Morning

To be a VR creator, it’s not enough to learn the hard skills—it’s also our responsibility to prime ourselves for the human impact of our work. As a means to design VR that is both enjoyable and accountable, this class proposes we borrow design principles from Hedonomics, a branch of ergonomic science that facilitates pleasurable human-technology interaction. Through the Hedonomic Pyramid, we’re able to section our thinking off into regions (Safety, Function, Usability, Pleasure and Individuation) and map out industry-tested VR design guidance for each. The result is a hierarchical checklist of proven principles, specifications and practices—that promote a culture of inclusive and holistic design—built to serve as a quickstart guide to designing accountable VR interfaces and systems. This class, divided into units that represent each level of the Hedonomic pyramid, will unpack both technical and conceptual strategies for creating VR, from visual interface fidelity to avoiding locomotion cybersickness to designing safer social VR spaces.

“A computer is a clock with benefits” writes Paul Ford in Bloomberg’s issue dedicated to code. Time, at once fundamental and mysterious, is of course a basic part of any time-based media, but uniquely more so for programmed media that can evolve as it runs. In this course, we’ll reflect on the deep mysteries of time while also building hands-on skills that will improve our command of temporal media and technologies.

Specific topics will range from the marvelous engineering of historical clocks and orreries through modern computer architecture. We’ll draw inspiration from a technological tradition stretching back at least 2000 years to the Antikythera Mechanism that includes humanity’s earliest efforts to understand temporal patterns in nature. Practically, we’ll build mechanical and software clocks; experiment with time-series data and time protocols; and survey techniques for digital signal processing and software state transitions.

Students will improve their skills in:

– Extracting meaning from data in time-series sets, like sequential sensor readings in a physical computing project or a public API;
– Creating experiences with a beginning, middle and end; a narrative arc;
– Getting to the “metal” in microcontrollers and CPUs;
– Integrating real-time clock modules and network time protocols with projects;
– Using programmatic timelines and variable ‘tweening’ to add grace and sophistication to our creations

Students will execute production assignments throughout the semester. Students should have taken or be taking physical computing, a programming course, or have equivalent experience.

Prerequisite: ICM / ICM: Media (ITPG-GT 2233 / ITPG-GT 2048) & Intro to Phys. Comp. (ITPG-GT 2301)

How do we make things move, produce sounds, or maybe even emit light without batteries? Through this course, each student will design their own purely mechanical automaton. We will learn how to use simple materials and tools to hand prototype mechanisms in their early stages. CAD software will be used to refine the designs and then a series of traditional and digital fabrication tools (various wood shop tools, laser cutter, CNC, 3D printers, etc.) will be used to produce the final pieces. We will learn how to work iteratively in the shop through weekly exercises, and a midterm and final project.