,868.75}{50\,000}}\)
\(=0.95\)
Cleo took out a reducing balance loan to buy an apartment. Interest on this loan is charged monthly and the loan is scheduled to be repaid in full with monthly repayments over 20 years. The balance of Cleo's loan, in dollars, after \(n\) months, \(C_n\), can be modelled by the recurrence relation \(C_0=560\,000\ \qquad \ \ C_{n+1}=1.005C_n-4012\) --- 1 WORK AREA LINES (style=lined) --- --- 1 WORK AREA LINES (style=lined) --- --- 2 WORK AREA LINES (style=lined) --- --- 0 WORK AREA LINES (style=lined) --- \begin{array}{|c|c|c|c|c|} --- 2 WORK AREA LINES (style=lined) --- a. \(\$560\,000\) b. \(\text{Total repayments}\ = 12 \times 4012=\$48\,144\) c. \(\text{Monthly interest rate}\ =\dfrac{0.06}{12}=0.005\) \(\text{Multiplication factor}\ =1+0.005=1.005\) d. \begin{array}{|c|c|c|c|c|} a. \(\$560\,000\) b. \(\text{Total repayments}\ = 12 \times 4012=\$48\,144\) c. \(\text{Monthly interest rate}\ =\dfrac{0.06}{12}=0.005\) \(\text{Multiplication factor}\ =1+0.005=1.005\) d. \begin{array}{|c|c|c|c|c|} \(N= \text{SOLVE}\ = 240.0016\) \(I\%=6.00\%\) \(PV=560\,000\) \(PMT = -4012\) \(FV=0\) \(P/Y = C/Y = 12\) \(\text{Find \(PV\) (by TVM Solver):}\) \(N= 240\) \(I\%=6.00\%\) \(PV=560\,000\) \(PMT = -4012\) \(FV= \text{SOLVE}\ =-6.44\) \(P/Y = C/Y = 12\) \(\therefore\ \text{Final repayment}\ = 4012+6.44= \$4018.44\)
\hline
\rule{0pt}{2.5ex}\text{Payment} & \text{Repayment} & \quad \text{Interest} \quad & \text{Principal reduction} & \quad \text{Balance} \quad \\
\text{number} \rule[-1ex]{0pt}{0pt}& \text{(\$)} & \text{(\$)} & \text{(\$)} & \text{(\$)}\\
\hline
\rule{0pt}{2.5ex}0 \rule[-1ex]{0pt}{0pt}& 0.00 & 0.00 & 0.00 & 560 \ 000.00\\
\hline
\rule{0pt}{2.5ex}1 \rule[-1ex]{0pt}{0pt}&&&& \\
\hline
\end{array}
\hline
\rule{0pt}{2.5ex}\text{Payment} & \text{Repayment} & \quad \text{Interest} \quad & \text{Principal reduction} & \quad \text{Balance} \quad \\
\text{number} \rule[-1ex]{0pt}{0pt}& \text{(\$)} & \text{(\$)} & \text{(\$)} & \text{(\$)}\\
\hline
\rule{0pt}{2.5ex}1 \rule[-1ex]{0pt}{0pt}& \$4012.00 & \$2800.00 & \$1212.00 & \$558\,788.00 \\
\hline
\end{array}
e. \(\text{Final repayment}\ = 4012+6.44= \$4018.44\)
\hline
\rule{0pt}{2.5ex}\text{Payment} & \text{Repayment} & \quad \text{Interest} \quad & \text{Principal reduction} & \quad \text{Balance} \quad \\
\text{number} \rule[-1ex]{0pt}{0pt}& \text{(\$)} & \text{(\$)} & \text{(\$)} & \text{(\$)}\\
\hline
\rule{0pt}{2.5ex}1 \rule[-1ex]{0pt}{0pt}& \$4012.00 & \$2800.00 & \$1212.00 & \$558\,788.00 \\
\hline
\end{array}
e. \(\text{Find number of payments (by TVM Solver):}\)
The time series plot below shows the height, in metres, of the highest high tides \((HHT)\) and lowest low tides \((L L T)\) for Sydney for the first 60 days of 2021. The thick line for each tide type shows the results of smoothing using a moving median. Complete the sentence below by entering a number in the space provided. (1 mark) Both the \(H H T\) data and the \(L L T\) data have been smoothed using ____-median smoothing. --- 0 WORK AREA LINES (style=lined) --- \(15\) \(\text{By trial and error (noting the smoothing line shows significant smoothing i.e. the number will be high).} \(15\)
The height, in metres, of the maximum highest high tides \((HHT)\) for Sydney Harbour change from month to month during the year. This is shown in the time series plot below for the years 2021, 2022 and 2023.
