Posts about k-12 students

14 Year Old Signs $700,000 MOU for a Drone to Detect and Defuse Land Mines

Harshwardhan Zala, from Gujarat, India has signed an agreement worth Rs. 5 crore (US$733,940) to explore the possibility of commercial production of a drone created by him which can help in detecting and defusing landmines.

Harshwardhan started work on the prototype of the landmine-detecting drone last year after reading in newspapers about high army casualties due to landmines. Aerobotics7 is the company founded by the 14 years old.

Harshwardhan Zala, 14-year-old trends for Rs 5 crore deal at Vibrant Gujarat Global Summit 2017!

Explaining more about the drone, the zealous 14-year-old said, “The drone is designed to send out waves that cover eight sq. mt area while flying two feet above the surface; the waves detect land mines and communicate their location with a base station. The drone also carries a bomb weighing 50 gram that can be used to destroy the landmine.” Harshwardhan Zala’s proud father Pradhyumansinh is an accountant with a plastic company in Naroda, and his mother Nishaba is a homemaker.

[missing video – removed 🙁 ]

The video has Harshwardhan speaking a bit of English but mainly some other language that I don’t understand. If I understand right, his drone is 98% accurate at identifying mines (where the current solutions are 92% accurate – and much more dangerous for those having to walk around testing). His solution is 17 times faster and 22 times cheaper than the current solutions. Once the mine is detected by the drone through an infrared sensor, a 50 gram detonator will complete the task of defusing it (blowing it up).

This video shows a bit of the drone itself (non-English audio)

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Using The Building of Robots to Engage Students in Learning

Fundi bots has a mission to use robotics training in African schools to create and inspire a new generation of problem solvers, innovators and change-makers. I believe strongly in this type of effort. We waste so much human potential by killing students design to learn. Instead we need to create systems that not only don’t kill that desire but allow it to flourish.

Fundi Bots focuses on the technological process of building robots as a way for students to look at the world around them from a practical, solution oriented perspective. By guiding students through problem identification, brainstorming, collaboration, construction, programming, final deployment and system feedback, we show them how the problems around them can be solved through a technological approach and persistent reductive analysis.

Fundi Made is an effort to create professional grade electronics right in our Fundi Spaces, and deploy the products in five core market segments; home-automation, agriculture, energy, security and health.

Related: Promoting Innovation in Sierra LeoneLetting Children Learn using Hole in the Wall ComputersGiven Tablets but No Teachers, Kids Teach Themselves (Having Never Seen Advanced Technology Before)Teaching Through TinkeringEncouraging Curiosity in Kids20th Annual US First Robotics Competition (2012)

Math Education Results Show China, Singapore, Korea and Japan Leading

The most comprehensive comparison of student achievement in math and science around the globe undertaken by the Organisation for Economic Co-operation and Development (OECD). The 2012 Program for International Student Assessment (PISA) focuses on math understanding of 15 year olds (the 2014 report will focus on science). The 2009 report focused on the results of science education student achievement around the globe.

2012 results for the math portion (rank – country – mean score)(I am not listing all countries):

  • 1 – Singapore – 573
  • 2 – Korea – 554
  • 3 – Japan – 536
  • 5 – Switzerland – 531
  • 6 – Netherlands – 523
  • 7 – Estonia – 521
  • 8 – Finland – 519
  • 9 – Canada – 518
  • 12 – Germany – 514
  • 24 – UK – 494 (this is also the OECD average)
  • 34 – USA – 481
  • 49 – Malaysia – 421
  • 50 – Mexico – 413

All 34 OECD member countries and 31 partner countries and economies participated in PISA 2012, representing more than 80% of the world economy. Portions of China participated and did very well including Shanghai-China (highest mean score of 613 points – if you ranked that as a country, I ignored these “regional results” in the ranks I shown here), Hong Kong-China (561, 3rd if including countries and regions together), Chinese Taipei [Taiwan] (560, 4th), Macao-China (538, 6th).

Boys perform better than girls in mathematics in 38 out of the 65 countries and economies that participated in PISA 2012, and girls outperform boys in 5 countries.

