Blog Post for March 2012

Insightful articles about 21st century skills, inquiry, project-based learning, media literacy, and education reform.

Creating a Growth Mindset in Your Students

Belief that you can become smarter and more talented opens the doorways to success. That’s what twenty years of research has shown Carol Dweck of Stanford University. She has identified two opposing beliefs about intelligence and talent, beliefs that strongly impact our ability to learn.

Mindset Chart

Though the fixed mindset has traditionally held sway, many recent studies show that the growth mindset better represents our abilities. Our brains are much more elastic than previously thought, constantly growing new connections. IQ and talent are not fixed, but are mutable based on experience and attitude.

In her book Mindset, Dweck outlines the dramatic effect that these opposing beliefs have on learners:

Fixed Mindset Growth Mindset
Wants to prove intelligence or talent. Wants to improve intelligence or talent.
Avoids challenges for fear of failure. Engages challenges to improve.
Gives up in the face of tough obstacles. Persists in overcoming obstacles.
Avoids hard labor. Sees labor as the path to success.
Treats criticism as an attack. Treats criticism as an opportunity.
Feels threatened by others’ success. Feels inspired by others’ success.
Read more

Crowdsourcing in Your Classroom

How can you shift your classroom away from lecture and toward inquiry? You can get help from the modern phenomenon known as crowdsourcing—the practice of putting many minds to work on a single problem. Inquiry is, in effect, crowdsourcing in your classroom.

What Crowdsourcing Concepts Can Help Me?

The following four concepts from crowdsourcing can help you use more inquiry in your classroom.

Brain Network
  1. Distributed Computing. While the term crowdsourcing is relatively new, the idea has been around for a while. One early example is the University of Berkley’s SETI project (Search for Extra-Terrestrial Intelligence), started in 1999, with over three million people devoting time on their personal computers to process radio signals. Other projects put crowds of human brains to work on even thornier problems. Just last September, over the course of three weeks, Fold.It gamers decoded an AIDS protein that scientists had been struggling with for 15 years. And inspired by the success of Fold.It, EyeWire.org recently launched a project asking people to help color-code neurons in the human retina.

    Classroom Application

    • A starting point for distributed computing in your classroom is to have students create their own unit overviews. Here’s how. Instead of lecturing to introduce a new unit, assign partners or groups to find out about specific topics in the unit. For example, to introduce a unit on the Civil War, you could list topics such as battles, generals, causes, public opinion, economics, technology, media, casualties, and so on. Then ask partners or groups to select a topic to investigate. Take the class to the library or media center for a half-hour inquiry into their topics. Afterward, have each group report briefly on what they discovered. This distributed-computing approach engages students and fosters research, collaboration, and presentation skills. It also covers the high points of the topic through crowdsourcing instead of lecture.
    • A next step is to have students help develop the tools for assessing their work. Ask students what they want to accomplish—what excellent work would look like. Involve them in creating a rubric. This brainstorming process works even for young students, as is shown in this video about a bridge-building class. By involving students in creating the tools for their assessment, you get buy-in from them and often end up with a more rigorous assessment tool than you would otherwise have.
    • When you and your students gain real comfort with distributed computing, you might have them participate in planning the semester’s syllabus. Have them brainstorm what makes a successful learning experience. Present the core standards on which they’ll be tested, and ask for project ideas to reach those goals. Gather student suggestions on the board and then guide a discussion analyzing how to implement them. By enlisting students in this part of their education, you show that they are responsible for their own learning. You also teach them the metacognitive skills they need to be lifelong learners.
  2. Read more

Vocabulary for Critical Thinking

Mouse Potato

Do you know what a mouse potato is? It’s a person who spends too much time staring at a computer screen. Mouse potatoes are the couch potatoes of the 21st century. In fact, Merriam Webster just added the term mouse potato to its august dictionary.

Perhaps you know a few mouse potatoes. Perhaps you are one. But just learning the term mouse potato suddenly makes you think about how much time you spend in front of the computer. That’s the power of vocabulary. It enables thinking. The size of your vocabulary impacts the size of your mental world.

Vocabulary as Inquiry

All right, so you’re saying, “Here we go—vocabulary. It’s so elementary.” Yes, it is—as in the word element: the building blocks of everything. In fact, the origin of the word elementum is the first three letters of the Canaanite alphabet. When we talk about elements, we are reciting our Canaanite ABCs.

Do you see how one word—elementary—has taken us from language arts to science to social studies? Do you see how knowing that elementum is the same as ABCs influences how we think about the Periodic Table of the Elements, about elementary school, about Holmes’s constant insistence that it is “elementary, my dear Watson”?

A word doesn’t have just one meaning. It is freighted with meaning. In its prefixes, roots, and suffixes, each word stores the DNA of human experience.

Vocabulary therefore shouldn’t be rote memorization. It should be inquiry.

Read more