The 200-word examination instruction list
TMUA instructions ask you to apply mathematics and distinguish claims that follow from claims that only look plausible. Necessary and sufficient describe different directions of a condition. A counterexample can defeat a universal claim. Read the domain and quantifier before testing an answer.
The numbered bank combines question directions, response formats and supporting terms. Check the official instructions for the exact item and version you are taking.
Exam requirements · Worked examples · Fencing Method
TMUA papers, marking and logical conditions
| No. | Instruction or term | What it asks you to do |
|---|---|---|
| 1 | Applications of Mathematical Knowledge | Use mathematical techniques to solve the type of problem asked in Paper 1. |
| 2 | Mathematical Reasoning | Use logical deduction, reasoning and proof in the Paper 2 style. |
| 3 | Paper 1 | Practise solving problems using the content in the TMUA specification. |
| 4 | Paper 2 | Practise checking statements, implications and arguments as well as solving problems. |
| 5 | Multiple-choice paper | Choose the option that satisfies the conditions in the item. |
| 6 | No calculator | Use mathematical reasoning and arithmetic without a calculator. |
| 7 | Correct answer only | Choose the correct option under the stated marking rules. |
| 8 | No penalty for wrong answers | Check the official marking rule and give an answer to every question you can. |
| 9 | Necessary condition | Identify what must hold whenever the stated outcome holds. |
| 10 | Sufficient condition | Identify what guarantees the stated outcome. |
| 11 | Necessary and sufficient | Establish the implication in both directions. |
| 12 | If | Identify the hypothesis and what it guarantees in the stated rule. |
| 13 | Only if | Identify the condition that must hold when the stated outcome holds. |
| 14 | If and only if | Check that each statement implies the other. |
| 15 | Converse | Swap the hypothesis and conclusion and test the resulting statement separately. |
| 16 | Contrapositive | Reverse the implication and negate both statements to produce an equivalent implication. |
| 17 | Negation | State precisely what would make the original proposition false. |
| 18 | Implication | Read which statement guarantees the other. |
| 19 | Equivalence | Check both directions or transform each statement into the other. |
| 20 | For all | Check that the statement holds across every value in the specified domain. |
| 21 | There exists | Find at least one permitted value or case that works. |
| 22 | Exactly one | Establish that there is a solution and that a second one cannot occur. |
| 23 | At least one | Find one permitted example to establish existence. |
| 24 | At most one | Show there cannot be two or more valid cases. |
Proof, counterexamples and solution checks
| No. | Instruction or term | What it asks you to do |
|---|---|---|
| 25 | Counterexample | Give one permitted case where the proposed general statement fails. |
| 26 | Direct proof | Use valid steps from the assumptions to establish the conclusion. |
| 27 | Proof by contradiction | Assume the claim fails, then show that this contradicts an established fact. |
| 28 | Proof by cases | Cover all possible cases and establish the conclusion for each. |
| 29 | False converse | Recognise when a conclusion wrongly assumes an implication works in reverse. |
| 30 | Invalid step | Find the specific transformation or inference that does not follow. |
| 31 | Extraneous solution | Identify a value introduced by a manipulation that fails the original condition. |
| 32 | Lost solution | Check whether dividing or simplifying excluded a value that could work. |
| 33 | Domain restriction | Keep only the inputs for which the original expression or situation is defined. |
| 34 | Range of values | Find all possible outputs under the stated restrictions. |
| 35 | Excluded endpoint | Use a strict boundary where the endpoint itself is not allowed. |
| 36 | Included endpoint | Use a non-strict boundary where the endpoint is allowed. |
| 37 | Parameter | Use the fixed or adjustable quantity that defines a family of cases. |
| 38 | Existence | Show that at least one object or value meets the conditions. |
| 39 | Uniqueness | Show that only one permitted object or value meets the conditions. |
| 40 | Assume without loss of generality | Check that the cases are symmetric before simplifying to one representative case. |
| 41 | Equivalent transformation | Use an operation that preserves the solution set under the stated conditions. |
| 42 | Squaring both sides | Check signs and verify candidate answers in the original statement afterwards. |
| 43 | Divide by a variable | Check whether the divisor can be zero before taking the step. |
| 44 | Change of sign | Use the sign changes and stated assumptions relevant to the inference. |
| 45 | Check all cases | Test each permitted case against the original question. |
| 46 | Quantifier | Check whether the claim applies to all, some, none or exactly one of the allowed cases. |
