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Spotlight on Science Skills

Grade 6

Acknowledgements The New Brunswick Department of Education and Early Childhood Development gratefully acknowledges the contributions of the following groups and individuals toward the development of the New Brunswick Spotlight on Science Skills – Grade 6. • Development Team:

• Judson Waye – ASD-N • Adam Hayward – ASD-N

• NB Department of Education and Early Childhood Development

• Kathy Hildebrand, Learning Specialist, Science and Mathematics

• Science Learning Specialists and science teachers of New Brunswick who provided invaluable input

and feedback throughout the development and implementation of this document.

2015 Department of Education and Early Childhood Development

Educational Programs and Services

Objective The Atlantic provinces’ science curriculum is guided by the vision that all students will have an opportunity to develop scientific literacy.

Scientific literacy is an evolving combination of the science-related attitudes, skills, and knowledge that students need to develop inquiry, problem-solving, and decision-making abilities, to become lifelong learners, and to maintain a sense of wonder about the world around them. Foundation for the Atlantic Canada Science Curriculum, page 11

The Spotlight on Science Skills series of documents: -‐ Clusters the existing Atlantic Canada skill outcomes into nine scientific practices

(questioning, predicting/hypothesizing, variables, experimental design, collecting data/observations, organizing/displaying data, analyzing data, making conclusions, applying learning).

-‐ Provides educators with an elaboration of the scientific practice including explanations of specialized terminology. It indicates what students have learned in previous grades and what the focus is for learning in the current grade.

-‐ Provides a list of achievement indicators with an accompanying rubric for each scientific practice to further clarify expectations and guide educators in determining whether their students have met the outcome.

Overview of Outcomes GCO: Plan & Perform (PP) - Ask questions, make predictions about objects and events and develop fair tests to investigate those questions. Observe and investigate their environment and record the results SCO: PP1 - Propose scientific questions SCO: PP2 - State a prediction and a hypothesis based on an observed pattern of events SCO: PP3 - Identify major variables to control and test in investigations SCO: PP4 - Plan a set of steps to solve a practical problem SCO: PP5 - Record observations and collect relevant data GCO: Analyze & Explain (AE) - Interpret findings from investigations using appropriate methods. Work collaboratively to carry out science-related activities, and communicate ideas, procedures and results. SCO: AE1 - Classify by Attributes & Display of Relevant Data SCO: AE2 - Analysis of Data Representations: Trends, Discrepancies & Sources of Error SCO: AE3 - Conclusions SCO: AE4 - Applications of Learning

Scientific Skill - Questioning

New Brunswick Spotlight on Science Skills: Grade 6 April 2015

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GCO: Plan & Perform (PP) Ask questions, make predictions about objects and events and develop fair tests to investigate those questions. Observe and investigate their environment and record the results SCO: PP1 Propose scientific questions Scope and Sequence of Outcomes

Grades K-3 Grades 4-6 Grades 7-9 200-1 Ask questions that lead to the exploration and investigating 204-1 Propose questions to

investigate and practical problems to solve

208-2 Identify questions to investigate arising from practical problems and issues 200-2 Identify problems to be

solved

204-2 Rephrase questions in a testable form

208-1 Rephrase questions in a testable form and clearly define practical problems 208-3 Define and delimit questions and problems to facilitate investigation

Elaboration Guiding Questions: • What do I want my students to learn? • What do I want my students to understand and be able to do? Before writing a testable question, students will be able to pose an initial scientific question. Scientific questions may have different purposes: for research, leading to an innovation, or designing an experiment. If the question is a yes or no answer or an opinion, students should be encouraged to rewrite the question to be unbiased.

Research Innovation Experiment/Investigation How does a tuning fork make salt jump?

How might we make this better?

What happens if I use another tuning fork?

Will there be a full moon tonight?

What type of fertilizer will make grass grow greener?

What changes can be made to make this work more efficiently?

From an initial scientific question, students are able to alter a scientific problem or question into a testable form. A testable question is one that can be answered by designing and conducting an experiment. In order for a question to be deemed testable, the question must clearly identify the variable to test and the variable to measure. Testable questions are always about changing one thing to see what the effect is on another thing. Testable questions have two parts: Independent and Dependent Variables The independent variable (IV) is the variable that will be changed by the scientist. A good experiment has only one independent variable. The dependent variable (DV) is the variable being measured in the experiment.

• Scaffold 1- Does changing __IV___ affect __DV___? • Scaffold 2 - How does changing __IV___ affect __DV___?

Connection to Communication

• Communicate questions, ideas, and intentions, and listen

• Ask others for advice or opinions

Scientific Skill - Questioning


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• Scaffold 3 - If I change __IV___, will it affect __DV___? • “If they wash their hands (variable to be tested/IV), will the number of days

students are absent decrease (variable to measure/DV)?

Initial Scientific Question Testable Question

What happens if I use another tuning fork? If we use different types of tuning forks, will the rate of sound vibrations be the same?

What changes can be made to make this work more efficiently?

Does changing the type of light bulb affect energy consumption?

