Week 1: Parametric Design aka “Death by FUSION360”
This first week’s assignment was to:
- Model (raster, vector, 2D, 3D, render, animate, simulate, …) a possible final project,
- Compress your images and videos,
- Post a description with your design files on your class page.
Getting started with Fusion (aka “Confusion”)
This week marks my first attempt at designing anything on a laptop. I was a bit intimidated: I’ve never used CAD software before, let alone a parametric one. My design experience has mostly been sketching on whiteboards or paper, and making things by hand.
So—challenge accepted. I began with the tutorial videos shared by Alfonso on the HTMAA website. They helped me get over the initial fear of starting my first Fusion 360 drawing. Once I wasn’t so scared of the interface, I brainstormed what to design.
Final Project Ideas — Brainstorm
I had many ideas—some possible, some too easy, some reasonable, some silly—and felt a bit overwhelmed by choice.
Initial ideas
- Fridge assessor / recipe maker (with pantry option)
- Adaptable bike / work / messenger bag
- Cool bike lock holder
- Adaptable bike stand
- Propagator station
- Sewing / mending / customization station for campus
- Printable kit (e.g., biking safety kit)
- Foldable, lightweight lecture table for note-taking
- Shoe shock absorber (reduce walking noise)
- Emergency sweater kit / local heating for over-AC’d spaces
- Ultimate earring holder
- Light dial with propagator (sun-tracking planter helper)
- Shock-absorbing keychain (quiet keys)
Noise pollution concepts
- Shoe shock absorber
- Key shock absorber
- Street-level noise-canceling “bubble”
- 3D-printed musical cards (playful concept)
Interactive tools
- Dog communication device
- Music-box creator (convert a sung/piano melody into a punch card or disk)
Wearables & materials
- Earphone earrings that charge with movement
- 3D-printed material with embedded magnets (self-moving object)
Everyday comfort / utility
- Post-rain kit (station for drying shoes, coats, etc.)
- Scoliosis corrector / posture reminder
- “Swear jar” that auto-charges your account
- Puzzle alarm clock (solve to turn off)
- Sunrise alarm clock
- All-in-one sleep aid (meditations, white noise, mask)
- Backpack-fit stilts
My initial favorite was the “Earpod”—earrings that are also earphones, harvesting kinetic energy from walking to self-charge. It’s an accessory, a stealthy gadget, and a fun way to connect movement and music. But for week one, that felt a bit ambitious, so I decided to scope down.
Other ideas
My fallback project also related to movement and energy—this time, solar power.
I have a Monstera at home that struggles to find the light. It bends toward one direction, and I wish it would grow more evenly. So I thought: why not create a solar-powered plant light that rotates to follow the sun and provides light all day long? That way, the plant could receive light from multiple directions and grow more symmetrically.
I began by sketching ideas and decided to start with a simple object to learn where the sun is coming from: a sundial.
A first stab at modeling
What is a sundial?
A sundial tells time by the apparent position of the Sun. In its simplest form, it consists of a flat plate (the dial) and a gnomon that casts a shadow onto the dial. As the Sun moves across the sky, the shadow aligns with hour lines marked on the dial.
Pretty neat, right?
All we need is a base plate with engraved hour marks and a gnomon to cast the shadow. There are many sundial types (see examples here). The simplest to start with is the horizontal dial, with vertical a close second. I’d like to make an adaptable design that works both horizontally and vertically—so the gnomon can be placed on either side of a base plate with markings matched to our latitude.
Design process
I sketched several concepts aiming for simplicity and ease of assembly. I chose a circular base plate with a slot for the gnomon, which is a triangular insert. To adjust for different latitudes, I added alternate slot positions for the gnomon.
Modeling in Fusion 360 had a learning curve. After a few hours (and many undos), I built a basic model, then added details like hour lines and numbers, plus tabs/slots for clean assembly.
Once satisfied, I exported vector files for laser cutting (DXF/SVG), verified dimensions, and prepped line weights/colors for cut vs. engrave. After cutting, I test-fit the parts and checked the hour-line readability outdoors—the shadow was crisp and easy to read.
Overall, this week was a great learning experience: I learned the Fusion 360 basics, designed for laser cutting, and—most importantly—kept iterating until it worked.