| 47 | Disjunction | Read the alternatives and check whether the wording permits both to hold. |
| 48 | Conjunction | Check that both required statements hold together. |
| 49 | Mutually exclusive cases | Use cases that cannot occur together when the problem calls for a partition. |
| 50 | Exhaustive cases | Check that the cases cover every allowed possibility. |
| 51 | Open interval | Exclude both endpoints when the interval is open at both ends. |
| 52 | Closed interval | Include both endpoints when the interval is closed. |
| 53 | Piecewise function | Apply the rule for the part of the domain containing the input. |
| 54 | Monotonic | Check whether the function moves in one direction across the stated interval. |
| 55 | Increasing function | Compare outputs for ordered inputs and distinguish strict increase where required. |
| 56 | Decreasing function | Check whether outputs fall as inputs rise within the stated domain. |
| 57 | Discriminant | Use the sign of the quadratic discriminant to reason about real roots. |
| 58 | Repeated root | Identify a root with multiplicity greater than one. |
| 59 | Distinct roots | Count different values of the roots rather than multiplicities. |
| 60 | Intersection points | Find the coordinates at which the stated graphs share the same point. |
| 61 | Tangent condition | Use the relevant contact or gradient relationship to establish tangency. |
| 62 | Gradient of the tangent | Find the derivative at the named point when that method applies. |
| 63 | Sign chart | Determine where the expression is positive, negative or zero. |
| 64 | Absolute value | Use the distance from zero or separate cases based on the expression’s sign. |
| 65 | Test the boundary | Check the endpoints and any values where the relevant rule changes. |
Algebra, graphs and mathematical reasoning
| No. | Instruction or term | What it asks you to do |
|---|---|---|
| 66 | Expand and simplify | Multiply out the brackets and combine like terms. |
| 67 | Make the subject | Rearrange the formula so the named quantity is isolated. |
| 68 | Solve the inequality | Find the set of values that make it true and keep the correct inequality direction. |
| 69 | Find all solutions | Include every value that meets the stated equation and domain. |
| 70 | Find the nth term | Write the expression that gives the term at position n. |
| 71 | Write in standard form | Express the number as a value from 1 up to but excluding 10 times a power of ten. |
| 72 | Give an exact value | Use a form that preserves the full mathematical value. |
| 73 | Give your answer to one decimal place | Round to one digit to the right of the decimal point. |
| 74 | Give your answer to two significant figures | Keep two significant digits in the rounded result. |
| 75 | Round to the nearest integer | Choose the closest whole-number value under the rounding rule. |
| 76 | Construct | Use the stated tools and method to make an accurate geometric drawing. |
| 77 | Sketch | Show the requested shape and key features without requiring exact scale unless stated. |
| 78 | Plot | Mark the points at the given coordinates or values. |
| 79 | Measure | Take the required reading from a diagram or scale when the task permits it. |
| 80 | Not drawn accurately | Use the supplied mathematical facts rather than the apparent appearance of the diagram. |
| 81 | Draw to scale | Use the scale given to make a drawing with the required proportions. |
| 82 | Identify a graph transformation | Determine how the expression changes the position or shape of the graph. |
| 83 | Locus | Show the set of points satisfying the specified condition. |
| 84 | Error interval | Give the range of possible original values using the correct endpoint signs. |
| 85 | Upper bound | Identify the upper limit of values consistent with the stated precision. |
| 86 | Lower bound | Identify the lower limit of values consistent with the stated precision. |
| 87 | Estimate from a graph | Use the scale and plotted information to obtain a sensible approximate value. |
| 88 | Compare the distributions | Use corresponding measures of location or spread as the question asks. |
| 89 | Assume | Use the stated model or simplifying condition in the calculation. |
| 90 | Explain a limitation | Identify the assumption or data issue that restricts the conclusion. |
| 91 | Use the formula | Substitute the appropriate values with consistent units. |
| 92 | Give units | Attach the required measurement unit to the final result. |
| 93 | Independent events | Check whether one event changes the probability of the other. |
| 94 | Use the frequency | Use the count for the named value or interval rather than a percentage unless requested. |
| 95 | Change to | Express the value in the requested form or unit. |
| 96 | Does the premise imply the claim | Check for a valid inference or a counterexample. |
| 97 | Do not use a graphical method | Use an algebraic method or interpretation as the task directs. |
