Measurement – Pre and Post Assessment Questions Bank The measurement questions/activities in this file may assist classroom teachers in determining student understanding and instructional “next steps” (entry and exit) related to the measurement strand addressed in grades K-6, Ontario Curriculum Grades 1-8, Mathematics. Questions have been constructed to assess students’ understanding of concepts; as well, mathematical process expectations. These process expectations are embedded in the achievement chart. Each of the process expectations are addressed at the beginning of each grade level in the Ontario Curriculum Grades 1-8, Mathematics. Knowledge and Understanding Concept Understanding Knowledge of content Procedural Fluency Facts, terms, procedural skills, use of tools Thinking Application Communication Problem Solving develop, select, and apply problem-solving strategies as students pose and solve problems and conduct investigations, to help deepen their mathematical understanding; Selecting Tools and Computational Strategies Select and use a variety of concrete, visual, and electronic learning tools and appropriate computational strategies to investigate mathematical ideas and to solve problems; Communicating Communicate mathematical thinking orally, visually, and in writing, using everyday language, as well as mathematical vocabulary, and a variety of representations, and observing basic mathematical conventions. Reflecting demonstrate that students are reflecting on and monitoring their thinking to help clarify their understandings as they complete an investigation or solve a problem; Connecting Make connections among mathematical concepts and procedures, and relate mathematical ideas to situations or phenomena drawn from other contexts; Representing Reasoning and Proving develop and apply reasoning skills to make and investigate conjectures and construct and defend arguments; Grade 6 - Pre and Post Assessment Measurement – Teacher Edition Create a variety of representations of mathematical ideas ( example: using physical models, pictures, numbers, variables, diagrams, graphs, onscreen dynamic presentations) make connections among them, and apply them to solve problems; p. 1 of 11 Classroom teachers may select questions related to the measurement concepts and Big Ideas, to assist in diagnostic, formative and summative assessment. These questions are not meant to replace assessment tasks related to the measurement unit activities in the primary math resource, Math Makes Sense; rather, these questions may provide additional information to classroom teachers in assessment of and for learning. Each grade level bank consists of questions addressing specific expectations in measurement with classification of mathematical processes involved. In many cases, a question can belong to more than one process. Classroom teachers may choose to use some or all of the questions for their grade level, depending on the overall expectations that will be addressed in a particular unit. The same questions can be used as pre and post assessment questions, with the understanding that these questions will not be “taken up” or reviewed with students during the course of instruction. Instructions for copying questions from the grade level question bank (PDF files) to Word Perfect are enclosed in this folder. Special thanks and acknowledgement is extended to the staff of Coe Hill Public School, for initiating this project as well as contributing questions and activities for the grade level assessments. Maureen Baraniecki Curriculum Coordinator HPEDSB William Lundy SETS-Mathematics HPEDSB Grade 6 - Pre and Post Assessment Measurement – Teacher Edition p. 2 of 11 Grade 6 - Measurement Pre and Post Assessment Manipulatives may be used for any assessment questions. Communication can be assessed in all questions. Some items are identified specifically for Communication Mathematical Processes are identified in italic. Overall Expectations: • • • • Estimate, measure, and record quantities, using the metric measurement system; Determine the relationships among units and measurable attributes, including the area of a parallelogram, the area of a triangle, and the volume of a triangular prism. Demonstrate an understanding of the relationship between estimated and precise measurements, and determine and justify when each kind is appropriate Estimate, measure, and record length, area, mass, capacity, and volume, using the metric measurement system. Specific Expectations Demonstrate an understanding of the relationship between estimated and precise measurements, and determine and justify when each kind is appropriate (time – traveling a distance) Estimate, measure, and record length, area, mass, capacity