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Q U A R K S A N D LEPTO
N
S
Lesson Sample for Science, Grade 8
by Stacey Joyce
Acknowledgements & Copyright
The new BC Curriculum reflects a shift towards a concept-based, competency-driven
curriculum. The new curriculum is less prescriptive than before, allowing educators to be
creative and innovative in their design of learning experiences, and offering flexibility and
choice for teachers and students.
The new curriculum promotes higher-order thinking and deeper learning centred on the
‘Big Ideas’ in each discipline. Core Competencies related to Thinking and Communication
are explicit, and First Peoples’ Principles of Learning are integrated throughout.
Written by Stacey Joyce
Project Management by Sean Cunniam
Layout and Design by Farrah Patterson
Quarks and Leptons – Grade 8 Science 3
Table of Contents
Overview...............................................................................4
Big Idea.................................................................................4
Learning standards (Content)............................................4
Essential question.................................................................4
Learning standards (Curricular Competencies)...............5
Core Competencies............................................................5
First Peoples Principles of Learning.....................................5
Quarks and Leptons Lesson Flow Chart............................6
Lesson Framework................................................................7
Introduction .........................................................................7
Cookie exploration .............................................................7
Dough exploration...............................................................8
Chocolate chips exploration (optional)...........................8
The atom as a cookie..........................................................9
Formative Assessment Opportunities...............................12
Reflection Opportunities...................................................13
Summative Assessment Options.......................................13
Resources............................................................................14
Card Sort Activity Cards – Cookie Cards........................15
Card Sort Activity Cards – Chocolate Chips..................16
Card Sort Activity Cards – Atom Model..........................17
4 Quarks and Leptons – Grade 8 Science
Overview
The purpose of this lesson is to further explore the building
blocks of matter. Before this lesson, students would have
explored the kinetic molecular theory and early models
of the atom. Students should be comfortable with the
concept that the atom is made up of three subatomic
particles: protons, neutrons, and electrons. This lesson
deepens their knowledge and understanding by
introducing them to the concept of fundamental
(indivisible)particles.Followingthislesson,students
would continue to explore the nature of the
atom and how fundamental forces keep
the atom held together. Many possible
extensions or inquiries focused on the
particle model and fundamental
forces (e.g., exploring force carrier
particles or the other types
of quarks) could be further
pursued by students and/
or the teacher.
Big Idea
The behaviour of matter can be explained by the
kinetic molecular and atomic theory.
Learning standards
(Content)
Atomic theory and models:
•	 protons, neutrons, and quarks
•	 electrons and leptons
Essential question
What are all the things in our world made of?
When developing this lesson,
I first chose the concept that I
wanted to explore with students.
The concept dictates the Big
Idea and learning standards.
After choosing the content,
I asked myself, “Why is this
content important?” My answer
focused on the importance
of fundamental particles as
the building blocks of matter.
This helped me formulate the
essential question to help guide
student learning.
Quarks and Leptons – Grade 8 Science 5
Learning standards
(Curricular Competencies)
Questioning and predicting
•	 Make observations aimed at identifying their own
questions about the natural world
Processing and analyzing data and information
•	 Construct and use a range of methods to
represent patterns or relationships in data,
including tables, graphs, keys, models, and
digital technologies as appropriate
•	 Seek patterns and connections in data from their
own investigations and secondary sources
Applying and innovating
•	 Transfer and apply learning to new situations
Core Competencies
Communication
•	 Connect and engage with others
•	 Acquire, interpret, and present information
Critical Thinking
•	 Analyze and critique
•	 Question and investigate
First Peoples Principles of Learning
•	 Learning takes patience and time.
•	 Learning is holistic, reflexive, reflective,
experiential, and relational.
The Core Competencies are
embedded within the Curricular
Competencies and naturally
presented themselves as the lesson
took shape. Choosing the formal
list of Core Competencies was
one of the last things that I did for
this lesson. Once the lesson was
complete, I looked for the Core
Competencies that stood out as
clear and significant opportunities
for students to develop their profiles.
Depending on the teacher’s
teaching style, other competencies
may be a better fit.
Because this lesson is
predominately focused on Western
science understandings and
research, I knew that First Peoples
content would be integrated
through the First Peoples Principles
of Learning instead of through
direct knowledge and
understandings of
First Peoples.
