Instructors: Dan Collins and Anshuman Razdan
Course numbers: ARA 494 #97911 and ARA 598 #49023 (College
of Fine Art)
Class meetings: T/Th 3:40 - 5:00
Location: GWC529 or GWC 302 as needed (both in College
of Engineering, Goldwater Building)
Credits: 3 hours
Offices / Phones: Collins: Tower A 105 (5-8311).
Razdan: GWC 574 (5-5368)
Office Hours: Collins: by appointment. Razdan:
by appointment. Razdan's calendar can be viewed at http://taurus.eas.asu.edu/calendar.
Use prism as login and password.
e-mail addresses: Collins: dan.collins@asu.edu
and Razdan: razdan@asu.edu
Web Page: Web page for this class including this page can be found
at http://surdas.eas.asu.edu/~razdan/Class/3dvizrp.
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This studio / seminar will introduce the concepts of computer visualization, modeling, and rapid prototyping in an interdisciplinary manner. Students will be challenged to model and prototype objects of their own design using 3D computer modeling techniques and rapid prototyping. Theoretical and historical lecture/discussion will be supplemented with visiting artists/engineers/scholars and field trips.
Minimum requirements: Interest in 3D, general computer experience, and willingness to learn. A commitment to the course. Background in computerized 3D solid modeling.
Text(s)
Photocopied articles and readings will be provided by the instructors.
All required and optional readings will be on 2 hour Reserve at the Hayden
Library.
Grading
Grades will be based on a combination of factors: success in
working as part of an interdisciplinary team; quality/quantity of objects
produced;
participation in class discussion. Breakdown of grade is as
follows:
Topics
Critical / theoretical / historical issues from the arts /design /engineering
fields will be introduced. Examples of interdisiplinary
issues of relevance to both artists and scientists: the problem of
the copy versus the original; scanned information derived from real-world
objects vs.synthetically generated objects; fine art objectives with
engineering tools--engineering objectives with "fine art" attitudes;
reverse engineering; static vs. dynamic 3D modeling; morphing of conventional
material for various purposes such as exploration of vantage
point; form/fit analysis; critique of current industrial design objects;
architectural modeling for rapid prototyping; hi-tech molding and foundry
techniques; practical topics related to engineering/computer science.
Synopsis of Key Dates
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While the course follows a logical sequence, the order of readings and activities will be determined in part by events, the character of in-class discussion, and the availability of guest speakers / lab access. We reserve the right to change the activities outlined below to respond to unforeseen circumstances. Note the meeting place.
January
20 First day of class. Introductions.
Discussion of individual versus team approach.
22 Overview of the lab via lecture at CC Auditorium.
Reception in CC Gallery, 4-5:30.
27 Data management. Data acquisition:
Overview of data acquisition. 3D Laser scanning (lecture/demo
in GWC 302)
29 Data acquisition: Laser scanning
(hands on project GWC 331).
February
3 Data acquisition: GWC 331
and computing commons gallery (remember which group you belong to). Handout
Team assignments.
5 Microscopic data. Scanning
probe and Confocal microscopy (field trip to INVSEE project, Dr. Ramakrishna;
BioScience, Chuck Kazilek).
10 Team assignments / Submission of personal
project outline. Team Investigation: Paper/project presentation on
Data Acquisition techniques (min. 3 page synopsis with visual examples and
references to be submitted concurently)
12 Visualization and modeling: Overview
of Visualization; Review of 3D solid modeling (history/concepts/vocabulary)
17 Visualization and modeling: 3D solid
modeling software demos
19 Open Studio / Team assignments
24 Team Investigation: Paper/project
presentation on Visualization/Modeling techniques (min. 3 page synopsis
with visual examples and references to be submitted concurently)
26 Form Realization: Overview of automated
manufacturing (history/concepts/vocabulary)
March
3 Form Realization: CNC milling
(field trip to Chell Robert's CNC facility)
5 Form Realization: Layered manufacturing
overview. Mack Industries, DTM video and others. Demo of JP5. Fused
deposition modeling (Stratasys Genisys and FDM 1650)
10 Team assignments / Open studio
12 Team Investigation: Paper/project
presentation on Form Realization techniques (min. 3 page synopsis with visual
examples and references to be submitted concurently
17 Spring break
19 Spring break
24 Mid semester brainstorming session with
entire class: develop possible avenues for team product/sculpture
development in engineering, art, and/or design. Team formation for final
project.
26 Personal project progress report.
31 Open Studio
April
7 Team project progress critiques:
concept "sketches"; Methods identified.
9 Open Studio
14 Team project progress critiques: 3D models
completed.
16 Open Studio
21 Team project: FINAL critiques
23 Open Studio
28 Open Studio
30 Open Studio
May
5 Individual project critiques: Final presentation of semester project. Be prepared to stay until we're finished. Each class member will have 15 minutes. (3 hours minimum)