Course Profile Manufacturing Engineering Technology (TMJ4C), Grade 12, College Preparation, Combined
Unit 2: Product Research, Design, and Development
Time: 35 hours
Activity
2.1 | Activity 2.2 | Activity 2.3 | Activity 2.4
Unit Description
In this unit,
students develop knowledge and skills through product research, design,
development, and analysis. Students focus on designing, detailing, modelling,
and marketing a product. Using the design process, students apply their
knowledge of the concepts required to design a product in preparation for
production. Throughout this process, students deal with the ethical issues and
decisions associated with their designs and marketing strategies. Students work
in groups and present their drawing portfolios clearly, honestly, and with
sensitivity to others.
|
Activity |
Time |
Learning Expectations |
Assessment Categories |
Tasks |
|
2.1 |
5 hours |
TFV.01, TFV.02,
TF1.01, TF1.02, TF2.01, SPV.03, SP1.01, SP1.02, SP3.01, SP4.03 CGE 1d, 2b, 2c,
4f, 4g, 5e |
Thinking/ Inquiry Application Communication |
Gather information Establish a design
brief and product development plan Develop criteria,
constraints, and specifications Develop sketches
and renderings of design ideas |
|
2.2 |
15 hours |
TFV.01, TF1.02,
TF2.07, SPV.02, SPV.03, SPV.04, SP1.02, SP2.05, SP4.03, SP5.02, ICV.01,
IC1.01, IC1.02 CGE 1d, 2b, 2c,
2e, 3b, 4a, 4f, 5h, 7i |
Knowledge/ Thinking/ Inquiry Application Communication |
Create engineering
drawings of the product Research materials
and material properties Select product
material Establish quality
requirements through critical dimensioning |
|
2.3 |
7 hours |
TFV.01, TFV.03,
TF1.02, TF1.03, SPV.02, SP1.01, SP1.02, SP3.01, SP3.02 CGE 2b, 2c, 3b,
4f, 7i |
Thinking/ Inquiry Application Communication |
Research modelling
and prototyping Computer-aided
solid modelling vs. prototyping Construct prototype
or model Prototype/model
analysis and testing |
|
2.4 |
8 hours |
TFV.01, TFV.02,
TFV.03, TF1.02, TF2.02, SPV.01, SPV.03, SP1.02, SP5.03 CGE 2b, 2c, 2e,
3b, 4f, 5e, 5h |
Thinking/ Inquiry Application Communication |
Research and
establish marketing strategies Presentation
software training Portfolio
presentations |
Time: 5 hours
Students use a variety of media resources to
gather information on developing or improving an existing product
(alternative-powered vehicle). Activities focus on the various methods used to
generate and communicate ideas through sketching and illustration techniques,
research and investigation skills, and decision-making skills. Students use the
information and ideas gathered to develop a design brief and establish criteria
and desired results of their final environmentally friendly product. Guided by
the Catholic faith tradition, students consider and discuss how the project
benefits the environment and contributes to the common good.
Ontario Catholic
School Graduate Expectations
CGE1d - develop
attitudes and values founded on Catholic social teaching and act to promote
social responsibility, human solidarity, and the common good;
CGE2b - read,
understand, and use written materials effectively;
CGE2c - present
information and ideas clearly and honestly and with sensitivity to others;
CGE4f - apply
effective communication, decision-making, problem-solving, time, and resource
management skills;
CGE4g - examine and
reflect on one’s personal values, abilities, and aspirations influencing life’s
choices and opportunities;
CGE5e - respect the
rights, responsibilities, and contributions of self and others.
Strand(s): Theory and Foundation, Skills and Processes
Overall
Expectations
TFV.01 - apply the
design process to develop solutions, products, processes, or services in
response to challenges or problems in manufacturing technology;
TFV.02 - describe
the five major areas of a manufacturing process: research and development,
production, marketing, industrial relations, and financial affairs;
SPV.03 - communicate
effectively in the manufacturing sector using a variety of means.
Specific
Expectations
TF1.01 - explain how
a human need or want can be met through a new or improved product;
TF1.02 - apply the
following steps of the design process to solve a variety of manufacturing
technology challenges or problems;
TF2.01 - explain the
activities associated with research and development: discovery, development,
and making specifications for improving products;
SP1.01 - set up a
manufacturing enterprise, on a small scale or using a simulation, incorporating
the five major areas of activity: research and development, production,
marketing, industrial relations, and financial affairs;
SP1.02 - function in
one or more areas of activity and execute the four typical functions of
management – planning (setting goals and a course of action), organizing
(structuring the job into manageable tasks), directing (assisting tasks and
supervising their completion) and controlling (comparing results against the
outlined plan) - to develop a product, on a small scale or using a simulation;
SP3.01 - develop
products and processes required to meet customer needs using the following
steps: determine who the customers are, determine their needs, design a product
that responds to these needs, develop processes that can produce the product
features, and transfer the resulting plans to the operating process;
SP4.03 - generate
effective product specifications through engineering drawings, sketches, and
reports.
Students
should have:
·
experience from
Grade 11 Manufacturing Technology (TMJ3C);
·
group-work skills
(cooperative learning techniques and an understanding of personal
responsibilities assigned by the group);
·
keyboarding
skills;
·
knowledge of
word-processing software, networking, and using the Internet.
·
Ideally, the
units follow the design and fabrication processes of an alternative-powered
vehicle. However, the course does allow for a variety of design challenges; the
units may be delivered with independent themes.
·
Students may
compete in a competition forum, with student groups designing and fabricating
more than one prototype vehicle. Performance is tested by comparing vehicles
against one another or against vehicles from other schools. There are electric
vehicle (or similar) competitions held annually; the teacher may provide
students with a design challenge that complies with one of these events (refer
to Websites). The challenge might state: “In the interest of energy efficiency
and the subsequent protection of the environment from reduced fossil-fuel
emissions, design and manufacture a single-occupant, electric-powered commuter
vehicle. This vehicle must be designed to travel as far as possible on the
energy of a single battery charge. Due to the energy-efficiency requirements,
pursue a design configuration utilizing materials that minimize weight, yet
allow for a safe, comfortable, aesthetically-pleasing design with low
aerodynamic drag.”
·
Prior to
beginning the activity, students define key terms for homework (see Appendix
A).
·
Have an
understanding of the various roles and activities associated with marketing and
production.
·
To enable
students to research effectively, prepare a list of websites and have school
board policies on Internet use ready for discussion. Check the websites prior
to beginning the activity and emphasize ethical use of the Internet.
·
Prepare a list or
examples of products on the market that are similar in design and function
(vise-grip vs. locking pliers), and compare the quality, price, and function of
the products.
·
Arrange to have
examples of various surveys from previous classes and from the Business
Department.
·
Ensure computers
are in working order. If they are on a network, have school policies and
instructions for saving work readily available.
·
Prepare design
team file folders for storing group work and a critical path template for
keeping students organized and on task (see Appendix 2.1.1 – Sample Critical
Path Planning Chart).
·
Review all
activities and prepare all necessary handouts, materials, equipment, and
teaching aids.
·
The teacher
should introduce sketching techniques in progression, starting with simple
two-dimensional shapes and progressing to three-dimensional representation and
the final addition of value and texture. Students should have several practice
exercises through each progression.
·
Graphic
communication requires a lot of practice exercises to develop drawing skills;
exercises may be completed for homework.
·
Collaborate with
local manufacturers in establishing real-life design challenges.
The teacher:
·
provides a high
level of student engagement, interdependence, and conflict-management skills;
·
monitors progress
and provides feedback frequently, emphasizing collaborative and cooperative
group efforts in light of gospel values and keeping in mind the uniqueness,
worth, and value of each person;
·
reviews lesson on
group dynamics, emphasizing collaborative and cooperative group efforts in
light of gospel values;
·
reviews key
components of Unit 1 and discusses how this activity is linked in the process;
·
reviews the five
major areas of a manufacturing process: research and development, production,
marketing, industrial relations, and financial affairs;
·
reviews the
manufacturing and design process and discusses how it applies to establishing
and organizing a company ready to design, plan, and fabricate a product;
·
explains the
activities associated with research and development: discovery, development,
and making specifications for improving products;
·
discusses key
terms of information gathering, e.g., survey, quantitative, personal interviews,
mail intercept, telephone survey, mail surveys;
·
leads a
round-table discussion of Catholic values related to product development and
production (e.g., stewardship, human potential, and socio-economic
responsibilities);
·
reviews Internet
use policies and computer station safety precautions;
·
discusses
copyright laws and reviews any data, text, or images that students wish to copy
and/or print;
·
provides
opportunities to discuss ethics and morality of plagiarism and piracy;
·
explains how a
human need or want can be met through a new or improved product;
·
discusses the
importance of product planning and why some products are added to the market,
why old products are removed, and why questionable ones are changed;
·
encourages
students to reflect upon the results of their research, the product’s
relationship to everyday life, and how it benefits or harms society;
·
has students form
design teams and modifies teams depending on individual strengths and
weaknesses;
·
introduces the
design challenge (alternative-powered vehicle) with the activity instructions
and criteria;
·
discusses
critical path planning and scheduling, mind mapping, and brainstorming
techniques;
·
discusses
requirements for the design brief and reviews sketching techniques;
·
emphasizes
perspective representation as the ideal technique for communicating ideas;
students progress from Grade 11 techniques of oblique and isometric
representation;
·
emphasizes the
fact that sketches can be developed using any type of drawing technique, from
two-dimensional orthographic representation to three-dimensional pictorial
representation;
·
emphasizes that
the sketches are part of the portfolio presentation and that the principles and
elements of design are important;
·
through design
team format, has students use the learned techniques to brainstorm ideas for
the design of the wind-powered generator;
·
introduces
texture, value, colour, and other design elements to be added to their
proposals by emphasizing the importance of presentation in demonstrating
creative-thinking skills;
·
provides
opportunities to evaluate and compare the Christian simple life to the
materialistic society in which they live.
The
student:
·
listens actively
and critically to understand and learn in light of Gospel values;
·
defines key
terms;
·
applies
management planning (setting goals and a course of action), organizing
(structuring the job into manageable tasks), directing (assisting tasks and
supervising their completion), and controlling (comparing results against the
outlined plan) (Appendix 2.1.1 – Sample Critical Path Planning Chart);
·
applies the
design process to develop solutions, design products, and respond to a design
challenge;
·
researches
information using various resources (e.g., library/resource centre, websites,
newspapers);
·
conducts surveys
on consumer needs and the materials that may be used in the building of the
product;
·
develops a design
brief identifying the problem, criteria, and desired results;
·
identifies
different types of sketching techniques and drawing types;
·
participates in
collaborative/cooperative learning through group brainstorming of product
ideas;
·
develops a design
brief of the design challenge, followed by the design criteria and constraints;
·
independently,
and as a group, sketches a variety of design ideas using appropriate techniques;
·
analyses the
ideas and selects the best design;
·
applies reasoning
in solving the challenge by writing a one-page rationale for the design choice;
·
using pictorial
representation and principles of design, sketches the final design proposal;
·
assembles the
research material, design brief, criteria/constraints, brainstormed sketches,
and design rationale into a presentable written format;
·
produces a
technical report that includes research material, design brief,
student-developed criteria/constraints, idea development sketches, and the
written rationale;
·
maintains an
individual log of the process;
·
records learning
experiences in a reflective journal entry. The student reflects on personal
values as they apply to working within a group and on personal aspirations
relating to research and development. The journal entry should be completed for
homework;
·
becomes aware of
ethical/moral issues involved in the design engineering decision making.
Students perform a
simple diagnostic problem-solving activity to establish knowledge and skills.
The results may indicate that individual accommodations, or the need to review
key skills with the class are necessary. A small design challenge, which
includes research, design, planning, drawing, and fabrication of a solution to
a given problem, can be assessed using a combination of checklists, marking
schemes, and/or rubrics.