Students should understand that precise language is very important to writing a good testable question. Students should be encouraged to change terms such as “better” and “improve” with the specific measure to be improved. For example:

“If I change the wheels, will it improve how the car rolls?” is a statement approaching expectations, since the variable to be measured is not specific and is open to interpretation.

“If I change the wheels, will it increase the distance travelled?” is a statement meeting expectations because it indicates what will be measured. Achievement Indicators Guiding Questions: • What evidence will I look for to know that learning occurred? • What should students demonstrate to show their understanding of the Scientific Process Skill? Use the following set of indicators as a guide to determine whether students have met the corresponding specific outcome.

i. Write questions using language that suggests an investigation ii. Develop testable questions that indicate the variable to test (independent variable) iii. Develop testable questions that indicate the variable to be measured/observed

(dependent variable) iv. Use language that is precise and relevant to the question

Achievement Rubric Exceeding- 4 Meeting - 3 Approaching - 2 Working Below - 1

Testable Question

Testable and measureable/ observable using specific language

Testable and measureable/ observable form but not specific to the parameters (may use “better” or “improve”)

Any other answer

Scientific Skill - Predicting and Hypothesizing


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GCO: Plan & Perform (PP) Ask questions, make predictions about objects and events and develop fair tests to investigate those questions. Observe and investigate their environment and record the results SCO: PP2 State a prediction and a hypothesis based on an observed pattern of events Scope and Sequence of Outcomes

Grades K-3 Grades 4-6 Grades 7-9

200-3 Make predictions, based on an observed pattern

204-3 State a prediction and a hypothesis based on an observed pattern of events

208-5 State a prediction and a hypothesis based on an observed pattern of events

Elaboration Guiding Questions: • What do I want my students to learn? • What do I want my students to understand and be able to do? In Grade 6, the term hypothesis is introduced. Hypothesis statements are plausible predictions of a relationship between two variables, supported by information from a student’s current understanding. This understanding could come from a variety of sources such as a previous experiment, a demonstration, research, a television program, or what someone has told them is true. Students will be working during their middle school years with developing hypotheses with the expectation of mastery at high school. A useful hypothesis is a testable statement, which includes a prediction and a supporting reason or explanation. A useful scaffold for writing hypotheses is the “If, then, because” scaffold.

Hypothesis If...then...because

If the (IV) is (describe the change), then the (DV) will (predict the effect), because (state the justification). Independent Variable - (IV) Dependent Variable - (DV) Hypothesis examples:

• If exposure to UV light is increased then more people will get skin cancer, because research shows that people in warmer climates get more skin cancer than people in cold climates. (supported by research)

• If the cones of a tree are pink rather than yellow, then flies will lay more eggs in them, because initial observations seem to show this trend. (supported by observations)

• If salt concentrations in soil are increased then the rate of plant growth will decrease, because plants growing near salt water are smaller. (supported by research or observations)

• If air temperature is reduced, then leaf colour will change, because leaves change colour in the fall when it starts to get cooler. (supported by observations)





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Students have been using an “If, then, because” scaffold in the elementary grades for writing predictions with a supporting reason. In Grade 6, a hypothesis will be more specific and/or may suggest a more complex investigation than in previous grades. The other change for Grade 6 students is the introduction of the writing of hypotheses in the passive voice. The passive voice reinforces that scientific work is done as objectively as possible. It clearly expresses descriptions and procedures so they can be compared and reproduced. For example:

Grade 3 Grade 4 Grade 5 Grade 6 (passive voice)

If I add fertilizer then the grass will grow bigger, because when my dad added it the flowers they grew big.

If I add fertilizer then the grass will grow taller, because our bean plants with fertilizer grew taller than the others.

If I add fertilizer then the grass will grow taller, because it will give the plants more nutrients that have been shown to support growth.

If the amount of fertilizer is increased then the grass will grow tall faster, because the fertilizer will provide more nutrients that have been shown to support growth.

A hypothesis is a tentative statement, which the results of the investigation will support or not. Students have a tendency to want their hypothesis to be proven correct. Results may be expected or unexpected. The hypothesis is not found to be “wrong”, but rather supported or unsupported. The conclusion will be equally correct whether or not the evidence supports the hypothesis. Furthermore, when the hypothesis is supported, it does not necessarily mean the hypothesis is correct. For example:

Hypothesis

If exposure to UV light is increased then more people will get skin cancer, because research shows that people in warmer climates get more skin cancer than people in cold climates.

-‐ If supported

One must still consider that factors other than exposure to UV light may be responsible for or contribute to skin cancer.

-‐ If not supported

There may be more than one factor necessary for skin cancer to occur, such as exposure to skin cancer and genetic predisposition to cancer.

Depending on the context, estimation is a skill that can enhance the ability to make an accurate scientific prediction. Estimation is a strategy for determining approximate values or quantities, usually by referring to benchmarks or using referents, or for determining the reasonableness of calculated values. Based on the grade level standards (cross-curricular with Math), students should use estimation strategies where appropriate.