In this graph, month number 1 is January 2021, month number 2 is February 2021, and so on.
The average height, in metres, of the maximum \(H H T\) for each year, rounded to two decimal places, is given in the table below.
Table 5
\begin{array}{|l|c|c|c|}
\hline
\rule{0pt}{2.5ex}\text{Year} \rule[-1ex]{0pt}{0pt}&\ \ \ \ 2021\ \ \ \ &\ \ \ \ 2022\ \ \ \ &\ \ \ \ 2023\ \ \ \ \\
\hline
\rule{0pt}{2.5ex}\text{Average height of the} &1.98 &1.99&1.96\\
\rule[-1ex]{0pt}{0pt} \text{maximum \(HTT\) (m)}\\
\hline
\end{array}
The three years of data shown in this graph and in Table 5 will be used to calculate seasonal indices.
Determine the seasonal index for March.
Round your answer to two decimal places. (2 marks)
--- 5 WORK AREA LINES (style=lined) ---
\(0.97\)
\(\text{March index (2021)}\ = \dfrac{1.89}{1.98}\)
\(\text{March index (2022)}\ = \dfrac{1.92}{1.99}\)
\(\text{March index (2023)}\ = \dfrac{1.93}{1.96}\)
\(\therefore\ \text{Seasonal index (Mar)}\ = \left( \dfrac{1.89}{1.98}+\dfrac{1.92}{1.99}+\dfrac{1.93}{1.96}\right)\ ÷\ 3= 0.97\ \text{(2 d.p.)}\)
Explain how both family relationships and peer interactions influence adolescent development during the identity formation stage. (5 marks)
--- 15 WORK AREA LINES (style=lined) ---
Family relationships provide the foundation for identity development during adolescence (typically ages 12-18) through:
Peer interactions shape identity formation through:
The dynamic interplay between these influences creates:
*PEEL – Solution is structured using an adjusted PEEL method to show cause and effect: [P] State the cause/factor [E] Show how it causes the effect [Ev] Evidence demonstrating why/how [L] Reinforce the causal relationship.
**Language highlighting the cause-effect relationship is bolded in the answer below.
The following directed graph represents the one-way paths between attractions at an historical site. The entrance, exit and attractions are represented by vertices.
The numbers on the edges represent the maximum number of visitors allowed along each path per hour.
Determine the maximum number of visitors able to walk from the entrance to the exit each hour? (3 marks)
--- 5 WORK AREA LINES (style=lined) ---
\(\text{Maximum number = 76}\)
\(\text{Max flow = min cut}\)
\(\text{Discounting flows that move from “exit” to “entrance”:}\)
\(\text{Max flow}\ = 13+16+9+17+21 = 76\ \text{visitors}\)
The time difference between successive high tides and low tides is approximately normally distributed. Analysis of the 2021 tide chart showed that Determine the mean and standard deviation for this normal distribution. (3 marks) --- 6 WORK AREA LINES (style=lined) --- \(\sigma=0.44, \ \overline{x}=6.2\) \(\text{99.85% of the time differences are more than 4.88 hours:}\) \(-3=\dfrac{4.88-\overline{x}}{\sigma}\ \ \Rightarrow \ -3 \times \sigma=4.88-\overline{x}\ …\ (1)\) \(\text{16% of the time differences are less than 5.76 hours:}\) \(-1=\dfrac{5.76-\overline{x}}{\sigma}\ \ \Rightarrow \ -\sigma=5.76-\overline{x}\ …\ (2)\) \(\text{Subtract}\ (2)-(1):\) \(\overline{x}=5.76+0.44=6.2\)
\(2\sigma\)
\(=0.88\)
\(\sigma\)
\(=0.44\)
\(\text{Substitute into (2):}\)
The time difference between successive high tides and low tides is approximately normally distributed. Analysis of the 2021 tide chart showed that Use the 68-95-99.7% rule to determine the mean and standard deviation for this normal distribution. (2 marks) --- 5 WORK AREA LINES (style=lined) --- \(s_x=0.44, \ \overline{x}=6.2\) \(\text{99.85% of the time differences are more than 4.88 hours:}\) \(-3=\dfrac{4.88-\overline{x}}{s_x}\ \ \Rightarrow \ -3 \times s_x=4.88-\overline{x}\ …\ (1)\) \(\text{16% of the time differences are less than 5.76 hours:}\) \(-1=\dfrac{5.76-\overline{x}}{s_x}\ \ \Rightarrow \ -s_x=5.76-\overline{x}\ …\ (2)\) \(\text{Subtract}\ (2)-(1):\) \(\overline{x}=5.76+0.44=6.2\)
\(2s_x\)
\(=0.88\)
\(s_x\)
\(=0.44\)
\(\text{Substitute into (2):}\)
To what extent have advancements in sporting technology improved performance? (12 marks)
--- 28 WORK AREA LINES (style=lined) ---
Judgment Statement
Equipment and Material Innovation
Performance Analysis and Monitoring Systems
Limitations and Access Inequality
Reaffirmation
Judgment Statement
Equipment and Material Innovation
Performance Analysis and Monitoring Systems
Limitations and Access Inequality
Reaffirmation
Explain how an athlete could taper to improve performance for a major sporting event. (5 marks)
--- 15 WORK AREA LINES (style=lined) ---
A project has 10 activities, labelled \(A\) to \(J\). The table below shows the immediate predecessor(s) for each activity. Each activity has a duration of at least one day.