| 98 | Estimate the mean from grouped data | Use class midpoints and frequencies to estimate the total and divide by the total frequency. |
| 99 | Find a counterexample | Give a permitted value or case for which the general statement fails. |
| 100 | One possible answer | Give one value or example meeting all of the stated conditions. |
| 101 | Integer solutions | Include only the whole-number values, including negative values or zero where allowed. |
| 102 | Prime factors | Use factors that are prime numbers and preserve their multiplicities. |
| 103 | Product of prime factors | Write the number as the product of the prime factors that compose it. |
| 104 | Highest common factor | Find the largest positive whole number that divides each named number. |
| 105 | Lowest common multiple | Find the smallest positive whole number that is a multiple of all named numbers. |
| 106 | Perpendicular | Use the right-angle relationship in the construction or reasoning. |
| 107 | Enlargement scale factor | Use the multiplier of corresponding lengths from the centre of enlargement. |
| 108 | Congruence condition | Choose the condition that establishes that the triangles have the same shape and size. |
| 109 | Frequency polygon | Plot the frequencies at the class midpoints and join the points as instructed. |
| 110 | Relative frequency estimate | Use the observed proportion as the estimated probability when the task asks for it. |
| 111 | Conditional probability | Use the sample space that remains once the stated condition is known. |
| 112 | Combined mean | Use total values and sample sizes to find the mean across the groups. |
| 113 | Repeated percentage change | Apply each period’s multiplier to the result from the previous period. |
| 114 | Optimise over the domain | Check the allowed values before deciding which output is largest or smallest. |
| 115 | Check the proposed working | Use the shown steps to judge whether each follows from the previous one. |
| 116 | Diagrams are not accurately drawn | Base calculations on the provided labels and established geometry. |
| 117 | Express as a fraction | Give the result in fractional form. |
| 118 | Give an upper bound | Find the upper endpoint for possible values under the stated rounding rule. |
| 119 | Give a lower bound | Find the lower endpoint for possible values under the stated rounding rule. |
| 120 | Iteration | Repeat the given update rule with the stated starting value. |
| 121 | Write an inequality | Translate the condition into an inequality with the correct sign and direction. |
| 122 | Draw a locus | Mark the set of points satisfying the stated geometric rule. |
| 123 | Perpendicular gradient | Use the condition for perpendicular nonvertical lines where the stated assumptions apply. |
| 124 | Measure the bearing | Give the clockwise angle from north using the convention specified. |
| 125 | Cumulative frequency | Keep a running total through the ordered values or intervals. |
| 126 | Estimate the median | Use the midpoint of the ordered data or the appropriate position on a grouped display. |
| 127 | Relative frequency | Divide the observed count for the event by the number of trials. |
| 128 | Expected frequency | Multiply the probability by the number of trials when the stated model applies. |
| 129 | Determine the graph shift | Identify the direction and size of the translation from the new expression. |
| 130 | Explain one difference | Identify one matched contrast and explain its relevance or basis if required. |
| 131 | Calculate a rate | Divide the relevant change or quantity by the appropriate time or other denominator. |
| 132 | Calculate the percentage change | Divide the change by the starting value and multiply by 100. |
| 133 | To scale | Use the stated relationship between drawing distances and actual distances. |
| 134 | Not to scale | Use the stated measurements and relationships when calculating. |
| 135 | Exact value | Leave the answer in a form that preserves its full value. |
| 136 | Decimal places | Count the required digits to the right of the decimal point. |
| 137 | Nearest whole number | Round to the closest integer. |
| 138 | In terms of | Express the result using the named quantity or symbol. |
| 139 | Simplify | Rewrite the expression in an equivalent simpler form. |
| 140 | Factorise | Write the expression as a product of factors. |
| 141 | Solve | Find the values that satisfy the equation or inequality. |
| 142 | Substitute | Replace a variable with the given value or expression. |
| 143 | Coordinate | Give the position using the specified ordered values. |
| 144 | Line of best fit | Draw a line representing the overall pattern of plotted data. |
| 145 | Independent variable | Identify what the investigator changes deliberately. |
| 146 | Dependent variable | Identify the measured outcome of the investigation. |
| 147 | Control variable | Identify what should be kept constant for a fair comparison. |
| 148 | Measurement | Read or calculate a quantity and report the appropriate unit. |
