Designing & Deploying Projects for Zero Gravity Flights
Syllabus for Graduate Course MAS.838 / 16.88
Instructors: Ariel Ekblaw, Cody Paige, Joe Paradiso, Jeff Hoffman
Class period and room: Tuesdays 1pm - 3pm, E14-514B
Recitations: TBD [optional/as required, see below]
12 units [2 hrs class time; 1 hr recitation time; 9 hrs out of class homework]
Course website: https://zero-gravity.pubpub.org/
Contact: zerogravity@media.mit.edu
Welcome to the MIT Space Exploration Initiative (SEI) course on project development, prototyping, and deployment readiness for parabolic flights,culminating with an annually chartered research flight. Admitted student teams will be offered project deployment slots on the MIT SEI’s Spring 2024 parabolic flight. This course will cover three main topic areas:
Weekly sessions will rotate between providing direct preparatory steps for the parabolic flight, building skills towards project development and testing, and providing background knowledge and relevant real-world examples via guest lectures. Recitations will be offered throughout the course, to support prototyping and project development outside of class hours. Students are expected to attend recitations, but can opt-out if they can demonstrate prior mastery of the skill in question. Short problem sets will be assigned, associated with the Mechanical Design, Sensing & Electrical Design, and Manufacturing lecture content. Limited readings will be required, with short reading responses and project page documentation submitted via the PubPub course website.
By the end of the class, we expect student projects to be ready to pass an internal Critical Design Review (CDR) with an accompanying, mature prototype. Students will be expected to use the intervening time over IAP and early spring semester to finalize a flight-ready model and submit final paperwork to the parabolic flight provider, with SEI guidance.
This class is not intended to teach the fundamentals of mechanical design, embedded programming & circuits, and rapid prototyping from scratch. On most topics, we will assume prior knowledge. If you are new to these skills, we recommend taking “How to Make (Almost) Anything” in parallel.
Admission to the course will be done by a “project team” consisting of one or more members. Interested graduate students apply via an online webform (link below) and share details on their proposed concept and team members. Depending on interest level and the number of applicants, we may have to cap team size to 3 or 4 people per project, actually admitted into the class. We do NOT require that all members of a team take the class, just a minimum of one representative for the project.
Admitted teams will be invited to take the class together and the associated single, coordinated project will be granted a tentative “project deployment slot” and one tentative “flyer slot” for a member of the project team to accompany and carry-out the research on the Spring 2024 flight (see definitions below). This means that several students may take the class together to work on a collaborative project, but we can only reserve one flyer seat per project. We will not choose who the ultimate flyer/operator is out of the team members -- this is up to the team and their advisors.
Final determination of confirmed project deployment slots and confirmed flyer slots will be decided upon completion of a rigorous, novel prototype and thorough documentation that can demonstrate nearly-complete readiness to fly by the CDR at the end of the class. Course instructors will make the final determination on what flies. We do not intend to admit more projects into the class than we have space for in the flight, so the course is therefore not a competition between teams. The reserved slots are there, but must be earned by high quality project completion.
Due to the physical constraints of the parabolic flight, we will only be able to admit a small total number of projects (and the final count depends on the physical dimensions of each proposed entry). Please see the course website for full details on admission criteria. The application will be open through Friday, September 15th, with final selections announced by Sept 18th, in preparation for the 2nd full class on September 19th. We strongly suggest applying as early as possible to give more time for review of your application, and because slots will be filled on a rolling basis. All applicants should attend the first class on September 12th.
Interested in deploying a research project, with no need to personally accompany it? Great! These types of projects are easier to admit into the class, as they don’t require an additional reserved “flyer” spot, which are in short supply. Projects applying in this category should be primarily passive (e.g. physiological sensors worn by participants or similar), and not require extensive efforts from other onboard flyers.
Not sure if you want to apply but are still interested and want to learn more? Please fill out this form so we can share the link to our first class: https://docs.google.com/forms/d/e/1FAIpQLSfsWc-GXEYZjvFI3FEAekq8jLWwtwESXfooN66dyuSpIrSrGg/viewform?usp=sf_link
Fill out this webform (linked via course website as well): https://docs.google.com/forms/d/e/1FAIpQLSez1mCRj3NjMtYNFxMavU_QIBuhsa-nrnnhsKer0fVHseTFqQ/viewform?usp=sf_link
Project team: Consists of one or more collaborators on the same project.
Project deployment slot: A reserved opportunity to deploy a single research experiment or project on the parabolic flight. Presumes a certain amount of floor layout space for hardware, room to operate, and floating space in the cabin.
Flyer slot: A reserved opportunity for one human to accompany and carry-out a research experiment or project on the parabolic flight as an operator.
Assignment | Grade Percentage |
Attendance, class participation, recitations | 10% |
Reading responses, project pages, and problem sets | 20% |
Mid-term Preliminary Design Review (PDR) + early prototype hardware review | 20% |
Final project
| 50% |
A recitation will follow most lectures. Students can be exempted from attending recitation if they submit, by the night prior, a past assignment or portfolio project that shows mastery of that week’s topic. The recitation will provide an introduction to the skill that will be covered in the following week (paired with a problem set).
The schedule is based on previous years, and may change to accommodate the many guest lecturers coming to speak to the class. An updated syllabus will be distributed after any major changes.