I chose the Curricular
Competencies after I had a
sketched out a framework for the
lesson. I made a rough outline of the
activities and strategies I felt would
be most effective with students
— in this case, the foundational
idea is modelling. Knowing
that this lesson was focused on
analogies and models, I selected
the Curricular Competencies that
could be assessed in a naturalistic
way throughout this lesson both
formatively and summatively at
the end.
6 Quarks and Leptons – Grade 8 Science
Quarks and Leptons Lesson Flow Chart
Big Idea
Core Competencies
Introduction
Students discuss the
essential question and
share their thinking.
Cookie Exploration
Students dismantle and
categorize the parts of a
cookie. Transition to the
card sort activity.
Cookie Dough Modelling
Students mix and match card
ingredients to investigate
possible combinations.
Core Competencies
Curricular
Competencies
Chocolate Chip Modelling
Students investigate
difference in chocolate chips.
Transition to card sort activity.
The Atom as a Cookie
Students use the card sort
activity to compare and
relate the patterns in cookie
ingredients to the patterns in
atoms with subatomic particles.
Core Competencies
Curricular
Competencies
Content
Summative Assessment
Students create an infographic or
presentation of their choice that
communicates their understanding
of the essential question.
Core Competencies
Curricular
Competencies
Content
Quarks and Leptons – Grade 8 Science 7
Once I had the topic, Big Idea, and Content and Curricular Competencies, I sketched out the
framework for this lesson (see flow chart, page 6). In each step of the lesson, I considered
how I would integrate formative assessment strategies to provide a solid foundation
for the summative assessment at the end. The lesson flow chart maps out both the
activities of the lesson and the new curriculum underpinnings (Big Ideas, Core and
Curricular Competencies, and Content learning standards). The flow chart is
intended to help the teacher visualize the lesson through the various lenses
when considering their delivery and formative assessment strategies. Very
different from previous curriculums, the Content learning standards are no
longer the dominant factor in the lesson plan and don’t appear in the
flow chart until the end.
Lesson Framework
Introduction
The essential question, “What are all the things in our world made of?” is intended to serve as the
hook to engage students’ creative and critical thinking skills. The question can be posed in a variety
of ways (e.g., to the class at large, in small groups, through journal entry). Students should have an
opportunity to discuss their answers and to share ideas. Depending on the class, the teacher may
need to guide the discussion to encourage students to question on a deeper level and incorporate
their knowledge of elements and atoms. The teacher may choose to break this lesson into two class
periods: the cookie modelling on day one and the content transition on day two.
As an extension, the teacher may wish to introduce historical ideas of what comprises matter such
as the concept of earth, wind, air, and water as the four fundamental elements.
Students should not try to definitively answer the essential question at this stage. The intention of the
introduction is to place students in an inquiry mindset and have them generate questions to explore
as they proceed through the lesson.
Cookie exploration
The atom is too small to be seen and explored. The foundation of this lesson is to provide students
with a concrete analogy of atoms through the exploration of a chocolate chip cookie. The
intention is that students will find patterns in the building blocks of the cookies and then transfer and
expand their learning to the atom.
To facilitate development of the interpersonal and communication Core Competencies, students
should work in pairs or small groups. The teacher provides a chocolate chip cookie (a soft cookie
is easier to dismantle) to each group. This activity is predominately exploratory, and the teacher
should focus on asking questions rather than directing actions.
8 Quarks and Leptons – Grade 8 Science
Sample questions
•	 What is a cookie made of?
•	 Can you see the parts?
•	 How do you make a cookie?
•	 How can you change the flavour of a cookie?
•	 Does it matter what you use to make a cookie?
•	 Do all cookie recipes turn out well?
•	 Does combining any set of ingredients always produce edible food?
The learning intention of this activity is to have students collaboratively develop and communicate
their understanding that large things (i.e., the cookie) are made up of smaller parts. Students should
have sufficient background knowledge to generate a list of simple ingredients.
There are a variety of implementation strategies for this activity. The cookie can be physically
separated into the simple parts of chocolate chips and cookie dough. This is an engaging hands-
on activity that should spark student interest. Students then consider the dough and the chocolate
chips separately.
Dough exploration
The dough can be further separated into its constituent parts, but not mechanically as they
cannot be seen or touched. A set of cookie ingredient cards (i.e. card sort) facilitates students’
understanding of how building blocks combine to make up matter. The teacher may choose to use
guided steps or a more open-ended inquiry for this activity depending on their specific class make-
up and learning intentions.
