Tag Archives: science

+ 2009 World Science Fair: June 10-14 in NY City

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Haven’t made vacation plans?  Consider a week in New York, attending lectures, performances, hands-on children’s field trips, multi-media experiences — all focused on cutting-edge science!  

Five days, 40 events and one electrified city, says the full page ad.

It’s time to discover a whole new world.  Kids will be inspired; adults enlightened. 

For complete festival and ticketing information, visit www.WorldScienceFestival.com, or call 866-811-4111.

  • Opening Night Gala Performance – Alan Alda, Joshua Bell, Yo-Yo Ma, Christine Baranski, Marin Alsop, Glenn Close and many others in a performance saluting E.O. Wilson, at Lincoln Center.
  • Infinite Worlds Robert Krulrich hosts physicists Brian Greene, Alan Guth, Andrei Linde and philosopher Nick Bostrum in an explortation of parallel universes. 
  • Rising Waters  in a Thirsty World — Adaptation experts discuss our strained relationship with H20, a critical issue of our time.
  • WALL-E’s World — Scientists reveal ingenious strategies for creating a sustainable future.
  • Time Since Einstein — John Hockenberry hosts the renowned Roger Penrose and a distinguished panel, as they explore the nature of Time.
  • Transparent Brain– Scott Simon hosts leading researchers discussing remarkable progress toward making your private thoughts visible.
  • Avian Einsteins — Bird scientists Erich Jarvis and Irene Pepperberg (remember Alex the Parrot?) discuss penetrating parallels between bird and human brains.
  • Bio Blitzing in the Boroughs — Kids and families get dirty exploring ants, bugs, worms and all things crawly in two New York parks.
  • WSF Spotlight — It’s a science happy hour with some of the world’s most inspired thinkers, including Nobel laureate Frank Wilczek and cosmology’s bright light, Sean Carroll.
  • What It Means to be Human — Alan Alda hosts E.O. Wilson and Sara Hrdy in an examination of human cooperative behavior.
  • Notes and Neurons –  John Schaefer hosts Daniel Levitin and Bobby McFerrin in an exploration of music’s note-worthy relation with the brain and emotions.
  • Watching Watson and Wilson: Through the Eyes of Anna Deveare Smith — A riveting one-woman portrayal of two of our most recent influential scientists, and an exploration of their profound contributions.
  • Mathemagician — “America’s Best Math Whiz” entertains the whole family with mental mathematical gymnastics.
  • Time: The Familiar Stranger – Celebrated neurologist Oliver Sacks and psychologist Daniel Gilbert reflect on time’s role in shaping the human experience.

 A partial list of sponsors of the five day event includes the Simons Foundation, the Alfred P Sloan Foundation, the John Templeton Foundation; ConEdison, the Rockefeller Foundation. 

Also: ABC News, New Scientist, Popular Mechanics, Scientific American; New York University, Columbia University, CUNY, The Rockefeller University, and Eugene Lang College the New School for Liberal Arts.

tutoring in Columbus OH:   Adrienne Edwards   614-579-6021   or email  aedwardstutor@columbus.rr.com

+ Web Sites for Teaching: Engineering

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This week from EduHound’s Clasroom Tools and Tips,” the topic is engineering.

On May 13, 2009, the Institute of Electrical and Electronics Engineers (IEEE) will celebrate its anniversary: 125 years of ingenuity and innovation in engineering and technology.

  • TryEngineering.org — The site is a resource for students (ages 6-18), their parents, their teachers and their school counselors.  http://www.tryengineering.org
  • TryScience.org — Features a gateway to experience the excitement of contemporary science and technology through on- and offline interactivity with science and technology centers worldwide.  http://www.tryscience.org
  • PreK-12 Engineering — This web site is a free resource for educators and administrators who are looking to integrate engineering concepts and activities into preK through 12th grade classrooms.  http://www.prek-12engineering.org
  • TeachEngineering.com — This K-12 teacher resource helps teachers enhance learning, excite students and stimulate interest in science and math through the use of hands-on engineering.  http://www.teachengineering.com
  • Alliance for Innovative Manufacturing at Stanford University: How Everyday Things Are Made — AIM has developed an introductory web site for kids and adults showing how various items are made.  It covers over 40 different products and manufacturing processes, and includes almost 4 hours of videos.  http://manufacturing.stanford.edu
  • SWE: Internet Activities Center – Each activity includes: grade appropriate materials on science or engineering, a list of materials, instructions, graphics, the National Science Standard which the activity supports, and a fun interactive quiz or activity to check your knowledge.  http://www/swe/org/iac  
  • NASA’s Engineering Design Challenges Program — Provides hands-on engineering challenges for students in middle and high school.  These challenges are free for anyone and are downloadable off the Internet.  http://edc.nasa.gov

source: EduHound’s “Classroom Tools & Tips”  newsletter, offering valuable edtech resources to incorporate into K-12 curriculum.  Find educational topics, preformatted templates, technology tutorials and practical tips, as well.  Suggest topics, or share a template to Judi at JRajala@eduhound.com 

tutoring in Columbus OH:   Adrienne Edwards   614-579-6021   or email  aedwardstutor@columbus.rr.com

+ San Francisco Kids Learn Old-School Science

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In a former high school auto shop on Church Street in San Francisco, Dan Sudran, 64, runs the Mission Science Workshop.

It’s become a national model and has spawned a dozen more in California, from Oakland to Los Angeles, with a half dozen other states.

They are known as Community Service Workshops.  They serve as a counterweight to the textbook-and-test approach to science prominent in the era of No Child Left Behind.

His do-it-yourself science laboratory is for him what a wizard’s lair is to a  sorcerer.  Look around at complete animal skeletons, hanging from the ceiling: a cow found in Salinas Valley, an ostrich acquired by way of a local butcher, a dolphin donated by a guy in Bolinas.

You can also see a mummified cat that a janitor found at a middle school — it’s fangs still agape in terror.  There’s a pelican in dramatic rigor mortis.  Poke around in bones, flippers, femurs, hooves, teeth and beaks, arranged in evolutionary order on a table — all courtesy of sundry bears, pigs, sea lions, armadillos and a human being or two.

But you’ll see living creatures as well.  Corn snakes and bald pythons slither in aquariums, and Maurice the skink has his own tank.

Kids in the Mission workshop find flywheels, oscilloscopes, microscopes, homemade radios, musical instruments and just about everything a science wizard would find useful.  

All old-school; no computers.

There’s an “Earth-science wing”  in a corner, with 5-million-year-old fossils of marine creatures.  These he gets from a seaside rancher (who wants the location of his rich fossil farm kept secret).

In the optical section, kids make colored shadows.  They experiment with light.  Sudran admits copying from a better-known cousin across town, the Exploratorium, which was an early supporter.

Like a magician willing to reveal secrets, Sudran loves to demystify mysteries about the world we live in.

He asks a visitor —  did you know that the teeth of a little mole are more like a person’s than a rodent’s?  Then he holds out a furry mole that’s been kept in the freezer since it died two weeks earlier.

Using tweezers, Sudran lifts the mole’s tiny, chilly lip to reveal — yes — molars.  (Rodents, by contrast, have two-pronged incisors.)

SCIENCE IS “OBSERVATION WITHOUT PREJUDICE”

Sudran’s message to kids is that science is observation without prejudice.  You don’t have to be Einstein; just be as curious as Einstein.

Watch as a yellow balloon expands inside a narrow glass dome.

Ten-year-old Hannah covers her ears waiting for the loud burst.  She stares on the growing orb, as a machine sucks all the air from the dome.

Suddenly, the balloon shatters into yellow pieces — silently!  Like an explosion on TV with the sound turned off.    But this isn’t on TV — it’s right here on the table and it’s supposed to go POP!

“What happened?” she asks.

Those are magic words to Dan Sudran. 

The exploding balloon experiment is part of a lesson called “The Ocean of Air.”  The point is to show how air is like water in some ways.

Before the yellow balloon experiment,  Sudran filled a cylinder (with a hole near the bottom, middle and top wall) with water.  Students watched and saw how water leaks out of the holes.

Aminta Guevara, 11, drew what she thought she saw — the longest arc of water came from the top-most hole.

But that’s not what actually happened.  Says Sudran, “Observation is an art — the most important thing in science.  Let’s do it again.”

This time, students see that the longest arc of water comes from the bottom hole.  Water pressure is greatest at the bottom of the sea — and at the bottom of a cylinder.

To connect this idea to air:  now Sudran does the yellow balloon experiment.  He sets it up: takes a yellow balloon, a glass bell jar, an air-suction machine and a straw.

As the machine suctions the air from the jar, the balloon expands.  The straw provides an excape valve for air so the expanding balloon will not trap air in the top half of the jar and prevent that air from being suctioned out.

So. Why is there no POP?  It exploded, didn’t it?

Air pressure, like water pressure, is also greater at lower depths, says Sudran to the students.  That’s why sounds can be heard here on Earth.  But go higher — say to the moon — and the near-absence of pressure makes things quiet indeed.

The balloon experiment shows what happens without air.

SUDRAN: NO INTEREST IN SCIENCE GROWING UP

Sudran is a homemade wonder, just like his workshop.

As Sudran was growing up in 1950s Kansas City Missouri, he cared little for science.  He earned a degree in history and got a law degree, although he never passed the bar.

From Texas to Idaho, he worked giving legal help to farmworkers, he organized for Cesar Chavez.  He also taught Spanish and guitar lessons.

In this way he learned methods that would later prove so useful in motivating students — and also motivating adults to support his ideas.

“Around 1979, I got this idea that it would be really cool to know how to fix things, like I never knew how to do growing up,” says Sudran. 

How did Sudran, with so little formal science training, get started on this project?   In 1990, he grew bored with his job as an electronics technician at City College.  He grew interested in the physics behind the things he was fixing.  How did electrons escape from atoms anyway?

He took a summer course at San Francisco State University and began to read prodigiously.  He started tinkering in his garage in the city’s mostly Latino Mission district.  He’d leave his door open and kids wandered in.

Says Sudran, “I guess they knew I spoke Spanish and stuff, and they wanted to see what I was doing.”

Sometimes he’d show them an oscilloscope, which lets you see an image of invisible signals — like the sound of your own voice.  He’d show them his collection of roadkill and animal bones — the perfect portal into the world of biology, he feels, because bones don’t rot or stink.

Says Sudran,

“I used to think all kids wanted to do was ride their bikes and set off firecrackers.  But they got so interested that they’d stop me when I’d be walking home.  They’d be waiting for me, and they’d want to look at a rock under the microscope.  They were surprised, like, ‘Gee, granite is made up of beautiful crystals.’ “

COPIED AROUND THE COUNTRY

The workshop began 17 years ago in a couple of City College classrooms.

In 1991, Chancellor Evan Dobelle let him use classrooms to offer science workshops to local children.  It was a huge hit with students — and with teachers as well.

Paul Fonteyne, vice chancellor of San Francisco State University, was excited about the classes as well.  He applied for a pair of $3 million grants from the National Science Foundation to expand Sudran’s concept.  The first, in 1995, created similar workshops around the state.  The second, in 2000, took them national.

Since science begins with curiosity, Sudran asks these visiting students to write down the things they wonder about.  Here is a sampling of their questions:

  • How can the plug get electricity from the plug hole?
  • I wonder about where the toilet water, pee, and poo go.
  • I wonder how a bullet is strong enough to kill someone.
  • Why are we going to die?
  • I wonder how cell phones could communicate with other cell phones by having an antenna.
  • I wonder how airplanes don’t fall on the ground even though there is still gravity.
  • Who was the first person alive?
  • I wonder why girls and boys act different.
  • How do you make an ipod?
  • Who made up words?

Go for it!

To learn more about the Mission Science Workshop, go to: www.sfgate.com/ZFSN.  To learn more about Community Science Workshops, go to www.sfgate.com/ZFSO.

sole source: Nanette Asimov’s article in the San Francisco Chronicle’s SFGate.com on 12/27/08.  www.sfgate.com

tutoring in Columbus OH:   Adrienne Edwards   614-579-6021   or email  aedwardstutor@columbus.rr.com

+ “Falling for Science:” New Book

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from Morning Edition, December 8, 2008

On NPR Robert Krulwich reviews Sherry Turkle’s “Falling for Science: Objects in Mind.” 

Turkle, the  Abby Rockefeller Mauze professor of the social studies of science and technology at MIT, feels that one way to fall in love with the world is to play with things.

According to Turkle, when you get your first microscope or your first set of Legos or take apart your first broken radio, you become an explorer.  And for some kids, the thrill of touching, fastening, examining, rebuilding and unbuilding is life-changing.  Mind-changing.  And the thrill never goes away.

In her book, Turkle has collected essays written by senior scientists (for example artificial intelligence pioneer Seymour Papert, MIT president and neuroanatomist Susan Hockfield, architect Moshe Safdie, among others), as well as by students who passed through her classes at MIT over the past 25 years.

They were all asked the same question: “Was there an object you met during childhood or adolescence that had an influence on your path into science?”

According to Krulwich, there are seven essays on Legos, several on computer games and broken radios.  But he found some wonderful surprises, including an MIT student who reported how she couldn’t stop braiding her My Little Pony’s tail, weaving the hairs into endlessly repeating patterns (a possible clue to her fascination with mathematics).

And he found this gem:

“Egg Basket” by Erica Carmel (1992)

 I was five years old and it was probably April, because I had an Easter basket full of brightly colored plastic eggs. The basket had a long handle so I was able to swing it around in circles. One wall of my playroom was lined with bookshelves that had drawers as well as shelves. They held my doll and toy collection, most of which I never looked at. At the end of the playroom, across from the shelves, was a set of double doors. When I made inventions, I usually included these doors in my designs, probably because their doorknobs were good anchors onto which one could tie things.

I did an experiment with the egg basket. I took a string (in this case, I think it was an extra- long jump rope) and tied it from the handle of a bookshelf drawer to a doorknob of one of the double doors all the way across the playroom. My idea was to create a gondola, such as the one I had seen at Disneyland on a family vacation. I hung my egg basket from the string and tried to run it down the string. When that worked I went on to transport objects from one side of the room to the other by placing them in the egg basket. Next, I moved the string back and forth, causing the basket to swing. As I watched, the basket got further and further above horizontal. Finally, the basket swung all the way around the circle. But, as if by magic, the eggs did not fall out. I was stunned. 

I took the egg-filled basket off the string, deliberately turned the basket upside down, and watched the eggs fall out. But when I put the basket and eggs back on the string and once again swung it around, the eggs remained in the basket. I tried the experiment again and again and always got the same results. When they were on the swinging string, the eggs remained in the basket. Yet when I held the basket upside down, the eggs fell out.

I was sure that I had made a new scientific discovery that was going to make me world famous. I ran to share it with my parents. My father was less excited than I had anticipated. He didn’t seem surprised that the eggs remained in the basket. He even had a name for the magical force I had discovered: it was called centripetal force. Nevertheless, my excitement didn’t die. My father may have known about the force that made the eggs stay in the basket, but I had discovered it on my own. The discovery was mine.

 At  five years old, I had never heard of the scientific method, but I had followed it. I saw a problem: the eggs remained in the basket when it was swung on the string but fell out when the basket was turned upside down. I created an hypothesis: whatever was making the eggs stay in the basket was only present in the spinning basket. I devised a way to test the hypothesis: I guessed that the faster I turned the basket, the more likely it would be that the eggs would remain in the basket. So, for my experiment, I went back and forth between spinning the basket on the string and then turning it upside down slowly and watching the eggs fall. These results confirmed my hypothesis. There was a definite connection between the speed of the rotation and the likelihood that the eggs would remain in the basket. The conclusions I drew were the most exciting of all: that I had discovered a new principle of science and that my hypothesis was correct. Something “held” the eggs to the basket.

Thirteen years later, as I sat in an MIT lecture hall for my Monday morning class, 8.01, I watched Professor Walter Lewin demonstrate the experiment that I had performed in my playroom with plastic Easter eggs and a straw basket. Lewin took a pail of water and swung it above his head on a string. Sure enough, the water remained in the pail, and Professor Lewin remained dry. At five, I didn’t know that centripetal acceleration equals the quotient of the velocity squared over the radius. I also didn’t know that for the object not to fall the centripetal acceleration had to be greater than the forces on the object by gravity. What I did know was that the eggs wouldn’t fall out of the basket and, as much as the equations are useful, in the end that is all they tell us.

Erica Carmel worked as a management consultant and joined a technology start up in Silicon Valley before going to Harvard Business School. A 1996 recipient of an SM in Electrical Engineering and Computer Science from MIT, she currently works at IBM, managing a team focused on improving customer experience with software.

Excerpted from ‘Falling For Science: Objects in Mind’, edited and with an introduction by Sherry Turkle, published in May 2008 by The MIT Press. Copyright: Massachusetts Institute of Technology, 2008, all rights reserved.

source: “Krulwich on Science” story on NPR 12/17/08.  www.npr.org

tutoring in Columbus OH:   Adrienne Edwards   614-579-6021   or email   aedwardstutor@columbus.rr.com

+ Teaching Marine Science? Include Art Projects

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Alexandra Moses writes (for Edutopia.org) that teachers across the nations are discovering that art can be a key to learning science. 

They believe that integrating the mystery of — for example – the ocean with writing, painting and drawing creates a learning experience that taps into a student’s imagination.

Marine science teacher Carmen Kelley finds that giving science students hands-on activities, such as art projects, breaks the monotony of a lecture.  But it also taps into right-brain, creative thinking — as opposed to simple, left brain analysis.

“You can’t teach to one style.  Why do we teach only to the left brain?  Using art is just a way of helping some kids with how they learn best,” says Kelley, who teaches at a high school in the Floriday Keys.  “There has to be a break in the pattern that gets students to move around.”

During a unit on bony fish, Kelley’s 11th- and 12th-graders learn about gyotaku, a form of fish printing that Japanese fishermen used about a hundred years ago.  Students put various colored inks on dead fish, usually bait fish, to imprint on to T-shirts.

The students also create journals and illustrations to accompany other marine lessons.

Gifted elementary students in Alabama create art to help process and apply what they’ve learned.  Teacher Belinda Ringpfeil notes that the whole time they’re working on an art project, students are thinking about the animal or plant.

One of Ringpfeil’s projects is a three-dimensional model of coral reefs made out of egg cartons and adorned with papier mache sea animals.  The reef model even features retractable tentacles — some corals have tentacles to grab food such as zooplankton — to reflect the true behavior of live coral.

Ocean studies, in fact, are not a large part of school curriculums, even though a 2004 US Commission report states that core science principals are often easier to grasp when introduced through ocean examples.  That report urged the creation of ocean curriculums for K-12 teachers.

Ringpfeil says, “The ocean is so massive, and we have so many connections to it.”  Laurie Guest, who teaches 6th- and 7th-grade science in Vallejo CA, uses the ocean to meet standards on photosynthesis and ecology.

Using writing assignments, Ringpfeil taps into students’ higher-level imaginative thinking.  She feels a lot of children don’t know how to use their imaginations, so her assignments ask them to choose a sea animal and write from the perspective of that creature.

Four hundred miles from the ocean, but along Lake Erie, Kathy Dole in Angola, NY uses the sea to inspire creativity.  Her students write different types of poetry, including question poems that ponder where a seashell came from, or why sea turtles eat grass.

In her classroom writing sessions, Dole uses footage of her own scuba diving trips and shows the students seashells and other objects.  “They write about the beauty that they’re seeing.”  And to hold an object, such as a seashell, gives them a sensory experience that makes their writing more interesting.  “It stimulates their curiosity more, and they ask more questions once they’ve touched objects from the ocean.”

These teachers also hope to inspire students to take care of the oceans while honing their academic skills.  A students of Dole’s, a second grader named Victoria, said she had an ocean story.  Dole wrote it down.

You always have to keep the beach clean.  Keep the sand clean, or you’ll step on something sharp and break your foot open.  Always make sure no dead bones are on the beach or people could pick them up and think they’re doggie toys.  Do not kill many fish in the sea, because soon there won’t be any.  If you do, then you won’t be a part of the Big Green Help.

Dole and Victoria will be using this story as they work together on reading and writing.

sole source: www.edutopia.org article byAlexandra R Moses on 11/12/08.   Edutopia.org is a project of the George Lucas Education Foundation.

tutoring in Columbus OH:   Adrienne Edwards   614-579-6021   or email   aedwardstutor@columbus.rr.com

+ Middle-Schooler Co-Authored Scholarly Article with Dad

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Associated Press reports that the Wilson Journal has published a scholarly article on the white-winged diuca finch. 

The name of co-author Spencer P. Hardy’s Norwich, Vermont school was listed simply as Marion B. Cross School.  The word “Elementary” was dropped. 

Spencer Hardy helped his father, Douglas, document the phenomenon: on a high altitude ice-field where only penguins had ever been seen, another species is successfully nesting.

Although Spencer has been fascinated with birds ever since he began thoughtfully watching flocks of them as he sat in his high chair, he did not travel with his dad to Peru’s Quelccaya Ice Cap.  Douglas traveled to the area in 2003 as part of his work to help get a long-term climate history through the dust trapped in centuries-old ice, 18,000 feet above sea level.

Because of his son’s huge interest in birds, Douglas began taking pictures of every bird he came across.

After he returned home, Spencer would pore over the photos, checking bird books to identify the species.

But during this process, Douglas started noticing the nests on the ice.  The father and son team shared their finding with neighbor George Clark, a retired biologist from the University of Connecticut, who has helped to groom the young ornithologist. 

The group began to puzzle out which species had made the nests.  “We got it down to two species, mainly from the size [of the nests] and what was around and abundant in the area,” says Spencer. 

A feather expert at the Smithsonian made the link to the white-winged diuca finch.

Says Clark, “The discovery of this is really a kind of new frontier.  Physically, we think much of the globe has been covered.  This is an area that people just haven’t visited.”

About two years ago, Douglas Hardy queried the Wilson Journal about a paper on the ice birds.  Professional birders persuaded him that given Spencer’s level of input, he certainly merited the co-author tag.

Says Douglas Hardy, “My first step was to go to the editor and say, ‘I want to be totally honest with you, he’s my son.  I can’t see objectively about this.”

But editor Crait Braun said the science — and Spencer’s contribution to it — was sound.  “It’s not just the casual person who can pick this stuff up and turn it into terrific prose.  Spencer deserves a lot of credit to get his dad to get more information and then helping his dad turn it into a scientific paper.”

After the paper was finalized, there was some discussion about which of Spencer’s schools to list.  They chose the school he was attending when the journal first accepted the article.

Spencer says that right now, birding is an after school project for him.  But there is definitely formal ornithology study in his future.

sole source: www.googlenews.com: Associated Press article on 11/17/08.

tutoring in Columbus OH:   Adrienne Edwards   614-579-6021   or email   aedwardstutor@columbus.rr.com 

+ JASON and the New Student Argonauts: Project-Based Learning

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From Edutopia.org, an article by Diane Curtis tells about sixth graders in Beverly Battle’s Washington DC class.  They will travel across town to participate in the latest JASON Project [2] expedition.  The project is the brainchild of Robert Ballard, who is most famous for his discovery of the wreckage of the Titanic in 1985.

The students are armed with well-researched questions.  They are treated to a satellite visit with Ballard and fellow JASON explorers — students and adults known as “Argonauts.”

The Argonauts may be excavating an ancient rainforest site in Colorado, studying the underwater population of puffins in Iceland, or examining tubeworms in Mexico’s Sea of Cortez.

Live: From a Volcano

On this day, Ballard is 5,000 miles and what seems like a million climate zones away from Washington DC, on the Big Island of Hawaii.  The main attraction is volcanoes, but the explorers are also tracing the migration paths of the state’s diverse population; cultivating native plant species on a wildlife refuge; and capturing albatross for the purpose  of banding them with ID bracelets.

Battle’s class has an hour to watch a live satellite feed and hear if one or more of their questions is asked of Ballard and his colleagues.  “Kids listen to kids, so we like to integrate them into the program,” says Ballard.

Beverly Battle’s students are well-prepared.  They began research on Hawaii the first week of school.  They studied volcanoes and Hawaiian culture; they read novels with Hawaiian themes.  They studied the flora and fauna of some Hawaiian islands, and they conducted classroom variations of experiments that the Argonauts will be conducting in the field.  Earlier, they had chatted with a Hawaiian ethnologist via the Internet.

The JASON Project

Ballard got the idea for the JASON Project (named after the heroic sailor-adventurer of Greek mythology) after he received 16,000 letters from students who were fascinated by the Titanic discovery and wanted to know how they could follow in the adventurous scientist’s footsteps.

“Kids are born scientists.  They have that flame of curiosity,” he says.  “Unfortunately, our system has had the ability to turn that curiosity off.”

He wanted to capitalize on children’s innate curiosity, and at the same time challenge them to become sophisticated researchers and learners.

“The idea is this: they will study a pretty tough curriculum — interlocking curriculum — science and chemistry, math and physics and biology, engineering sciences, social sciences as well… And then at the culmination of their studies, near the end of the year, we’ll do an expedition live for them.”

By taking huge numbers of students to remote parts of the world through technology and involving them in real explorations, Ballard estimates he has turned on 5 million kids to science since the program began.

Hands-on Progress

Gwendolyn Faulkner, former technology coordinator at Battle’s Harriet Tubman Elementary School, says they have witnessed profound, positive changes in the school’s inner city students.  Near;y all the students are low income and nearly half are English language learners.

“I’ve seen test scores of students rise because of the engagement in project-based learning,” she says. 

Project-based learning, she believes, creates an interest and excitement that inspires students to delve deeply and learn more.  The school’s commitment to using technology, and the children’s endless fascination with that technology, contribute to the success of this endeavor.  Each classroom has five to six computers.

The JASON Web site is hugely inviting and offers such interesting challenges that kids aren’t tempted to seek out games or other nonacademic pursuits.

“I saw my students mainstream out of the ESL (English as a Second Language) program into the mainstream classroom,” says Faulkner.  “I saw my mainstream students scoring three and four grades above their grade level on standardized tests.”

Says Faulker, “I’m a convert.”

Students Blossom

Beverly Battle says JASON brings the world into a classroom.  But it also helps close the digital divide and improve students’ academic, cooperative learning and social skills.  All this leads to fewer discipline problems.

Working on projects associated with JASON brought one student — who spoke no English at all when he arrived at the school — so out of his shell that he is now proficient in English and an eager participant.  Before, he wouldn’t want to talk if he was called on.  “Now,” says Battle, “he’s eager to answer… all the time.”

Part of the fun, says assistant principal Sharon Bovell, has to do with having a say in the direction of a project.  Project-based learning gives students choices, and they see learning as something adventurous as well as fun. 

When kids start a project, their job is to develop it.  They don’t know where it’s going.  “Then all of a sudden new and interesting facts come out,” says Bovell.  “That kind of excitement stimulates kids — gives them an opportunity to say, ‘I can do this.’  “

Beverly Battle says she moved to projects when she found that she was tiring of the lecture format.  “And I said, ‘I know if I’m tired, my children are tired of it.’  “

JASON makes it easy because it comes with projessional development and a complete curriculum attuned to state standards.  “Everything is there for you.  Multidisciplinary.  Multimedia.  It’s got assessment.  It’s got hands-on.  Everything a teacher would want is in JASON.”

Battle herself was even more prepared for the Hawaiian project, because she was among a group of teachers who did field studies in Hawaii for ten days in the summer prior to beginning the project with her students.  The teachers investigated botanical gardens, hiked on lava, and walked into a caldera — a volcanic crater.

The Technology Benefits

In this school, technology plays a major part in every project, not just JASON.   The Jason project employs not just the satellite but a range of technologies, from videos and fully interactive Internet programming to broadcast footage and online tools.  Technology has even allowed students to operate an underwater robot from thousands of miles away.

Battle’s students use digital cameras, scanners, PowerPoint, slides, art software, and spreadsheets to help build a portfolio.  They keep an online journal of their work.

There is also a benefit that doesn’t show up in portfolios, Faulkner feels.

“We are always hearing that companies want workers who are team players, who are able to go out and be problems solvers.”  She feels the JASON Project and other such efforts, which use technology as a tool, produce just such citizens.

“The students learn to be lifelong friends, to respect one another’s cultures… There’s so much that grows out of project-based learning.  It’s just as important as the content.”

But Ballard, the father of it all, points to the interest in science as the prime benefit of the JASON Project.  Even  with the Titanic discovery, “students weren’t making the connection between scientific adventure I was having and the dues I had to pay to live  that adventure.”

JASON has opened many students’ eyes to the need to stretch themselves, to take more and challenging science classes, to not be afraid of failure, and, above all, to find a passion.

sole source: Diane Curtis’s article at www.edutopia.org.  Curtis is an education writer and former editor for The George Lucas Educational Foundation, which  hosts Edutopia.org.

See also: http://www.jason.org/public/home.aspx; and http://www.edutopia.org/jason-project

tutoring in Columbus OH:   Adrienne Edwards   614-579-6021   or email  aedwardstutor@columbus.rr.com

+ Scientists Find Trigger for Northern Lights

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this is Kenneth Chang’s article in the NY Times:

Scientists say they have discovered what makes the northern lights dance.

Researchers working on a NASA mission to understand the interplay of magnetic fields and charged particles blown outward from the Sun have identified the trigger for the colorful electrical storms in the polar regions. They hope this is a step in developing reliable forecasts of geomagnetic storms that can disrupt satellites in orbit and power grids on the ground.

The findings appeared in an article published Thursday on the Web site of the journal Science.

Scientists have long known that the dancing auroras of color known as the northern and southern lights are generated by charged particles flying from the Sun and interacting with the Earth’s magnetic field, which is then pulled into a windsock shape by the solar wind.

Turbulent storms on the Sun generate extremely bright auroral displays, but even in quieter times, smaller events known as substorms still generate the lights.

“They happen every three or four hours,” said Vassilis Angelopoulos, a professor of earth and space sciences at University of California, Los Angeles, and principal investigator of a NASA mission called Themis, short for Time, History of Events and Macroscale Interactions during Substorms. “The Earth’s environment stores energy. Then all of a sudden it releases it.”

Each substorm generates a current of about one million to two million amps over one to two hours, or a total energy equivalent to a magnitude-5 or magnitude-6 earthquake, Dr. Angelopoulos said.

Scientists knew two events that occur in the tail of the magnetic field during substorms, but did not know which event acted as the trigger for the auroras.

Over the past 30 years, some scientists have believed that a disruption in the current of charged particles — similar to the blowing of an electric fuse, the scientists said — about one-sixth of the distance from the Earth to the Moon’s orbit was responsible. Others believed it was a snapping of magnetic field lines farther out, about one-third of the distance to the Moon.

To answer the question, the Themis mission launched five identical satellites, each about the size of a washing machine, to measure the electric and magnetic fields as well as the particles passing by at different locations around Earth. Coupled with ground observations, scientists were able to deduce the order of events in a substorm in February.

The snapping of magnetic fields occurred first, followed by a burst of auroras. Surprisingly, the disruption in the charged particle current occurred after the aurora. Proponents of that hypothesis had thought that the magnetic snapping caused the change in electric current and that, in turn, led to the auroras.

“This defies our old paradigms,” Dr. Angelopoulos said.

Next, Dr. Angelopoulos said, scientists will try to figure out exactly why the magnetic field lines snap. With a better understanding of substorms, scientists would like to understand what happens during the larger storms. They hope to have better prediction methods working by the time the next peak of solar storms arrives between 2010 and 2012.

source: This is Kenneth Chang’s article in the NY Times on 7/25/08  www.ntimes.com

tutoring in Columbus OH:   Adrienne Edwards   614-579-6021   or eamil  aedwardstutor@columbus.rr.com  

+ On Sale: Copernicus Book Dated 1543 and Other Gems

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This is Dennis Overbye’s article in the NY Times:

One thing you can say about the copy of Nicolaus Copernicus’s book “De Revolutionibus Orbium Coelestium” (“On the Revolutions of the Celestial Spheres”), on sale next week at Christie’s auction house, is that it looks and feels old.

Its cover is dented and stained. The pages are warped. You could easily imagine that this book had sat out half a dozen revolutions hidden in various dank basements in Europe.

In fact this book, published in 1543, was the revolution. It was here that the Polish astronomer laid out his theory that the Earth and other planets go around the Sun, contravening a millennium of church dogma that the Earth was the center of the universe and launching a frenzy of free thought and scientific inquiry.

The party, known as the Enlightenment, is still going strong. It was a thrill to hold Copernicus in my hands on a recent visit to the back rooms of Christie’s and flip through its hallowed pages as if it were my personal invitation to the Enlightenment. No serious library should be without one. Just in case you are missing your own copy, you can pick up this one for about the price of a Manhattan apartment next Tuesday, according to the Christie’s catalog, which estimates its value at $900,000 to $1.2 million.

The Copernicus is a cornerstone in the collection of a retired physician and amateur astronomer, Richard Green of Long Island, that constitutes pretty much a history of science and Western thought. Among the others in Dr. Green’s library are works by Galileo, who was tried for heresy in 1633 and sentenced to house arrest for his admiration of Copernicus and for portraying the pope as a fool, as well as by Darwin, Descartes, Newton, Freud, Kepler, Tycho Brahe, Malthus and even Karl Marx.

One lot includes Albert Einstein’s collection of reprints of his scientific papers, including his first one on relativity. Another is a staggeringly beautiful star atlas, Harmonia Macrocosmica, by the 17th-century Dutch-German cartographer Andreas Cellarius, with double-truck hand-colored plates.

Pawing through these jaw droppers, I found my attention being drawn again and again to a small white book, barely more than a pamphlet, a time machine that took me back to a more recent revolution. It was the directory for world’s first commercial phone system, Volume 1, No. 1, published in New Haven by the Connecticut District Telephone Company in November 1878, future issues to be published “from time to time, as the nature of the service requires.”

Two things struck me. As an aging veteran of the current rewiring of the human condition, I wondered whether there might be lessons from that first great rewiring of our collective nervous system.

Another was a shock of recognition — that people were already talking on the phone a year before Einstein was born. In fact, just two years later Einstein’s father went into the nascent business himself. Einstein grew up among the rudiments of phones and other electrical devices like magnets and coils, from which he drew part of the inspiration for relativity. It would not be until 1897, after people had already made fortunes exploiting electricity, that the English scientist J. J. Thomson discovered what it actually was: the flow of tiny negatively charged corpuscles of matter called electrons.

The New Haven switchboard opened in January 1878, only two years after Alexander Graham Bell, in nearby Boston, spoke the immortal words “Mr. Watson, come here. I want you.” It was the first commercial system that allowed many customers to connect with one another, for $22 a year, payable in advance.

The first directory consisted of a single sheet listing the names of 50 subscribers, according to lore. By November, the network had grown to 391 subscribers, identified by name and address — phone numbers did not yet exist. And the phone book, although skimpy, had already taken the form in which it would become the fat doorstop of today, with advertisements and listings of businesses in the back — 22 physicians and 22 carriage manufacturers, among others.

Customers were limited to three minutes a call and no more than two calls an hour without permission from the central office.

Besides rules, the embryonic phone book also featured pages of tips on placing calls — pick up the receiver and tell the operator whom you want — and how to talk on this gadget. Having a real conversation, for example, required rapidly transferring the telephone between mouth and ear.

“When you are not speaking, you should be listening,” it says at one point.

You should begin by saying, “Hulloa,” and when done talking, the book says, you should say, “That is all.”

The other person should respond, “O.K.”

Because anybody could be on the line at any time, customers should not pick up the telephone unless they want to make a call, and they should be careful about what others might hear.

“Any person using profane or otherwise improper language should be reported at this office immediately,” the company said.

If only they could hear us now. On second thought, maybe it’s better they can’t. Today we are all on a party line, and your most virulent thoughts are just a forward button away from being broadcast to the universe. Would it have killed the founders of the Internet to give us a little warning here?

Near the back of the book is an essay on another promising new wonder that “has attracted renewed attention both in this country and in Europe.”

Many of the streets and shops of Paris, it is reported, are now illuminated by electric lights, placed on posts. “People seated before the cafes read their papers by the aid of lights on the opposite side of the way, and yet the most delicate complexions and softest tints in fabrics do not suffer in the white glare of the lamps. Every stone in the road is plainly visible, and the horses move swiftly along as if confident of their footing,” the book says.

It makes you wonder what could come next. Oh yes, those horses. No revolution is ever done.

That is all.

source: this is Dennis Overbye’s article in the NY Times on 6/10/08.  www.nytimes.com

tutoring in Columbus OH:   Adrienne Edwards   614-579-6021   or email  aedwardstutor@columbus.rr.com  

+ Writing for Fun (But Learning Science Too)

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A middle school teacher, Anthony Cody, writes in Teacher Magazine online that creative writing in science, math or social studies class is a great way to learn content. 

The simple mass of information students are expected to absorb, and the daunting number of pages of facts, lists and diagrams can be overwhelming.  As a change of pace from research papers, he sometimes has them do creative writing.

One year he had them write science fiction stories describing travel to another planet in our solar system.  He started with some modeling, reading passages from Arthur Clarke’s classic story, “A Fall of Moondust.”

The story was written prior to the Apollo moon landings, and describes a lunar surface very different from what was actually found there.  But that is part of the fun, he says.  Students can see how Clarke had taken the limited knowledge we had of the moon and woven an adventure story around those facts; how he filled in imaginatively wherever the facts were lacking.

He allowed students to choose the planet they wanted to travel to.  He provided them each with a folder full of information about their planet.  He had them do some basic research: what is the atmosphere; does it have a solid surface; does it have moons; what is the temperature; what resources might we find there…

The challenge was to write a story describing a trip to this planet: the travelers would need to be equipped to survive, and the rubric gave points for the number of science details included.

The students had fun.  Some were artistic and were allowed to create cartoon-style stories, with dialogue written in bubbles over the characters’ heads.  Others wrote elaborate soap operas, he says, dramatizing typical teenage Sturm and Drang.  

Cody feels this strategy could be easily adapted to math, social studies or other content areas beyond English and language arts.  In addition, if you’re looking for ways to integrate digital tools like blogs, wikis, podcasts or Photostory into the classroom, this kind of imaginative writing adapts beautifully.

He offers some writing project ideas for science:

  • A first person diary describing a day in the life of your favorite animal — with information about habitat, predator-prey interactions and survival strategies.
  • A first-person account of a major volcanic eruption, such as Mt. St. Helens, including all relevant scientific details: the type of volcano, the nature of the eruption, the damage done, and so on.
  • A story describing the journey of a bite of food from the mouth on downward, with details showing all the steps along the way (this makes a great comic strip or humorous first-person account).
  • A children’s book explaining acids and bases, so that 4th graders could understand, using examples of chemical reactions, and diagrams showing how the reactions occur.
  • With credit to H.G. Wells, a story describing a trip back in time to the Jurassic or any other era, describing the plants, animals and topography of the time.
  • And nodding to Jules Verne, a scientifically accurate journey to the center of the earth, describing the characteristics of each layer one would encounter.

Cody advises scaffolding the research by providing students with reference materials, books and articles already printed out from the Internet.  This gives them the basic information, and cuts down on Web-surfing time.

What you’re after is a wide variety of projects, reflecting the diverse interests and talents of the students.  Allowing them to choose from several options increases their enthusiasm and sense of ownership.  Their challenge is to make the facts come alive!

source: online article by Anthony Cody in Teacher Magazine at www.teachermagazine.org  on 5/7/08.  Cody is an award-winning middle school science teacher who now works as a professional development coach in the Oakland public school system, partnering with secondary teachers to improve science instruction.  He also blogs for Edutopia’s “Spiral Notebook.”

tutoring in Columbus OH:   Adrienne Edwards   614-579-6021   or email  aedwardstutor@columbus.rr.com