Date | Topic | Lecturer(s) | Reading + Recitation Topic |
Sep 12th | - Overview: review of syllabus, admission procedure, course expectations. - Parabolic flight basics (flight trajectories, parabola microgravity quality, airplane equipment and international venue options, etc.) - Student Introductions | Ariel Ekblaw, Director, MIT Space Exploration Initiative Cody Paige, Incoming Director, MIT Space Exploration Initiative Joe Paradiso, PI for Responsive Environments group, MIT Media Lab Jeff Hoffman, Co-Director, Human Systems Lab, MIT AeroAstro | Reading: Syllabus; admission criteria on course website; The Physical Behavior of Objects when Gravity is Missing; Weightlessness Recitation: Meet & Greet for teams; opportunity for collaboration/team forming Sean Auffinger, Mission Integrator, MIT Space Exploration Initiative |
Sep 19th | - Effects of reduced gravity on humans - Payload User’s Guide (PUG) overview - Admitted student/project introductions, Q&A | Jeff Hoffman Sean Auffinger Cody Paige | Reading: - Parabolic flight provider’s “Payload User Guide” Recitation: None |
Sep 26th | - Admitted student/project introductions, Q&A - Brainstorming activity - Spacecraft Attitude Control | Cody Paige Joe Paradiso | Readings: |
Oct 3rd | - Mechanical design engineering for the space environment - Mechanical design, structural calculations, factor of safety limits for parabolic flights (including previous PIP examples) - PubPub pages, PDR Prep | Forrest Meyen, Co-founder and CSO at Lunar Outpost Sean Auffinger Paige, Hoffman | Readings: Mediated Perception Towards an Experience of Extreme Environments Recitation: CAD 3D modeling (OnShape). Sean Auffinger |
Oct 10th | Student Holiday - No Class | Optional Readings: The Effect of Altered Gravity States Psychedelics can have the Same Overview Effect Operating Manual for Spaceship Earth Planetarium chapter of the Geostories, Another Architecture for the Environment book | |
Oct 17th | - Bioastronautics, examples from previous flight research missions - Sensing, actuation, and circuit design for zero gravity projects - Best practices for safety, fault analysis, redundancy, and recovery -PDR Prep - CAD pset due (Oct 16, 11:59pm) | Dava Newman, Director, MIT MEdia Lab Jamie Milliken, MIT Space Exploration Initiative Paige, Hoffman | Reading: Recitation: None |
Oct 24th | Media Lab Member’s Week - No Class | ||
Oct31st | - In-class PDRs: 13 presentations, 10 mins each (with overflow, depending on availability) | Reviewers: Ekblaw, Paige, Paradiso, Hoffman, Auffinger, | Reading: Recitation: None |
Nov 7th | - Current state of the space industry - overflow PDRs | S. Sita Sonty, Chief Executive Officer, Space Tango - Bio | Readings: New Models for Democratic Engagement Recitation: None |
Nov 14th | - Panel of previous student flyers - Partial gravity performance, BioSuit, special guest | Somu, Rachel, Alvin, Ferrous, Sean Auffinger, Cody Paige Dava Newman, Cady Coleman | Readings: Recitation: Electronics Prototyping/Embedded Programming |
Nov 21st | -Examples from previous flights; fine arts to performance art, mixed-media, and interaction design; from historical examples to contemporary - Cynthia Levinson - CDR Prep | Xin Liu, Arts Curator, MIT Space Exploration Initiative Cynthia Levinson Course Instructors | Readings: Recitation: None |
Nov 28th | - TESSERAE and Aurelia - Spaceflight Analogs - Office Hours, CDR, PIP Questions | Ariel Ekblaw Aleksandra Stankovic, Director, Human Performance Laboratory, Harvard Medical School and Massachusetts General Hospital Course instructors | Readings: Recitation: Office Hours |
Dec 5th | - In class CDRs - Day one Dec 8 - Last day for orders or reimbursements | Reviewers: Course instructors | Readings: None Recitation: Mission Patch Creation, Sana Sharma |
Dec 12th | - In class CDRs - Day two | Reviewers: Course instructors | Readings: None Recitation: None |
Dec 12 3:30- 6:30pm | Veteran Flyers Panel & Reception Note: outside of class time! | Reviewers: Course instructors, TBD Dava Newman, Nicholas de Monchaux TBD Ret. Astronauts | |
Dec 17th | Final PIPs due | ||
TBD | POSSIBLE LECTURES - Musical instruments in space - Painting in space -Biological experiments in microgravity -Life Detection Instrumentation, Venus mission study, microgravity experiment prep - Designing for 10,000 years. Long Duration Development and Robustness. - Manufacturing as an Art and Design Practice - Discussion of examples from ML 2019 flight; fine arts to performance art, mixed-media, and interaction design; from historical examples to contemporary - Next steps for working with SEI (Suborbital, ISS, Lunar deployments) - Nicholas de Monchaux lecture: Fashioning Apollo - Mission Patch Creation - Design pset | TBD Cady Coleman, Ret. NASA Astronaut TBD Sana Sharma, SEI Staff Designer TBD Sunanda Sharma TBD Chris Carr, Assistant Professor, Aerospace Engineering & Earth and Atmospheric Sciences, Georgia Tech TBD Danny Hillis, Inventor & Cofounder, Applied Invention TBD Che-Wei Wang, Founder, CWandT machine shop, art & design practice, TBD Xin Liu, Arts Curator, MIT Space Exploration Initiative Ariel Ekblaw TBD Nicholas de Monchaux, MIT Professor and Head of Architecture TBD Sana Sharma, SEI Designer | Recitation: Design Approaches and Aesthetics of Zero-G, Sands Fish, SEI Staff Designer Embedded Programming, Circuit Design, Sensing. Patrick Chwalek, Responsive Environments group, MIT Media Lab Completing the PIP, Previous PIP examples - Sean Auffinger |
MAS.838 / 16.88 | Fall 2023