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Achievement Indicators Guiding Questions: • What evidence will I look for to know that learning occurred? • What should students demonstrate to show their understanding of the Scientific Process

Skill? Use the following set of indicators as a guide to determine whether students have met the corresponding specific outcome.

i. Write prediction or hypothesis statements that are testable (suggesting a test of how the two variables are related).

ii. Write hypothesis statements using the “If, then, because” format, including a plausible reason (from previous learning and/or research); tentative words such as evidence suggests and may may be used.

iii. Write prediction and hypothesis statements in passive voice.


Prediction and Hypothesis

• Makes a prediction or hypothesis statement which is testable; is specific with details

• Makes a hypothesis using an “If, then, because” scaffold: -‐ relevant to the

question -‐ testable -‐ includes a

plausible reason (refers to research)

• Written passive voice

• Makes a prediction or hypothesis statement which is testable

• Makes a hypothesis using an “If, then, because” scaffold: -‐ relevant to the

question -‐ testable -‐ includes a

plausible reason (may refer to readings or research)

• Written in passive voice

• Prediction or hypothesis is not clearly testable

• Makes a hypothesis using an “If, then, because” scaffold including a reason which may be relevant but is not clearly expressed

• Not written in passive voice

Prediction or hypothesis is not testable

Makes a hypothesis, but the reason is missing or irrelevant

Any other answer

Scientific Skill - Identifying Variables


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GCO: Plan & Perform (PP) Ask questions, make predictions about objects and events and develop fair tests to investigate those questions. Observe and investigate their environment and record the results SCO: PP3 Identify major variables to control and test in investigations Scope and Sequence of Outcomes


204-4 Define objects and events in their investigations

208-7 Formulate operational definitions of major variables and other aspects of their investigations

204-5 Identify and control major variables in investigations

208-6 Design an experiment and identify major variables

Elaboration Guiding Questions: • What do I want my students to learn? • What do I want my students to understand and be able to do? Students should understand that variables are predominant in many scientific process skills. The focus of this specific outcome is the identification of variables to ensure a fair test. In practice, a fair test means identical procedures must be performed where only one variable is changed at a time. Students should be able to design a fair test that considers the variables that need to be controlled (kept the same) and the identification of a variable to test (independent) and a variable to measure/observe (dependent). Controlled Variables - the variables that are kept constant or monitored to minimize any effects on the experiment. Independent Variable (IV) - the variable in the experiment that is purposely changed or manipulated, either in quantity or quality, also referred to as the manipulated variable or variable to test. Dependent Variable (DV) - the variable in an experiment that changes in response to the independent variable and, therefore, is also referred to as the responding variable or the variable to measure. The independent and dependent variables are factors in writing a testable question. Example: Initial Scientific Question - “How effective are plant-based insect repellants?”

Independent Variable Possible Dependent Variables

Different brands of plant-based repellents

• total number of insect bites • size of insect bites (mm) • color and/or itchiness of insect bites • length of time they provide protection (min)




• Identify problems as they arise and work cooperatively with others to find solutions



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Expected Controlled Variables: Electromagnet Example (less complex task)

Grade 6 Grade 7 Grade 8 • Size of nail • Size of battery • Number of times wire is

wrapped around nail

• Size of nail • Battery voltage • Number of times wire is

wrapped around nail • How tightly wire is wrapped • Material nail is made from

• Size of nail • Battery voltage • Number of times wire is

wrapped around nail • How tightly wire is wrapped • Material nail is made from • Temperature in room

Expected Controlled Variables: A consumer reports company testing winter tires scenario (more complex task)

Grade 6 Grade 7 Grade 8 • Speed before braking • Road conditions • Temperature • Same car is used

Students should be able to recognize at least 5 of 6: • Speed before braking • Road conditions • Weather conditions

(temperature, sun, etc.) • Same car is used • Same driver • Same pressure is applied to

brake each trial

• Speed before braking • Road conditions • Weather conditions

(temperature, sun, etc.) • Same car is used (weight of

car remains constant as car is re-fueled each time)

• Same driver • Same pressure is applied to

brake each trial

Achievement Indicators Guiding Questions: • What evidence will I look for to know that learning occurred? • What should students demonstrate to show their understanding of the Scientific Process Skill? Use the following set of indicators as a guide to determine whether students have met the corresponding specific outcome.

i. Distinguish between what is tested, what is measured/observed and what is controlled ii. Identify one independent variable and one dependent variable, with other variables

controlled in investigations iii. Collect evidence relevant to the relationship of the independent and dependent variable



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Achievement Rubric

Exceeding- 4 Meeting - 3 Approaching - 2 Working Below - 1

Controlled

Depending on the complexity of the investigation, most or all of the necessary variables are controlled and described in detail

Depending on the complexity of the investigation, most or all of the necessary variables are controlled

Only controlling some of the relevant variables

Any other answer Controlling variables that are not relevant to the investigation

Independent

Students identify one independent variable (variable to be tested) that fits the question

Students identify one independent variable (variable to be tested) not relevant to the question

Any other answer

Dependent

Students identify one dependent variable (variable to be measured) that fits the question

Students identify one dependent variable (variable to be measured) not relevant to the question