and volume, using the metric measurement system 6m33 select and justify the appropriate metric unit to measure length or distance in a given real-life situation 6m34 solve problems requiring conversion from larger to smaller metric units 6m35 construct a rectangle, a square, a triangle, and a parallelogram, using a variety of tools, given the area and /or perimeter 6m36 determine, through investigation using a variety of tools and strategies, the relationship between the area of a rectangle and the areas of parallelograms and triangles, by decomposing and composing 6m37 develop the formulas for the area of a parallelogram and the area of a triangle using the area relationships among rectangles, parallelograms, and triangles 6m38 solve problems involving the estimation and calculation of the areas of triangles and the areas of parallelograms 6m39 determine, using concrete materials, the relationships between units used to measure area and apply the relationship to solve problems that involve conversions from square metres to square centimeters 6m40 determine, through investigation using a variety to tools and strategies, the relationship between the height, the area of the base, and the volume of a triangular prism, and generalize to develop the formula 6m41 determine, through investigation using a variety of tools and strategies, the surface area of rectangular and triangular prisms; Grade 6 - Pre and Post Assessment Measurement – Teacher Edition p. 3 of 11 6m42 solve problems involving the estimation and calculation of the surface area and volume of triangular and rectangular prisms Manipulatives may be used for any assessment questions. Demonstrate an understanding of the relationship between estimated and precise measurements, and determine and justify when each kind is appropriate (time – traveling a distance) (Knowing facts and procedures) 1. Suzanne is flying from Toronto Pearson Airport, to Tampa Florida, USA. The flight leaves at 17:15. A) Passengers leaving for the United States must check in at the airport at least 1h30m before their flights leave. Suzanne’s watch shows the time she arrived at the airport. Is she on time? B) The plane is scheduled to land at 20:30. Florida is the same time zone as Toronto. How long is the flight? (A) Clock face reads 1504. If plane leaves at 1715, 1.5 h earlier would be deadline of 1545. Because the present time (1504) is earlier than the dealine of 1545, she’s o.k. for time. (Note: the clock could be read as 0304, which would give her PLENTY of time!) (B) Assuming the plane leaves and arrives as scheduled, arrival time minus departure time would yield the following: 20:30 – 17:15 = 3h 15 min for the flight time Determine, through investigation using a variety of tools and strategies, the surface area of rectangular and triangular prisms; solve problems requiring conversion from larger to smaller metric units (Making connections ) 2. Sarah has 1 square metre of wrapping paper. Will she have enough paper to wrap the parcel for mailing? Explain your answer. Grade 6 - Pre and Post Assessment Measurement – Teacher Edition p. 4 of 11 Surface area of the box: Front face: 8 x 2 = 16 cm2 Right face: 2 x 3 = 6 cm2 Top face: 3 x 8 = 24 cm2 Sub total: 46 cm2 Doubled to allow for one face congruent to each: 92 cm2 1 m2 of paper = (100 x 100) = 10 000 cm2, which is plenty large enough for the box (assuming the paper’s dimensions are 1m x 1m, 0.5m x 2m, etc – so that the smaller dimension of the paper is no smaller than the largest dimension of the box). Select and justify the appropriate metric unit to measure length or distance in a given real-life situation (Knowledge of Facts and Procedures) 3. What unit of metric measurement would you use to measure the perimeter of your teacher’s desk? cm most likely; dm or hm acceptable; m could be acceptable if students are used to seeing very large teacher desk; dam/hm/km unacceptable; mm not acceptable for practical reasons. Solve problems involving the estimation and calculation of the surface area and volume of triangular and rectangular prisms. (Making connections) 4. A rectangular prism has a volume of 90 cm3. The area of its base is 45 cm2. What is its height? How do you know? Because volume is the product of basal area (B = LW) and height (h) (i.e., V = Bh), 90 cm3 = 45 cm2 x h. By inspection , 90 = 45 x 2, so h = 2. This is confirmed to some degree by the diagram which shows a box that is not very high compared to its length and width. Grade 6 - Pre and Post Assessment Measurement – Teacher Edition p. 5 of 11 Select and justify the appropriate metric unit to measure length or distance in a given real-life situation. (Reasoning and proving) 5. For each measure, would