Wednesday, December 25, 2013

Our Innovation: The πzo-Graph

Days prior to the quake that leveled the Greek city of Helice in 373 BC, rats, snakes and weaver's deserted the city to safer grounds. Many accounts of animal anticipation of earthquakes have been recorded by historians over the centuries. Although their is no clear reasoning behind an animal's ability to sense earthquake, current research suggest animals detect electrical changes in the air or gas released from the Earth. 
Unlike many natural disasters, earthquake technology does not predict earthquakes. While seismographs detect sudden outbursts of tectonic movement, seismologists are unable to detect slow, constant, gradual increase in pressure, indicative of an upcoming earthquake. Consequently, people can not prepare for earthquakes and are unable to get themselves in safe areas. Prior to earthquakes, an enormous amount of energy accumulates until the energy build up is enough to overcome the friction between two tectonic plates. The devastations of earthquake and our passion for science have inspired our team, the πthons, to come up with a new method for detecting and predicting earthquakes. By harnessing piezoelectric technology, the π -zo Graphs would be able to revolutionize earthquake prediction. π -zo Graphs would be located underground, near plate boundaries, so that the intense pressure of moving plates could be detected. Several piezoelectric sensors would be wired together and connected to an above-ground computer. As plates move and pressure is exerted onto the piezoelectric sensors, the sensors convert the pressure to electricity. As pressure increases between plate boundaries, the amount of electricity produced by the piezoelectric sensors will increase. Interpretations of the increasing electricity can be used to accurately determine the intensity, the location and the time an earthquake will occur.

Friday, December 20, 2013

The πthons gave a presentation to the local Lego club at the Ardsley Public Library today. There was a really excited set of kids eager to ask questions on earthquakes and robotics.
Thanks to Marianne for giving us this opportunity.
Here are a few pictures from the presentation.







Monday, December 16, 2013

Robot game


fascinating Toad research

British biologist Rachel Grant finds toads can predict earthquakes


FOR ages, mankind has craved a tool that can provide an early warning of that terrifying moment when the earth begins to shake - and if a scientific paper published today is confirmed, we may at last have found one. 

The best hope yet of an earthquake predictor could lie in a small, brown, knobbly amphibian, it suggests. 
The male common toad (Bufo bufo) gave five days' warning of the earthquake that ravaged the town of L'Aquila in central Italy on April 6, 2009, killing more than 300 people and displacing 40,000 others, the study says. 
Biologist Rachel Grant of Britain's Open University embarked on a toad-monitoring project at San Ruffino lake 74km north of L'Aquila, 10 days before the 6.3-magnitude quake struck. 
Her two-person team observed the site for 29 days, counting toad numbers and measuring temperature, humidity, wind speed, rainfall and other conditions. 
By March 28, more than 90 male toads had mustered for the spawning season, but two days later, their numbers suddenly fell, Grant reports.
Several dozen ventured back on April 9 for the full moon, a known courtship period for toads, although the tally was some 50-80 per cent fewer than in previous years. 

After this small peak, the numbers fell once more, only picking up significantly on April 15, two days after the last major aftershock, defined as 4.5 magnitude or higher. 

In addition, the number of paired toads at the breeding site also dropped to zero three days before the quake. And no fresh spawn was found at the site from April 6 until the last big after-tremor. 

Ms Grant said the toads' comportment is a "dramatic change" for the species. 

Once male toads hole up at a breeding site, they usually never leave until the annual spawning season is over, she notes. 

Eager to answer the riddle, Ms Grant obtained Russian measurements of electrical activity in the ionosphere, the uppermost electromagnetic layer in the atmosphere, which were picked up by very low frequency (VLF) radio receivers. 

The toads' two periods of exodus both coincided with bursts of VLF disruption. 

Previous research has attributed perturbations in the ionosphere to releases of radon, a radioactive gas generated underground, or to gravity waves prior to a quake, although much about this phenomenon is unclear. 

In the quest to find an earthquake predictor, elephants, horses, wolves, snakes and fish have all been variously put forward. 

This study, though, is exceptional. It puts the flesh of data and first-hand observation on the bones of anecdotal evidence, even if there is no confirmed explanation as to why the toads bolted as they did. 

"Our study is one of the first to document animal behaviour before, during and after an earthquake," Ms Grant said. 

"Our findings suggest that toads are able to detect pre-seismic cues such as the release of gases and charged particles and use these as a form of early warning system." 

The paper is published in the Journal of Zoology by the Zoologic

Several dozen ventured back on April 9 for the full moon, a known courtship period for toads, although the tally was some 50-80 per cent fewer than in previous years. 
After this small peak, the numbers fell once more, only picking up significantly on April 15, two days after the last major aftershock, defined as 4.5 magnitude or higher. 

In addition, the number of paired toads at the breeding site also dropped to zero three days before the quake. And no fresh spawn was found at the site from April 6 until the last big after-tremor. 

Ms Grant said the toads' comportment is a "dramatic change" for the species. 

Once male toads hole up at a breeding site, they usually never leave until the annual spawning season is over, she notes. 

Eager to answer the riddle, Ms Grant obtained Russian measurements of electrical activity in the ionosphere, the uppermost electromagnetic layer in the atmosphere, which were picked up by very low frequency (VLF) radio receivers. 

The toads' two periods of exodus both coincided with bursts of VLF disruption. 

Previous research has attributed perturbations in the ionosphere to releases of radon, a radioactive gas generated underground, or to gravity waves prior to a quake, although much about this phenomenon is unclear. 

In the quest to find an earthquake predictor, elephants, horses, wolves, snakes and fish have all been variously put forward. 

This study, though, is exceptional. It puts the flesh of data and first-hand observation on the bones of anecdotal evidence, even if there is no confirmed explanation as to why the toads bolted as they did. 

"Our study is one of the first to document animal behaviour before, during and after an earthquake," Ms Grant said. 

"Our findings suggest that toads are able to detect pre-seismic cues such as the release of gases and charged particles and use these as a form of early warning system." 

The paper is published in the Journal of Zoology by the Zoologic

After this small peak, the numbers fell once more, only picking up significantly on April 15, two days after the last major aftershock, defined as 4.5 magnitude or higher. 
In addition, the number of paired toads at the breeding site also dropped to zero three days before the quake. And no fresh spawn was found at the site from April 6 until the last big after-tremor. 

Ms Grant said the toads' comportment is a "dramatic change" for the species. 

Once male toads hole up at a breeding site, they usually never leave until the annual spawning season is over, she notes. 

Eager to answer the riddle, Ms Grant obtained Russian measurements of electrical activity in the ionosphere, the uppermost electromagnetic layer in the atmosphere, which were picked up by very low frequency (VLF) radio receivers. 

The toads' two periods of exodus both coincided with bursts of VLF disruption. 

Previous research has attributed perturbations in the ionosphere to releases of radon, a radioactive gas generated underground, or to gravity waves prior to a quake, although much about this phenomenon is unclear. 

In the quest to find an earthquake predictor, elephants, horses, wolves, snakes and fish have all been variously put forward. 

This study, though, is exceptional. It puts the flesh of data and first-hand observation on the bones of anecdotal evidence, even if there is no confirmed explanation as to why the toads bolted as they did. 

"Our study is one of the first to document animal behaviour before, during and after an earthquake," Ms Grant said. 

"Our findings suggest that toads are able to detect pre-seismic cues such as the release of gases and charged particles and use these as a form of early warning system." 

The paper is published in the Journal of Zoology by the Zoologic

In addition, the number of paired toads at the breeding site also dropped to zero three days before the quake. And no fresh spawn was found at the site from April 6 until the last big after-tremor. 
Ms Grant said the toads' comportment is a "dramatic change" for the species. 

Once male toads hole up at a breeding site, they usually never leave until the annual spawning season is over, she notes. 

Eager to answer the riddle, Ms Grant obtained Russian measurements of electrical activity in the ionosphere, the uppermost electromagnetic layer in the atmosphere, which were picked up by very low frequency (VLF) radio receivers. 

The toads' two periods of exodus both coincided with bursts of VLF disruption. 

Previous research has attributed perturbations in the ionosphere to releases of radon, a radioactive gas generated underground, or to gravity waves prior to a quake, although much about this phenomenon is unclear. 

In the quest to find an earthquake predictor, elephants, horses, wolves, snakes and fish have all been variously put forward. 

This study, though, is exceptional. It puts the flesh of data and first-hand observation on the bones of anecdotal evidence, even if there is no confirmed explanation as to why the toads bolted as they did. 

"Our study is one of the first to document animal behaviour before, during and after an earthquake," Ms Grant said. 

"Our findings suggest that toads are able to detect pre-seismic cues such as the release of gases and charged particles and use these as a form of early warning system." 

The paper is published in the Journal of Zoology by the Zoologic

Ms Grant said the toads' comportment is a "dramatic change" for the species. 
Once male toads hole up at a breeding site, they usually never leave until the annual spawning season is over, she notes. 

Eager to answer the riddle, Ms Grant obtained Russian measurements of electrical activity in the ionosphere, the uppermost electromagnetic layer in the atmosphere, which were picked up by very low frequency (VLF) radio receivers. 

The toads' two periods of exodus both coincided with bursts of VLF disruption. 