Any other answer

Scientific Skill - Designing Investigations


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GCO: Plan & Perform (PP) Ask questions, make predictions about objects and events and develop fair tests to investigate those questions. Observe and investigate their environment and record the results SCO: PP4 Plan a set of steps to solve a practical problem Scope and Sequence of Outcomes


200-4 Select and use materials to carry out their own explorations

204-6 Identify various methods for finding answers to given problems, and ultimately select one that is appropriate

208-4 propose alternative solutions to a given practical problem, select one, and develop a plan

200-5 Identify materials and suggest a plan for how they will be used

204-7 Plan a set of steps to solve a practical problem and carry out a fair test of a science-related idea

208-6 Design an experiment and identify major variables

204-8 Identify appropriate tools, instruments, and materials to complete their investigations

208-8 Select appropriate methods and tools for collecting data for solving problems

201-7 identify and use a variety of sources of science information and ideas

205-8 Identify and use a variety of sources and technologies to gather pertinent information

209-5 Select and integrate information from various print and electronic sources or from several parts of the same source

Elaboration Guiding Questions: • What do I want my students to learn? • What do I want my students to understand and be able to do? Students should be able to design a plan that they will use to fairly test an initial idea or question in a safe manner. In practice, a fair test means identical procedures must be performed where only one variable is changed at a time. The focus of these outcomes is the planning of steps and experimental design. There are a variety of components that make up experimental design. Requirements of experimental design:

• Identification of needed equipment and materials • Identification of variables (Controls & Independent/Dependent) • Planning a set of steps:

• to test a single question • design minimizes bias • may incorporate multiple trials to increase accuracy • can be repeated by someone else


• Communicate procedures and results, using lists, notes in point form, sentences, charts, graphs, drawings, and oral language

• Work with team members to develop and carry out a plan



• Ensure safety of self and others



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Students are also expected to follow and carry out procedures safely (both teacher-directed and student-designed) using appropriate materials and tools effectively. Bias Holding a scientific bias means to unfairly favour one variable against another. In order for a test to be deemed fair, it must be done in a way that eliminates one variable having an advantage. Identical procedures must be uniformly performed. For example, every time you release your paper airplane, it’s uniformly performed, regardless of the type of paper used. Multiple Trials It is often important to perform multiple trials of an experiment to ensure that the results are accurate, reliable, and reproducible. If the variable was accidentally changed in the first trial, this becomes obvious in the following trials and can be corrected in future trials. The number of trials required depends on the amount of time to conduct the experiment and the nature of the task. Achievement Indicators Guiding Questions: • What evidence will I look for to know that learning occurred? • What should students demonstrate to show their understanding of the Scientific Process Skill? Use the following set of indicators as a guide to determine whether students have met the corresponding specific outcome.

i. Plan procedures with a set of steps to test a single question ii. Plan procedures to minimize experimental bias iii. Plan procedures to use multiple trials to increase accuracy, if appropriate iv. Plan procedures with enough detail they can be repeated by someone else v. Plan procedures identifying needed equipment and materials vi. Plan procedures identifying relevant measurements and/or observations to be made vii. Plan procedures with one independent and one dependent variable and write in a way

that controls other major variables

Grade 6 Language Arts Reading and Writing Standards Form: Instructions/Procedures Purpose: to tell how to do something Goal or aim: identifies topic by title or opening statement(s) Materials/Ingredients: lists materials Method/process: includes key steps in correct order with adequate details focusing on how/when Conclusion or Evaluation: includes a closing statement or an evaluation which may be a photograph or drawing of the completed item Special Features

• May include headings, illustrations, diagrams or labels • Numbered-steps or words showing sequence (first, next, then) • Point form or full sentences starting with sequence word or verbs • Present tense often written as commands • Technical language – verbs, adverbs and adjectives (e.g., whip the cooled cream vigorously)



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Planning an investigation

Independently, students perform: • Procedures have a

set of steps to test a single question

• Procedural design minimizes experimental bias

• Procedural design uses multiple trials to increase accuracy (if appropriate)

• Procedures are detailed enough to be repeated by someone else

• Procedures identify needed equipment and materials

• Procedures identify relevant measurements and/or observations to be made

• Procedures have one independent and one dependent variable and is written in a way that controls other major variables

Independently, students perform: • Procedures have a






Independently, students perform 3-4 of the following: • Procedures have a






Any other answer

Students may require support with: • Procedural design

minimizes experimental bias

• Procedural design uses multiple trials to increase accuracy (if appropriate)

Students require support with other achievement indicators

Scientific Skill - Collecting and Recording Data


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GCO: Plan & Perform (PP) Ask questions, make predictions about objects and events and develop fair tests to investigate those questions. Observe and investigate their environment and record the results SCO: PP5 Recording observations and collecting relevant data Scope and Sequence of Outcomes


201-4 Observe, using one or a combination of the senses

205-5 Make observations and collect information relevant to a given question or problem 209-4 Organize data, using a

format that is appropriate to the task or experiment

201-5 Make and record relevant observations and measurements, using written language, pictures, and charts

205-7 Record observations using a single word, notes in point form, sentences, and simple diagrams and charts