\begin{array}{|c|c|}
\hline
\rule{0pt}{2.5ex}\textbf{Activity} & \textbf{Immediate}\\
&\textbf{predecessor(s)} \rule[-1ex]{0pt}{0pt}\\
\hline
\rule{0pt}{2.5ex}A \rule[-1ex]{0pt}{0pt}& - \\
\hline
\rule{0pt}{2.5ex}B \rule[-1ex]{0pt}{0pt}& - \\
\hline
\rule{0pt}{2.5ex}C \rule[-1ex]{0pt}{0pt}& A \\
\hline
\rule{0pt}{2.5ex}D \rule[-1ex]{0pt}{0pt}& B \\
\hline
\rule{0pt}{2.5ex}E \rule[-1ex]{0pt}{0pt}& B \\
\hline
\rule{0pt}{2.5ex}F \rule[-1ex]{0pt}{0pt}& D \\
\hline
\rule{0pt}{2.5ex}G \rule[-1ex]{0pt}{0pt}& D, E \\
\hline
\rule{0pt}{2.5ex}H \rule[-1ex]{0pt}{0pt}& C, F \\
\hline
\rule{0pt}{2.5ex}I \rule[-1ex]{0pt}{0pt}& E \\
\hline
\rule{0pt}{2.5ex}J \rule[-1ex]{0pt}{0pt}& G,H \\
\hline
\end{array}
Which one of the following statements about this project is not true?
\(A\)
\(\text{One strategy: draw a network diagram:}\)
\(\text{Earliest starting time of activity \(H\) = 3 days.}\)
\(\Rightarrow A\)
The following directed graph represents the one-way paths between attractions at an historical site. The entrance, exit and attractions are represented by vertices.
The numbers on the edges represent the maximum number of visitors allowed along each path per hour.
Question 38
What is the maximum number of visitors able to walk from the entrance to the exit each hour?
Question 39
A group of students set out from the entrance and walk to the exit. The students all walk together and travel along the same route. They are the only people visiting the site that hour. What is the maximum number of students that could be in the group?
\(\text{Question 38:}\ B\)
\(\text{Question 39:}\ D\)
\(\text{Question 38}\)
\(\text{Max flow = min cut}\)
\(\text{Max flow = 13+16+9+17+21=76\)
\(\Rightarrow B\)
\(\text{Question 39}\)
\(\text{Given all students must take the same route:}\)
\(\text{Path for max students is 32 → 20 → 32 → 21}\)
\(\text{Max students = minimum capacity of any edge = 20}\)
\(\Rightarrow D\)
Evaluate the use of specific warm-up and psychological readiness procedures to indicate if an athlete is ready to return to play after an injury. (12 marks)
--- 28 WORK AREA LINES (style=lined) ---
Evaluation Statement:
Warm-up Procedures Effectiveness:
Psychological Readiness Assessment:
Final Evaluation:
Evaluation Statement:
Warm-up Procedures Effectiveness:
Psychological Readiness Assessment:
Final Evaluation:
Euler's formula can be applied to which of the following graphs?
\(E\)
Four students, Peggy, Quincy, Radley and Sarah, are grouped together to complete a project. The project is in four parts, labelled \(W, X, Y\) and \(Z\). Each student must complete one part of the project.
