Ontario MPT flashcards
Ontario MPT · Build recall with a focused review session.
32 cards. Read the term and the definition here. The deck at the top of this page is optional.
- Division of fractions rule
- To divide by a fraction, multiply by its reciprocal: a/b ÷ c/d = a/b × d/c. For example, 3/4 ÷ 2/5 = 3/4 × 5/2 = 15/8.
- Order of operations (BEDMAS)
- Evaluate brackets first, then exponents, then multiplication and division left to right, then addition and subtraction left to right. Example: 6 + 2 × 3 equals 12, not 24.
- Grade 9 MTH1W strands
- Ontario's de-streamed Grade 9 mathematics course has six strands: Mathematical Thinking and Making Connections, Number, Algebra, Data, Geometry and Measurement, and Financial Literacy.
- Elementary mathematics strands (2020)
- Ontario Grades 1–8 mathematics organizes expectations into Number, Algebra, Data, Spatial Sense, and Financial Literacy, along with social-emotional learning skills and the mathematical processes.
- Mathematical processes
- Seven processes woven through Ontario expectations: problem solving, reasoning and proving, reflecting, selecting tools and computational strategies, connecting, representing, and communicating. They are applied within every strand.
- Pythagorean theorem
- In a right triangle, a² + b² = c², where c is the hypotenuse. Grade 8 students use it to find a missing side length or to check whether an angle is right.
- Theoretical probability
- Theoretical probability equals favourable outcomes divided by total equally likely outcomes. Experimental probability compares observed favourable outcomes to total trials; the two converge as the number of trials increases.
- Mean, median, and mode
- Mean is the sum divided by the count; median is the middle value when data are ordered; mode is the most frequent value. Outliers shift the mean much more than the median.
- Integer multiplication rules
- Two numbers with the same sign give a positive product; two numbers with different signs give a negative product. So (−3) × (−4) = 12 and (−3) × 4 = −12.
- Volume of a cylinder
- V = πr²h, where r is the radius of the base and h is the height. Volume is reported in cubic units, whereas surface area is reported in square units.
- Unit rate
- A unit rate expresses a ratio per one unit, such as $3.20 per kilogram. Unit rates let students compare differently sized packages and support proportional reasoning across Grades 5 to 8.
- Solving a linear equation
- Keep the equation balanced by applying the same operation to both sides, undoing operations in reverse order: 3x + 5 = 20 becomes 3x = 15, then x = 5.
- Slope of a line
- Slope m = rise ÷ run = (y₂ − y₁)/(x₂ − x₁). In the form y = mx + b, m is the slope and b is the y-intercept where the line crosses the vertical axis.
- Ratio versus rate
- A ratio compares two quantities of the same kind, such as 3:5. A rate compares quantities with different units, such as kilometres per hour. Both can be written as fractions.
- Multiplying fractions
- Multiply numerators together and denominators together: a/b × c/d = ac/bd. The product of two proper fractions is smaller than either factor, which students use to check reasonableness.
- Surface area of a rectangular prism
- SA = 2(lw + lh + wh), the sum of the areas of all six faces. The result is expressed in square units, distinct from volume in cubic units.
- Pattern rule to linear relation
- A pattern with a constant first difference is linear. The difference becomes the multiplier and the value at term zero becomes the constant: 5, 8, 11 gives 3n + 2.
- Grade 3 multiplication expectation
- Ontario Grade 3 students develop and use multiplication facts for 2, 5, and 10 and the related division facts; Grade 4 extends to facts through 10 × 10.
- Three-part lesson structure
- A lesson frame with an activation or minds-on, a problem-solving action phase, and a consolidation where strategies are shared, compared, and named as the mathematical learning.
- Success criteria
- Co-created, student-friendly statements describing what a successful response looks like. They must be observable and specific enough for students to monitor their own work against them.
- Descriptive feedback
- Feedback that names what was done well and what to do next, tied to the success criteria. It improves achievement more than marks, grades, or general praise.
- Triangulation of evidence
- Judging achievement using three sources of evidence: observations, conversations, and student products. No single source or single task should determine a grade.
- Concrete-representational-abstract sequence
- A teaching sequence moving from manipulatives, to drawings and diagrams, to symbols and algorithms. Skipping a stage can leave conceptual gaps that surface in later grades.
- Number talk
- A five to fifteen minute routine of mental computation followed by sharing and comparing strategies. It builds fluency and flexibility rather than speed of recall.
- Bansho
- Organizing student solutions on the board by strategy so the class can compare approaches and build a shared mathematical generalization during the consolidation phase.
- Low floor, high ceiling task
- A task with accessible entry points but room to extend into sophisticated mathematics, so the whole class can work on the same problem at different levels.
- Assessment for learning
- Formative assessment used during learning to adjust teaching and provide feedback. It is diagnostic and forward-looking, focused on closing the gap rather than judging performance.
- Differentiated instruction
- Adapting content, process, product, or environment in response to student readiness, interest, and learning profile, while keeping the same big idea for the whole class.
- Math anxiety
- A negative emotional response to mathematics, often increased by timed tests, public comparison, and speed pressure. Flexible grouping and multiple entry points help reduce it.
- Wait time
- Pausing about three to five seconds after asking a question before taking responses. It increases response length and the number of students who participate.
- Additive to multiplicative thinking
- A progression from 'how many more' comparisons to 'how many times as many'. This shift underpins proportional reasoning in Grades 5 to 8.
- Learning goal
- A brief statement of the mathematical idea students should understand by the end of a lesson, written in student-friendly language and linked to a curriculum expectation.