This week we explored Web 2.0 tools that could be used to engage students in learning. I watched the series of Web 2.0 videos on the Discovery Education website. The tools are broken down into categories of application such as Presentation, Video, Mobile, and Community. Additionally the site provided an overview of resources known as The Best of the Best. This video shared Web 2.0 tools that could be used in numerous ways in the classroom. I explored the tools that I had not used recently or that were new to me. I found that, as they mentioned in their video, some of the Web 2.0 sites were no longer in existence. Some of the tools that were free now have fees associated with different levels of services, and still others had been bought or merged with other tools. For example, Gizmoz is gone, GlogsterEDU that was originally free now has a small but reasonable charge, and JOTT has been integrated into Nuance, which offers speech to text services such as Dragon Dictation.
More importantly this week however, was reading about the different ways that my classmates incorporate web 2.0 tools. Many of the students are obviously using iPads or other tablets in the classroom, because many of them recommended apps such as ShowMe or StoryKit. My students are not allowed to use personal devices, and their screens have to be large enough for an adult to fully supervise 2-3 students 100% of the time. There are often computer based Web 2.0 tools that are similar to the apps that were suggested. I use http://awwapp.com/, which is sort of like ShowMe, and www.StoryJumper.com, which is a digital storytelling tool that my students can use on laptops or desktop computers. One new tool shared by classmate, Jennifer Barcavage, was Popplet. Using Popplet groups, a teacher could set up accounts for the school year for as little as $2.00 per student. It is basically a visual organizer or presentation tool, or a place to curate ideas, images, and videos. I could see many uses for this tool. Students could use it to present what they have learned about a particular subject, as a pre-writing tool, to summarize something they have learned or read, or even as a note-taking device during lectures or movies. Teachers could use it to introduce new concepts, to help students develop meaning for new vocabulary, or as a review at the end of a unit.
Another learning point this week was on communicating for inquiry based learning. The way to communicate is based on the scientific method, but could be applied to any content area. A question is created, the students form a hypothesis or make a claim, the students collect data and supporting evidence, and then, based on the evidence, students formulate a conclusion. Our activities this week asked how we might use Web 2.0 tools to communicate a scientific explanation. Again my classmates provided several explanations for how this could be done including using Prezi, Blabberize, and Animoto. Many also suggested uploading the work to be published on class Edmodo sites, Blogs, or wikis. I already use many of these tools regularly for my students to communicate in various ways, so the real lesson for me was on how to apply what I have always seen as the scientific method to other content areas. Corinne Altham shared how to use what she calls Power Answers to respond to literature, and Darryl Chriss shared ideas for how the method could be applied to a social science theme.
I know that we will move into designing inquiry based lessons this next week. I am hopeful that the plans that we use will be easily integrated with the formats of planning that I am expected to use to address and communicate learning to 8 different Massachusetts districts.
Sunday, February 24, 2013
Monday, February 18, 2013
Web 2.0 and Inquiry
I was planning to critique Gizmoz, but as mentioned in the
Discovery Education introductory video on Web 2.0 tools, these tools come and
go. Gizmoz is gone. So I looked around for some alternatives and
found GoAnimate and Blabberize. GoAnimate allows you to make videos for free,
but to have an educator account it costs at minimum $99, which is too much for
one tool to use with 8 students. My students would not be able to freewheel on
the GoAnimate site because they are not permitted to have email accounts in the
highly restrictive residential school setting. With adult supervision, however
they could use the basics through a free account set up using my teacher
email. Blabberize allows you to upload
your own photos and animate the mouth for free. It is sort of comic, and it is
sure to gain the attention of your students while giving instructions, or for
introducing content specific vocabulary.
As a teacher, I could use either of these tools to present new
information or to spark a discussion. Students could use GoAnimate and Blabberize to summarize something they have read or learned in any content
area. They could also use either tool to
explain how they solved a math problem, how they tested an idea, or even to
demonstrate a role-play of a social situation.
Web 2.0 tools are categorized on the Discovery Education Web20.12 website as Presentation, Video, Mobile, and Community tools.