| 149 | Estimate from the graph | Use the plotted trend to obtain a sensible approximate value. |
| 150 | Geometric reasoning | Use the stated properties to decide which conclusions follow. |
Core instructions and response checks
| No. | Instruction or term | What it asks you to do |
|---|---|---|
| 151 | Identify | Name or pick out the item the question specifies. |
| 152 | Select | Choose only the number of options requested. |
| 153 | Give | Supply the requested fact, example or result. |
| 154 | State | Express the required point directly and clearly. |
| 155 | Name | Supply the correct term, person or item. |
| 156 | List | Set out the requested items separately. |
| 157 | Define | Give the precise meaning used in the subject or question. |
| 158 | Describe | Report the relevant characteristics, events or pattern. |
| 159 | Explain | Connect the result to its cause, mechanism or reasoning. |
| 160 | Compare | Set the items side by side on the same relevant feature. |
| 161 | Assess | Judge the extent, value or strength of something using evidence. |
| 162 | Illustrate | Make an idea clear with a relevant example or diagram. |
| 163 | Demonstrate | Show how a fact, process or result can be established. |
| 164 | Determine | Work from the given information to establish an answer. |
| 165 | Check | Test the answer against the original instruction or condition. |
| 166 | Correct | Repair the specific error while preserving the intended meaning or result. |
| 167 | Sequence | Put stages into a meaningful order. |
| 168 | Based on | Ground the answer in the material named in the question. |
| 169 | Specific | Precise enough to identify a particular fact or example. |
| 170 | Conclusion | The result reached after considering the reasoning or evidence. |
| 171 | Assumption | A premise taken as given for the purpose of the question. |
| 172 | Condition | A requirement that must be satisfied. |
| 173 | Record | Write the result in the space and form provided. |
| 174 | Classify | Assign each item to a category using the stated rule. |
| 175 | Actual length | Convert the drawing measurement using the scale or ratio given. |
| 176 | Account for | Explain why the stated result or difference occurred. |
| 177 | Find in terms of x | Give an expression involving x rather than a decimal obtained by choosing a value for x. |
| 178 | Check the solution | Substitute the result into the original equation to verify it. |
| 179 | Find the exact value | Retain radicals, fractions, logarithms or π in exact form where appropriate. |
| 180 | Turning point | Read or find the maximum or minimum point of the graph when the task asks for it. |
| 181 | Identify the feature of the graph | Use the graph or equation to decide what the named point represents. |
| 182 | Find the area | Find a non-negative area and account for changes in sign or intersecting curves. |
| 183 | Set up an equation | Translate the given conditions into a mathematical relationship. |
| 184 | Resolve a ratio | Divide the total into parts using the stated ratio. |
| 185 | Possible outcome | Identify the event or value that the probability question refers to. |
| 186 | Expected value | Find the probability-weighted mean under the stated model. |
| 187 | Compare and contrast | Address similarities and differences for the named items. |
| 188 | Draw | Provide a labelled and accurate representation where required. |
| 189 | Variable | Identify a quantity or feature that can change. |
| 190 | Keep the comparison fair | Compare quantities on the same stated basis and units. |
| 191 | Rounding interval | Use the stated precision to find the range of values that could produce the rounded result. |
| 192 | Sample size | Check how many observations, individuals or trials contribute to the result. |
| 193 | Representative sample | Check whether the selected cases reflect the population of interest. |
| 194 | Rate of change | Find the change in one quantity per unit change in another. |
| 195 | Round | Adjust a number to the requested precision using the next digit. |
| 196 | One possible value | Supply a single value that satisfies the given conditions. |
| 197 | Equation | Use or form a statement that two expressions have equal value. |
| 198 | Inequality | Use or form the required greater-than or less-than relationship. |
| 199 | Constant term | Identify the part of the expression with no variable factor. |
| 200 | Unit rate | Calculate the amount corresponding to one unit of the other quantity. |
Find the section you need
Exam requirements · Worked examples · Fencing Method · Practice and answers · Frequently asked questions · Official sources
What the examination requires
Two multiple-choice papers
UAT-UK lists Paper 1, Applications of Mathematical Knowledge, and Paper 2, Mathematical Reasoning. Each has 20 questions and 75 minutes. Paper 1 applies mathematics in unfamiliar situations. Paper 2 also tests reasoning and ideas from elementary logic. Use the official content specification to check the scope.