The table below shows each student's estimate of the score they will receive if they complete each section.
\begin{array}{|c|c|c|c|c|}
\hline \rule{0pt}{2.5ex}\quad \quad \rule[-1ex]{0pt}{0pt}& \text{Peggy}& \text{Quincy}&\text{Radley}&\text{Sarah} \\
\hline \rule{0pt}{2.5ex}W \rule[-1ex]{0pt}{0pt}& 12 & 19 & 18 & 16 \\
\hline \rule{0pt}{2.5ex}X \rule[-1ex]{0pt}{0pt}& 16 & 15 & 15 & 16 \\
\hline \rule{0pt}{2.5ex}Y \rule[-1ex]{0pt}{0pt}& 10 & 16 & 17 & 15 \\
\hline \rule{0pt}{2.5ex}Z \rule[-1ex]{0pt}{0pt}& 19 & 20 & 18 & 18 \\
\hline
\end{array}
Based on the estimates, which allocation of project parts will maximise the students' group score on the project?
A. |
\begin{array}{|c|c|} \hline \rule{0pt}{2.5ex}W\rule[-1ex]{0pt}{0pt} & \text { Quincy } \\ \hline \rule{0pt}{2.5ex}X \rule[-1ex]{0pt}{0pt}& \text { Sarah } \\ \hline \rule{0pt}{2.5ex}Y \rule[-1ex]{0pt}{0pt}& \text { Radley } \\ \hline \rule{0pt}{2.5ex}Z \rule[-1ex]{0pt}{0pt}& \text { Peggy } \\ \hline \end{array} |
B. |
\begin{array}{|c|c|} \hline \rule{0pt}{2.5ex}W \rule[-1ex]{0pt}{0pt}& \text { Radley } \\ \hline \rule{0pt}{2.5ex}X \rule[-1ex]{0pt}{0pt}& \text { Peggy } \\ \hline \rule{0pt}{2.5ex}Y \rule[-1ex]{0pt}{0pt}& \text { Quincy } \\ \hline \rule{0pt}{2.5ex}Z \rule[-1ex]{0pt}{0pt}& \text { Sarah } \\ \hline \end{array} |
C. |
\begin{array}{|c|l|} \hline \rule{0pt}{2.5ex}W \rule[-1ex]{0pt}{0pt}& \text { Sarah } \\ \hline \rule{0pt}{2.5ex}X \rule[-1ex]{0pt}{0pt}& \text { Quincy } \\ \hline \rule{0pt}{2.5ex}Y \rule[-1ex]{0pt}{0pt}& \text { Peggy } \\ \hline \rule{0pt}{2.5ex}Z \rule[-1ex]{0pt}{0pt}& \text { Radley } \\ \hline \end{array} |
D. |
\begin{array}{|c|c|} \hline \rule{0pt}{2.5ex}W \rule[-1ex]{0pt}{0pt}& \text { Radley } \\ \hline \rule{0pt}{2.5ex}X \rule[-1ex]{0pt}{0pt}& \text { Peggy } \\ \hline \rule{0pt}{2.5ex}Y \rule[-1ex]{0pt}{0pt}& \text { Sarah } \\ \hline \rule{0pt}{2.5ex}Z \rule[-1ex]{0pt}{0pt}& \text { Quincy } \\ \hline \end{array} |
E. |
\begin{array}{|l|l|} \hline \rule{0pt}{2.5ex}W \rule[-1ex]{0pt}{0pt}& \text { Sarah } \\ \hline \rule{0pt}{2.5ex}X \rule[-1ex]{0pt}{0pt}& \text { Peggy } \\ \hline \rule{0pt}{2.5ex}Y \rule[-1ex]{0pt}{0pt}& \text { Radley } \\ \hline \rule{0pt}{2.5ex}Z \rule[-1ex]{0pt}{0pt}& \text { Quincy } \\ \hline \end{array} |
\(A\)
\(\text{Calculate the score for each option:}\)
\(A: 19+16+17+19=71\)
\(B: 18+16+16+18=68\)
\(C: 16+15+10+18=59\)
\(D: 18+16+15+20=69\)
\(E: 16+16+17+20=69\)
\(\Rightarrow A\)
A 65 kg rider is on a 15 kg bicycle, moving across the top of a 4 metre high hill with a horizontal speed of 3 ms\(^{-1}\).