Application
Using a checklist,
individual students are assessed on ability to illustrate a given object using
sketching techniques and using the principles and elements of design. Student
teams submit their surveys and written summaries of their research, detailing
websites and other media used to gather information.
Thinking/Inquiry
The teacher
evaluates students’ research material, design briefs, student-developed
criteria/constraints, idea development sketches, and written rationales. The
rationale should include an analysis of the final proposal. A rubric may be
used to assess each design team’s package formatively.
Communication
·
Using a
checklist, the package may be assessed for presentation of content. Checklist
items may include neatness, legibility, bound documents, page formats, and
other items relating to presentation.
·
Through
conferencing, the log entry may be assessed on an ongoing basis for completion
and content.
·
Reflections:
Students self-assess their experiences through a reflective journal entry. The
entries are evaluated using a rubric.
Learning Skills
Observation and
conferencing can take place on a daily basis throughout the course. Students
can be assessed formally or informally using checklists, anecdotal comments, or
a learning skills rubric. This type of formative assessment should provide
encouragement and praise for effort as tasks are completed, building on a
positive self-image. The learning skills rubric can also be used by students as
a self-assessment tool.
The
teacher documents the student’s:
·
conflict-management
skills in light of Gospel teachings;
·
ability to work
effectively as an interdependent, considerate team member;
·
initiative,
leadership, and participation in a group;
·
work
habits/homework.
·
Allow students to
use a preferred technique (e.g., oblique, isometric, or perspective drawing).
Although students should be able to identify the different techniques, the
teacher may allow them to choose the technique with which they are most
comfortable on an individual assignment basis.
·
Provide
hardcopies of instructions and sketching techniques guide that are well spaced,
clear and use a readable font and suitable font size.
·
Provide a
hardcopy of the steps in the manufacturing process for review.
·
Students may
enhance their design presentation freehand or using CAD modelling.
·
The reports may
be presented in a variety of formats.
·
Allow additional
time for completion of the report.
Books
Ragan,
Rosalind. Arttalk, 3rd ed. Glencoe, McGraw Hill. ISBN
0-02-662434-6
Schey, John
A. Introduction to Manufacturing
Processes. McGraw-Hill, 1997. ISBN 0-07-055279-7
Spencer,
Dygdon, and Novak. Basic Technical
Drawing. Peoria, Illinois: Glencoe, McGraw Hill, 2000. ISBN 0-02-682553-8
Todd, R., K. Todd,
and D. McCrory. Introduction to Design
and Technology. Thomson Learning Tools, 1996. ISBN 0-538-64465-6 (Student
Text), ISBN 0-538-64466-4 (Teacher’s Resource Guide),
ISBN 0-538-64465-6 (Portfolio and Activities Resource)
Websites
Electrathon
America (competition information) – http://electrathonamerica.org/
Electric Car
Association – http://www.eaaev.org/
Ontario
Curriculum Centre (Grade 10 and Grade 11 Course Profiles) – www.curriculum.org
SAE International
(competition design project information) –
http://www.sae.org/students/supermw.htm
Computer Software
CAD software
Engstrom, D.
and L. Hatch. Design Brief Manager
Software. Glencoe, McGraw Hill, 1995. For use with Introduction to Design and Technology (see Books).
Word-processing
software (e.g., WordPerfect)
Human Resources
Special
Education/Resource staff and Art/Math/Science teachers
School, board, or
community computer technician
Other
Board and/or school
Internet use policies
School
library/resource centre
Local manufacturers
|
Task |
Team Member |
Start Date |
Finish Date |
Approved |
|
Activity 1 |
|
|
|
|
|
Research and
Information Gathering |
|
|
|
|
|
Design Brief |
|
|
|
|
|
Design Sketches |
|
|
|
|
|
Reflective Journal |
|
|
|
|
|
Activity 2 |
|
|
|
|
|
Presentation
Drawings |
|
|
|
|
|
Working Drawings |
|
|
|
|
|
Reflective Journal |
|
|
|
|
|
Activity 3 |
|
|
|
|
|
Research Material |
|
|
|
|
|
Fabricate Model |
|
|
|
|
|
Evaluate Model |
|
|
|
|
|
Analysis/Summary |
|
|
|
|
|
Reflective Journal |
|
|
|
|
|
Activity 4 |
|
|
|
|
|
Marketing
Portfolio |
|
|
|
|
|
Presentation |
|
|
|
|
|
Reflective Journal |
|
|
|
|
Time: 15 hours
In this
activity, students develop a design portfolio package that includes
presentation drawings, working drawings, and bills of material. As a
continuation of Activity 2.1, students detail their final design proposal in
preparation for the production process. Students are introduced to a variety of
drawing techniques used in industry. Emphasis is placed on applying engineering
standards in generating formal drawings and selecting product material. Through
proper dimensioning of the drawings, students also identify production control
monitoring strategies.
Students identify
the roles of future designers and planners. Emphasis is placed on creating,
adapting, and evaluating new ideas and products in light of the common good
with consideration of the impact to the socio-economic and environmental
well-being of the region, province, and nation.
Ontario Catholic
School Graduate Expectations
CGE2b - read,
understand, and use written materials effectively;
CGE2c - present
information and ideas clearly and honestly with sensitivity to others;
CGE2e - use and
integrate the Catholic faith tradition, in the critical analysis of the arts,
media, technology, and information systems to enhance the quality of life;
CGE3b - create,
adapt, and evaluate new ideas in light of the common good;
CGE4a - demonstrate
confident and positive sense of self and respect for the dignity and welfare of
others;
CGE4f - apply
effective communication, decision-making, problem-solving, time, and resource
management skills;
CGE5h - apply skills
for employability, self-employment, and entrepreneurship relative to Christian
vocation;
CGE7i - respect the
environment and use resources wisely.