As an extension, students can sort the ingredients into “wet” and “dry” categories. This extra
classification of building blocks can be mirrored with the division of fundamental particles as quarks
and leptons.
Chocolate chips exploration (optional)
The chocolate chips can be further broken down as well. The exploration of the chocolate chips
is specific to the modelling of protons and neutrons. Different types of chocolate chips are used to
simulate different types of subatomic particles. Chocolate chips are easily identified as “one type
of thing,” but there is great variety. Students will explore the foundational building blocks that are
combined in different ways to produce different results (i.e., dark chocolate, white chocolate).
The teacher provides students with a variety of chocolate samples (e.g., high percent cocoa,
low percent cocoa, white chocolate [no cocoa]). Students should make observations about
the chocolate samples and be able to share their thinking with what makes them the same
and different. Depending on which Curricular and Core Competencies the teacher is focusing
Quarks and Leptons – Grade 8 Science 9
on, students could be asked to record, chart, document, or discuss their observations. (A set of
chocolate chip ingredient cards facilitate this exploration.) It is likely that many students will not be
familiar with the ingredients of chocolate, so the cards are simplified.
The key understanding from this activity is for students to be able to communicate how the ratio of
base ingredients can alter the final product. This concrete model will be the basis for understanding
how the different combinations of quarks form different particles.
Sample questions:
•	 What is chocolate made of?
•	 Can you see the parts?
•	 How do you make chocolate?
•	 How can you change the flavour of chocolate?
•	 Does it matter what you use to make chocolate?
•	 How is it possible for different types of chocolate to be made from the same basic
ingredients but still taste differently?
•	 What are other examples where you can see this pattern?
The atom as a cookie
After cookie activities have been completed, students should have a strong understanding that
the type and amount of a base ingredient results in the properties of the final product. The teacher
may choose to link back to the introductory discussion based on the essential question as a segue
from the concrete to the abstract. Students should be familiar with the three subatomic particles
(proton, neutron, electron) and the basic structure of the atom. There are a variety of decisions to
be made regarding the teaching of the content (quarks and leptons). The teacher may choose
to have the formal content before the modelling activity, or after. As well, the teacher may wish to
formally present the information, or they may prefer to have students independently research or
discover the information in another way.
The intention of this lesson is to introduce students to the idea of fundamental (indivisible) particles
– quarks and leptons – as the basic building blocks of all matter. (Force carrier particles are not
considered at this level). This lesson has students explore only two types of quarks — up and down
— and only one type of lepton — electrons. The particle model of matter is significantly larger
and more encompassing than the quarks and leptons. The teacher and/or students may choose
to delve into the topic in much more detail, past the intentions of this lesson (some suggested
resources are included at the end of this lesson).
10 Quarks and Leptons – Grade 8 Science
A set of particle cards facilitate the modelling and understanding of the basic building blocks of
matter by students. The cards can be used by themselves or in conjunction with the chocolate chip
and cookie cards. The teacher may also provide students with a word list to sort as well, including
any additional terms they deem applicable. The cookie to atomic model is not an exact 1:1 model,
but the cards can be used to effectively model aspects. Some teachers and/or students may find
the concept easier to understand when the cards are used in parallel as in the example below.
Example:
Atom Cookie
Nucleus Electron
Chocolate
Chips
Dough
Example:
Nucleus Chocolate Chips
Protons Neutrons Dark Chocolate White Chocolate
Up Quark Up Quark Cocoa Powder Cocoa Butter
Up Quark Down Quark Cocoa Butter
Down Quark Down Quark
Example:
Fundamental Particles Cookie Ingredients
Quarks Leptons Wet Ingredients Dry Ingredients
Up Quark Electron Eggs Flour
Down Quark Neutrino Vanilla Extract Sugar
Charm Quark Muon
Strange Quark Tau
Top Quark
Bottom Quark
Quarks and Leptons – Grade 8 Science 11
As an extension, the teacher may want to include the charge of the quarks on the cards. Students
should already know and be familiar with the charge of electrons, protons, and neutrons. The
simple addition and subtraction of quark charge can be used to reinforce the idea that quarks are
the fundamental building blocks that stack together to form protons and neutrons.
Formative assessment through questioning and observation by the teacher should play a large
role in ensuring that students have developed an understanding of the building blocks of matter.
