Merck, a leading science and technology company, is proud to support DeadlyScience’s new program DeadlyLab to create STEM learning kits for students in remote areas. The kits will explore chemistry, physics, and biology with experiments based in Indigenous science.
DeadlyScience was founded in 2019 by proud Kamilaroi man Corey Tutt OAM, and has delivered more than 20,000 books, 500 telescopes and countless other learning tools to students in remote communities.
Now, Merck and DeadlyScience are partnering with Indigenous communities, Elders, and Indigenous subject-matter experts to create experiments, complete with worksheets and video tutorials, that can be used in school classrooms or at home.
“We work with hundreds of remote schools, who collectively have more than 28,000 students. Over 75% are Indigenous.
“We want to get them engaged with science, help them learn with play and hands-on experience, and show them Indigenous scientists. You can’t be what you can’t see,” says Corey.
Each year in early July, when its 700 students are on holiday, Townsville State High School becomes the headquarters for a V8 Supercars race.
But before and after the race, Sarah Chapman’s Year 11 science students are hard at work, slopping their way through the nearby mangroves and wading into the neighbouring estuary. The data they collect is then used by the Great Barrier Reef Marine Park Authority to manage the impact of the race on local estuaries. “The students are really taken by the idea that they are finding out things nobody else knows,” Sarah says.
Daniel Tran, a year ten student at PAL College in Cabramatta, a suburb in southwestern Sydney, has photographed the Glowing Eye Nebula, a ghostly cloud of gas that has lasted at least 3,000 years and surrounds a dying star some 7,000 light years from Earth.
Daniel took the photograph using one of the world’s biggest telescopes—the giant 8.1metre Gemini South telescope in Chile, in which Australia has a 6.2 per cent share. His precious hour’s worth of observing time on the telescope was the 2009 prize for winning the Australian Gemini School Astronomy Contest, which aims to inspire the next generation of Australian astronomers by involving students in the process of real astronomy at a major professional facility. Continue reading A student’s out-of-this-world experience→
Advanced telescopes need advanced astronomers to run them. Australia is matching the millions of dollars it is investing in new telescope technology with funds to help train the rising stars of Australian astronomy.
“We’ve had big investments in infrastructure, and now we need young scientists with the expertise to use them,” says Elaine Sadler, professor of Astrophysics at the University of Sydney and chair of the National Committee for Astronomy.
One new tranche of research funding for early career astronomers comes in the form of three-year Super Science Fellowships from the Commonwealth Government. In 2011, 14 young astronomers became Super Science Fellows, joining the 17 who started work in 2010. All up, astronomy will receive one-third of the Federal Government’s $27 million commitment to the Fellowships program. Continue reading Nurturing super astronomers at home→
You have to be well prepared, quick and lucky to take a picture of an explosion, especially if that explosion occurred 11 billion years ago in a remote part of the Universe. Having the right equipment, plus friends in high places, certainly helps. And that’s exactly what the Zadko Telescope—managed by the University of Western Australia at the Gingin Observatory about 70 kilometres north of Perth—does have.
In December 2008, just after it was installed, the telescope was first on the scene to record for future analysis the afterglow of a momentous event—a huge explosion as a star collapsed into a black hole releasing a massive gamma-ray burst. It’s the kind of happening the one-metre Zadko Telescope, currently the largest optical telescope in Western Australia, was built to observe. And it performed flawlessly, outpacing the world’s most powerful telescopes at the European Southern Observatory in Chile.
The CRC Programme has contributed funding towards the most comprehensive pilot project in the world to commercially test the storage and monitoring of concentrated carbon dioxide deep underground in geological formations, undertaken by the CRC for Greenhouse Gas Technologies.