Strand(s): Theory and Foundation, Skills and Processes
Overall
Expectations
TFV.01 - apply the
design process to develop solutions, products, processes, or services in
response to challenges or problems in manufacturing technology;
SPV.02 - manage
quality in a quality assurance program, using the three managerial processes -
quality planning, quality control, and quality improvement;
SPV.03 - communicate
effectively in the manufacturing sector using a variety of means;
SPV.04 - use
mathematics and language skills and apply technological systems and scientific
principles to design and fabricate a sophisticated product or manufacturing
system.
Specific
Expectations
TF1.02 - apply the
following steps of the design process to solve a variety of manufacturing
technology challenges or problems:
- identify what has to be accomplished (the problem);
- gather and record information, and establish a plan of procedures;
- produce presentation and working drawings, sketches, graphics, mathematical and physical models, or a prototype of the best solution;
- communicate the solution, using one or more of the following: final drawings, graphs, charts, sketches, technical reports, electronic presentations, flow charts, mock-ups, models, prototypes, and so on;
TF2.07 - explain how
manufacturing systems and products are designed according to quality assurance
standards;
SP1.02 - function in
one or more areas of activity and execute the four typical functions of
management – planning (setting goals and a course of action), organizing
(structuring the job into manageable tasks), directing (assigning tasks and
supervising their completion), and controlling (comparing results against the
outlined plan) - to develop a product, on a small scale or using a simulation;
SP2.05 - choose
suitable materials and processes for forming and fabricating products;
SP4.03 - generate
effective product specifications through engineering drawings, sketches, and
reports;
SP5.02 - explain how
science or scientific principles or practices are applied to material selection
and specifications, energy consumption, worker fatigue, material processing,
speed, force, and ergonomics.
The student
should have:
·
experience from
Grade 11 Manufacturing Technology (TMJ3C);
·
familiarity with
drawing types and sketching techniques;
·
completed the
previous activity in developing a design brief including criteria, desired
results, and a final design proposal of the product;
·
basic skills in
word processing, used for journals/log entries;
·
basic keyboarding
skills (knowledge of using the mouse for CAD drawing development);
·
mathematical
skills relating to drawing accuracy, measurement units, and geometric shapes,
as well as Cartesian Co-ordinates, used in learning CAD;
·
knowledge of
basic sketching and drawing standards as well as an understanding of CAD.
·
This activity is
a continuation of the design phase from Activity 2.1. Students progress from
the design brief and idea development (sketches) to the presentation drawing
stage. They develop formal presentation drawings of their design proposal. The
proposal is then detailed through the development of a working set of drawings
complete with dimensions.
·
Prior to
beginning the activity, students define key terms for homework (see Appendix
A).
·
Create or gather
visual teaching aids for introducing orthographic views (e.g., a box with
hinged sides).
·
Solicit help, if
required, to create other simple visual aids (e.g., wooden blocks cut in
geometric shapes).
·
Prepare to
demonstrate drawing techniques on the board or an overhead.
·
Prepare handouts
and posters for each stage of portfolio development and post them in the
classroom.
·
Graphic
communication requires a lot of practice exercises to develop drawing skills;
exercises may be completed for homework. Select components that allow a
progression of activities for the same drawings (e.g., sketch the part,
dimension it, add size tolerances, and add geometric tolerances). Students
complete practice exercises individually; the portfolio may be completed in
teams because of the number of required drawings.
·
As a supplemental
activity, the teacher may arrange for a guest speaker or a field trip to a
local manufacturer or engineering firm.
·
Prepare for the
possibility of job shadowing for students interested in engineering.
·
Provide actual
checklist/timeline to focus work on journals and portfolios.
·
Encourage
students to use brainstorming and problem-solving strategies for ideas and
completion of work.
The teacher:
·
reviews key
components of the previous activity;
·
monitors progress
and provides feedback frequently, emphasizing collaborative and cooperative
group efforts in light of Gospel values;
·
reviews the
design process and discusses how engineering graphics plays a role in this
process;
·
discusses the
socio-economic impact of engineering and planning, emphasizing the social
responsibilities of engineers, not only to the environment but also to the
advancement of dignity of work and God’s call of each person to a vocation;
·
reviews
principles and elements of design and discusses their use in developing
presentation drawings;
·
reviews
engineering standard drawing types, identifying the difference between
presentation drawings and working drawings and discussing their locations in
the design portfolio;
·
gives students an
overview of drawing requirements for the design portfolio of the product;
·
reviews
orthographic representation and assigns practice exercises, progressing from
Grade 11 by introducing revolution and auxiliary views and emphasizing
sectional views;
·
discusses proper
dimensioning standards for orthographic drawings and has students add the
dimensions to product drawings;
·
discusses size
tolerancing and has students add tolerances to the drawings;
·
discusses
geometric dimensions and their relation to the production-control process and
has students add basic geometric tolerances where applicable;
·
discusses how
tolerancing is used to identify statistical process control points in
production;
·
discusses
fasteners and weldments and has students determine how their product will be
assembled;
·
discusses
assembly drawings and has students develop assembly and sub-assembly drawings;
·
reviews product
materials and material properties;
·
discusses bills
of material and has students add a bill of material to their assembly and
sub-assembly drawings;
·
reviews CAD and
has students convert their hand drawings to formal CAD drawings, progressing
from Grade 11 by emphasizing the application of 3-D modelling and the
application of CAD to CAM (Computer-Aided Manufacturing) and CNC (Computer
Numerical Control) machining;
·
discusses process
routing and cost estimations;
·
discusses
assembled portfolio presentation format;
·
reminds students
to maintain group folders and ensures that students do not take group material
home;
·
reviews
journal/log writing format and criteria;
·
reminds students
that a well-kept journal of their activities will assist them in goal setting
and in developing skills which will help them in the world of work.