Elaboration Guiding Questions: • What do I want my students to learn? • What do I want my students to understand and be able to do? The focus of this section is that students are able to record all relevant information measured (Quantitative) and observed (Qualitative) in a format appropriate to the type of data. Qualitative data describes whereas quantitative data defines. The dependent variable will determine the type of data collected. Students are expected to accurately record what is observed even when results differ from what is expected. Results are never right or wrong, but only expected or unexpected. Unexpected results still convey important information. Quantitative Data - Data that can be measured, numbers with unit of measurement are recorded. Examples include: length, height, area, volume, weight, speed, time, temperature, humidity, sound level, cost, age, and so on. Students should understand that they must accurately use scientific devices and equipment. In Grade 6, when variables are measured, accurate measurement is important. Qualitative Data - Data that can be observed but not measured. It usually describes characteristics or qualities. Examples include: colour, odour, texture, appearance, or data that is described by category (e.g., the colour of the sky) Students should be able to distinguish their observations from making an inference. Observations require you to use one or more of your five senses to notice or determine something. Inferences are statements that combine observations with other knowledge. For example: you see steam rising from a cup of coffee

Ø “steam is rising from the cup of coffee” (observation) Ø “the coffee is hot” (inference).





• Ensure safety of self and others

Scientific Skill - Collecting and Recording Data


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It is important to the process that students understand that they should suspend judgment during data collection. Both expected and unexpected results are valuable. Achievement Indicators Guiding Questions: • What evidence will I look for to know that learning occurred? • What should students demonstrate to show their understanding of the Scientific Process Skill? Use the following set of indicators as a guide to determine whether students have met the corresponding specific outcome.

i. Collect measurements and/or observations relevant to the question being tested ii. Collect the type of data appropriate to the dependent variable, quantitative when

possible and record honestly iii. Record evidence with labels and in an organized manner iv. Collect quantitative data accurately and record with units v. Record qualitative data factually without inferences


Data Collection

Routinely collects data that is: relevant, appropriately labeled, organized, & honest

The type of data collected is irrelevant or needs support to identify relevancy

Any other answer May be reluctant to record observations contrary to predictions

Quantitative

Routinely: Measures accurately and records with units

Accuracy is inconsistent and/or units are missing Any other answer

Qualitative

Routinely: Records observations with appropriate detail and not inferences

Observations very general not very detailed Any other answer

Scientific Skill - Organizing and Displaying Data


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GCO: Analyze & Explain (AE) Interpret findings from investigations using appropriate methods. Work collaboratively to carry out science-related activities, and communicate ideas, procedures and results. SCO: AE1 Classify by Attributes & Display of Relevant Data Scope and Sequence of Outcomes

Grades K-3 Grades 4-6 Grades 7-9 202-1 Use personal observations when asked to describe characteristics of materials and objects studied 206-1 Classify according to

several attributes and create a chart or diagram that shows the method of classification

210-1 Use or construct a classification key

202-2 Place materials and objects in a sequence or in groups according to one or more attributes 202-3 Identify the most useful method of sorting for a specific purpose

204-4 Construct and label concrete-object graphs, pictographs, or bar graphs

206-2 Compile and display data, by hand or by computer, in a variety of formats including frequency tallies, tables, and bar graphs

210-2 Compile and display data, by hand or computer, in a variety of formats, including diagrams, flow charts, tables, bar graphs, line graphs, and scatter plots

210-3 Identify strengths and weaknesses of different methods of collecting and displaying data

Elaboration Guiding Questions: • What do I want my students to learn? • What do I want my students to understand and be able to do? This outcome is about organizing information after data collection. Organizing qualitative information: students need to be able to identify and classify according to attributes. The classification requires students to use sorting rules consistent with math standards. “In Grade 2, students need to build on their prior experiences to sort objects and shapes using two attributes. If students find it difficult to sort by two attributes at the same time, they may find it helpful to sort by one attribute and combine two of the sorted groups.” (NB Mathematics Grade 2 Curriculum, p.70) In Grade 6, students need to be able to identify important characteristics that distinguish or are in common across a variety of items or organisms. It is expected that this information would be organized and displayed (e.g., Venn diagram).



• Work with group members to evaluate



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Organizing quantitative data: students need to be able to take quantitative data and display it in an appropriate format. The focus is taking raw data and creating charts or graphs that are appropriate to the task. Please refer to Math curriculum and the standards expected at each level. Note that the distinction between discrete and continuous data is often overlooked. Grade 3 Math Standard Single Bar Graph

Grade 5 Math Standard Double Bar Graph

Grade 6 Math Standard Line Graph

“The purpose of a line graph is to focus on trends implicit in the data…the distinction between continuous and discrete data should be emphasized as students investigate line graphs. Continuous data includes an infinite number of values between two points and is shown by joining the data points. Discrete data has finite values (i.e., data that can be counted such as the number of pets), and the data between the points have no value. As a result the points in the graph should not be connected and no inferences can be made about values between two data points” (NB Mathematics Grade 6 Curriculum, pg. 94)

Legend

Title

Axis label

Axis label

Intervals

Scale



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i. Identify relevant characteristics that distinguish or are in common across a variety of items or organisms.