Related: Playing Dice and Children’s NumeracyNumeracy: The Educational Gift That Keeps on GivingMathematicians Top List of Best OccupationsThe Economic Consequences of Investing in Science EducationCountry H-index Ranking for Science PublicationsEconomic Strength Through Technology Leadership

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High School Student Creates: Test That is Much More Accurate and 26,000 Times Cheaper Than Existing Pancreatic Cancer Tests

Seeing what these kids come up with is so refreshing after being so disappointed by the actions fo our leaders (politicians, business leaders, financiers, law enforcement [spying on citizens because they feel electronic privacy is fine to invade, taking away liberty…], health care in the USA [twice as expensive as elsewhere with no better results, 10 of millions without coverage]…). These kids make me feel hopeful, unfortunately the actions of the powerful leave me less hopeful.

Jack Andraka created a new paper based test for diagnosing pancreatic cancer that is 50% more accurate, 400 times more sensitive, and 26,000 times less expensive than existing methods. His method uses carbon nanotubes and can catch the disease in very early stages which is critical to treatment success. The test also covers other forms of cancer very effectively (he concentrated on the results for pancreatic cancer given the low survival rates for that cancer). Jack Andraka: “I actually love single-walled carbon nanotubes; they’re like the superheroes of material science.”

His results are great. Often initial results can be difficult to actually turn into such positive results in the real world. But this is a great step and it is great to see what young minds can do. The claims for how much better, cheaper etc. are wildly different in various places on the International Science and Engineering Fair (ISEF) site.

Jack Andraka was awarded $75,000 for his development of a new method to detect pancreatic cancer as the winner of the top prize at the Intel ISEF (I believe it is new this year to call the winner the Gordon E. Moore Award).

Related: 2009 Intel Science and Engineering Fair WebcastsIntel International Science and Engineering Fair 2007Intel Science Talent Search 2012 AwardeesGoogle Science Fair 2011 Projects

A Novel Paper Sensor for the Detection of Pancreatic Cancer by Jack Andraka
North County High School, Glen Burnie, MD

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Kindergarten Students Pedel Their Own Bus to School

photo of kindergarden students pedaling their bus to school

Dutch kindergarden students pedaling their bus to school

Dutch Kids Pedal Their Own Bus To School

The Dutch are bicycle fanatics. Almost half of daily travel in the Netherlands is by bicycle, while the country’s bike fleet comfortably outnumbers its 16 million people. Devotees of the national obsession have taken the next logical step by launching what is likely the first bicycle school bus.

Built by Tolkamp Metaalspecials, and sold by the De Cafe Racer company, the bicycle school bus (BCO in Dutch) is powered entirely by children and the one adult driver (although there is an electric motor for tough hills). Its simple design has eight sets of pedals for the kids (ages 4 to 12), a driver seat for the adult, and three bench seats for freeloaders. The top speed is about 10 miles per hour, and features a sound system and canvas awning to ward off rainy days.

They have sold 25 of the busses so far for $15,000 each.

Related: Sports EngineeringGermany Looking to Kindergarten for Engineering FutureEngineering a Better World: Bike Corn-Sheller

Journal of Emerging Investigators Will Publish Middle and High School Student Research Papers

The Journal of Emerging Investigators is a new journal for publishing research paper and reviews of research papers by middle school and high school students from any country.

The Journal of Emerging Investigators strives to provide students with as much access to original scientific writing as possible. With this in mind, all submissions are covered by an attribution non-commercial, no derivative license. This means that anyone is free to share, copy and distribute an unaltered article for non-commercial purposes.

Graduate students with substantial research experience will review the manuscripts.

All hypothesis driven science is acceptable for research articles. This includes, but is not limited to, life science, physics, chemistry, health, psychology, and physiology. Engineering articles are also accepted as long as there is a clear question and hypothesis being tested.

Hopefully this will encourage some students to give research a try. Advisors may submit items for publication (students have to have an mentor/teacher do the submitting.