The teacher should pay close attention to the correct use of the hierarchy of the cards or terms
used by students. The goal of this lesson is for students to understand that the matter we see
around us — from the stars to seaweed — is all made from different combinations of
the same fundamental particles. The teacher should be able to both observe (card
placement) and hear students (discussions, questions) clearly communicating
their knowledge and understandings. The framework of this lesson provides a
solid foundation for a large variation in the depth of content that would
be dictated by the needs and desires of the class.
12 Quarks and Leptons – Grade 8 Science
Formative Assessment Opportunities
CURRICULAR COMPETENCY POSSIBLE ASSESSMENTS
Make observations aimed at identifying their own
questions about the natural world
•	 Student-generated questions during the
opening discussion
•	 Student observations made during the
opening discussion
•	 Students explain their thinking when dividing
up the cookie parts
•	 Observations of chocolate chip differences
•	 Questions and observations about how
chocolate chips can be different and similar at
the same time
Construct and use a range of methods to
represent patterns or relationships in data,
including tables, graphs, keys, models, and digital
technologies as appropriate
•	 Observations of card sort layouts
•	 Informal questioning of students as they work in
pairs with the card sort idea
•	 Suggestions of other analogies or models that
could be used to model building blocks
Seek patterns and connections in data from their
own investigations and secondary sources
•	 Observations of card sort layouts
•	 Informal questioning of students as they work in
pairs with the card sort idea
•	 Student connections to background
knowledge
Transfer and apply learning to new situations •	 Observations of card sort layouts
•	 Informal questioning of students as they work in
pairs with the card sort idea
•	 Generation of new analogies and/or models
CONTENT POSSIBLE ASSESSMENTS
Atomic theory and models:
•	 protons, neutrons, and quarks
•	 electrons and leptons
•	 Informal questioning of students as they work in
pairs with the card sort idea
•	 Listening to discussions between students
•	 Use of concept-based “clicker” questions
•	 Think-Pair-Share responses based on specific
and focused questions by the teacher
•	 Observations of card sort layouts
Quarks and Leptons – Grade 8 Science 13
Reflection Opportunities
Students may reflect formally (e.g., science journal, edublog, freshgrade) or informally (e.g.,
discussion) on the content and activities in this lesson. The teacher or students may choose to:
•	 Compare and contrast the idea of “fire, wind, earth, water” to “quarks and leptons” as
building blocks of matter
•	 Comment on how this new information fits in with understanding the world
•	 Consider the validity of this information knowing quarks and leptons have never been seen
or touched
Summative Assessment Options
Formal assessment of the Curricular Competencies and Content learning standards is through a
student-created infographic. Students are tasked with the creation of an infographic that clearly
communicates their learning and understanding of the fundamental particles and a rudimentary
knowledge of the standard model (particle physics). The instructions should be very open-ended to
encourage creative and critical thinking Core Competencies. Teachers can provide, or co-create
with students, the criteria that will be assessed and allow them maximum creative freedom.
Possible assessed learning outcomes
•	 Model of the atom including representation of protons, neutrons, and electrons
•	 Understanding of the term “fundamental”
•	 Representation of quarks and leptons
•	 Modelling of protons as two up quarks and a down
•	 Modelling of neutrons as two down quarks and an up
•	 Connections to prior content
•	 Connections to the cookie (or other) analogy
Possible student choice alternatives to an infographic
•	 Screen cast
•	 Poster
•	 Digital video
•	 TV or radio interview
•	 Press Release presentation
14 Quarks and Leptons – Grade 8 Science
Possible extensions
For students wanting to challenge themselves, the teacher can have them create their own
analogy to compare with the building blocks of matter. Students can then present their analogies
to their classmates.
Possible adaptations
For students with higher learning needs, the teacher can provide an infographic template or
framework that guides and prompts them for the required information.