--- 6 WORK AREA LINES (style=lined) ---
--- 5 WORK AREA LINES (style=lined) ---
a. \(9.35\ \text{ms}^{-1}\)
b. \(233\ \text{N}\)
a. By applying the Law of Conservation of Energy:
| \(E_{\text{after}}\) | \(=E_{\text{before}}\) | |
| \(\dfrac{1}{2}mv^2\) | \(=\dfrac{1}{2}mu^2+mgh\) | |
| \(v^2\) | \(=u^2 +2gh\) | |
| \(v\) | \(=\sqrt{3^2+2 \times 9.8 \times 4}\) | |
| \(=9.35\ \text{ms}^{-1}\) |
b. At the bottom of the hill:
| \(W\) | \(=\Delta KE\) | |
| \(Fs\) | \(=\dfrac{1}{2}mv^2-\dfrac{1}{2}mu^2\) | |
| \(F \times 15\) | \(=\dfrac{1}{2} \times 80 \times 0^2-\dfrac{1}{2} \times 80 \times 9.35^2\) | |
| \(F\) | \(=-\dfrac{3496.9}{15}\) | |
| \(=-233\ \text{N}\) |
Evaluate the effectiveness of legislation and health promotion initiatives in addressing ONE major health issue affecting young people. (12 marks)
--- 28 WORK AREA LINES (style=lined) ---
Evaluation Statement
Behavioural Change Impact
Long-term Sustainability
Final Evaluation
Evaluation Statement
Behavioural Change Impact
Long-term Sustainability
Final Evaluation
Explain how the developmental stage of a young person’s life can cause their motivation AND values to vary. (5 marks)
--- 15 WORK AREA LINES (style=lined) ---
Dianne owns 1600 shares in a company. The market price for each share is $30. Dianne's total dividend from these shares is $768.
Calculate the dividend yield for her shares. (2 marks)
`1.6 text(%)`
| `text(Dividend yield)` | `= text(Dividend)/text(Value of shares)` | |
| `= 768/(1600xx 30)` | ||
| `=0.016` | ||
| `= 1.6 text(% yield)` |
An online shop offers monthly subscriptions for protein powder.
The shop offers protein powder in three flavours: vanilla \((V)\), chocolate \((C)\) and malt \((M)\).
Let \(P_n\) be the state matrix that shows the expected number of subscribers for each flavour \(n\) months after sales of the protein powder began.
The expected number of subscribers for each flavour can be determined by the matrix recurrence rule
\(P_{n+1}=T P_n+K\)
where
\begin{aligned}
& \quad \quad \quad \ \text { this month }\\
& \quad \quad \quad \ V \quad \ \ C \quad \ M \\
& T=\begin{bmatrix}0.2 & 0.2 & 0.1 \\
0.4 & 0.2 & 0.1 \\
0.4 & 0.6 & 0.8
\end{bmatrix} \begin{array}{l}
V \\ C\\ M
\end{array}
\ \text{next month} \quad \text { and } \quad K=\begin{bmatrix} 93 \\ 59 \\ 9\end{bmatrix}\begin{array}{l}V \\ C \\ M \end{array}\end{aligned}
The state matrix, \(P_2\), below shows the expected number of subscribers for each flavour two months after sales began.
\begin{align*}
P_2=\begin{bmatrix}
147 \\
137 \\
199
\end{bmatrix}
\end{align*}
The increase in the expected number of subscribers for vanilla \((V)\) between the initial sales, \(P_0\), and the first month after sales began, \(P_1\), is equal to
\(C\)
\(P_{n+1} = TP_{n}+K\ \Rightarrow\ P_2=TP_1+K \ \Rightarrow\ P_1=T^{-1}(P_2-K) \)
\(P_1=\begin{bmatrix}0.2 & 0.2 & 0.1 \\ 0.4 & 0.2 & 0.1 \\ 0.4 & 0.6 & 0.8\end{bmatrix}^{-1}\left(\begin{bmatrix}147 \\ 137 \\ 199\end{bmatrix}-\begin{bmatrix}93 \\ 59 \\ 9\end{bmatrix}\right)=\begin{bmatrix} 120 \\ 98 \\ 104\end{bmatrix}\)
\(P_0=\begin{bmatrix}0.2 & 0.2 & 0.1 \\ 0.4 & 0.2 & 0.1 \\ 0.4 & 0.6 & 0.8\end{bmatrix}^{-1}\left(\begin{bmatrix}120 \\ 98 \\ 104\end{bmatrix}-\begin{bmatrix}93 \\ 59 \\ 9\end{bmatrix}\right)=\begin{bmatrix}60 \\ 49 \\ 52\end{bmatrix}\)
\(\therefore\ \text{Increase in vanilla subscribers}\ =120-60=60\)
\(\Rightarrow C\)
Lucas invests $5000.