Web 2.0 Presentation tools are websites where students and
teachers can create dynamic presentations to share with an audience. Some examples of Web 2.0 Presentation tools are
Prezi, SlideShare, and Glogster.
Web 2.0 Video tools allow students to create and edit
slide shows, and videos using still or moving images integrated with audio. These videos can then be embedded in other
presentations or can be shared on the web. Some examples of Video Web 2.0 tools
are Animoto, GoAnimate, and PhotoPeach.
Mobile tools are Web 2.0 tools that can be accessed with a
mobile device such as a smartphone or tablet. Students and teachers can use
apps to podcast, create digital stories, or create instant polls and
quizzes. Some examples of Mobile Web 2.0
tools include PollEverywhere, Storyrobe, and Socrative.
Community tools are web 2.0 sites that promote
communication, collaboration, and shared work spaces. Some examples of Community Web 2.0 tools are Wikispaces and Edmodo.
Web-based technology tools can be used to engage students
during a lesson by bringing visuals and audio to the classroom via Video and
Presentation tools. Video and audio
provoke discussion and stimulate student senses. Additionally, interacting using mobile
devices to check-in using a quick poll, or by having students use the tools to
create their own videos, presentations, and polls will help students to stay
active and engaged during lessons.
Using web-based technology tools such as PollEverywhere and Socrative teachers can preassess student understanding at the beginning of a
unit of study. Teachers can also use a
series of still images through SlideShare or Animoto to stimulate student thinking, and then have them share what they know about the images or how the
images connect to a single theme. Students
could use a quick response feature like Padlet to share what they already know
on a topic.
Web-based technology tools can be used to support the
process skills associated with inquiry.
Community tools such as Edmodo or Wikispaces can provide a platform for students
to question, plan and formulate explanations, make predictions, analyze data,
and communicate discoveries to each other both in and out of school. Video tools and presentation tools can also
be used for students to formally communicate their findings from their
investigations.
Web-based technologies such as the mobile tools, PollEverywhere and Socrative can be used to assess students' understandings of
a concept. Additionally, presentation
projects using communication tools such as Glogster or Prezi, or video tools
such as Animoto or GoAnimate can be assessed using a rubric to measure
conceptual understanding as well as presentation skills.
Web 2.0 tools can be used to actively engage learners in the
inquiry process and are essential for learning skills that are deemed desirable
for graduates of 21st century schools.
Sunday, February 17, 2013
Inquiry-Week 4 in Review
The Week in Review
This week has been difficult for many reasons. The first
activity we were asked to do required us to sort facts and concepts. Facts are discrete pieces of information that
can easily be tested or proven. Concepts
are overarching ideas that are often abstract. The task was challenging for me,
because there are some things that seem to be abstract for my young learners
that as their experience and knowledge increases become known facts. It was also difficult for me to sort the
facts and concepts, because I really like being right, and I could tell that
this was one of those activities in which I would never be 100% certain. This realization made me think of my students
who erase and rewrite and erase again in class, afraid to take a risk and be
wrong.
I also learned the differences between investigable and
non-investigable questions. It was very
helpful to have had the opportunity to read my classmates examples. Additionally I found an excellent resource
that contained suggestions for teaching students the difference between these
types of questions and also how to compose their own investigable
questions. The book, Picture-Perfect
Science Lessons: Using Children’s Books to Guide Inquiry, is also
available to read online, and has many good inquiry-based lesson examples for
elementary and middle school students.
It was most helpful this week to integrate these two
activities in practice. I chose a “Big
Idea “ and a related concept from the www.pdesas.org site, and then developed a list of facts, and investigable questions
to support inquiry of the related concept. This practice was very concrete and it is
something that I will be able to use with my current students.
Sunday, February 10, 2013
u03a02 Inquiry-Theory to Practice
Another week of
eye-opening information about Inquiry Based learning! Literally eye opening as we had the
opportunity to view an Annenberg Learner video titled the “Physics of Optics.” The video showed a very skilled teacher as he
guided his high school students through an inquiry lesson on “light, lenses,
and the human eye.” We also had the
opportunity to read and analyze three different case studies describing different
levels of inquiry learning. The case
studies were described as “Secondary Classroom Case Studies,” but at least one
of the classroom examples seemed to be more of an elementary classroom.
