Category Archives: K-12

About or related to primary (k-12) science and engineering education. Likely of interest to teachers and administrators. Teachers may also find many of the posts we feel are of interests to students interested in science and engineering useful.

Eliminating NSF Program to Aid K-12 Science Education

Changing American science and engineering education

In exchange for funding for their graduate studies, Kahler and other fellows contribute to the science curriculum in local primary and secondary schools from kindergarten through grade 12. Kahler taught science at Rogers-Herr Middle School in Durham.

He also taught for two summers in India, and in Texas, as part of Duke TIP, the Talent Identification Program, which identifies academically gifted students and provides them with intellectually stimulating opportunities.

Through these teaching experiences in different locations and cultures, Kahler observed several factors that affect the quality of education in American schools. One important factor is the training of teachers. Unfortunately, teachers are sometimes expected to teach science without having received an adequate background in the subject.

STEM fellows helped to address this problem by contributing their expertise and by helping to increase the scientific literacy of students and their teachers.
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Kahler says that NSF GK-12 has a strong, positive impact to change this because it simultaneously improves the educational experience of students in primary and secondary school and trains graduate students to communicate and teach effectively.

Unfortunately, the NSF GK-12 program is no longer in the NSF budget for 2012.

Sadly the USA is choosing to speed money on things that are likely much less worthwhile to our future economic well being. This has been a continuing trend for the last few decades so it is not a surprise that the USA is investing less and less in science and engineering education while other countries are adding substantially to their investments (China, Singapore, Korea, India…).

As I have stated before I think the USA is making a big mistake reducing the investment in science and engineering, especially when so many other countries have figured how how smart such investments are. The USA has enjoyed huge advantages economically from science and engineering leadership and will continue to. But the potential full economic advantages are being reduced by our decisions to turn away from science investment (in education and other ways).

Periodic Table for Kids

Poster of the periodic table with some illustrations and explanations for kids.

Check out this previous post with a New Visualization of the Periodic Table and see the link in the comment to another variation.

MIT Engineering Design Workshop for Boston High School Students

This summer, a few dozen Boston-area high school students chose to spend their mornings toiling away with a variety of materials to create working marvels of engineering in the Engineering Design Workshop, a month-long program that gives teenagers a hands-on experience with the joys and challenges of engineering.

None of the activities are prescribed; instead, students take part in brainstorming sessions on the first day, and things develop from there. Typically, the “counselors” — a mix of undergraduate and graduate students from MIT and other local universities — present a few ideas, and the high school students decide which projects they’d most like to work on. I really like the idea of involving the college students.

This year, the 22 students divided themselves into five projects: a modified Razor scooter, equipped with a motor and brakes; a sound system of giant tower speakers; remote-controlled “anything” (which ended up including cars, fish, birds and even a flying turtle); a mosaic tiger meticulously assembled from pieces of stained glass; and an electric cello.

Each student is allotted $100 to spend on materials for his or her group’s project; this way, projects that attract more students have a larger budget to work with. Counselors help them purchase supplies online and work with them on the construction from the ground up.

There are probably thousands of similar type activities throughout the year to help engage students in engineering. I think it is great, but we need to do more. We need to let young students know what they are missing. If people know the wonders of engineering and choose something else for their career path, that is fine. It is a shame when people don’t get to decide, because they never experience what engineering has to offer.

Read the full press release.

Great Projects From First Google Science Fair Finalists

15 finalists (from 3 different age groups – 13-14 years old, 15-16 and 17-18) were selected. 11 finalists were from the USA and 1 each from Singapore, Canada, India and South Africa. These examples of what can be done with imagination, effort and a scientific mindset is great.

The grand prize winner, Shree Boseer’s project:

Each year, over 21,000 women are diagnosed with ovariancancer – the 5th leading cause of cancer-related deaths in women in the United States. One of the most common drugs usedin ovarian cancer chemotherapy is cisplatin, a platinum-based chemotherapy treatment. While the drug affects ordinary cells, the significantly higher replication frequency of cancer cells causes cisplatin to have a greater impact in malignant cells. However, cancer cells often develop resistance to cisplatin, rendering the treatment ineffective. To improve the efficiency of cisplatin treatment, this research sought to determine whether AMP kinase, an energy protein of cell, plays a role in the development of cisplatin resistance. Studies with various techniques showed a significant difference on cell death caused by cisplatin insensitive and resistant ovarian cancer cells when AMPK was inhibited,suggesting that AMPK plays a role in the development of resistance. This work,in addition to offering a new treatment regime, also furthers our understanding of ovarian cancer and cancers in general.

This is a great project and the experience for the students is wonderful. Still I do think the prizes should be much larger given all the large corporations involved. Get involved with the next Google Science fair.

Google Science Fair 2011 Projects semi finalists – Intel Science and Engineering Fair 2009 Webcasts – Hats off to the winners of the inaugural Google Science Fair – President Obama Speaks on Getting Students Excited About Science and Engineering
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Google Science Fair 2011 Projects

The Google Science Fair selected 60 semi-finalists in 3 groups (age 13-14, 15-16 and 17-18). The 60 global semi finalists will then be narrowed down by our judging panel to 15 global finalists who will be announced later in May.

The 15 global finalists will be flown to Google HQ in California, USA for our celebratory Science Fair event and finalist judging round will take place on 11 July 2011. These finalists will be expected to present their projects before a panel of acclaimed scientists including Nobel Laureates, tech visionaries and household names.

Sailboats using canting keels are among the world’s fastest ocean-going vessels; however, there are inherent problems. Canting sailboats require the addition of canards or dagger boards to replace the loss of the primary underwater lifting surface, adding significant complexity. The second and more important issue is that the cantilevered weight of the ballast bulb at the end of the keel generates tremendous loads on the vessel. The objective of this research was to test a concept to make sailboats even faster and safer than the current designs. To test the concept, this researcher built a remote control functional model fitted for both canting and hydrodynamic keels. The results showed that the hydrodynamic keel out performs the canting keel both upwind and downwind.

The Grand Prize winner plus one parent or guardian per winner will win an amazing 10 day trip to the Galapagos Islands with National Geographic Expeditions. Traveling aboard the National Geographic Endeavour the winner will visit Darwin’s living laboratory and experience up-close encounters with unique species such as flightless cormorants, marine iguanas, and domed giant tortoises. They also win a $50,000 scholarship, split equally between team members should a team win this prize. This scholarship is intended to be used towards the finalists’ further education.

The 2 age group winners that are not selected as the grand prize winner will win $25,000 scholarships.

You can vote on your favorite projects and help select the people’s choice winner that will receive a $10,000 scholarship.

Friday Fun: Dinosaur and Kids

Just a fun video for this Friday, showing a visit by a puppet dinosaur to a Australian school.

11 Year Old Using Design of Experiments

This reminds me of great times I had experimenting with my father when I was a kid. Though, to be honest, Sarah is much more impressive than I was.

Catapulting to Success with Design of Experiments

Sarah Flexman with her trebuchet at the Storm the Castle science challenge in North Carolina.

At the end of 2010, Sarah had decided to take part in Storm the Castle, one of the events offered in the statewide science Olympiad competition. This particular challenge was to design, build and launch a model trebuchet, which is a medieval-style catapult for hurling heavy stones…

Here’s Sarah’s whole process: She built the trebuchet, tested it, used JMP for DOE during optimization, changed the hook angle and sling to improve performance, did more tests, entered this new data, reran the model, and made her final prediction graphs. The variables in her DOE were string length, counterweight and projectile weight, and she optimized for distance – that is, how far the projectile would go.

“Rather than doing 125 tests because we have three variables with five levels each, DOE found a way for us to perform only 26 tests and get approximately the same results. I typed in the results, ran the model and used the JMP Profiler. I understood how the variables predicted the outcome and found several patterns,” she explained.
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“I hadn’t done any building like that. The whole day was fun. It was a very open learning environment. You were experimenting with things you had never done before. I would definitely do it again,” Sarah said. And she will – next year.

I have collected quite a few design of experiments resources, for those who are interested in learning more. Here is a nice webcast by brother: Combinatorial Testing – The Quadrant of Massive Efficiency Gains, discussing the incredibly efficiency designed combinatorial testing (very similar ideas to design of experiments) can provide.

8-10 Year Olds Research Published in Royal Society Journal

Eight-year-old children publish bee study in Royal Society journal

Their paper, based on fieldwork carried out in a local churchyard, describes how bumblebees can learn which flowers to forage from with more flexibility than anyone had thought. It’s the culmination of a project [Blackawton Bees] called ‘i, scientist’, designed to get students to actually carry out scientific research themselves.
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The class (including Lotto’s son, Misha) came up with their own questions, devised hypotheses, designed experiments, and analysed data. They wrote the paper themselves (except for the abstract), and they drew all the figures with colouring pencils.
It’s a refreshing approach to science education, in that it actually involves doing science.
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The children designed a Plexiglas cube with two entrances and a four-panelled light box in the middle. Each panel had 16 coloured lights, illuminated in clear patterns of blue and yellow. Each light had a feeder that dispensed either delicious sugar water or repulsive salty water. Once the bees had learned to drink from the feeders, the kids turned the lights on.

Absolutely great stuff. This is how to engage kids in science. Engage their inquisitive minds. Let them get involved. Let them experiment.

Some of the children’s questions when looking at what to discover using experiments:

What if… we could find out how much effort the bees will go through in order to get a reward? For instance, they have to move something heavy out of the way to get a reward.

What if… we could discover if bees can learn to go to certain colours depending on how sweet they are?

What if… we could find out how many colours they could remember?

And some of their comments:
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Top Countries for Science and Math Education: Finland, Hong Kong and Korea

The 2009 Programme for International Student Assessment (PISA)* report has been released. The report examines the science of 15 year olds from 57 countries in math, science and reading. The main focus of PISA 2009 was reading. The survey also updated performance assessments in mathematics and science.

The Asian countries continue to do very well for several reason including tutoring; they have even turned tutors into rock stars earning millions of dollars. The results show that the focus on student achievement in sciences has had an impact in Asia.

The emphasis is on mastering processes, understanding concepts and functioning in various contexts within each assessment area. the PISA 2012 survey will return to mathematics as the major assessment area, PISA 2015 will focus on science.

Results for the Science portion (rank – country – mean score)(I am not listing all countries):

1 – Finland – 554
2 – Hong Kong – 549
3 – Japan – 539
4 – Korea – 538
5 – New Zealand – 532
6 – Canada – 529
7 – Estonia – 528
8 – Australia – 527
9 – Netherlands – 522
10 – Taiwan – 520
11 – Germany – 520
14 – United Kingdom – 514
21 – USA – 502 (up from 489 and 29th place in 2006)
OECD average – 501
25 – France – 498
46 – Mexico – 416
49 – Brazil – 405

Results for the math portion (rank – country – mean score)(I am not listing all countries):
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Bronx High School of Nobel Prize for Physics Laureates

Bronx physics

Bronx Science owes its historic status to the fact that seven future Nobel-prize-winning physicists went through its doors – more than any other high school in the world and more than most countries have ever achieved. The school, which opened in 1938, was founded by the educator Morris Meister, who believed that if a school put bright students together, it would kindle ill-defined but valuable learning processes. The school seems to have proved him right: according to the Bronx laureates, their physics learning took place mainly outside the classroom.
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Leon Cooper, who shared the 1972 prize for work on superconductivity, recalls physics lessons as boring, and was far more enchanted by his biology classes, which lured him to stay late after school designing and running experiments “until they threw me out”. Indeed, the school’s basic-physics textbook was written by a certain Charles E Dull, whose work, though widely used in US high schools, lived up to his name. The future particle physicist Melvin Schwartz, who shared the 1988 Nobel gong, once told me his classmates’ excited discussions – not his teacher – were what first awakened his interest in physics.
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[today] the school’s most fearsome physics module – Advanced Placement Physics C – is tougher than most college-physics courses. Its dynamic instructor is Ghada Nehmeh, who was born in Lebanon and studied nuclear physics. Diminutive – smaller than most of her students – and scarf-clad, she jumps rapidly from lab table to lab table, helping piece together equipment and analyse results. Famous for being ruthlessly demanding, she tests the students on their first day by assigning them 40 calculus problems, due back the next day. “I’d never seen derivatives before,” says Kezi Cheng, a senior interested in theoretical physics. So Cheng did what most Bronx Science students do – she asked her classmates to give her a crash course on the subject. “They’re always willing to help.”

Sounds like a great place to go to school. The article also has some good anecdotes about how these students learned by seeking knowledge themselves not passively sitting and being lectured to.