The
student:
·
listens actively
and critically to understand and learn in light of Gospel values;
·
participates in
collaborative/cooperative learning through group brainstorming of product
ideas;
·
defines key
terms;
·
applies
management planning, organizing, directing, and controlling (Appendix 2.1.1 –
Sample Critical Path Planning Chart);
·
becomes familiar
with drafting standards to develop engineering drawings of the proposal;
·
develops a
criteria list of material specifications;
·
identifies
critical product features through geometric and critical dimensioning;
·
produces a
drawing portfolio package that includes: presentation drawings, assembly
drawings, detailed working drawings, and process routing of their product;
·
assembles the
drawing portfolio and Activity 2.1 technical report in a presentable package
and stores it in the group folder (see Appendix 2.2.1);
·
maintains an
individual log of the process;
·
records learning
experiences in a reflective journal entry. The student reflects on personal
values and Christian teaching as they apply to working within a group and also
on personal aspirations relating to engineering and planning.
Application
·
Students are
assessed on their ability to produce product drawings using engineering
standards. Using a formative checklist, the teacher and students check the
drawings of the design proposal throughout the development of the portfolio.
·
The completed CAD
drawings are evaluated individually or as a package using a rubric
(see Appendix 2.2.2). The purpose of this assessment is to judge the student’s
ability to apply communication skills graphically using engineering standards.
Knowledge/Understanding
Upon completion of
all drawings, students are assessed on their knowledge/understanding, using a
written quiz containing true/false, multiple-choice, and fill-in-the-blank
questions.
Thinking/Inquiry
As a unit summative
assessment, students write a test of short essay questions and/or solve a small
design challenge.
Communication
·
Using a
checklist, the assembled package is assessed for presentation of content.
Checklist items may include neatness, legibility, bound documents, page
formats, etc. (See Appendix 2.2.3.)
·
Through
conferencing, the log entry may be assessed on an ongoing basis for completion
and content.
·
Reflections:
Students self-assess their experiences through a reflective journal entry. The
entries are evaluated using a rubric.
·
Provide a list of
topics and suggestions when enrichment and challenge is needed, allowing
students to be peer tutors/mentors.
·
Pair experienced
students with those who are not yet familiar with the drawing/sketching
techniques.
·
Encourage use of
organizers for new vocabulary, step-by-step drawing processes, required due
dates, and homework.
·
Allow extra time
to complete the report.
·
Students may
enhance their design portfolio by adding more difficult drawings (isometric,
oblique, or perspective). Drawings can be done free hand or using CAD
modelling.
·
Challenge
students to develop perspective-exploded assemblies and sub-assemblies of their
product that illustrate how components are assembled (similar to
do-it-yourself-kit drawings).
·
If your school
uses AutoCAD, challenge students to
prepare for and write the AutoCAD Level 1 Certification Exam. See Autodesk
website for details (see Resources). Preparation is completed independently and
may take more than one term. Students who have their Level 1 certification can
prepare for Level 2.
Books
French E.,
C. Svensen, J. Helsel, and B. Urbanick. Mechanical
Drawing, CAD-Communications, 12th
ed. Peoria, Illinois: Glencoe, McGraw-Hill, 1997. ISBN 0-02-667958-2
(Student Text), ISBN 0-02-677959-0 (Teacher’s Resource Binder), ISBN
0-02-667961-2 (Student Workbook)
Spence W.P. Drafting Technology and Practice.
Peoria, Illinois: Glencoe, 1991. ISBN 0-02-676290-0
Todd R., K. Todd,
and D. McCrory. Introduction to Design
and Technology. Thomson Learning Tools, 1996. ISBN 0-538-64465-6 (hard
cover Student Text), ISBN 0-538-64466-4 (soft cover Teacher’s Resource Guide),
ISBN 0-538-64465-6 (soft cover Portfolio & Activities Resource)
Websites
Association
of Professional Engineers (career information) – http://www.apegga.com
Autodesk
E-Learning – http://www.autodesk.com
AutoCad certification and software
support information.
Ontario
Association of Certified Technicians and Technologists (career info) –
http://www.oacett.org/
Ontario Curriculum
Centre – www.curriculum.org
Grade 10 and Grade 11 Manufacturing Technology Course Profiles
Video Resources
Principles and Elements of Design.
Computer Software
CAD software
Engstrom, D.
and L. Hatch. Design Brief Manager
Software. Glencoe, McGraw Hill, 1995. For use with Introduction to Design and Technology (see Books).
Word-processing
software (e.g., WordPerfect)
Human Resources
Special
Education/Resource staff
School, board, or
community computer technician
Guest speaker
Other
Local manufacturers
or engineering firms (field trips and job shadowing)
Activity 2.1 report
package
Team file folders
Portfolio Checklist
– This checklist is to assist the student in ensuring all components are
present and allows the teacher to add anecdotal comments.
|
Portfolio Component |
Yes |
No |
Comments |
|
The Design Brief - clear and
concise - states the
purpose of the design - identifies the
client - free of grammar
and spelling errors - criteria and
constraints are clear and appropriate |
|
|
|
|
Idea Development
(sketches) - clear renditions
of proposed product - evidence of idea
development - use of
appropriate sketching techniques - rough and
overall dimensions applied - quality of
sketches (clear and neat) - quantity and
variety of ideas |
|
|
|
|
Presentation
Drawings - clear renditions
of proposed product - easy to read and
understand - overall
dimensions - proper use of
drawing techniques - finish quality |
|
|
|
|
Working Drawings - proper format
(title block, lines, etc.) - clear renditions
of product - appropriate view
representation - dimensioned and
toleranced - finish quality - bill of material |
|
|
|
|
Process Routing - process
indicated for both part and finish assembly - spread sheet
software level of complexity - routing is in
chart form with work centres identified - quality
inspection forms indicated - routing follows
a logical sequence |
|
|
|
This checklist is to
assist the student in ensuring all components are present and allows the
teacher to add anecdotal comments.
