2. As a technically minded and creative
person I enjoy all aspects of product
design, particularly the ability to work
on a design from scratch and see it
through to the final result. I enjoy both
digital and physical modelling, and
experimenting with different shapes
and form to come up with the desired
result.
3. CAD
English Cantonese Mandarin
Origami
Design Skills & specialitiesEducation Skills & Interests
Science 3D printing
Write
Speak
Read
Listen
Write
Speak
Read
Listen
Write
Speak
Read
Listen
Mechanical
Engineering
Modelling
Design for
Manufacture
Model Making
Electronics
Exhibition Setup
Graphic Design
Material & Manufacturing Process
CAD Modelling
Hand Sketching
Generative Design
September 2013 - Present
Product Design Technology
Higher Education at UWE
July 2015 - June 2016
Design Intern
Industrial Placement at MindSketch Ltd
June 2016 - September 2016
Design Intern
Industrial Placement at Reach Robotics Ltd
September 2015 - February 2016
Product Designer
Co-ordinator at OmniDynamics Ltd
September 2011 - July 2013
Design & Technology
Sixth Form at Wellsway School Sixth Form
September 2006 - July 2011
Design & Technology
Secondary Education at Wellsway School
• Low volume manufacturing
• Design engineering
• 3D printing
• Laser cutting
• Team working
• Value engineering
• Product development
• Tolerance control
• Manufacturing
• Liaising with Clients
• Product development
• Exhibition setup
• .Model making
• Electronics
• CAD Render
• Mechanical engineering
• Team building
• Product testing
• Assisting the team
• Translating documents
• Concept generation
Adobe InDesign
Adobe Photoshop
Arduino
Autodesk Simulation Mechanical
Fritzing
Grasshopper 3D
KeyShot
Microsoft office
Processing
Rhinoceros 5
Solidworks
VSDC Video Editor
4. For my final year project I am making a printer that
produces braille and tactile diagrams.
The goal of this project is to bridge the social gap
between children with visual impairment and sighted
children. Furthermore, teaching children about braille as
they play together.
Brint
5. Result
Noise
Quality
Size
Quantity
The average noise level of Brint when
printing is 55.3db, which is lower than
80db of existing braille embossers.
Feedback from user testing shows that
the braille produces on Brint is highly
readable and the readability is greater
than embossed braille. Older people
with reduced sensitivity can also feel
the dots.
The size of the Brint is 100mm(Height) x
509mm(Width) x 411 (Depth) and has
a greater footprint than a modern A4
ink-printer.
Each cartridge contains 60ml of paint.
Calculated from test results, each
cartridge can print up to 200 pages of
braille before it runs out of paint. Hence,
each page of braille will only cost 0.8p
to produce, whereas embosser paper
will cost 7p per sheet (currently the
cheapest method of producing Braille
at home).
200
6. The design ethos is to produce a high quality product
with minimal costs. Therefore, the product will be made
to order and manufactured in house to maintain
high quality control. The turnaround time is 3 weeks
maximum from receiving the order to completing the
assembly, this includes the shipping of components, 3D
printing and laser cutting. Other factors such as delivery
distance and number of orders will increase the delivery
time.
Production
Plotter mechanism in the printer
controls the X-axis and Y-axis and is
driven by 2 stepper motors.
The servo raise and lower the nozzle
to control the deposition of the paint.
Brint is designed for low volume
production. 3D printing is an ideal
process for producing complicated
mechanical components of this scale
of production.
7. 2.Convert the text into braille.
3.Save document as Gcode.
1.Type text into the software,
Inkscape.
5.Open the printing software,
Brinter. 6.Select the Gcode file and
click “Print” to start printing.4.Load a piece of paper into
the printer.
Testing
“For a printer that can do this £800 sounds alright to me
and it uses standard paper and acrylic from the shop
which is great! You can only get braille paper online,
but for this you can just go out and buy some.”
- Dave
8.
9. The aim was to design an easy clean potato masher to
be taken to Kickstarter for crowd funding. The project
was a means of marketing for Mind Sketch. The potato
masher is intended to be playful and have a friendly
appearance, encouraging the user to display it when
not in use.
Puray
Placement project - Potato masher
10. Removable handle made of nylon for scooping the
mashed potato.
Features
This project was very different to any other projects
I completed in the past because it included crowd
funding and marketing which I had never came across
before.
Role-
I was the lead designer of this
project, whilst my manager
provided guidance on the
development. Additionally, I was
also in charge of the marketing.
3D-printed prototype
• Design for manufacturing
(Injection moulding, zinc casting)
• Understanding and choosing
food grade materials
• Online Marketing
• Product/prototype testing
Skills
11.
12. A A
B B
C C
D D
E E
F F
8
8
7
7
6
6
5
5
4
4
3
3
2
2
1
1
DRAWN
CHK'D
APPV'D
MFG
Q.A
UNLESS OTHERWISE SPECIFIED:
DIMENSIONS ARE IN MILLIMETERS
SURFACE FINISH:
TOLERANCES:
LINEAR:
ANGULAR:
FINISH: DEBURR AND
BREAK SHARP
EDGES
NAME SIGNATURE DATE
MATERIAL:
DO NOT SCALE DRAWING REVISION
TITLE:
DWG NO.
SCALE:1:5 SHEET 1 OF 1
A3
WEIGHT:
Assem1SOLIDWORKS Educational Product. For Instructional Use Only.
The brief was to design an interactive business card
dispenser for Mind Sketch to display and use at
exhibitions. The dispenser must be able to collect visitors’
business cards.
Cyclic
Placement project- Business card dispenser
14. Tolerance issues such as material thickness, component
alignment and edge profiles were troublesome but are
able to be overcome with practical skills such as wood
working.
Construction
Role-
I was the lead designer on this
project, responsible for the
designing, developing and making
of the dispenser.
Layout of the electronic components.Cardboard prototype of the dispensing unit. Final dispensing unit made using a laser-cutter.
Mechanism Prototype. Final mechanism design.
• Mechanical design and
engineering
• Physical computing - Arduino
• Tolerance control
• Model making - wood working
Skills
15. As a team of 5 we had to design a product for Robot
Bike Co. The product or the technology used has to be
viable within 3-5 years time
The goal of the brief is to expand their current market
and get media coverage in order for more people to
know about their bespoke mountain-bike frame tailored
to the user.
Optim
Live project - Robot Bike Co
• Customised saddle
• Promotion booklet
• Hex key
• Optimised coaster (3D-printed)
16. The data captured by the pressure sensors will be used
to optimise the foam structure in the saddle (red).
The foam structure will be made using 3D printed
polyurethane.
Bespoke
1The user take the a ride with a
pressure-sensitive saddle.
3The user pick their favourite
leather design and colour.
2Process the data and optimise
the saddle’s foam structure
4Manufacture the saddle.
5Deliver the custom saddle to
the client.
“A poorly fitting bike saddle can cause pain which, at
best, is uncomfortable, and at worst, could have long
term effect, both on and off the bike.”
17. The pattern is a decal applied to the leather. The user
can choose to have their name or logo printed instead.
Customisation
Visualisation of the pressure distribution on the pressure-sensitive saddle. The electronics
Pressure-sensitive saddle prototype: using Arduino to capturing data from the pressure sensors and visualising it on
Processing.
The user can pick their favourite
colour for the leather of their
saddle.
18. Within a number of weeks time we are expected to
learn to use Grasshopper 3D (plug-in for Rhinoceros
5). Our brief was to use generative design to create a
family of elegant test tube vases together.
As a team, we decided on setting the test tube at a 15°
angle from vertical as a challenge.
Sprout
Generative design - Test tube Vase
Ben Iron Rob SissonsElly Duley Ying Yeung Cheung
19. Create loft profile
Loft Array;
Project cure
Join mesh
Create mesh;
Smoothing
Shift points;
3 point arc;
Interpolate
Loft;
3D population;
3D voronoi
Changing the parameters in the grasshopper definition
result in a different outcome. Users can customise the
model based on their individual preference.
FDM 3D-printing is destined
for producing the prototype
model, therefore, a number of
requirements have to be met
during the design process.
• Generative design -
Grasshopper 3D
• Identifying design and
manufacturing constraints
• Designed for 3D-printing,
without the need of support
material
Click the following link to view and modify the model:
http://beta.speckle.xyz/view/s/Vyp
Design space
Skills
20.
21. Following the “Test-tube Vase” project, we then tried
to apply generative design to products for mass
manufacturing.
The goal of this project was to create a plant pot that
grows with the plant.
The target market was aimed at both plant retailers and
their customers who wish to purchase an affordable,
innovative and attractive design.
Crease
Generative design - Origami plant pot
Origami is one of my hobbies. I sometimes find it
challenging to learn and often need practice to
become adept. However, it is very rewarding and
fulfilling to finally see the outcome.
22. Explore further into the retailing aspect of this project, I
discover that the Hexagonal profile consume less space
than square, triangle or circular (current design) which
benefits both retail and transportation.
Existing plant pots are often
cumbersome and awkward to
store of shelve because of their
shape.
Shelving layout
1Pre-expanded plant pot.
3The plant pot expanded under
compression.2User apply forces onto the
plant pot.
• Implement origami into product
design and packaging design.
• Efficient shelving and
transporting arrangement.
• Expandable design reduces
the need of re-potting.
Achievements
23. Unfold the origami design into a flat sheet using
Grasshopper 3D to prepare for prototyping and
manufacturing.
Use rotary-die-cutter to cutting and create score lines
on the Polypropylene sheets.
The corner sections (highlighted
green) are joined together using
adhesive. This process is commonly
used in the packaging industry
along with folding sheet material.
Manufacturing
Create main
folding mesh (1
fold each)
Create profile Expand the origami
mesh
Create corner
folding mesh (3
folds each)
Create bottom
folding meshes (12
folds)
Fold the bottom
mesh
Combine the
meshes together
The cut polypropylene sheets can be flat pack and
stack ready for distribution. Large quantities can be
stored and shipped efficiently.
Generative design is not only able to
simplify and accelerate the design
process, but also simulates the folds,
to show dynamic movement.
Prototype: before and after expansion
24.
25. Self
development
Sending the date and time from PC to arduino using JavaScript
Blue-tooth (HC-05) communication
between a smart-phone and an
Arduino.
26.
27. Thank you
Ying Yeung
Cheung
LinkedIn: www.linkedin.com/in/yingcheung/
Email: calvin.cheungyingyeung@gmail.com
Tel: +44 750 191 2032
I would appreciate the opportunity to meet with you to
discuss how my qualifications will be beneficial to your
organization’s success.