Dylan Tapia's Engineering Portfolio
Thursday, December 12, 2013
About Me
I'll be graduating from Palatine High School in 2017. I joined PLTW my freshmen year because I believed that I would be interested in the engineering course. Engineering interests me because it allows me to come up with my own unique ideas and makes me come up with designs that aren't original. I plan on joining POE next year for my sophmore year because I enjoy the class very much. I've also participated in other activities at Palatine such as being part of the football and basketball team.
Wednesday, December 11, 2013
IED 3 perspective drawings
Perspective
Drawings
One-Point Perspective
A perspective drawing offers the most
realistic three-dimensional view of all the pictorial methods, because it
portrays the object in a manner that is most similar to how the human eye
perceives the visual world.
One-Point Perspective
The one-point perspective is relatively simple to make, but is somewhat awkward in appearance when compared to other types of pictorials.
•A horizontal line represents the horizon.
•One vanishing point is identified on the horizon line.
•A series of lines are drawn from distinctive points on the object to the vanishing point, outlining the object being constructed.
IED 2 Isometric Sketching
Isometric
Pictorial
•Three adjacent faces on a cube will share a single point
• Edges converge at one point will appear as 120 degree angles or 30 degrees from the horizon line
Isometric means equal measure.
•Three adjacent faces on a cube will share a single point
• Edges converge at one point will appear as 120 degree angles or 30 degrees from the horizon line
•These
three
edges represent height, width, and depth
IED 1 Design Challenge Paper Tower
Goal of Challenge
•Create the tallest tower that can hold a tennis ball and can withstand the most wind.
Rules for Tower Challenge
•Bottom of tennis ball must be at least18” above ground/table
•Must withstand wind from fan for at least 10 seconds
•Ball can’t fall
•Tower can’t tip over
•Use only materials given for challenge
•Tower must be free standing
•Cannot tape to table
Materials for Challenge
•1 School Newspaper
•3 Pieces of Computer Paper
•2 Pieces of Cardstock
•2 Feet Masking Tape
•5 Rubber Bands
•1 Tennis Ball (can’t be modified)
•Scissors (can’t be used in design)
•Ruler/Scale (can’t be used in design)
•Create the tallest tower that can hold a tennis ball and can withstand the most wind.
•Bottom of tennis ball must be at least18” above ground/table
•Must withstand wind from fan for at least 10 seconds
•Ball can’t fall
•Tower can’t tip over
•Use only materials given for challenge
•Tower must be free standing
•Cannot tape to table
Materials for Challenge
•1 School Newspaper
•3 Pieces of Computer Paper
•2 Pieces of Cardstock
•2 Feet Masking Tape
•5 Rubber Bands
•1 Tennis Ball (can’t be modified)
•Scissors (can’t be used in design)
•Ruler/Scale (can’t be used in design)
Puzzle Cube Project
Puzzle
Design Challenge Brief
|
Designer: _____________________________________
Problem Statement:
A local office furniture manufacturing company throws
away tens of thousands of scrap ¾” hardwood cubes that result from its
furniture construction processes. The material is expensive, and the scrap
represents a sizeable loss of profit.
Fine Office Furniture, Inc. would like to return value to
its waste product by using it as the raw material for desktop novelty items
that will be sold on the showroom floor. Design, build, test, document, and
present a three-dimensional puzzle system that is made from the scrap hardwood
cubes. The puzzle system must provide an appropriate degree of challenge to a
person who is three years of age or older.
1. The
puzzle must be fabricated from 27 – ¾”
hardwood cubes.
2. The
puzzle system must contain exactly five puzzle parts.
3. Each
individual puzzle part must consist of at least four, but no more than six
hardwood cubes that are permanently attached to each other.
4. No
two puzzle parts can be the same.
5. The
five puzzle parts must assemble to form a 2 ¼” cube.
6. Some
puzzle parts should interlock.
Step 2: Generate Concepts
•Brainstorming
Step 2: Generate Concepts
•Brainstorming
•Part
Possibility Configuration
•4,
5, & 6 Cube part designs (Think of as many as possible for each)
•Sketch
out each idea using isometric paper
•Examples:
Step 3: Develop a Solution
•Exploring Possibilities
•Exploring Possibilities
•Develop
two different Puzzle Cube options using isometric drawings to show all 3 levels
of cube
•Select
an Approach
•Write
a brief rationale of which option you chose and why.
•Create
a multi-view drawing (including isometric drawing) for each Puzzle Cube part.
•Create
an isometric drawing of the cube fully assembled
Step 4: Construct & Test a Prototype
•Physical
Prototype
•Build each part of your Cube Puzzle using
the given materials from your teacher
•Take pictures of each complete part and
the completed Puzzle Cube
•Place each picture in your notebook.
•Prototype
Packaging
•Develop a packing element to “sell” your
cube in.
•Take pictures of packing (inside and out)
and place the pictures in your notebook.
•Virtual
Prototype
•Build each part of your Cube Puzzle using
Autodesk Inventor Software
•Create the following Drawings (These
drawings will be placed in Step 6 –
Present Solutions)
1.Title
Page
2.Parts
List/Exploded View
3.Assembly
Page
4.Individual
Parts Page (All 5 Pieces
Step 5: Evaluate a Solution
Test,
Evaluate, Redesign
Write a summary answering the following
questions:
1.Why is it important to model an idea before
making a final prototype?
2.Which assembly constraint(s) did you use to
constrain the parts of the puzzle to the assembly such that it did not move?
Describe each of the constraint types used and explain the degrees of freedom
that are removed when each is applied between two parts. You may wish to create
a sketch to help explain your description.
3.Based on your experiences during the completion
of the Puzzle Design Challenge, what is meant when someone says, “I used a
design process to solve the problem at hand”? Explain your answer using
examples from the work that you completed.
Step 6: Present a Solution
•Presentation
•Include your drawing files that were
created in Autodesk Inventor.
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