Resources
http://particleadventure.org/
https://www.youtube.com/watch?v=nlv06lSAC7clist=PLAPjAbosOdYgTeS2L4XiKvirIaKD_ODdv
https://www.youtube.com/watch?v=SMgi2j9Ks9kindex=2list=PLAPjAbosOdYgTeS2L4XiKvirIaKD_ODdv
https://www.youtube.com/watch?v=V0KjXsGRvoAindex=3list=PLAPjAbosOdYgTeS2L4XiKvirIaKD_ODdv
Quarks and Leptons – Grade 8 Science 15
Card Sort Activity Cards – Cookie Cards
FLOUR BAKING SODA SALT
BUTTER SUGAR EGGS
VANILLA
EXTRACT
COOKIES COOKIE DOUGH
16 Quarks and Leptons – Grade 8 Science
Card Sort Activity Cards – Chocolate Chips
COCOA
POWDER
COCOA BUTTER SUGAR
CHOCOLATE
CHIPS
Quarks and Leptons – Grade 8 Science 17
Card Sort Activity Cards – Atom Model
ATOM NUCLEUS ELECTRON
PROTON UP QUARK DOWN QUARK
NEUTRON UP QUARK DOWN QUARK

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Quarks and leptons

  • 1. Q U A R K S A N D LEPTO N S Lesson Sample for Science, Grade 8 by Stacey Joyce
  • 2. Acknowledgements & Copyright The new BC Curriculum reflects a shift towards a concept-based, competency-driven curriculum. The new curriculum is less prescriptive than before, allowing educators to be creative and innovative in their design of learning experiences, and offering flexibility and choice for teachers and students. The new curriculum promotes higher-order thinking and deeper learning centred on the ‘Big Ideas’ in each discipline. Core Competencies related to Thinking and Communication are explicit, and First Peoples’ Principles of Learning are integrated throughout. Written by Stacey Joyce Project Management by Sean Cunniam Layout and Design by Farrah Patterson
  • 3. Quarks and Leptons – Grade 8 Science 3 Table of Contents Overview...............................................................................4 Big Idea.................................................................................4 Learning standards (Content)............................................4 Essential question.................................................................4 Learning standards (Curricular Competencies)...............5 Core Competencies............................................................5 First Peoples Principles of Learning.....................................5 Quarks and Leptons Lesson Flow Chart............................6 Lesson Framework................................................................7 Introduction .........................................................................7 Cookie exploration .............................................................7 Dough exploration...............................................................8 Chocolate chips exploration (optional)...........................8 The atom as a cookie..........................................................9 Formative Assessment Opportunities...............................12 Reflection Opportunities...................................................13 Summative Assessment Options.......................................13 Resources............................................................................14 Card Sort Activity Cards – Cookie Cards........................15 Card Sort Activity Cards – Chocolate Chips..................16 Card Sort Activity Cards – Atom Model..........................17
  • 4. 4 Quarks and Leptons – Grade 8 Science Overview The purpose of this lesson is to further explore the building blocks of matter. Before this lesson, students would have explored the kinetic molecular theory and early models of the atom. Students should be comfortable with the concept that the atom is made up of three subatomic particles: protons, neutrons, and electrons. This lesson deepens their knowledge and understanding by introducing them to the concept of fundamental (indivisible)particles.Followingthislesson,students would continue to explore the nature of the atom and how fundamental forces keep the atom held together. Many possible extensions or inquiries focused on the particle model and fundamental forces (e.g., exploring force carrier particles or the other types of quarks) could be further pursued by students and/ or the teacher. Big Idea The behaviour of matter can be explained by the kinetic molecular and atomic theory. Learning standards (Content) Atomic theory and models: • protons, neutrons, and quarks • electrons and leptons Essential question What are all the things in our world made of? When developing this lesson, I first chose the concept that I wanted to explore with students. The concept dictates the Big Idea and learning standards. After choosing the content, I asked myself, “Why is this content important?” My answer focused on the importance of fundamental particles as the building blocks of matter. This helped me formulate the essential question to help guide student learning.
  • 5. Quarks and Leptons – Grade 8 Science 5 Learning standards (Curricular Competencies) Questioning and predicting • Make observations aimed at identifying their own questions about the natural world Processing and analyzing data and information • Construct and use a range of methods to represent patterns or relationships in data, including tables, graphs, keys, models, and digital technologies as appropriate • Seek patterns and connections in data from their own investigations and secondary sources Applying and innovating • Transfer and apply learning to new situations Core Competencies Communication • Connect and engage with others • Acquire, interpret, and present information Critical Thinking • Analyze and critique • Question and investigate First Peoples Principles of Learning • Learning takes patience and time. • Learning is holistic, reflexive, reflective, experiential, and relational. The Core Competencies are embedded within the Curricular Competencies and naturally presented themselves as the lesson took shape. Choosing the formal list of Core Competencies was one of the last things that I did for this lesson. Once the lesson was complete, I looked for the Core Competencies that stood out as clear and significant opportunities for students to develop their profiles. Depending on the teacher’s teaching style, other competencies may be a better fit. Because this lesson is predominately focused on Western science understandings and research, I knew that First Peoples content would be integrated through the First Peoples Principles of Learning instead of through direct knowledge and understandings of First Peoples. I chose the Curricular Competencies after I had a sketched out a framework for the lesson. I made a rough outline of the activities and strategies I felt would be most effective with students — in this case, the foundational idea is modelling. Knowing that this lesson was focused on analogies and models, I selected the Curricular Competencies that could be assessed in a naturalistic way throughout this lesson both formatively and summatively at the end.
  • 6. 6 Quarks and Leptons – Grade 8 Science Quarks and Leptons Lesson Flow Chart Big Idea Core Competencies Introduction Students discuss the essential question and share their thinking. Cookie Exploration Students dismantle and categorize the parts of a cookie. Transition to the card sort activity. Cookie Dough Modelling Students mix and match card ingredients to investigate possible combinations. Core Competencies Curricular Competencies Chocolate Chip Modelling Students investigate difference in chocolate chips. Transition to card sort activity. The Atom as a Cookie Students use the card sort activity to compare and relate the patterns in cookie ingredients to the patterns in atoms with subatomic particles. Core Competencies Curricular Competencies Content Summative Assessment Students create an infographic or presentation of their choice that communicates their understanding of the essential question. Core Competencies Curricular Competencies Content
  • 7. Quarks and Leptons – Grade 8 Science 7 Once I had the topic, Big Idea, and Content and Curricular Competencies, I sketched out the framework for this lesson (see flow chart, page 6). In each step of the lesson, I considered how I would integrate formative assessment strategies to provide a solid foundation for the summative assessment at the end. The lesson flow chart maps out both the activities of the lesson and the new curriculum underpinnings (Big Ideas, Core and Curricular Competencies, and Content learning standards). The flow chart is intended to help the teacher visualize the lesson through the various lenses when considering their delivery and formative assessment strategies. Very different from previous curriculums, the Content learning standards are no longer the dominant factor in the lesson plan and don’t appear in the flow chart until the end. Lesson Framework Introduction The essential question, “What are all the things in our world made of?” is intended to serve as the hook to engage students’ creative and critical thinking skills. The question can be posed in a variety of ways (e.g., to the class at large, in small groups, through journal entry). Students should have an opportunity to discuss their answers and to share ideas. Depending on the class, the teacher may need to guide the discussion to encourage students to question on a deeper level and incorporate their knowledge of elements and atoms. The teacher may choose to break this lesson into two class periods: the cookie modelling on day one and the content transition on day two. As an extension, the teacher may wish to introduce historical ideas of what comprises matter such as the concept of earth, wind, air, and water as the four fundamental elements. Students should not try to definitively answer the essential question at this stage. The intention of the introduction is to place students in an inquiry mindset and have them generate questions to explore as they proceed through the lesson. Cookie exploration The atom is too small to be seen and explored. The foundation of this lesson is to provide students with a concrete analogy of atoms through the exploration of a chocolate chip cookie. The intention is that students will find patterns in the building blocks of the cookies and then transfer and expand their learning to the atom. To facilitate development of the interpersonal and communication Core Competencies, students should work in pairs or small groups. The teacher provides a chocolate chip cookie (a soft cookie is easier to dismantle) to each group. This activity is predominately exploratory, and the teacher should focus on asking questions rather than directing actions.