ii. Organize and display information about characteristics appropriately (e.g., Venn diagram)

iii. Use charts or graphs with appropriate titles and labels a. Graphs require data to be correctly displayed, correct scale, appropriate labels (x

and y axis), and an overall title b. Charts include all necessary headings and units

iv. Differentiate between discrete and continuous data and use the appropriate type of graph based on the data (e.g., bar graph, double bar graph, line graph, pictograph)

Achievement Rubric

Exceeding- 4 Meeting - 3 Approaching - 2 Working Below - 1

Identify Relevant Attributes

Identifies relevant characteristics of items or organisms and groups by similarities and/or differences

Includes characteristics not relevant to the questions or problem Any other answer

Displaying Appropriately

Takes the initiative to display the data in various ways that reveal various patterns

Information is organized and displayed in a way appropriate to the data so that patterns and trends are apparent (Venn diagram, bar graph, etc.)

The type of organization of data selected does not reveal patterns and trends or is inappropriate to the type of data

Any other answer

Use of conventions with displays

Graphs with proper x and y axis (Convention in science is for IV on the x axis and the DV on the y axis)

Charts and graphs have all appropriate titles and labels and information is plotted correctly

Data or information is plotted correctly but a minor error in the labels may be present

Any other answer

Scientific Skill - Reflecting and Analyzing


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GCO: Analyze & Explain (AE) Interpret findings from investigations using appropriate methods. Work collaboratively to carry out science-related activities, and communicate ideas, procedures and results. SCO: AE2 Analysis of Data Representations: Trends, Discrepancies & Sources of Error Scope and Sequence of Outcomes


202-5 Identify and suggest explanations for patterns and discrepancies in observed objects and events

206-3 Identify and suggest explanations for patterns and discrepancies in data

210-4 Predict the value of a variable by interpolating and extrapolating from graphical data 210-9 Calculate theoretical values of a variable 210-6 Interpret patterns and trends in data, and infer and explain relationships among the variables 210-7 Identify and suggest explanations for, discrepancies in data 210-5 Identify the line of best fit on a scatter plot and interpolate or extrapolate based on the line of best fit 210-10 Identify potential sources and determine the amount of error in measurement

Elaboration Guiding Questions: • What do I want my students to learn? • What do I want my students to understand and be able to do? This outcome is asking students to analyze data. Interpreting data is a critical-thinking process used by scientific researchers to review the data gathered in the course of an investigation. Drawing conclusions is a separate outcome though it is expected that they would be learned together. At Grade 6, students should be able to identify and explain patterns/trends in data. Students are expected to suggest a reasonable explanation(s) noting possible sources of error. Students should be able to describe the relationship the pattern/trend indicates. Interpreting data involves sorting it into useful arrangements, looking for similarities and differences, thinking about missing data or errors, and summarizing what the data might mean. Appropriate description: The population of New Brunswick increased until 1996 and then decreased slightly. Not acceptable descriptions: The population went up and then it went down. – Lacks detail in description




Hildebrand, Kathy (…, 2015-4-8 11:02 AMDeleted: <sp>UnknownFormatted: Font:11 pt



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It started out steep, then it got flatter. – Vague language Overall the population went up. – Oversimplification Also, regardless of the type of data, students should be able to identify a discrepancy within the data. A discrepancy is a value or observation that deviates from the standard or norm. Discrepant data do not fall within the observed pattern. Achievement Indicators Guiding Questions: • What evidence will I look for to know that learning occurred? • What should students demonstrate to show their understanding of the Scientific Process Skill? Use the following set of indicators as a guide to determine whether students have met the corresponding specific outcome.

i. Identify and explain a general pattern/trend/relationship from the observed and organized data

ii. Identify a discrepancy in data and note possible sources of error Achievement Rubric Exceeding- 4 Meeting - 3 Approaching - 2 Working Below - 1

Pattern/ Trends/ Relationship

Independently communicates additional pattern/trend/ relationship

Describes an appropriate pattern/trend/ relationship

Pattern/trend/relationship is unclear or overly simplistic Any other answer

Discrepancy

Change to the experimental design is suggested to eliminate the occurrence of the source of error

Identifies a discrepancy, noting a possible source of error

Identifies a discrepancy, but is unable to explain the possible source of error

Any other answer



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Scientific Skill - Drawing Conclusions


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GCO: Analyze & Explain (AE) Interpret findings from investigations using appropriate methods. Work collaboratively to carry out science-related activities, and communicate ideas, procedures and results. SCO: AE3 Conclusions Scope and Sequence of Outcomes


202-7 Propose an answer to an initial question or problem and draw a simple conclusion based on observations or research

206-5 Draw a conclusion, based on evidence gathered through research and observation, that answers an initial question

210-11 State a conclusion, based on experimental data, and explain how evidence gathered supports or refutes an initial idea

Elaboration Guiding Questions: • What do I want my students to learn? • What do I want my students to understand and be able to do? Students should use information from readings, from previous learning, prior knowledge, and from evidence gained through investigation to draw conclusions. To make simple conclusions means that students are able make a statement based upon logic and the evidence available. Whether the prediction/hypothesis is supported or refuted is not a measure of success or failure since scientific knowledge is advanced by either result. Where possible students should compare the results of their investigation to those of others, recognize that results may vary and explain why. Comparison of findings to those of similar investigations can add weight to the conclusion. The conclusion: • will be framed around the initial question that was tested. As the student analyzes the data

it is important to ask the question: Did the change (independent variable) made cause the effect that was measured (dependent variable)?