Previous research has attributed perturbations in the ionosphere to releases of radon, a radioactive gas generated underground, or to gravity waves prior to a quake, although much about this phenomenon is unclear. 

In the quest to find an earthquake predictor, elephants, horses, wolves, snakes and fish have all been variously put forward. 

This study, though, is exceptional. It puts the flesh of data and first-hand observation on the bones of anecdotal evidence, even if there is no confirmed explanation as to why the toads bolted as they did. 

"Our study is one of the first to document animal behaviour before, during and after an earthquake," Ms Grant said. 

"Our findings suggest that toads are able to detect pre-seismic cues such as the release of gases and charged particles and use these as a form of early warning system." 

The paper is published in the Journal of Zoology by the Zoologic

Once male toads hole up at a breeding site, they usually never leave until the annual spawning season is over, she notes. 
Eager to answer the riddle, Ms Grant obtained Russian measurements of electrical activity in the ionosphere, the uppermost electromagnetic layer in the atmosphere, which were picked up by very low frequency (VLF) radio receivers. 

The toads' two periods of exodus both coincided with bursts of VLF disruption. 

Previous research has attributed perturbations in the ionosphere to releases of radon, a radioactive gas generated underground, or to gravity waves prior to a quake, although much about this phenomenon is unclear. 

In the quest to find an earthquake predictor, elephants, horses, wolves, snakes and fish have all been variously put forward. 

This study, though, is exceptional. It puts the flesh of data and first-hand observation on the bones of anecdotal evidence, even if there is no confirmed explanation as to why the toads bolted as they did. 

"Our study is one of the first to document animal behaviour before, during and after an earthquake," Ms Grant said. 

"Our findings suggest that toads are able to detect pre-seismic cues such as the release of gases and charged particles and use these as a form of early warning system." 

The paper is published in the Journal of Zoology by the Zoologic

Eager to answer the riddle, Ms Grant obtained Russian measurements of electrical activity in the ionosphere, the uppermost electromagnetic layer in the atmosphere, which were picked up by very low frequency (VLF) radio receivers. 
The toads' two periods of exodus both coincided with bursts of VLF disruption. 

Previous research has attributed perturbations in the ionosphere to releases of radon, a radioactive gas generated underground, or to gravity waves prior to a quake, although much about this phenomenon is unclear. 

In the quest to find an earthquake predictor, elephants, horses, wolves, snakes and fish have all been variously put forward. 

This study, though, is exceptional. It puts the flesh of data and first-hand observation on the bones of anecdotal evidence, even if there is no confirmed explanation as to why the toads bolted as they did. 

"Our study is one of the first to document animal behaviour before, during and after an earthquake," Ms Grant said. 

"Our findings suggest that toads are able to detect pre-seismic cues such as the release of gases and charged particles and use these as a form of early warning system." 

The paper is published in the Journal of Zoology by the Zoologic

The toads' two periods of exodus both coincided with bursts of VLF disruption. 
Previous research has attributed perturbations in the ionosphere to releases of radon, a radioactive gas generated underground, or to gravity waves prior to a quake, although much about this phenomenon is unclear. 

In the quest to find an earthquake predictor, elephants, horses, wolves, snakes and fish have all been variously put forward. 

This study, though, is exceptional. It puts the flesh of data and first-hand observation on the bones of anecdotal evidence, even if there is no confirmed explanation as to why the toads bolted as they did. 

"Our study is one of the first to document animal behaviour before, during and after an earthquake," Ms Grant said. 

"Our findings suggest that toads are able to detect pre-seismic cues such as the release of gases and charged particles and use these as a form of early warning system." 

The paper is published in the Journal of Zoology by the Zoologic

Previous research has attributed perturbations in the ionosphere to releases of radon, a radioactive gas generated underground, or to gravity waves prior to a quake, although much about this phenomenon is unclear. 
In the quest to find an earthquake predictor, elephants, horses, wolves, snakes and fish have all been variously put forward. 

This study, though, is exceptional. It puts the flesh of data and first-hand observation on the bones of anecdotal evidence, even if there is no confirmed explanation as to why the toads bolted as they did. 

"Our study is one of the first to document animal behaviour before, during and after an earthquake," Ms Grant said. 

"Our findings suggest that toads are able to detect pre-seismic cues such as the release of gases and charged particles and use these as a form of early warning system." 

The paper is published in the Journal of Zoology by the Zoologic

In the quest to find an earthquake predictor, elephants, horses, wolves, snakes and fish have all been variously put forward. 
This study, though, is exceptional. It puts the flesh of data and first-hand observation on the bones of anecdotal evidence, even if there is no confirmed explanation as to why the toads bolted as they did. 

"Our study is one of the first to document animal behaviour before, during and after an earthquake," Ms Grant said. 