you use a linear, square or cubic unit? Explain your choice and suggest an appropriate unit. a) the area of the school playground b) the distance between Bancroft and Toronto c) the amount of water in a swimming pool Area of school playground would be measured in square units; likely m2 because it would likely be measured in metres. The distance from Bancroft to Toronto is measured in linear units because it is a length; because of the great distance involved, likely we would use km. The amount of water in a swimming pool is measured in cubic units because the three dimensions of length, width, and depth are involved; m3 would be a likely choice as a pool would likely be measured in metres. Construct a rectangle, a square, a triangle, and a parallelogram, using a variety of tools, given the area and /or perimeter (Making Connections) 6. Draw and label two parallelograms, each with an area of 12 units2. Explain how you figured out the areas. Simplest parallelogram is a rectangle: i.e., a rectangle measuring 1 x 12, 2 x 6, or 3 x 4 units. Students may include a maximum of one rectangle. Parallelograms with angled sides need to come close to having the equivalent of 12 square units: student explanations need to show how they interpreted and/or paired up partial squares (e.g. with a parallelogram having 45 angles, the partial squares each just happen to be half square units). Students need to be given a little “slack” here, i.e., a difference of half a square unit between teacher determination of area and student determination of area should be considered acceptable under the circumstances of this question. Construct a rectangle, a square, a triangle, and a parallelogram, using a variety of tools, given the area and /or perimeter (Making Connections) 7. Draw and label as many as possible rectangles using whole units, each with a perimeter of 36 units. Will the areas of these rectangles be the same or different? Explain your answer. Grade 6 - Pre and Post Assessment Measurement – Teacher Edition p. 6 of 11 The nine possible rectangles have dimensions (in units) of: 1 x 17 (perimeter: 1 + 17 + 1 + 17 = 36) 2 x 16 3 x 15 4 x 14 5 x 13 6 x 12 7 x 11 8 x 10 9x9 Answer may not necessarily include sketches of all of the rectangles; for example, if student has drawn the first 3 or 4 and given dimensions only for the rest, but if it is clear that he/she has seen the pattern and recognizes that order and position are of no importance, then give full credit. Determine, through investigation using a variety of tools and strategies, the relationship between the area of a rectangle and the areas of parallelograms and triangles, by decomposing and composing. 8. Determine the area of the parallelogram using what you know about the area of rectangles and triangles. (Geoboards should be accessible to students) A pair of vertical lines can decompose the parallelogram into a triangle with base 4 (along the top) and height 8, a rectangle with base 2 and height 8, and a second triangle congruent to the first. Students might count the three areas and add them up; alternatively, students might count the area of one triangle, double it (recognizing the congruency), and add the area of the rectangle for the total; alternatively, students might show in some fashion that by sliding either triangle to the opposite side, a rectangle with base 6 and height 8 is created. In any event, the total area is 48 units2. Grade 6 - Pre and Post Assessment Measurement – Teacher Edition p. 7 of 11 Solve problems requiring conversion from larger to smaller metric units 9. Write each mass using at least two different units for each measure in the first column: t kg g mg t 0.6 0.000 75 0.0024 kg g 600 000 mg 600 000 000 750 000 2 400 000 3 200 000 000 600 kg 750 g 2400 g 3.2 t Answer: 600 kg 750 g 2400 g 3.2 t 0.75 2.4 3200 3 200 000 Note: Because units are stated at the tops of each of the columns, it is not necessary to state units in all of the cells. Extraneous zeroes have been omitted (i.e., 0.6 is written rather than 0.600). Select and justify the appropriate metric unit to measure length or distance in a given real-life situation. (Reasoning and proving) 10. There are two questions for each image: answer all questions The amount of space inside this Mayan temple: (Circle one unit) (A) millilitres (B) litres (C) cubic centimetres (D)centimetres (E) cubic metres In the question above, you are measuring for: (Circle one unit) (A) capacity (B) distance (C) mass (D)perimeter (E) volume (Answers: space = (E) m3; measuring for (E) volume) Grade 6 - Pre and Post Assessment Measurement – Teacher Edition p. 8 of 11 The amount of soup inside this can: (Circle one unit) (A) millilitres (B) litres (C) cubic