  • 8. 8 Quarks and Leptons – Grade 8 Science Sample questions • What is a cookie made of? • Can you see the parts? • How do you make a cookie? • How can you change the flavour of a cookie? • Does it matter what you use to make a cookie? • Do all cookie recipes turn out well? • Does combining any set of ingredients always produce edible food? The learning intention of this activity is to have students collaboratively develop and communicate their understanding that large things (i.e., the cookie) are made up of smaller parts. Students should have sufficient background knowledge to generate a list of simple ingredients. There are a variety of implementation strategies for this activity. The cookie can be physically separated into the simple parts of chocolate chips and cookie dough. This is an engaging hands- on activity that should spark student interest. Students then consider the dough and the chocolate chips separately. Dough exploration The dough can be further separated into its constituent parts, but not mechanically as they cannot be seen or touched. A set of cookie ingredient cards (i.e. card sort) facilitates students’ understanding of how building blocks combine to make up matter. The teacher may choose to use guided steps or a more open-ended inquiry for this activity depending on their specific class make- up and learning intentions. As an extension, students can sort the ingredients into “wet” and “dry” categories. This extra classification of building blocks can be mirrored with the division of fundamental particles as quarks and leptons. Chocolate chips exploration (optional) The chocolate chips can be further broken down as well. The exploration of the chocolate chips is specific to the modelling of protons and neutrons. Different types of chocolate chips are used to simulate different types of subatomic particles. Chocolate chips are easily identified as “one type of thing,” but there is great variety. Students will explore the foundational building blocks that are combined in different ways to produce different results (i.e., dark chocolate, white chocolate). The teacher provides students with a variety of chocolate samples (e.g., high percent cocoa, low percent cocoa, white chocolate [no cocoa]). Students should make observations about the chocolate samples and be able to share their thinking with what makes them the same and different. Depending on which Curricular and Core Competencies the teacher is focusing
  • 9. Quarks and Leptons – Grade 8 Science 9 on, students could be asked to record, chart, document, or discuss their observations. (A set of chocolate chip ingredient cards facilitate this exploration.) It is likely that many students will not be familiar with the ingredients of chocolate, so the cards are simplified. The key understanding from this activity is for students to be able to communicate how the ratio of base ingredients can alter the final product. This concrete model will be the basis for understanding how the different combinations of quarks form different particles. Sample questions: • What is chocolate made of? • Can you see the parts? • How do you make chocolate? • How can you change the flavour of chocolate? • Does it matter what you use to make chocolate? • How is it possible for different types of chocolate to be made from the same basic ingredients but still taste differently? • What are other examples where you can see this pattern? The atom as a cookie After cookie activities have been completed, students should have a strong understanding that the type and amount of a base ingredient results in the properties of the final product. The teacher may choose to link back to the introductory discussion based on the essential question as a segue from the concrete to the abstract. Students should be familiar with the three subatomic particles (proton, neutron, electron) and the basic structure of the atom. There are a variety of decisions to be made regarding the teaching of the content (quarks and leptons). The teacher may choose to have the formal content before the modelling activity, or after. As well, the teacher may wish to formally present the information, or they may prefer to have students independently research or discover the information in another way. The intention of this lesson is to introduce students to the idea of fundamental (indivisible) particles – quarks and leptons – as the basic building blocks of all matter. (Force carrier particles are not considered at this level). This lesson has students explore only two types of quarks — up and down — and only one type of lepton — electrons. The particle model of matter is significantly larger and more encompassing than the quarks and leptons. The teacher and/or students may choose to delve into the topic in much more detail, past the intentions of this lesson (some suggested resources are included at the end of this lesson).
  • 10. 10 Quarks and Leptons – Grade 8 Science A set of particle cards facilitate the modelling and understanding of the basic building blocks of matter by students. The cards can be used by themselves or in conjunction with the chocolate chip and cookie cards. The teacher may also provide students with a word list to sort as well, including any additional terms they deem applicable. The cookie to atomic model is not an exact 1:1 model, but the cards can be used to effectively model aspects. Some teachers and/or students may find the concept easier to understand when the cards are used in parallel as in the example below. Example: Atom Cookie Nucleus Electron Chocolate Chips Dough Example: Nucleus Chocolate Chips Protons Neutrons Dark Chocolate White Chocolate Up Quark Up Quark Cocoa Powder Cocoa Butter Up Quark Down Quark Cocoa Butter Down Quark Down Quark Example: Fundamental Particles Cookie Ingredients Quarks Leptons Wet Ingredients Dry Ingredients Up Quark Electron Eggs Flour Down Quark Neutrino Vanilla Extract Sugar Charm Quark Muon Strange Quark Tau Top Quark Bottom Quark
  • 11. Quarks and Leptons – Grade 8 Science 11 As an extension, the teacher may want to include the charge of the quarks on the cards. Students should already know and be familiar with the charge of electrons, protons, and neutrons. The simple addition and subtraction of quark charge can be used to reinforce the idea that quarks are the fundamental building blocks that stack together to form protons and neutrons. Formative assessment through questioning and observation by the teacher should play a large role in ensuring that students have developed an understanding of the building blocks of matter. The teacher should pay close attention to the correct use of the hierarchy of the cards or terms used by students. The goal of this lesson is for students to understand that the matter we see around us — from the stars to seaweed — is all made from different combinations of the same fundamental particles. The teacher should be able to both observe (card placement) and hear students (discussions, questions) clearly communicating their knowledge and understandings. The framework of this lesson provides a solid foundation for a large variation in the depth of content that would be dictated by the needs and desires of the class.
