Year 10 maths · Australian Curriculum

Year 10 maths test: free practice questions with answers

Ten Year 10 maths questions across the year's topics, each with a worked solution. Try them now, then make a full practice exam on the topics your child's next test covers, including Year 10A.

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Year 10 sample test

10 questions, one from each of 10 topics. Work them out on paper, then open each answer to mark it.

  1. Solve 32x−1=813^{2x-1} = 81. What is the value of xx?

    Show the answer and working
    Answer:

    x=2.5x = 2.5

    Key idea: If both sides have the same base, the exponents must be equal.

    1. Write 81 as a power of 3: 81=3481 = 3^4.
    2. The equation becomes 32x−1=343^{2x-1} = 3^4.
    3. Equate the exponents: 2x−1=42x - 1 = 4.
    4. Solve: 2x=52x = 5, so x=2.5x = 2.5.
    5. Check: 32(2.5)−1=34=813^{2(2.5)-1} = 3^4 = 81 ✓

    Answer: x=2.5x = 2.5

    More exponential equations practice →

  2. Question 2Statistics

    A dataset of ten reaction times (in milliseconds) is: 210, 230, 245, 250, 260, 275, 280, 290, 310, 480. For this dataset, Q1=245Q1 = 245, Q3=290Q3 = 290, and IQR=45\text{IQR} = 45. Use the 1.5×IQR1.5 \times \text{IQR} rule to determine whether any values are outliers.

    Show the answer and working
    Answer:

    480480 ms is an outlier; no lower outliers.

    Key idea: A value is an outlier if it lies below Q1−1.5×IQRQ1 - 1.5 \times \text{IQR} or above Q3+1.5×IQRQ3 + 1.5 \times \text{IQR}.

    1. Calculate the lower fence: Q1−1.5×IQR=245−1.5×45=245−67.5=177.5.Q1 - 1.5 \times \text{IQR} = 245 - 1.5 \times 45 = 245 - 67.5 = 177.5.
    2. Calculate the upper fence: Q3+1.5×IQR=290+1.5×45=290+67.5=357.5.Q3 + 1.5 \times \text{IQR} = 290 + 1.5 \times 45 = 290 + 67.5 = 357.5.
    3. Any value below 177.5177.5 or above 357.5357.5 is an outlier. Check the extremes: the minimum is 210>177.5210 > 177.5 (not an outlier), and the maximum is 480>357.5480 > 357.5 (outlier).

    Answer: 480480 ms is an outlier. No values fall below the lower fence.

    More statistics practice →

  3. Mia borrows $12 000 to pay for a car. The loan charges 8% per annum compound interest, compounded annually. Mia makes no repayments. After 5 years, how much more does she owe compared with what she would owe under a simple interest loan at the same rate over the same period? Give your answer to the nearest dollar.

    Show the answer and working
    Answer:

    $832 more

    Key idea: Calculate each type of interest separately and find the difference.

    1. Compound interest final amount:
      A=12000×(1.08)5=12000×1.46932807≈17631.94A = 12000 \times (1.08)^5 = 12000 \times 1.46932807 \approx 17631.94
    2. Simple interest final amount:
      A=P(1+rn)=12000×(1+0.08×5)=12000×1.4=16800.00A = P(1 + rn) = 12000 \times (1 + 0.08 \times 5) = 12000 \times 1.4 = 16800.00
    3. Find the difference:
      17631.94−16800.00=831.9417631.94 - 16800.00 = 831.94

    Answer: Mia owes approximately $832 more under compound interest than under simple interest.

    More compound interest practice →

  4. Anika has already saved $85. She earns $12 per hour working at a cafe and wants to save enough to buy a jacket that costs at least $181. Write and solve an inequality to find the minimum number of whole hours she must work.

    Show the answer and working
    Answer:

    At least 8 hours

    Key idea: Translate the real-life situation into an inequality, solve it, then interpret the answer in context.

    1. Let hh be the number of hours Anika works. Her total savings will be 85+12h85 + 12h dollars. She needs this to be at least $181: 85+12h≥18185 + 12h \geq 181
    2. Subtract 85 from both sides: 12h≥9612h \geq 96
    3. Divide both sides by 12 (positive, sign stays): h≥8h \geq 8
    4. Since hh must be a whole number and h≥8h \geq 8, the minimum number of hours is 8.