Interest is compounded half-yearly at a rate of 3% per half-year.
Use the table to calculate the value of his investment at the end of 4 years. (2 marks)
--- 4 WORK AREA LINES (style=lined) ---
`$6335`
`r =\ text(3% per half-year)`
`n = 8 \ \ \ \ text{(8 half-years in 4 years)}`
`⇒ \text{Table Factor} = 1.267`
| `text(Investment)` | `= 5000 × 1.267` |
| `= $6335` |
`:.\ \text{After 4 years, investment value is } $6335`
A group of meerkats lives in an enclosure at a zoo.
The meerkats sleep during the night in one of two chambers, chamber A or chamber B.
The transition diagram below shows the proportion of meerkats that stay in the same sleeping location or change sleeping location from night to night.
Every night there are \(a\) meerkats in chamber A.
Every night there are \(b\) meerkats in chamber B .
Of the meerkats sleeping in chamber A on Friday night, eight had slept in chamber B on the previous night.
How many meerkats live in the enclosure?
\(E\)
| \(20\% \times b\) | \(=8\) | |
| \(b\) | \(=\dfrac{8}{0.2} = 40\) |
\(\text{Since \(a\) and \(b\) remain the same:}\)
| \(0.4 \times a\) | \(=8\) | |
| \(a\) | \(=\dfrac{8}{0.4} = 20\) |
\(\therefore\ \text{Total meercats}\ = 40+20=60\)
\(\Rightarrow E\)
Jordan wants to accumulate $15 000 in a savings account over 10 years to buy a new car.
The account pays interest at 4% per annum compounded monthly.
Calculate how much Jordan must deposit now to achieve this goal. (3 marks)
--- 6 WORK AREA LINES (style=lined) ---
`$10\ 110\ \ \text{(nearest $)}`
`FV = 15\ 000,\ \ n = 10 \times 12 = 120,`
`r = 0.04 / 12 = 0.003333…`
| `FV` | `= PV (1 + r)^n` |
| `15\ 000` | `= PV (1 + 0.003333…)^{120}` |
| `PV` | `= \frac{15\ 000}{(1.003333…)^{120}}` |
| `= 10\ 109.88…` |
`∴ \ \text{Jordan must deposit} \ $10\ 110\ \text{(nearest $)}`
Matrix \(J\) is a row matrix of order \(1 \times n\).
Matrix \(K\) is a column matrix of order \(n \times 1\).
Matrix \(J^T\) is the transpose of Matrix \(J\).
Matrix \(K^T\) is the transpose of Matrix \(K\).
Consider the following matrix products where \(n\) is a whole number greater than or equal to 2:
How many of the above matrix products are defined?
\(D\)
\(\text{Note:}\ J^{T}\ \text{is order}\ (n \times 1), \ K^{T}\ \text{is order}\ (1 \times n) \)
\(J^2: (1 \times n) \times (1 \times n) \Rightarrow \text{Undefined}\)
\(JK: (1 \times n) \times (n \times 1) \Rightarrow \text{Defined}\)
\(KJ: (n \times 1) \times (1 \times n) \Rightarrow \text{Defined}\)
\(J^T K^T: (n \times 1) \times (1 \times n) \Rightarrow \text{Defined}\)
\(K^T J^T: (1 \times n) \times (n \times 1) \Rightarrow \text{Defined}\)
\(\Rightarrow D\)
Mila plans to invest $42 000 for 1.5 years. She is offered two different investment options.
Option A: Interest is paid at 5% per annum compounded monthly.
Option B: Interest is paid at `r` % per annum simple interest.
--- 4 WORK AREA LINES (style=lined) ---
--- 4 WORK AREA LINES (style=lined) ---
| a. | `r` | `= text(5%)/12 = text(0.4167%) = 0.004167\ \text(per month)` |
| `n` | `= 12 × 1.5 = 18` |
| `FV` | `= PV(1 + r)^n` |
| `= 42\ 000(1 + 0.004167)^{18}` | |
| `= $45\ 264.08` |
| b. | `I` | `= Prn` |
| `3\ 264.08` | `= 42\ 000 × r × 1.5` | |
| `r` | `= 3\ 264.08 / (42\ 000 × 1.5)` | |
| `= 0.0518…` | ||
| `= 5.18\ \text{% (to 2 d.p.)}` |
Select ONE of the following groups that experience health inequities:
To what extent do socioeconomic factors affect the health of this group? (8 marks)
Group selected:............................................................................................