  • 12. 12 Quarks and Leptons – Grade 8 Science Formative Assessment Opportunities CURRICULAR COMPETENCY POSSIBLE ASSESSMENTS Make observations aimed at identifying their own questions about the natural world • Student-generated questions during the opening discussion • Student observations made during the opening discussion • Students explain their thinking when dividing up the cookie parts • Observations of chocolate chip differences • Questions and observations about how chocolate chips can be different and similar at the same time Construct and use a range of methods to represent patterns or relationships in data, including tables, graphs, keys, models, and digital technologies as appropriate • Observations of card sort layouts • Informal questioning of students as they work in pairs with the card sort idea • Suggestions of other analogies or models that could be used to model building blocks Seek patterns and connections in data from their own investigations and secondary sources • Observations of card sort layouts • Informal questioning of students as they work in pairs with the card sort idea • Student connections to background knowledge Transfer and apply learning to new situations • Observations of card sort layouts • Informal questioning of students as they work in pairs with the card sort idea • Generation of new analogies and/or models CONTENT POSSIBLE ASSESSMENTS Atomic theory and models: • protons, neutrons, and quarks • electrons and leptons • Informal questioning of students as they work in pairs with the card sort idea • Listening to discussions between students • Use of concept-based “clicker” questions • Think-Pair-Share responses based on specific and focused questions by the teacher • Observations of card sort layouts
  • 13. Quarks and Leptons – Grade 8 Science 13 Reflection Opportunities Students may reflect formally (e.g., science journal, edublog, freshgrade) or informally (e.g., discussion) on the content and activities in this lesson. The teacher or students may choose to: • Compare and contrast the idea of “fire, wind, earth, water” to “quarks and leptons” as building blocks of matter • Comment on how this new information fits in with understanding the world • Consider the validity of this information knowing quarks and leptons have never been seen or touched Summative Assessment Options Formal assessment of the Curricular Competencies and Content learning standards is through a student-created infographic. Students are tasked with the creation of an infographic that clearly communicates their learning and understanding of the fundamental particles and a rudimentary knowledge of the standard model (particle physics). The instructions should be very open-ended to encourage creative and critical thinking Core Competencies. Teachers can provide, or co-create with students, the criteria that will be assessed and allow them maximum creative freedom. Possible assessed learning outcomes • Model of the atom including representation of protons, neutrons, and electrons • Understanding of the term “fundamental” • Representation of quarks and leptons • Modelling of protons as two up quarks and a down • Modelling of neutrons as two down quarks and an up • Connections to prior content • Connections to the cookie (or other) analogy Possible student choice alternatives to an infographic • Screen cast • Poster • Digital video • TV or radio interview • Press Release presentation
  • 14. 14 Quarks and Leptons – Grade 8 Science Possible extensions For students wanting to challenge themselves, the teacher can have them create their own analogy to compare with the building blocks of matter. Students can then present their analogies to their classmates. Possible adaptations For students with higher learning needs, the teacher can provide an infographic template or framework that guides and prompts them for the required information. Resources http://particleadventure.org/ https://www.youtube.com/watch?v=nlv06lSAC7clist=PLAPjAbosOdYgTeS2L4XiKvirIaKD_ODdv https://www.youtube.com/watch?v=SMgi2j9Ks9kindex=2list=PLAPjAbosOdYgTeS2L4XiKvirIaKD_ODdv https://www.youtube.com/watch?v=V0KjXsGRvoAindex=3list=PLAPjAbosOdYgTeS2L4XiKvirIaKD_ODdv
  • 15. Quarks and Leptons – Grade 8 Science 15 Card Sort Activity Cards – Cookie Cards FLOUR BAKING SODA SALT BUTTER SUGAR EGGS VANILLA EXTRACT COOKIES COOKIE DOUGH
  • 16. 16 Quarks and Leptons – Grade 8 Science Card Sort Activity Cards – Chocolate Chips COCOA POWDER COCOA BUTTER SUGAR CHOCOLATE CHIPS
  • 17. Quarks and Leptons – Grade 8 Science 17 Card Sort Activity Cards – Atom Model ATOM NUCLEUS ELECTRON PROTON UP QUARK DOWN QUARK NEUTRON UP QUARK DOWN QUARK