The examples
helped me to see that inquiry can occur anywhere on the continuum from totally
teacher directed to totally student directed.
Because of this new revelation, I am viewing inquiry learning in a
broader context. Prior to this week, I
viewed inquiry more as what our notes describe as open inquiry, or totally
student centered. It seems that inquiry
is defined less by who is directing the learning and more by whether or not a
lesson has any of the 5 Essential Features of Classroom Inquiry:
The learner engages in questions that can be investigated.
The learner gives priority to evidence in responding to questions.
The learner formulates explanations from evidence.
The learner connects explanations to knowledge.
The learner communicates and justifies explanations.
The learner engages in questions that can be investigated.
The learner gives priority to evidence in responding to questions.
The learner formulates explanations from evidence.
The learner connects explanations to knowledge.
The learner communicates and justifies explanations.
Based on these
Essential Elements, I believe that I have been teetering on the threshold of
inquiry in my classroom for a while. I
just tend to teeter more toward the structured end of the continuum with the
intention of working toward more guided inquiry where the students can begin to
take responsibility and be more actively engaged in their learning.
One thing that
was clear to me from watching the “Physics of Optics” video is that I need to
work on developing my questioning skills.
The teacher did an excellent job of asking questions that helped
students find the answers themselves, without actually giving them the
answers. He also helped students to feel
good about moving forward by affirming their new knowledge, and their questions.
Some questions
for me, are how can I adopt a more guided approach up front rather than always
starting out so structured in my lessons, and where can I learn more about
developing my own questioning skills as a teacher?
Sunday, February 3, 2013
u02a2 Inquiry Process Skills
This past week, two of the resources really
contributed to an improved understanding of what inquiry based learning looks
like in the classroom. The first was the framework put together by the
Partnership for 21st Century Skills.
The framework explains how different skills and content knowledge can be
developed using modern-day interdisciplinary themes such as Global Awareness;
Financial, Economic, Business and Entrepreneurial Literacy; Civic Literacy; Environmental
Literacy, and Health Literacy. The P21
skills are broken into 3 categories; Learning and Innovation Skills, Information,
Media and Technology Skills, and Life and Career Skills. The site is loaded with resources to support
each of these skill domains, which easily connected to the skills presented in
the SCANS report too. This will be a
site that I will be able to refer to regularly for help as I learn to develop
inquiry based lessons.
The other resource that actually helped answer one of
my questions was the Indicators of Development of Process Skills from the Math
& Science Collaborative, Life Science Institute. The Indicators of Development of Process
Skills is a list of questions regarding observable student actions that allow
the teacher to answer yes or no. There
are many uses for this list of questions including assessing individual skill
development for a single student or whole class. An answer of “no” would indicate a skill that
needs development and would help teachers to plan lessons accordingly, or
special education teachers, like me, could use the information to develop IEP
goals and objectives. After I use the
information to plan a lesson, I can also assess the lesson using the same list
of indicators. Did the lesson produce
the desired set of student outcomes? Were there any unexpected positive or
negative results? What changes should I make, or what can I do differently to
help students develop these important process skills?
In order to make the Indicators of Development of
Process Skills more user-friendly, I put the questions into the table below.
Process
Skills
|
Yes
|
No
|
OBSERVING --Do
the students:
|
|
|
1. Succeed in identifying obvious differences and
similarities between objects and materials?
|
|
|
2. Make use of several senses in exploring objects or
materials?
|
|
|
3. Identify differences of detail among objects or
materials?
|
|
|
4. Identify points of similarity among objects where
differences are more obvious than
similarities?
|
|
|
5. Use their senses appropriately and extend the range of
sight using a hand lens or microscope as necessary?
|
|
|
6. Distinguish from many observations those that are
relevant to the problem in hand?