• must either confirm, deny, or acknowledge uncertainty about the relationship between the two variables. The prediction/hypothesis may be supported or refuted based on the data.

• may comment on whether the investigation was a fair test and suggest improvements to experimental design.




Scientific Skill - Drawing Conclusions


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i. Make a conclusion based on logic and available evidence ii. Make a conclusion that answers the initial question iii. Include a statement that their data either supports or refutes their initial

prediction/hypothesis iv. Justify this claim by providing evidence from data collected v. Compare the results of their investigation to those of others and recognize that results

may vary Achievement Rubric Exceeding- 4 Meeting - 3 Approaching - 2 Working Below - 1

Conclusion

• Reflects science understanding beyond that made available to students, indicating additional independent research

• Compares findings to other similar investigations

• Reflects science understanding and give some reason for results based on evidence

• States a relationship between variables and supporting evidence

• Is relevant to initial question and prediction/hypothesis

• May include suggestions to improve experimental design

Restates only the recorded results and observations or is a result of flawed reasoning

Any other answer

Scientific Skill – Extending Thinking


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GCO: Analyze & Explain (AE) Interpret findings from investigations using appropriate methods. Work collaboratively to carry out science-related activities, and communicate ideas, procedures and results. SCO: AE4 Applications of Learning Scope and Sequence of Outcomes

Grades K-3 Grades 4-6 Grades 7-9 202-6 Distinguish between useful and not useful information when answering a science question

206-4 Evaluate the usefulness of different information sources in answering a given question

210-8 Apply given criteria for evaluating evidence and sources of information

202-8 Compare and evaluate personally constructed objects with respect to their form and function

206-6 Suggest improvements to a design or constructed object

210-13 Test the design of a constructed device or system 210-14 Identify and correct practical problems in the way a prototype or constructed device functions

206-7 Evaluate personally constructed devices with respect to safety, reliability, function, appearance, and efficient use of materials

210-15 Evaluate designs and prototypes in terms of function, reliability, safety, efficiency, use of materials, and impact on the environment

206-8 Identify potential applications of findings

210-12 Identify and evaluate potential applications of findings

202-9 Identify new questions that arise from what was learned

206-9 Identify new questions or problems that arise from what was learned

210-16 Identify new questions and problems that arise from what was learned

Elaboration Guiding Questions: • What do I want my students to learn? • What do I want my students to understand and be able to do? Applications of Learning components involve higher order thinking type activities. Depending on the task, this can take different forms. The overall theme is that students are discussing and reflecting: • evaluating sources of information • evaluating the fairness of an experimental design • evaluating the usefulness of a constructed design • applying conclusions reached to real world scenarios • extending those initial ideas by creating new questions to test • evaluating their own/other’s thinking and explanation in terms of plausibility and scientific

evidence Students should be engaged in metacognition which is, put simply, thinking about one’s thinking. The burden of learning does not fall on the teacher alone. Students need to be aware




Scientific Skill – Extending Thinking


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of what they need to do to learn, to self-monitor. It includes: • The awareness of the need to connect how new knowledge relates to what one already knows • Opportunities for self-assessment such as explaining their thinking via discussions (with

varying views) or journal writing • Opportunities to test one’s ideas such as with investigations or designing items Achievement Indicators Guiding Questions: • What evidence will I look for to know that learning occurred? • What should students demonstrate to show their understanding of the Scientific Process Skill? Use the following set of indicators as a guide to determine whether students have met the corresponding specific outcome.

i. Demonstrate higher order thinking, depending on the task, communicated during discussion and/or reflection

Achievement Rubric: Exceeding- 4 Meeting - 3 Approaching - 2 Working Below - 1

Applications of Learning

Generally demonstrates evidence of one or more of the following: • Justifies

statements by making connections to scientific knowledge,

• Displays evaluation of the concept taking into account other scientific knowledge,

• Identifies how findings can be applied to other situations

• Evaluates the relevancy and reliability of sources

• Extending idea to foster a new idea

Needs support or prompting to: • Justify statements

by making connections to scientific knowledge,

• Display evaluation of the concept taking into account other scientific knowledge,

• Identify how findings can be applied to other situations

• Evaluate the relevancy and reliability of sources

• Extend an idea to foster a new idea

Any other answer

Appendix A – End of Year Reporting Rubrics (Plan and Perform)


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4 - Excelling 3 - Meeting 2 - Approaching 1 - Working Below Independently and consistently rephrases questions clearly in a testable form (includes two variables) identifying observable or measurable characteristics

Generally rephrases questions clearly in a testable form (includes two variables) identifying observable or measurable characteristics