--- 30 WORK AREA LINES (style=lined) ---
Group selected: People with disabilities
Introduction – Overall judgement
Employment barriers – Primary socioeconomic influence
Educational disadvantage – Compounding factor
Housing challenges – Financial manifestation
Counter-argument – Other determinants:
Predominant influence – Financial burden:
Conclusion – Final judgment:
Group selected: People with disabilities
Introduction – Overall judgement
Employment barriers – Primary socioeconomic influence
Educational disadvantage – Compounding factor
Housing challenges – Financial manifestation
Counter-argument – Other determinants:
Predominant influence – Financial burden:
Conclusion – Final judgment:
Research indicates that young people's definitions of health evolve as they move through adolescence.
How do young people's health priorities typically change between early adolescence (12-14 years) and late adolescence (17-19 years). (5 marks)
--- 15 WORK AREA LINES (style=lined) ---
*Cause-and-effect language that directly addresses the “How” (unofficial) keyword is bolded in the answer below.
*Cause-and-effect language that directly addresses the “How” (unofficial) keyword is bolded in the answer below.
A researcher compared how young people from different socioeconomic backgrounds define health priorities.
Which combination of factors would most likely influence differences in these definitions?
Other options:
A researcher wants to investigate adolescents' experiences with physical activity and mental wellbeing. They have designed a study using online surveys with multiple-choice and rating scale questions.
Evaluate the validity, reliability and credibility of this data collection method for understanding adolescent health experiences. (8 marks)
--- 22 WORK AREA LINES (style=lined) ---
Evaluation Statement
Validity
Reliability
Credibility
Final Evaluation
Evaluation Statement
Validity
Reliability
Credibility
Final Evaluation
Assess the possible benefits of implementing neural recovery strategies on performance. (8 marks)
--- 24 WORK AREA LINES (style=lined) ---
Judgement Statement
Physiological Recovery Enhancement
Sustained Performance Capability
Overall Assessment
Judgement Statement
Physiological Recovery Enhancement
Sustained Performance Capability
Overall Assessment
A researcher is collecting data on adolescent health behaviours through an anonymous online survey.
Which combination of approaches best addresses ethical requirements when studying sensitive topics?
\(\Rightarrow D\)
Describe THREE ethical considerations that are present when collecting data from adolescents about their meaning of health.
Include a way in which researchers can address each ethical consideration in your answer. (5 marks)
--- 15 WORK AREA LINES (style=lined) ---
Sample Answer
Sample Answer
A researcher collected the following sets of data while investigating young people's health behaviours:
Which combination correctly identifies all the quantitative data sets?
Explanation:
--- 5 WORK AREA LINES (style=lined) ---
--- 4 WORK AREA LINES (style=lined) ---
a. \(0.5\ \text{ms}^{-2}\)
b. \(1500\ \text{N}\)
a. Total system mass \(= 1000 + 2000 = 3000\ \text{kg}\)
Applied force on system \(= 2250\ \text{N}\)
Frictional force on system \(= 0.25 \times 3000 = 750\ \text{N}\)
Net force \(=\) the applied force \(-\) the frictional force \(=2250-750 =1500\ \text{N}\)
Find acceleration using \(F_{\text{net}}= ma\):
\(a=\dfrac{F_{\text{net}}}{m} =\dfrac{1500}{3000} = 0.5\ \text{ms}^{-2}\)
b. Net force on \(X = ma = 1000 \times 0.5 = 500\ \text{N}\)
| Net force on \(X\) | \(=\) applied force on \(X -\) force of \(Y\) on \(X -\) the frictional force on \(X\). | |
| \(500\) | \(=2250-F_{Y → X}-(1000 \times 0.25)\) | |
| \(F_{Y → X}\) | \(=2250-500-250=1500\ \text{N}\) |
The table shows the compounded values of $1 at different interest rates over different periods.
Ben hopes to have $18 000 in 2 years to travel. He opens an account today which pays interest of 4% p.a., compounded quarterly.
Using the table, which expression calculates the minimum single sum that Ben needs to invest today to ensure he reaches his savings goal?