centimetres (D) centimetres (E) cubic metres In the question above, you are measuring for: (Circle one unit) (A) capacity (B) distance (C) mass (D)perimeter (E) volume (Answers: soup = (A) mL; measuring for (A) capacity) The amount of jam that was in this jar before it was re-used as a pencil holder: (Circle one unit) (A) millilitres (B) litres (C) cubic centimetres (D)centimetres (E) cubic metres In the question above, you are measuring for: (Circle one unit) (A) capacity (B) distance (C) mass (D) perimeter (E) volume (Answers; amount of jam = (A) cm3; measuring for (E) volume) The amount of “Kool-Aid” in this pitcher: (Circle one unit) (A) millilitres (B) litres (C) cubic centimetres (D) centimetres (E) cubic metres Grade 6 - Pre and Post Assessment Measurement – Teacher Edition p. 9 of 11 In the question above, you are measuring for: (Circle one unit) (A) capacity (B) distance (C) mass (D) perimeter (E) volume (Answers: amount of “Kool-Aid” = (B) litres; measuring for (A) capacity) The length from head to tail of this beaded snake: (Circle one unit) (A) millilitres (B) litres (C) cubic centimetres (D) centimetres (E) cubic metres In the question above this image, you are measuring for: (Circle one unit) (A) capacity (B) distance (C) mass (D) perimeter (E) volume (Answers: length = (D) cm; measuring for (B) distance) The amount of sand this pail could hold: (Circle one unit) (A) millilitres (B) litres (C) cubic centimetres (D)centimetres (E) cubic metres In the question above this image, you are measuring for: (Circle one unit) (A) capacity (B) distance (C) mass (D) perimeter (E) volume (Answers: sand = cm3; measuring for (E) volume) Grade 6 - Pre and Post Assessment Measurement – Teacher Edition p. 10 of 11 Gr 6 Unit Test: Measurement – Marking Guide Question # 1 2 3 4 5 a, b, c 6 7 a, b 8 9, 10 Points to look for – see Answer and Marking Guide for additional detail Student response for part (A) includes accurate reading of the clock face (1504), calculations that she should have been at the airport not later than 1545; response for part (B) includes accurate calculations to derive a flight time of 3h 15min (assuming no delays). Shows knowledge that 1m2 of paper MAY measure 1m x 1m, but COULD be other dimensions (e.g. 2m x ½ m); shows conceptual understanding of surface area of the parcel (i.e. 6 faces, each with its own area, and surface area being their total, although may not use the words “surface area” explicitly) cm or dm most likely; mm would be too much work; m would be acceptable but not likely; dam/hm/km unacceptable height = 2 cm; answer should show understanding that V = Area of base x H, with 90 = 45 x “unknown height” worked through informally Answers: (a) square units for area; (b) linear units for distance; (c) cubic units for volume Answers can vary but could include (max. 1) a rectangle; students need to include explanations about how they interpret partial squares There are 9 possible rectangles using whole units; students should indicate that 8 x 10 = 10 x 8 w.r.t. perimeter, and that orientation is immaterial to the perimeter; labeling needs to include dimensions as a minimum; explanation/sketches may include understanding of a pattern Parallelogram should be decomposed into a number of rectangles and triangles, with dimensions labeled; explanation needs to be organized in a fashion that makes it clear how the final answer was determined from the decomposed parallelogram see Answer and Marking Guide Question Category Level One Level Two Level Three Level Four # Knowledge and Understanding – The student demonstrates… …of content 1, 3, 9, 10 accuracy of points limited some considerable thorough completeness of knowledge knowledge/ knowledge/ knowledge/ calculations /understanding understanding understanding understanding /counting/conversi ons Thinking – The student uses planning/critical thinking skills with… 4, 7 solution/ limited some considerable a high degree explanation is effectiveness effectiveness effectiveness of logical & effectiveness complete solution/ explanation shows alignment with directions Communicating – The student expresses/organizes/communicates/uses conventions and appropriate terminology with… 4, 5, 7 explanation is limited some considerable a high degree clear effectiveness effectiveness effectiveness of mathematical effectiveness vocabulary used Application – The student applies/transfers knowledge and makes connections with… 6, 8 shows use of limited some considerable a high degree multi steps effectiveness effectiveness effectiveness of information effectiveness logically applied Grade 6 - Pre and Post Assessment Measurement – Teacher Edition p. 11 of 11
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