|
Criteria SPV.04, SP4.02, SP4.03, SP4.05 |
Yes |
No |
Comments |
|
Format |
|
|
|
|
·
Title Block And
Border |
|
|
|
|
·
Drawing
Identification |
|
|
|
|
Accuracy |
|
|
|
|
·
View Location |
|
|
|
|
·
View
Representation |
|
|
|
|
·
Dimensions |
|
|
|
|
Overall
Appearance |
|
|
|
|
·
Line Weight And
Contrast |
|
|
|
|
·
Neat And
Legible |
|
|
|
|
·
Balanced Views (Centred) |
|
|
|
This checklist is to
assist the student in ensuring all components are present and allows the
teacher to add anecdotal comments.
|
Criteria SPV.03 |
Yes |
No |
Comments |
|
Format and Overall
Appearance |
|
|
|
|
Section I: Design Brief |
|
|
|
|
Section II: Design Proposal |
|
|
|
|
Section III: Presentation Drawings |
|
|
|
|
Section IV: Working Drawings |
|
|
|
|
Section IV: Routing Process |
|
|
|
Time: 7 hours
Students produce and
evaluate a model of their company’s product. Using the portfolio package
produced in previous activities, students research modelling and prototyping
techniques, determine the required resources, produce the prototype/model, and
evaluate it. At this phase of the design process, students obtain feedback on
the final solution to their design challenge and determine any refinement,
modifications, or improvements necessary before production. As part of their
assessment of the prototype, students are given the opportunity to apply their
Christian sense of responsibility in evaluating product and processes in light
of the common good and respect for the environment. This provides students with
opportunities to become reflective and creative thinkers and to grow spiritually,
intellectually, and socially.
Ontario Catholic
School Graduate Expectations
CGE3b - create,
adapt, and evaluate new ideas in light of the common good;
CGE4b - demonstrate
flexibility and adaptability.
Strand(s): Theory and Foundation, Skills and Processes
Overall
Expectations
TFV.01 - apply the
design process to develop solutions, products, processes, or services in
response to challenges or problems in manufacturing technology;
TFV.03 - analyse and
describe products and services in terms of their intended specifications, using
the design process;
SPV.02 - manage
quality in a quality assurance program, using the three managerial processes -
quality planning, quality control, and quality improvement.
Specific Expectations
TF1.02 - apply the
following steps of the design process to solve a variety of manufacturing
technology challenges or problems:
- identify what has to be accomplished (the problem);
- gather and record information, and establish a plan of procedures;
- brainstorm a list of as many solutions as possible;
- identify the resources required for each suggested solution, and compare each solution to the design criteria, refining and modifying it as required;
- evaluate the solutions (e.g., by testing, modelling, and documenting results) and choose the best one;
- produce mathematical and physical models, or a prototype of the best solution;
- evaluate the prototype and determine the resources, including computer applications, required to produce it;
- obtain feedback on the final solution and repeat the design process if necessary to refine or improve the solution;
SP1.01 - set up a
manufacturing enterprise on a small scale or using a simulation incorporating
the five major areas of activity: research and development, production,
marketing, industrial relations, and financial affairs;
SP1.02 - function in one or more areas of
activity and execute the four typical functions of management - planning
(setting goals and a course of action), organizing (structuring the job into
manageable tasks), directing (assisting tasks and supervising their completion)
and controlling (comparing results against the outlined plan) - to develop a
product, on a small scale or using a simulation;
SP3.01 - develop
products and processes required to meet customer needs using the following
steps: determine who the customers are, determine their needs, design a product
that responds to these needs, develop processes that can produce the product
features, and transfer the resulting plans to the operating process;
SP3.02 - execute the
following control steps: evaluate actual quality performance, compare actual
performance to quality goals, and act on the differences.
The student
should have:
·
experience from
Grade 11 Manufacturing Technology (TMJ3C);
·
completed the
previous activity;
·
competence in
blueprint reading;
·
research skills
(Internet and publications);
·
basic skills in
word processing and keyboarding, used for journals and log entries.
·
Students define
key terms for homework. Terms may include mathematical models, conceptual
models, physical models, mock-ups, computer-generated models, and prototypes
(see Appendix A).
·
Review all
activities and prepare all handouts, materials, equipment, and teaching aids
necessary for delivery of content.
·
Book any visual
aids and computer labs as necessary and have an overhead projector available
for use.
·
Prepare overheads
on different types of models, such as mathematical models, physical models
(prototypes), and computer-aided solid models.
·
Have
commonly-used prototype building materials on hand (e.g., wood, clay,
polystyrene, paper, and paperboard).
·
Have the
information gathered in Activities 2.1 and 2.2 on hand to discuss the materials
needed to build the prototype.
·
Prepare a list of
websites and have school board policies on Internet use ready for discussion.
Check the websites prior to beginning the activity and emphasize ethical use of
the Internet.
·
Once the
prototype fabrication stage begins, groups (depending on available time and
money) may produce more than one prototype option or divide the tasks required
to build a single unit (e.g., one group prototypes the drive mechanism, another
the chassis and running gear, and another the body).
The teacher:
·
reviews the
manufacturing and design process and discusses how modelling plays a role in
the process;
·
reviews Grade 11
Manufacturing Technology key terms, such as conceptual models, physical models,
computer-generated models, and prototypes;
·
monitors progress
and provides feedback frequently, emphasizing collaborative and co-operative
group efforts in light of Gospel values;
·
discusses the
importance of the prototype as a cost-saving and problem-solving measure;
·
displays the
various methods of developing prototypes and the applications for each;
·
discusses the
various types of tools, equipment, and materials that may be used;
·
has students form
groups to research various prototypes, models, mock-ups, and solid modelling;
·
discusses
evaluation procedures involving dimensional accuracy, reliability, durability,
functionality, aesthetics, ergonomics, interchangeability of parts, cost
analysis, environmental soundness, etc.;
·
emphasizes
Christian responsibility to evaluate product and processes in light of the
common good and respect for the environment;
·
discusses
technical report criteria;
·
emphasizes that
this report is a continuation of the previous activity reports and that it
should follow the same format and be considered part of the overall design
portfolio;
·
reviews
log/journal criteria.