|
|
|
|
|
|
QUESTIONING--Do
the students:
|
|
|
1. Readily ask a variety of questions that include
investigable and noninvestigable ones?
|
|
|
2. Participate effectively in discussing how their
questions can be answered?
|
|
|
3. Recognize the difference between an investigable
question and one that cannot be
|
|
|
4. Suggest how answers to questions of various kinds can
be found?
|
|
|
5. Generally, in science, ask questions that are potentially
investigable?
|
|
|
6. Help in turning their own questions into a form that
can be tested?
|
|
|
|
|
|
PLANNING AND
INVESTIGATING--Do the students:
|
|
|
1. Start with a useful general approach even if details
are lacking or need further thought.
|
|
|
2. Identify the variable that has to be changed and the
things that should be kept the same for a fair test?
|
|
|
3. Identify what to look for or what to measure to obtain
a result in an investigation?
|
|
|
4. Succeed in planning a fair test using a given framework
of questions?
|
|
|
5. Compare their actual procedures after the event with
what was planned?
|
|
|
6. Spontaneously structure their plans so that
independent, dependent, and controlled variables are identified and steps
taken to ensure that the results obtained are as accurate as they can
reasonably be?
|
|
|
|
|
|
FORMULATING
EXPLANATIONS--Do the students:
|
|
|
1. Attempt to give an explanation that is consistent with
evidence, even if only in terms of the presence of certain features or
circumstances?
|
|
|
2. Attempt to explain things in terms of a claim based on
data from the investigation and previous experience even if they go no
further than naming it?
|
|
|
3. Show awareness that there may be more than one
explanation that fits the evidence?
|
|
|
4. Give explanations that suggest how an observed effect
or situation is brought about and that could be checked?
|
|
|
5. Show awareness that all explanations are tentative and
never proved beyond doubt?
|
|
|
|
|
|
MAKING PREDICTIONS--Do
the students:
|
|
|
1. Attempt to make a prediction relating to a problem even
if it is based on preconceived ideas?
|
|
|
2. Make some use of evidence from experience in making a
prediction?
|
|
|
3. Make reasonable predictions based on a possible
explanation (hypothesis) without necessarily being able to make the
justification explicit?
|
|
|
4. Explain how a prediction that is made relates to a
pattern in observations?
|
|
|
5. Use patterns in information or observations to make
justified interpolations or extrapolations?
|
|
|
6. Justify a prediction in terms of a pattern in the
evidence or an idea that might explain it?
|
|
|
|
|
|
ANALYZING DATA--Do
the students:
|
|
|
1. Discuss what they find in relation to their initial
questions?
|
|
|
2. Compare their findings with their earlier predictions?
|
|
|
3. Notice associations between changes in one variable and
another?
|
|
|
4. Identify patterns or trends in their observations or
measurements?
|
|
|
5. Draw conclusions that summarize and are consistent with
all the evidence that has been collected?
|
|
|
6. Recognize that any conclusions are tentative and may
have to be changed in the light of new evidence?
|
|
|
|
|
|
COMMUNICATING--Do
the students:
|
|
|
1. Talk freely about their activities and the ideas they
have, with or without making a written record?
|
|
|
2. Listen to others’ ideas and look at their results?
|
|
|
3. Use drawings, writing, models, and paintings to present
their ideas and findings?
|
|
|
4. Use tables, graphs, and charts when these are suggested
to record and organize results?
|
|
|
5. Regularly and spontaneously use reference books to
check or supplement thei investigations?
|
|
|
6. Choose a form for recording or presenting results that
is both considered and justified in relation to the type of information and
the audience?
|
|
|
Math
& Science Collaborative, Life Science Institute, (2011).Adapted from Wynne Harlen, Teaching, Learning, and Assessing
Science
Math & Science
Collaborative, Life Science Institute (2011).
Indicators of Development
of Process Skills. Adapted from Wynne Harlen, Teaching, Learning,
and Assessing Science. Retrieved from http://msclifescienceinstitute.wikispaces.com/Day+3.
Partnership for 21st
Century Skills (2007). Building 21st century skills. (Retrieved from
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