Sometimes (or with support) rephrases questions in a testable form (includes two variables) identifying observable or measurable characteristics

Has difficulty (even with support) rephrasing questions in a testable form and identifying observable or measurable characteristics

Consistently selects all relevant variables to test, control, and measure

Generally selects relevant variables to test, control, and measure

Sometimes selects some variables to test, control, and measure

Has difficulty (even with support) identifying variables

Independently and consistently uses ‘independent’, ‘dependent’, and ‘control’ terminology

Generally uses ‘independent’, ‘dependent’, and ‘control’ terminology

Sometimes (or with support) uses ‘independent’, ‘dependent’, and ‘control’ terminology

Does not uses ‘independent’, ‘dependent’, and ‘control’ terminology

Independently and consistently makes plausible prediction or hypothesis supported by prior scientific learning and research, written in passive voice (3rd person)

Generally makes plausible prediction or hypothesis supported by prior scientific learning written in passive voice (3rd person)

Sometimes (or with support) makes prediction or hypothesis supported by prior scientific learning; written in first person (e.g., “I predict...”)

Has difficulty (even with support) making a prediction or hypothesis

Independently and consistently designs experiments to collect intended evidence; steps are complete, concise and can be understood by others

Generally designs experiments to collect intended evidence; steps are complete and can be understood by others

Sometimes (or with support) designs experiments to collect intended evidence; some steps may be incomplete or missing

Has difficulty (even with support) designing a complete experiment

Independently and consistently conducts experiments that control all needed variables

Generally conducts experiments that control most variables

Sometimes (or with support) conducts experiments that controls some variables

Has difficulty (even with support) conducting an experiment that controls some variables

Independently and consistently uses materials, techniques and equipment competently

Generally uses materials, techniques and equipment competently

Sometimes (or with support) mostly uses materials, techniques and equipment competently

Has difficulty (even with support) using materials, techniques and equipment

Independently and consistently observes and measures relevant evidence accurately

Generally observes and measures relevant evidence accurately

Sometimes (or with support) observes and measures evidence accurately

Has difficulty (even with support) observing and measuring evidence

Independently and consistently records evidence appropriately for the task (symbols, units, labels, readability)

Generally records evidence appropriately for the task (symbols, units, labels, readability)

Sometimes (or with support) records evidence appropriately (symbols, units, labels, readability)

Has difficulty (even with support) recording evidence (symbols, units, labels, readability)

Independently and consistently identifies and uses safety procedures

Generally identifies and uses safety procedures

Sometimes identifies and uses safety procedures

Has difficulty (even with support) using safety procedures

Appendix B - End of Year Reporting Rubrics (Analyze and Explain)


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4 - Excelling 3 - Meeting 2 - Approaching 1 - Working Below Consistently organizes evidence effectively and efficiently

Generally organizes evidence appropriately and effectively

Sometimes (or with support) organizes evidence appropriately

Has difficulty (even with support) organizing evidence appropriately

Independently and consistently classifies accurately

Generally classifies accurately

Sometimes (or with support) classifies to some extent

Has difficulty (even with support) classifying

Independently and consistently makes conclusions supported by data

Generally makes conclusions supported by data

Sometimes (or with support) re-states results, but not a complete conclusion

Has difficulty (even with support) making a conclusion

Independently and consistently relates conclusion to prediction based on research

Generally relates conclusion to prediction

Sometimes (or with support) relates conclusion to prediction

Has difficulty (even with support) relating conclusion to prediction

Independently and consistently recognizes and explains patterns and relationships in data

Generally recognizes patterns and relationships in data.

Sometimes (or with support) recognizes some patterns in data

Has difficulty (even with support) recognizing patterns in data

Independently and consistently identifies and explains possible source(s) of error and discrepancies in data with suggestions for improved experimental design

Generally identifies possible source(s) of error and discrepancies in data

Sometimes (or with support) identifies some possible source(s) of error

Has difficulty (even with support) identifying a possible source of error

Independently and consistently applies findings to other situations

Generally identifies how findings can be applied to other situations

Sometimes (or with support) identifies how findings can be applied to another situation

Has difficulty (even with support) identifying how findings can be applied to another situation

Independently and consistently identifies 2 or more new testable questions that arise from what was learned

Generally identifies 1-2 new questions that arise from what was learned (sometimes contains opinion)

Sometimes (or with support) identifies another question that arises from what was learned (often contains opinion)

Has difficulty (even with support) identifying another question that arises from what was learned (contain opinion)

Consistently communicates questions, procedures, and results clearly, effectively and efficiently

Generally communicates questions, procedures, and results clearly and effectively

Sometimes (or with support) communicates questions, procedures, and results

Has difficulty (even with support) communicating questions, procedures, and results

Independently and consistently suggests improvements to a design or device, make a plausible suggestion on how to improve the design or device

Generally suggests improvements to a design or device

Sometimes (or with support) suggests improvements to a design or device

Has difficulty (even with support) suggesting improvements to a design or device

Always uses specific science vocabulary appropriately

Generally uses specific science vocabulary appropriately

Sometimes uses science vocabulary appropriately

Rarely uses science vocabulary appropriately

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