`text(D)`
`text(4% annual)`
`= (4%)/4 = 1% per quarter`
`2 \ text(years) = 8 \ text(periods)`
`\text(From the table: at 8 periods and 1%, compounded value) = 1.0829`.
`:.\ text(Minimum sum) = 18\ 000 ÷ 1.0829`
`=>\ text(D)`
Jarryd invested $14 000 into an account earning compound interest at a fixed rate per time period.
The graph below shows the balance of the account for four of the first five time periods after the initial investment. The information for time period 3 is not shown.
Immediately after the interest was calculated for time period 3, Jarryd added an extra one-off amount into the account.
Determine the value of Jarrod's extra one off amount, giving your answer correct to the nearest cent. (3 marks)
--- 6 WORK AREA LINES (style=lined) ---
\(\$224.03 \)
\(\text{Increase factor between periods}\ = \dfrac{15\,120}{14\,000}=1.08\)
\(\text{At time period 3:}\)
\(\text{Balance (before extra payment)}\ = 14\,000 \times 1.08^{3} = 17\,635.97 \)
\(\text{Let}\ V = 17\,635.97 +\ \text{extra payment}\)
\(V \times 1.08 = 19\,288.80\ \ \Rightarrow\ \ V=17\,860.00\)
\(\therefore \ \text{Extra payment}\ = 17\,860.00-17\,635.97=\$224.03 \)
Jarryd invested $14 000 into an account earning compound interest at a fixed rate per time period.
The graph below shows the balance of the account for four of the first five time periods after the initial investment. The information for time period 3 is not shown.
Immediately after the interest was calculated for time period 3, Jarryd added an extra one-off amount into the account.
Determine the value of Jarrod's extra one off amount, giving your answer correct to the nearest cent. (3 marks)
--- 6 WORK AREA LINES (style=lined) ---
\(\$224.03 \)
\(\text{Increase factor between periods}\ = \dfrac{15\,120}{14\,000}=1.08\)
\(\text{At time period 3:}\)
\(\text{Balance (before extra payment)}\ = 14\,000 \times 1.08^{3} = 17\,635.97 \)
\(\text{Let}\ V = 17\,635.97 +\ \text{extra payment}\)
\(V \times 1.08 = 19\,288.80\ \ \Rightarrow\ \ V=17\,860.00\)
\(\therefore \ \text{Extra payment}\ = 17\,860.00-17\,635.97=\$224.03 \)
The diagram shows the order of three sport skills on a continuum, representing both the precision and size of muscular movement involved in the skill.
Which skills are represented by \(X\), \(Y\) and \(Z\)?
\begin{align*}
\begin{array}{c}
\rule{0pt}{2.5ex} \ \rule[-1ex]{0pt}{0pt}& \\
\rule{0pt}{2.5ex}\textbf{A.}\\
\textbf{}\rule[-1ex]{0pt}{0pt}\\
\rule{0pt}{2.5ex}\textbf{B.}\\
\textbf{}\rule[-1ex]{0pt}{0pt}\\
\rule{0pt}{2.5ex}\textbf{C.}\rule[-1ex]{0pt}{0pt}\\
\rule{0pt}{2.5ex}\textbf{D.}\rule[-1ex]{0pt}{0pt}\\
\end{array}
\begin{array}{|l|l|l|}
\hline
\rule{0pt}{2.5ex} X\rule[-1ex]{0pt}{0pt}& Y & Z \\
\hline
\rule{0pt}{2.5ex}\text{Basketball free-throw}&\text{Pedalling in cycling} &\text{Accelerating from a block }\\
\text{}\rule[-1ex]{0pt}{0pt}&\text{} &\text{start in athletics}\\
\hline
\rule{0pt}{2.5ex}\text{Shooting in archery}& \text{Accelerating from a block} &\text{Paddling in kayaking}\\
\text{}\rule[-1ex]{0pt}{0pt}& \text{start in athletics} &\text{}\\
\hline
\rule{0pt}{2.5ex}\text{Paddling in kayaking}\rule[-1ex]{0pt}{0pt}& \text{Tumble turn in swimming} &\text{Shooting in archery} \\
\hline
\rule{0pt}{2.5ex}\text{Tumble turn in swimming}\rule[-1ex]{0pt}{0pt}& \text{Basketball free-throw} &\text{Pedalling in cycling}\\
\hline
\end{array}
\end{align*}
\(A\)
Other Options: