Bend the cardboard into segments (about 1-inch long)
Cut the straw into half-inch pieces and hot glue them into the center of each segment
Thread the string through the straw pieces and secure it by tying or glueing to the top of the cardboard
SPINNER
CLAW
How to make it
1
2
Fold the triangular column on the perforations. Glue the triangle caps onto each end.
Glue two hook pieces together to make a wider/ stronger hook. Repeat three times.
How to make it
3
4
Glue the smaller round piece onto a larger piece. Slide a hook onto the small wood dowel. Glue into the notch. Glue on the larger cap.
Slide each of the three longer cardboard strips through the holes in the claws.
How to make it
5
6
Put the wood dowel through the holes in the triangular column, then the claw piece. Glue the circular cap onto the top of the dowel and claw piece.
Glue the center of the smaller cardboard strip onto the side of the triangle. Sandwich the ends of the long cardboard strip inside this piece. Repeat on each side.
Structural in one direction and bendable in the other
Bendable one direction
TOOLS
CUTTING TECHNIQUES
Cutting
Straight
Cutting
Curves
SHAPING TECHNIQUES
Shaping:
Bending
Shaping:
Faceting
Shaping:
Score + Bend
Straight
Shaping:
Score + Bend
Curve
Shaping:
Score + Bend
Shaping:
Layering
JOINERY
Joining:
Hinge
Joining:
Hinge
Joining:
Braces
Joining:
Tabs
Joining:
Tabs
Joining:
Slotting
Joining:
Slotting
Joining:
Tabs/
Notching
Joining:
Tabs/
Notching
Joining:
Butt Joint
Joining:
Brads
Joining:
Skewer
Joining:
Skewer
Joining:
Flange
Joining:
Strap
COOL CARDBOARD PROTOTYPES
Deep Sea Bots Studio
COOL CARDBOARD PROTOTYPES
Responsive Architecture Studio
Goals
Build foundational knowledge about when and how to deploy moving parts in the prototyping process
Provide overview of cardboard mechanism prototyping techniques
Explore integration of electronics and motors into projects and what is needed
Provide resources for future use
INSPIRATION: Manual Movement
INSPIRATION: Motor Driven
MATERIALS
These mechanism and movement principles apply to all materials, but for today we will focus on the incredible things you can do with humble cardboard!
Considerations:
How can the cardboard's corrugation orientation make it more structural, or allow for the pieces to bend in the correct orientations?
Can the cardboard be layered, rolled or scaled to make it perform better?
Cardboard has a thickness- take this into account when designing connecting parts and mechanisms
CONNECTIONS
Tape it, Glue it, Pin it, Screw it...
Considerations:
Does the connection need to be static or mobile?
Is the connection permanent, or do you want the pieces to be able to be disassembled?
How much surface area is in the connection and can I add extra pieces (braces, brackets, etc.) to strengthen the joint?
HIGH-FIDELITY
LOW-FIDELITY
. . .
We usually think of cardboard as a material for low-fi prototypes. It is cheap and easy to try ideas out with.
HIGH-FIDELITY
LOW-FIDELITY
. . .
In some cases, though, cardboard can be a high-fi material, where more advanced building methods and mechanisms can be used
Structure
+
Mechanism
+
Electronics/
Motors
(optional!)
Some Cool Mechanisms
+
Project Examples
How can we make moving parts out of cardboard?
The following slides show simple machines and a few mechanisms, including templates for their parts and gifs of their completed assemblies