Outline
- What is the inverted classroom and why consider it?
- Self-Regulated Learning
- An inverted Calculus 1 course
- Results and extensions
- Q&A
The inverted or "flipped" classroom
A course design paradigm that reverses the contexts of direct instruction and active learning.
Traditional Model
Pre-class: Instructor decides concepts and topics, devises learning objectives, plans direct instruction
In class:Direct instruction, presentation of information
After class:Students assimilate information through homework, projects, etc.
Inverted or Flipped Model
Pre-class:Direct instruction through reading, video, audio + simple examples
In class:Students assimilate information through directed work on challenging problems, with instructor supervision
After class:Extended work (additional HW, projects, etc.) and preparation for upcoming classes
What problems does the inverted classroom solve?
Inverse relationship between difficulty of work and accessibility to help
Lack of student control over information flow
Lack of time for exploration of concepts/difficult problems
Lack of explicit instruction on lifelong learning skills
Self-Regulated Learning
Paul Pintrich et al.
- Learners are active participants in learning process and construct their own meanings
- Learners have the potential to monitor aspects of the learning process
- Learners have a standard against which to compare learning processes and make realistic decisions about the adequacy of their learning
- Learners use self-regulating activities to mediate between personal characteristics and performance
Closely related to lifelong learning
The Engineer of 2020
Given the uncertain and changing character of the world in which 2020 engineers will work, engineers will need something that cannot be described in a single word. In involves dynamism, agility, resilience, and flexibility. [...] Encompassed in this theme is the imperative for engineers to be lifelong learners. They will need this not only because technology will change quickly but also because the career trajectories of engineers will take on many more directions – directions that include different parts of the world and different types of challenges and that engage different types of people and objectives.
Redesign of introductory calculus at GVSU
Components:
Implementation: Pre-Class Work
Using the Guided Practice framework
- Overview (puts new material in context)
- Basic and Advanced Learning Objectives
- Resources (reading and viewing)
- Exercises on basic objectives
Example: Guided Practice on The Definite Integral
Implentation: In-Class Work
Focus of class time is on questions and group work on Advanced Learning Objectives.
Practical matters
Did student do the pre-class work?
Median completion rates of Guided Practice were 92% for one section and 96% in the other section.
Did students learn through the pre-class work?
Entrance Quiz median values were 78% and 72%.
How much time did it take to make the videos?
With a collaborator, 60 of the 91 videos were completed in a 10-day period prior to the start of classes.
Results from the student experience
The setup for the class is perfect, i dont [sic] understand why all classes are not like this, like you said the hardest part of the class is the homework and other teachers expect us to just pick up from what they said in lectures which is out of date teaching. Like for my Engineering class we do all the hard stuff outside of class.
I really enjoy this style of class. I would like to take one similar to this for my calc 2 experience. Are there any other professors that run class this way? If so I would love to know as I would switch into a class like this in a heartbeat.
The end
Robert Talbert, Associate Professor of Mathematics, Grand Valley State University