    Answer: Anika must work at least 8 hours.

    More linear inequalities practice →

  5. Solve for xx: 2x−35=7\dfrac{2x - 3}{5} = 7

    Show the answer and working
    Answer:

    x=19x = 19

    Key idea: Multiply both sides by the denominator to eliminate the fraction, then isolate xx.

    1. Start with 2x−35=7\dfrac{2x - 3}{5} = 7.
    2. Multiply both sides by 55: 2x−3=352x - 3 = 35.
    3. Add 33 to both sides: 2x=382x = 38.
    4. Divide both sides by 22: x=19x = 19.
    5. Check: 2(19)−35=355=7\dfrac{2(19) - 3}{5} = \dfrac{35}{5} = 7 ✓

    Answer: x=19x = 19

    More linear equations practice →

  6. Simplify 4x9×32x.\frac{4x}{9} \times \frac{3}{2x}.

    Show the answer and working
    Answer:

    23\dfrac{2}{3}

    Key idea: Multiply numerators together and denominators together, then cancel common factors before or after multiplying.

    1. Write as a single fraction: 4x×39×2x\frac{4x \times 3}{9 \times 2x}
    2. Simplify numerator and denominator: 12x18x\frac{12x}{18x}
    3. Cancel xx (assuming x≠0x \neq 0): 1218\frac{12}{18}
    4. Simplify the numerical fraction by dividing by 6: 23\frac{2}{3}

    Answer: 23\dfrac{2}{3}

    More algebraic fractions practice →

  7. A garden shed is modelled by a rectangular prism with length 3 m, width 2 m and height 2.5 m. A scale model of the shed is built using a scale factor of 120\dfrac{1}{20} (that is, every length on the model is 120\dfrac{1}{20} of the real length). Find the surface area and volume of the model, and compare them with the real shed's surface area and volume by stating the scale factors for area and volume.

    Show the answer and working
    Answer:

    Model surface area =0.0925 m2= 0.0925 \text{ m}^2; model volume =0.001875 m3= 0.001875 \text{ m}^3; area scales by 1400\tfrac{1}{400}, volume scales by 18000\tfrac{1}{8000}

    Key idea: When lengths scale by a factor of ss, areas scale by s2s^2 and volumes scale by s3s^3.

    1. Find the real shed's surface area. The six faces of the rectangular prism have areas: two 3×2.5=7.5 m23 \times 2.5 = 7.5 \text{ m}^2 faces, two 2×2.5=5 m22 \times 2.5 = 5 \text{ m}^2 faces, and two 3×2=6 m23 \times 2 = 6 \text{ m}^2 faces.
      SAreal=2(7.5)+2(5)+2(6)=15+10+12=37 m2SA_{\text{real}} = 2(7.5) + 2(5) + 2(6) = 15 + 10 + 12 = 37 \text{ m}^2
    2. Find the real shed's volume:
      Vreal=3×2×2.5=15 m3V_{\text{real}} = 3 \times 2 \times 2.5 = 15 \text{ m}^3
    3. The length scale factor is s=120s = \dfrac{1}{20}, so the area scale factor is s2=1400s^2 = \dfrac{1}{400} and the volume scale factor is s3=18000s^3 = \dfrac{1}{8000}.
    4. Model surface area:
      SAmodel=37400=0.0925 m2SA_{\text{model}} = \frac{37}{400} = 0.0925 \text{ m}^2
    5. Model volume:
      Vmodel=158000=0.001875 m3V_{\text{model}} = \frac{15}{8000} = 0.001875 \text{ m}^3

    Answer: The model's surface area is 0.0925 m20.0925 \text{ m}^2 (area scale factor 1400\tfrac{1}{400}) and its volume is 0.001875 m30.001875 \text{ m}^3 (volume scale factor 18000\tfrac{1}{8000}).

    More direct and inverse proportion practice →

  8. Simplify 3a4×5a33a^4 \times 5a^3.

    Show the answer and working
    Answer:

    15a715a^7

    Key idea: When multiplying terms with the same base, add the exponents: am×an=am+na^m \times a^n = a^{m+n}.