The
student:
·
listens actively
and critically to understand and learn in light of Gospel values;
·
participates in a
class discussion, reviewing key terms, types of models, and the manufacturing
and design process;
·
establishes a
plan of procedures (see Appendix 2.1.1 – Sample Critical Path Planning Chart);
·
researches and
establishes materials to be used in the development of the mock-up and
prototype;
·
has company
design teams share responsibilities for producing models of their product
(models take the form of prototypes, mock-ups, and/or computer-generated solid
models);
·
evaluates the
models in accordance to specifications and criteria;
·
produces a
technical report that includes: material selection, equipment selection, plan
of procedure, prototype analysis, and concluding remarks regarding possible
design changes.
·
includes notes
detailing any refinements, modifications, or necessary improvements;
·
maintains an
individual log of the process;
·
records learning
experiences in a reflective journal entry. The student reflects on personal
values and Christian teaching as they apply to working within a group.
Thinking/Inquiry
·
Students are
assessed on material and equipment selection as detailed in their technical
reports. A rubric can be used to determine achievement level.
·
Students are also
assessed on their model analysis, hypothesis, and concluding remarks. A rubric
can be used to determine achievement level.
Application
·
Students are
assessed on their skills in using the equipment to produce the model. A
checklist may be used for formative evaluation throughout the activity.
·
A rubric is used
for assessment of the model with respect to specifications and criteria.
Note: For summative purposes, individual students’ contributions must be assessed separately.
Communication
·
Using a
checklist, the technical report is assessed for presentation of content.
Checklist items may include neatness, legibility, bound documents, page
formats, etc.
·
Through
conferencing, the log entry may be assessed on an ongoing basis for completion
and content.
·
Reflections:
Students self-assess their experiences through a reflective journal entry. The
entries are evaluated using a rubric.
·
Provide
hardcopy/displays to familiarize students with techniques for research,
manufacturing, and the design process.
·
Repeat
instructions and frequently monitor progress, providing feedback through
suggestions, comments, or questions about work.
·
Allow extra time
for completion.
·
Use materials
that allow simplification of model building.
·
Monitor
completion of work and encourage ongoing use of journals and organizers.
·
Provide samples
and visual aids.
Books
Hutchinson,
John and John Karsnitz. Design and Problem
Solving in Technology. Glencoe, McGraw-Hill, 1997. ISBN 0-8273-5244-1
Todd, R., K. Todd,
and D. McCrory. Introduction to Design
and Technology. Thomson Learning Tools of International Thomson Publishing,
1996. ISBN 0-538-64465-6 (Student Text), ISBN 0-538-64466-4 (Teacher’s Resource
Guide), ISBN 0-538-64465-6 (Portfolio and Activities Resource)
Websites
Association
of Professional Engineers (career information) – http://www.apegga.com
Ontario
Association of Certified Technicians and Technologists (career info) –
http://www.oacett.org/
Ontario Curriculum
Centre (Grade 10 and Grade 11 Course Profiles) – www.curriculum.org
Time: 8 hours
In this activity,
students gain knowledge and experience in marketing and presentation
techniques. Students develop a marketing plan for their product and produce an
effective advertising presentation. As part of a marketing team, students
develop thinking, problem-solving, and graphic communications skills through
brainstorming, market research, and the use of technology to present the
product to potential clients. During this process, students become familiar
with marketing strategies and terminology as it applies to a manufacturing
organization. Students are encouraged to reflect Gospel values and responsible
attitudes as collaborative contributors to the team.
Ontario Catholic
School Graduate Expectations
CGE2b - read,
understand, and use written materials effectively;
CGE2c - present
information and ideas clearly and honestly with sensitivity to others;
CGE2e - use and
integrate the Catholic faith tradition, in the critical analysis of the arts,
media, technology, and information systems to enhance the quality of life;
CGE3b - create,
adapt, and evaluate new ideas in light of the common good;
CGE4f - apply
effective communication, decision-making, problem-solving, time, and resource
management skills;
CGE5e - respect the
rights, responsibilities, and contributions of self and others;
CGE5h - apply skills
for employability, self-employment, and entrepreneurship relative to Christian
vocation.
Strand(s): Theory and Foundation, Skills and Processes
Overall
Expectations
TFV.01 - apply the
design process to develop solutions, products, processes, or services in
response to challenges or problems in manufacturing technology;
TFV.02 - describe
the five major areas of a manufacturing process: research and development,
production, marketing, industrial relations, and financial affairs;
TFV.03 - analyse and
describe products and services in terms of their intended specifications, using
the design process;
SPV.01 - set up and
function in an effective manufacturing enterprise;
SPV.03 - communicate
effectively in the manufacturing sector using a variety of means.
Specific
Expectations
TF1.02 - apply the
following steps of the design process to solve a variety of manufacturing
technology challenges or problems:
- identify what has to be accomplished (the problem);
- gather and record information, and establish a plan of procedures;
- brainstorm a list of as many solutions as possible;
- identify the resources required for each suggested solution, and compare each solution to the design criteria, refining and modifying it as required;
- evaluate the solutions (e.g., by testing, modelling, and documenting results) and choose the best one;
- communicate the solution, using one or more of the following: final drawings, graphs, charts, sketches, technical reports, electronic presentations, flow charts, mock-ups, models, prototypes, and so on;
- obtain feedback on the final solution and repeat the design process if necessary to refine or improve the solution;
TF2.02 - describe
the activities associated with marketing: identifying the potential market,
promotion, sales, and distribution;
SP1.02 - function in
one or more areas of activity and execute the four typical functions of
management – planning (setting goals and a course of action), organizing
(structuring the job into manageable tasks), directing (assigning tasks and
supervising their completion), and controlling (comparing results against the
outlined plan) - to develop a product, on a small scale or using a simulation;
SP5.03 - use
language appropriately in flow charts, operations and inspections charts, job
descriptions, lists of tooling requirements, quality-control program materials,
worker training, formal presentations, and bills of material.
The
student should have:
·
knowledge of
presentation techniques from Grade 11 Manufacturing Technology (TMJ3C);
·
basic skills in
word processing, used for journals/log entries, and basic keyboarding skills.