Similar journals: The Journal of Experimental Secondary Science, open science 🙂 – Canadian Young Scientist, closed science 🙁

Related: 8-10 Year Olds Research Published in Royal Society JournalYouTube SpaceLab Experiment CompetitionOpen Access Engineering JournalsKids on Scientists: Before and After

Encouraging Curiosity in Kids

How do you help make your children scientifically literate? I think the biggest thing you can do is encourage curiosity.

One way to encourage curiosity it is by answering their questions (and not saying: I am too busy, don’t bother me, don’t ask me?, stop asking why…). I know adults are busy and have all sorts of stuff we are trying to get done; and the question about why I need to wash my hands doesn’t seem worth answering. But I think anytime a kid is asking why is an opportunity to teach and encourage them to keep being curious.

It is very easy to shut off this curiosity, in our society anyway (we do it to the vast majority of people). The biggest difference I see between adults and kids is not maturity or responsibility but curiosity (or lack thereof in adults) and joy (versus adults who seem to be on valium all the time – maybe they are).

As they grow up kids will have lots of science and technology questions that you don’t know the answers to. If you want them to be curious and knowledgeable, put in the effort to find answers with them. You have to help them find the answers in a way that doesn’t turn them off. If you just say – go look it up yourself (which really they can do), maybe the 2% that are going to become scientists will. But most kids will just give up and turn off their curiosity a little bit more (until eventually it is almost gone and they are ready to fit into the adult world). Which is very sad.

Once you get them used to thinking and looking things up they will start to do this on their own. A lot of this just requires thinking (no need to look things up – once a certain base knowledge is achieved). But you need to set that pattern. And it would help if you were curious, thought and learned yourself.

Photo of kids intently studying on a Malaysian beach

My mom with a group of Malaysia kids apparently intent on learning something. I am there, but not visible in this photo. Photo by my father.

While walking in the park, see one of those things you are curious about and ask why does…? It is good to ask kids why and let them think about it and try and answer. Get them in the habit of asking why themselves. And in those cases when no-one knows, take some time and figure it out. Ask some questions (both for yourself – to guide your thinking – and to illustrate how to think about the question and figure things out). If you all can’t find an explanation yourselves, take some time to look it up. Then at dinner, tell everyone what you learned. This will be much more interesting to the kids than forcing them to elaborate on what they did today and help set the idea that curiosity is good and finding explanations is interesting.

It is fun as a kid if your parent is a scientist or engineer (my father was an engineering professor).

You often don’t notice traits about yourself. In the same what I know what red looks like to me, I figure we both see this red shirt you see the red that I do. But maybe you don’t. I tend to constantly be asking myself why. If I see something new (which is many, many times a day – unless I am trapped in some sad treadmill of sameness) I ask why is it that way and then try and answer. I think most of this goes on subconsciously or some barely conscious way. I actually had an example a few months ago when I was visiting home with my brother (who is pretty similar to me).

As we were driving, I had noticed some fairly tall poles that seemed to have really small solar panels on top. I then noticed they were space maybe 20 meters apart. Then saw that there seemed to be a asphalt path along the same line. I then decided, ok, they are probably solar panels to power a light for the path at night. Then my brother asked why are there those small solar panel on top of that pole?

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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 finalistsIntel Science and Engineering Fair 2009 WebcastsHats off to the winners of the inaugural Google Science FairPresident 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.

Related: 11 Year Old Using Design of ExperimentsPresident Obama Speaks on Getting Students Excited About Science and EngineeringScience Fair Project on Bacterial Growth on Packaged Salads

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

photo of Sarah and her trebuchet

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.

“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.

Related: Learning Design of Experiments with Paper HelicoptersPlaying Dice and Children’s NumeracyStatistics Insights for Scientists and EngineersSarah (a different one), aged 3, Learns About SoapStatistics for ExperimentersMulti-factor designed experimentsCombinatorial Testing for SoftwareWhat Else Can Software Development and Testing Learn from Manufacturing? Don’t Forget Design of Experiments (DoE)Letting Children Learn

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.

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.

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?

Related: Playing Dice and Children’s NumeracyKids on Scientists: Before and AfterTest it Out, Experiment by They Might Be GiantsWhat Kids can LearnTinker School: Engineering CampTeen diagnoses her own disease in science class

And some of their comments:
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