    1. Multiply the coefficients: 3×5=153 \times 5 = 15.
    2. Apply the product law to the powers of aa: a4×a3=a4+3=a7a^4 \times a^3 = a^{4+3} = a^7.
    3. Write the result: 15a715a^7.

    Answer: 15a715a^7

    More index laws with algebra practice →

  9. Triangle ABCABC has AB=5AB = 5 cm, BC=7BC = 7 cm and ∠ABC=48°\angle ABC = 48°. Triangle DEFDEF has DE=5DE = 5 cm, EF=7EF = 7 cm and ∠DEF=48°\angle DEF = 48°. Prove that △ABC≅△DEF\triangle ABC \cong \triangle DEF.

    Show the answer and working
    Answer:

    △ABC≅△DEF\triangle ABC \cong \triangle DEF by SAS.

    Key idea: Two triangles are congruent by SAS if two pairs of corresponding sides and the included angle are equal.

    1. AB=DE=5AB = DE = 5 cm (given)
    2. BC=EF=7BC = EF = 7 cm (given)
    3. ∠ABC=∠DEF=48°\angle ABC = \angle DEF = 48° (given), and this angle is included between the two known sides in each triangle.
    4. Therefore △ABC≅△DEF\triangle ABC \cong \triangle DEF (SAS).

    Answer: △ABC≅△DEF\triangle ABC \cong \triangle DEF by SAS.

    More geometric reasoning and proofs practice →

  10. Solve the equation x+13=2x−15\frac{x+1}{3} = \frac{2x-1}{5}

    Show the answer and working
    Answer:

    x=8x = 8

    Key idea: Multiply both sides by the LCD to clear all fractions, then solve the resulting linear equation.

    1. Find the LCD of 3 and 5: LCD=15\text{LCD} = 15.
    2. Multiply every term on both sides by 15:
      15×x+13=15×2x−1515 \times \frac{x+1}{3} = 15 \times \frac{2x-1}{5}
    3. Simplify each side:
      5(x+1)=3(2x−1)5(x+1) = 3(2x-1)
    4. Expand the brackets:
      5x+5=6x−35x + 5 = 6x - 3
    5. Solve for xx:
      5+3=6x−5x8=x\begin{aligned} 5 + 3 &= 6x - 5x \\ 8 &= x \end{aligned}
    6. Check by substituting x=8x = 8 back into the original equation: 8+13=93=3\dfrac{8+1}{3} = \dfrac{9}{3} = 3 and 2(8)−15=155=3\dfrac{2(8)-1}{5} = \dfrac{15}{5} = 3. Both sides are equal.

    Answer: x=8x = 8

    More linear equations with algebraic fractions practice →

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What’s on a Year 10 maths test

Year 10 maths is usually assessed with topic tests and end-of-semester exams, and the results often decide which senior maths subjects a student can take.

Common topics are simultaneous equations, solving and factorising quadratics, algebraic fractions, inequalities, exponential equations, trigonometry, surface area and volume, statistics and probability. Year 10A adds surds, logarithms, polynomials and the sine and cosine rules.

Practise one topic

Worksheets for every Year 10 topic, with worked solutions.

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Year 10 maths test questions

What is on a Year 10 maths exam?

Common Year 10 exams cover algebra (simultaneous equations, quadratics, algebraic fractions and inequalities), graphs, trigonometry, surface area and volume, statistics and probability. Students in Year 10A also see surds, logarithms and polynomials.

Why does Year 10 maths matter so much?

Year 10 results usually decide which senior maths subjects a student can take, and the harder senior courses assume Year 10 algebra is automatic. A practice exam a fortnight before the real one shows which topics still need work while there's time to fix them.

Is this Year 10 maths test free?

Yes. The sample test on this page is free with no sign-up. To make your own test on the topics your child is studying, enter your email and you can make one free practice test a day.

Do the questions come with answers?

Every question has the answer and a fully worked solution, step by step, so your child can mark their own work and see exactly where a mistake happened.

What should my child do with the questions they get wrong?

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