·
Review all
activities and prepare all necessary handouts, materials, equipment, and
teaching aids.
·
This activity is
split into several stages. The market research stage introduces students to the
concepts of target market and demographics. Students then progress to the
advertising stage and develop an effective marketing presentation, using
technology to produce a sales brochure, a radio spot, and a computerized
display (e.g., Corel Suite Presentation).
The proposal is then presented to the “client.”
·
Collect resources
on marketing and presentation techniques.
·
Create and/or
gather visual teaching aids for introducing media, such as print, radio, and
video.
·
Demonstration of
desktop publishing and slide show techniques can be helpful. Use the board,
video projection devices, or overheads.
·
If the design
challenge done in collaboration with a local manufacturer arrange to have their
engineering staff help assess presentations.
·
Arrange for
students to present at the manufacturing location, providing work-like
experiences.
·
Invite the press
and school/board administrators.
The teacher:
·
has students
define key engineering terms for homework. Terms may include advertising,
logos, print media, and target market;
·
reviews lesson on
group dynamics, emphasizing collaborative and cooperative group efforts in
light of Gospel values;
·
reviews the manufacturing
process and discusses the role played by marketing;
·
reviews the five
major areas of a manufacturing process: research and development, production,
marketing, industrial relations, and financial affairs;
·
provides samples
of marketing strategies in the manufacturing sector (e.g., auto manufacturers
launching a new line of vehicles);
·
introduces the
design challenge (the Marketing Portfolio Slide Presentation) and provides an
overview of the requirements;
·
discusses
instructions and criteria for the slide show: as a theme, the presentation
should simulate an engineering team selling a new product line to senior
management or potential clients and should include slides of presentation
drawings, digital photographs of the model, marketing strategies, and marketing
material;
·
reviews
journal/log writing format and criteria;
·
reminds students
that a well-kept journal of their activities will assist them in goal setting
and in developing skills which will help them in the world of work.
The
student:
·
listens actively
and critically to understand and learn in light of Gospel values;
·
establishes a
plan of procedures (see Appendix 2.1.1 – Sample Critical Path Planning Chart);
·
participates in
collaborative/cooperative learning through group brainstorming of presentation
ideas;
·
applies the
design process to produce a Marketing Portfolio, which includes a company logo,
letterhead, advertisement brochure, and an electronic slide-show presentation
of the product;
·
assembles
material from all unit activities, stores it in AEP folders, and makes back-up
copies to be stored independently;
·
maintains an
individual log of the process;
·
records all unit
assessments and evaluations (see Appendix 2.4.1);
·
records learning
experiences in a reflective journal entry. Students reflect on personal values
and Christian teaching as they apply to working within a group. Students also
reflect on personal aspirations relating to marketing.
Application
·
Students are
assessed on their use of various media (hand sketches, software) to effectively
present their portfolio. A checklist may be used for formative assessment as
students progress through the activity.
·
The marketing
materials (portfolio and presentation content) are assessed in accordance with
student- and teacher-developed criteria and constraints. A rubric may be used.
Communication
·
Using a
checklist, the assembled package may be assessed for completeness. Checklist
items may also include neatness, legibility, bound documents, page formats,
etc.
·
Presentation
format and delivery are assessed using a rubric.
·
Through
conferencing, the log entry may be assessed on an ongoing basis.
·
Reflections:
Students self-assess their experiences through a reflective journal entry. The
journal entries are evaluated using a rubric.
Thinking/Inquiry
The teacher
evaluates students’ idea-development sketches and their written rationales for
selecting the marketing material and equipment.
·
Allow a variety
of presentation formats (e.g., recorded, videotaped) and a simplified
evaluation scheme.
·
Provide students
with time to practise and role play in preparation for the presentation.
·
Challenge
students to burn their presentations on CD or to convert the presentation to
video.
Books
Todd R., K. Todd, and
D. McCrory. Introduction to Design and
Technology. Thomson Learning Tools, 1996. ISBN 0-538-64465-6 (hard cover
Student Text), ISBN 0-538-64466-4 (soft cover Teacher’s Resource Guide), ISBN
0-538-64465-6 (soft cover Portfolio and Activities Resource)
Websites
Junior
Achievement – http://www.ja.org/
Marketing
Terms and Definitions – http://www.knowthis.com/general/terms.htm
Ontario
Curriculum Centre – www.curriculum.org
Grade 10 and Grade 11 Manufacturing Technology Course Profiles
Presentations
Magazine – http://presentations.com
Tips, techniques, and technology for creating and delivering effective, dynamic
presentations
Computer Software
Word-processing
software (e.g., Corel WordPerfect)
Presentation
software (e.g., Corel Suite Presentation)
3-D modelling
software
Student Name:
__________________________________________
|
Mark Description |
Design Brief |
Design Portfolio |
Working Drawings |
Portfolio Package |
Oral Presentation |
Reflection Paper |
Log Entry |
Total Score |
|
|
Knowledge/
Understanding |
Level |
|
|
|
|
|
|
|
|
|
% |
|
|
|
|
|
|
|
|
|
|
Thinking/Inquiry |
Level |
|
|
|
|
|
|
|
|
|
% |
|
|
|
|
|
|
|
|
|
|
Communication |
Level |
|
|
|
|
|
|
|
|
|
% |
|
|
|
|
|
|
|
|
|
|
Application |
Level |
|
|
|
|
|
|
|
|
|
% |
|
|
|
|
|
|
|
|
|
|
|
E |
G |
S |
N |
|
Works
Independently |
|
|
|
|
|
Teamwork |
|
|
|
|
|
Organization |
|
|
|
|
|
Work Habits |
|
|
|
|
|
Initiative |
|
|
|
|
*Adapted from
A Resource for Assessment, Evaluation,
and Reporting.
Developed by Kawartha Pine Ridge DSB in collaboration with the Ministry of
Education
Overview | Unit 4 | Course Profiles Main
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