No calculator or dictionary
Practise both papers without those tools. UAT-UK says there is no penalty for wrong answers. Use the official practice interface to learn how to review questions, and track which items need a short counterexample and which require more sustained reasoning.
Read the logic and proof guidance
Identify the domain, quantifier and direction of implication before assessing a statement. When a question asks whether a proof is valid, find the exact step where the reasoning succeeds or fails. When a choice claims something is true for all values, check whether any permitted counterexample defeats it.
Check the course and application cycle
UAT-UK publishes test and sitting information, while each university or course sets its own admissions requirement. Check both for your entry year. The provider reports an overall score and does not set a universal pass or fail result for the test.
- Identify the action before deciding on an answer.
- Check the source, situation or condition the instruction refers to.
- Use the requested form and respect any limits.
Worked examples of common examination instructions
These original examples show how a change in the instruction changes what belongs in the answer.
Keep the direction of implication
For integers, being divisible by 6 guarantees divisibility by 3. Divisibility by 3 is necessary for divisibility by 6. It is insufficient on its own, since 9 is divisible by 3 and not by 6. Read which condition the question calls necessary.
Negate a universal statement
The negation of ‘Every integer in the set is even’ is ‘At least one integer in the set is not even.’ A single odd member is enough to disprove the original statement. An answer claiming every member is odd is much stronger than the negation.
Find the step that could lose a solution
From x² = 3x, dividing both sides by x gives x = 3 only if x is nonzero. The original equation also allows x = 0. Factoring gives x(x − 3) = 0 and keeps both cases visible. Check the denominator before dividing.
Check an endpoint before choosing an option
An original question defines f(x) = x² for 0 < x ≤ 3. The range is 0 < f(x) ≤ 9. Nine is attained at x = 3. Zero can be approached but is outside the permitted outputs. Keep the inequality signs from the domain and check which endpoints the function reaches.
Use a counterexample to test a claim about signs
If a statement says a² > a for every positive real a, take a = 1/2. Its square is 1/4, so the claim fails. Testing one value larger than one can produce a true case without proving the general statement.
Use the Fencing Method to practise instructions
Start with an accurate short answer. Add one specific detail and then the relationship, evidence or explanation the task asks for. Use the same instruction in a fresh example.
- Being divisible by six guarantees divisibility by three.
- For integers, divisibility by six implies divisibility by three.
- Divisibility by three is necessary for divisibility by six, and nine shows it is insufficient.
- Use a different implication. State the domain, identify the direction and look for a counterexample to the reverse.
Read the eduKate Fencing Method for Vocabulary.
Practise and check your answers
Keep the domain beside your working
Write the allowed values before solving an equation or testing a claim. Circle any step that divides by an expression, squares both sides or uses a boundary. Check whether the step preserves the original possibilities. Then substitute candidate values in the original statement.
Practise a proof check and a counterexample check
For one practice item, explain why each step follows. For another, try to defeat the claim with an endpoint, zero, a small positive number or another allowed special case. Use the question’s quantifier to decide when an example is enough and when a general argument is required.
Practice 1. What does exactly one ask you to establish?
Show that at least one case works and that no second case can work.
Practice 2. A solution squares both sides. What should you do at the end?
Substitute the candidate values into the original statement and reject any that fail it.
Practice 3. How do you disprove a claim about all real numbers?
Find one real value allowed by the question that makes the claim false.
Practice 4. Does a true converse automatically follow from a true statement?
No. Test the reverse implication as a separate statement.
Frequently asked questions
Does the TMUA require written proof responses?
Both papers use multiple choice. You can still write intermediate reasoning in practice to decide whether a proposed statement or proof is valid.
Do wrong answers lose marks?
UAT-UK says wrong answers carry no penalty.
Does every mathematics course require the TMUA?
Check the official course entry requirements for the programme and year you are applying to.
Official sources and next reading
Related guide in this series · AQA GCSE Mathematics examination instructions
Read eduKateSG’s 200-word vocabulary guide for more ways to group and practise vocabulary.