"Our findings suggest that toads are able to detect pre-seismic cues such as the release of gases and charged particles and use these as a form of early warning system." 

The paper is published in the Journal of Zoology by the Zoologic

This study, though, is exceptional. It puts the flesh of data and first-hand observation on the bones of anecdotal evidence, even if there is no confirmed explanation as to why the toads bolted as they did. 
"Our study is one of the first to document animal behaviour before, during and after an earthquake," Ms Grant said. 

"Our findings suggest that toads are able to detect pre-seismic cues such as the release of gases and charged particles and use these as a form of early warning system." 

The paper is published in the Journal of Zoology by the Zoologic

"Our study is one of the first to document animal behaviour before, during and after an earthquake," Ms Grant said. 
"Our findings suggest that toads are able to detect pre-seismic cues such as the release of gases and charged particles and use these as a form of early warning system." 

The paper is published in the Journal of Zoology by the Zoologic

"Our findings suggest that toads are able to detect pre-seismic cues such as the release of gases and charged particles and use these as a form of early warning system." 
The paper is published in the Journal of Zoology by the Zoologic

The paper is published in the Journal of Zoology by the Zoologic

By April 1 - five days before the quake - 96 per cent of the males had fled. 

Monday, December 9, 2013

Flyer for Library

We are getting a great opportunity to present our research, robot and core values to members of the lego club at Ardsley Public Library. Special thanks to Marianne for organizing this, and hopefully we can get some future FLL and Jr FLL kids to get to hear about this exciting tournament. 

Saturday, December 7, 2013

Key Facts on Animal Behavior

Animals have senses far more accurate than those possessed by humans. Wild animals, in particular, have excellent senses of sight, smell, and even the ability to sense miniature vibrations, because those are the senses that help them survive. Many species also uses electromagnetic fields that are imperceptible by human to navigate or find prey. ­­ Research being carried out in China has indicated a recognition of unusual animal research systematically, is being used in conjunction with other methods as a means of predicting large and potentially destructive earthquakes. The following are examples of observations in unusual animal behavior before major earthquakes. 

Unusual animal behavior

In 1920, the largest earthquake hit China with a magnitude of 8.5, occurred in Ninghsia Province. Records eyewitnesses it shows that wolves were running around in packs, dogs unusually barking and sparrows flying around rapidly and wildly. It is reported that a five and a 6.8 magnitude earthquake struck in 1996, in northern China. All the dogs at a village near the epicenter had deserted their kennels and thus survive this disaster.

Prior to the earthquake of July 18, 1969 magnitude 7.4 in the Pohai Sea, unusual behavior of sharks seagulls and five different fish species was observed. Based on observations of giant pandas, dear yaks, tigers, and other animals, a warning was issued at the Tientsin people’s Park zoo, two hours before the earthquake struck.


The Chinese began to systematically study the unusual animal behavior and the earthquake of February 1975 was predicted successfully as early as in mid-December 1974. The most unusual circumstance of animal behavior was that of snakes came out of hibernation and froze on the surface of the earth. Also a group of rats appeared. These events were succeeded by a swarm of earthquakes at the end of December 1974. During the following month, in January 19, thousands of reports of unusual animal behavior was observed, and therefore saved millions of lives in the February 1975 quake.

This year's challenge (2013)

Can FIRST® LEGO® League teams help us master natural disasters? In the 2013 NATURE’S FURY℠ Challenge, over 200,000 children from over 70 countries will explore the awe-inspiring storms, quakes, waves and more that we call natural disasters. Teams will discover what can be done when intense natural events meet the places people live, work, and play. Brace yourself for NATURE’S FURY! - See more at: http://www.firstlegoleague.org/#sthash.E3zwy8dA.dpuf

What is FLL?

The FIRST LEGO League is an international competition organized by FIRST for elementary and middle school students. In September each year, a new challenge is announced that focuses on a different real-world topic related to the sciences.
More at http://www.firstlegoleague.org

Wednesday, December 4, 2013

Technology Class Presentation

The πthons team was really excited to be able to present their robotics work to the Ardsley Middle School 6th/7th/8th grade technology class students. This gave them the opportunity to talk about the FIRST Lego League Robot Game, and NXT programming, as well as present their research idea on Earthquake prediction to a wider audience.
There definitely was a lot of interest, with the students going hands-on writing their own code and operating the robot, some of them for the first time.

Special thanks to Mr Ponterio for giving us this opportunity.

Here are some pictures from the event..enjoy..

Don't forget to comment and provide any feedback..




6th Grade Class - NXT Programming Language Demo


8th Grade Class - Robot Game Demo
Hands on Programming

Apart from Robotic, we also talked about the research done on Earthquakes

Trying out their robots
Hands on  Programming