This Course at MIT

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Course Overview

This page focuses on the course 16.06 Principles of Automatic Control as it was taught by Professor Steven Hall in Fall 2012.

Principles of Automatic Control is a junior-level classical control class that has been taught by Prof. Steven Hall for six years. He teaches both the lectures and weekly recitations sessions. The course introduces the design of feedback control systems as applied to air and spacecraft systems. Topics include the properties and advantages of feedback systems, time-domain and frequency-domain performance measures, stability and degree of stability, the Root locus method, Nyquist criterion, frequency-domain design, and state space methods.

Course Outcomes

Course Goals for Students

  • Learn the basics of classical control
  • Analyze classical control systems and implement the tools of classical control to design control systems for simple aerospace systems
  • Acquire a deep conceptual understanding of the material, which will help students identify the right problem solving techniques in future courses and their careers

Possibilities for Further Study/Careers

While most students will enter the aerospace engineering field, few will work specifically in control engineering. This course will give students an awareness of control systems so they can collaborate with those in the field.

 

Curriculum Information

Prerequisites

Requirements Satisfied

Offered

Every fall

The Classroom

  • Photograph of a well-lit large lecture hall with gradually tiered seating and six chalkboards.

    Lecture

    The gentle slope of this tiered lecture hall allows the professor to monitor student work easier during active learning exercises like peer instruction and concept questions.

  • Photograph of an average-sized classroom with two large chalkboards covering the length of two sides of the room. Desks are long tables with movable chairs.

    Recitation

    The recitation classroom features ample chalkboards around the room for student work.

 

Student Information

On average, about 38 students take this course each year.

Breakdown by Year

Mostly first semester juniors with the occasional graduate student

Breakdown by Major

Mostly aerospace engineering students with a few mechanical engineering students

Typical Student Background

16.01-16.04 Unified Engineering I-IV, but a background in 18.03/18.034 Differential Equations and some dynamics (2.003 Engineering Dynamics) and signals work (6.003 Signals and Systems) is sufficient

Ideal Class Size

Twenty for each recitation session to promote the right balance between student engagement and individualized instruction

 
 

How Student Time Was Spent

During an average week, students were expected to spend 12 hours on the course, roughly divided as follows:

Lecture

3 hours per week
  • Mandatory attendance, three one-hour lectures each week
  • 37 lecture sessions total
  • Professor used chalkboard to explain problems and concepts
  • In-class activities included concept questions
 

Recitation

1 hour per week
  • Mandatory attendance once a week at an hour long recitation
  • 13 active learning recitations total
  • Two sections of approximately 20 students
  • One to two problems were tackled in class
  • Pairs of students worked collectively on problems at the board with guidance from the professor and TA circling the room
  • Group work concluded and class reconvened with the professor working through the problem and highlighting common problems
 

Out of Class

8 hours per week
  • Time divided between weekly problem sets and material review
 

Semester Breakdown

WEEK M T W Th F
1 No session scheduled. No session scheduled. Lecture session. No session scheduled. Lecture session.
2 Lecture session. Recitation session. Lecture session. No session scheduled. Lecture session; assignment due.
3 Lecture session. Recitation session. Lecture session. No session scheduled. No classes throughout MIT.
4 Lecture session; assignment due. Recitation session. Lecture session. No session scheduled. Lecture session; assignment due.
5 Lecture session. Recitation session. Lecture session. No session scheduled. Lecture session; assignment due.
6 No classes throughout MIT. No classes throughout MIT. Lecture session. No session scheduled. Lecture session; assignment due.
7 Lecture session. Recitation session; exam held. No session scheduled. No session scheduled. Lecture session; assignment due.
8 Lecture session. Recitation session. Lecture session. No session scheduled. Lecture session; assignment due.
9 Lecture session. Recitation session. Lecture session. No session scheduled. Lecture session; assignment due.
10 Lecture session. Recitation session. Lecture session. No session scheduled. Lecture session; assignment due.
11 No classes throughout MIT. Recitation session. Lecture session. No session scheduled. Lecture session; assignment due.
12 Lecture session. Recitation session; exam held. No session scheduled. No classes throughout MIT. No classes throughout MIT.
13 Lecture session. Recitation session. Lecture session. No session scheduled. Lecture session; assignment due.
14 Lecture session. Recitation session. Lecture session. No session scheduled. Lecture session; assignment due.
15 Lecture session. Recitation session. Lecture session. No session scheduled. No session scheduled.
16 No classes throughout MIT. No classes throughout MIT. No classes throughout MIT. No classes throughout MIT. No classes throughout MIT.
Displays the color and pattern used on the preceding table to indicate dates when classes are not held at MIT. No classes throughout MIT
Displays the color used on the preceding table to indicate dates when lectures are held. Lecture
Displays the symbol used on the preceding table which indicates dates when assignments are due. Assignment due
Displays the color used on the preceding table to indicate dates when no Lecture session is scheduled. No lecture session scheduled
Displays the color used on the preceding table to indicate dates when recitations are held. Recitation
Displays the symbol used on the preceding table which indicates dates when exams are held. Exam
 

Instructor Insights

Peer inside the recitation of Prof. Steven Hall’s classical control class and you’ll see the entire class up on their feet actively engaged in working out problems. Unlike conventional classrooms where the instructor leads the class and demonstrates how to solve a problem, students in 16.06 openly work and struggle with the recitation problems together. They learn by doing with Prof. Hall stepping in to coach as needed.

In this Instructor Insights section, Prof. Hall introduces his active learning recitations and explains how active learning techniques promote deeper conceptual understanding. The approach helps him be a more responsive teacher while fostering student engagement.

It really is a chance for students to understand what they know and what they don't know and to exercise the skills that they have learned in the class.

— Prof. Steven Hall

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In this video, Prof. Hall offers a window into his classroom and introduces the active learning
approach he employs to teach classical control systems at MIT.

In following pages, Prof. Hall discusses specific aspects of how and why he uses active learning in 16.06 recitations: