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Macquarie and Analog Devices announce partnership to develop the next generation of design engineers

New lab designed to meet the demands of the next wireless revolution

Macquarie’s School of Engineering today announced a partnership with semiconductor company Analog Devices, Inc. (Nasdaq: ADI) to launch the Macquarie and Analog Devices Teaching and Research Laboratory (MADTRL).

The new teaching and research lab will bring industrial experience into Macquarie University, to better prepare the next generation of engineers.

“Traditionally, undergraduate engineering education has been structured around classroom theory, laboratory exercises, and a relatively disconnected industry-placement or internship system,” says the School of Engineering’s Professor Michael Heimlich.

“Similarly, Masters and PhD work is typically done in an academic setting with inputs and arms-length interactions with the ‘real world’ at best.”

Many emerging applications ranging from 5G mobile networks to low Earth orbit satellite constellations will require new design paradigms to meet their technical needs and cost constraints.

Analog Devices hopes this partnership will help develop the next generation of microwave and millimetre-wave integrated circuit (MMIC) designers to meet the demand.

“Macquarie University has a history of world class MMIC design and modelling expertise,” says Analog Devices’ Senior Director of Engineering, John Cowles.

“Bringing these technical skills closer to real product development is critical towards accelerating the introduction of next generation technologies into emerging high frequency applications. The merging of design innovation with world class manufacturing is what makes this partnership so exciting.”

The future of electronics is chemical

We can’t cram any more processing power into silicon-based computer chips.

But a paper published in Nature overnight reveals how we can make electronic devices 10 times smaller, and use molecules to build electronic circuits instead.

We’re reaching the limits of what we can do with conventional silicon semiconductors. In order for electronic components to continue getting smaller we need a new approach.

Molecular electronics, which aims to use molecules to build electronic devices, could be the answer.

But until now, scientists haven’t been able to make a stable device platform for these molecules to sit inside which could reliably connect with the molecules, exploit their ability to respond to a current, and be easily mass-produced.

An international team of researchers, including Macquarie University’s Associate Professor Koushik Venkatesan, have developed a proof of concept device which they say addresses all these issues.

Their research was published overnight in Nature.

Why bluetongue lizards’ tongues are blue

Bluetongue lizards use their tongues as a last-ditch effort to avoid being eaten, according to the latest research from the Lizard Lab at Macquarie University in Sydney. [Read more…] about Why bluetongue lizards’ tongues are blue

Brainwave to let Parkinson’s patients sleep through surgery

Melbourne scientists have discovered a unique brain signal that will act as a homing device, making deep brain stimulation surgery for Parkinson’s disease and other conditions more accurate, more effective, and less confronting for the patient.

https://www.youtube.com/watch?time_continue=2&v=opD7RHIVuXY&rel=0

Deep brain stimulation has transformed the lives of people with Parkinson’s disease by reducing their tremors and other symptoms. Surgeons insert electrodes to stimulate a tiny part of the brain—the size of a grain of rice. To get the best results the patient has to be awake. And that’s scary for many patients. Now they can sleep through the surgery.

Bionics Institute clinicians and researchers have recorded and studied the brainwaves of 19 patients during surgery—14 with Parkinson’s disease and five with a condition called essential tremor. They discovered that the part that they’re targeting produces a unique brain signal that can be used to guide the surgeon.

This discovery will enable the surgery to be performed without the need for the patient to be awake.

Are damselflies in distress?

How are insects responding to rapid climate change?

Molecular Ecology paper Monday, 30 April 2018

Damselflies mating — The blue-tailed damselfly (*Ischnura elegans*) in mating formation. Photo: Rachael Dudaniec

Damselflies are evolving rapidly as they expand their range in response to a warming climate, according to new research led by Macquarie University researchers in Sydney.

“Genes that influence heat tolerance, physiology, and even vision are giving them evolutionary options to help them cope with climate change. Other insects may not be so lucky,” says Dr Rachael Dudaniec, lead author of the paper.

The study, published in Molecular Ecology today, investigated the genetics of an insect’s capacity to adapt and survive in a changing world by looking at the blue-tailed damselfly (Ischnura elegans) in Sweden.

Science Communicator position – now closed

We’re looking for a science communicator to join our team at Science in Public. We need someone who is organised, loves science and wants to help scientists get their work into the public space.

Tiny diamonds light the way for new quantum technologies

Dr Thomas Volz in the Diamond Nanoscience Lab

Nature Communications paper Tuesday, 31 October 2017

Background information below.

Macquarie University researchers have made a single tiny diamond shine brightly at room temperature, a behaviour known as superradiance.

Prime Minister’s Prizes for Science – dinner photos

For hi-res versions please click on the photo and then right click to download the file.

2017 Prime Minister’s Prizes for Science recipients with the Minister and Prime Minister (L-R) Eric Reynolds, Brett McKay, Dayong Jin, Minister Michaelia Cash, Prime Minister Malcolm Turnbull, Jenny Graves, Neil Bramsen and Jain Yang. Credit: Prime Minister’s Prizes for Science

Jenny Graves receives the Prime Minister’s Prize for Science from Minister Michealia Cash and Prime Minister Malcolm Turnbull. Credit: Prime Minister’s Prizes for Science

A 3D printed rocket engine – made in Melbourne

Monash engineers have designed, printed, and test-fired a rocket engine.

Media call 9.30 am, Monday 11 September, Woodside Innovation Centre, New Horizons Building, 20 Research Way, Monash University, Clayton

HD footage of static rocket testing and metal printers at work
Media contact: Niall Byrne, 0417-131-977, niall@scienceinpublic.com.au

The new rocket engine is a unique aerospike design which turns the traditional engine shape inside out.

Two years ago, Monash University researchers and their partners were the first in the world to print a jet engine, based on an existing engine design. That work led to Monash spin-out company Amaero winning contracts with major aerospace companies around the world.

Now a team of engineering researchers have jumped into the Space Age. They accepted a challenge from Amaero to design a rocket engine, Amaero printed their design, and the researchers test-fired it, all in just four months. Their joint achievement illustrates the potential of additive manufacturing (or 3D printing) for Australian industry.

3D printed rocket engine – backgrounder and links

Quick facts

A joint Monash University/Amaero team of engineers successfully designed, built, and tested a rocket engine in just four months
The engine is a complex multi-chamber aerospike design
Additively manufactured with selective laser melting on an EOS M280
Built from Hasteloy X; a high strength nickel based superalloy
Fuel: compressed natural gas (methane); oxidiser: compressed oxygen
Design thrust of 4kN (about 1,000 pounds), enough to hover the equivalent of five people (about 400 kg)

The 3D printed or Additive Manufactured aerospike rocket engine is the result of a collaboration between a group of Monash University engineers and Amaero Engineering, supported by Woodside Energy and Monash University.

Engineers at Amaero approached a team of Monash engineering PhD students, giving them the opportunity to create a new rocket design that could fully utilise the near limitless geometric complexity of 3D printing.

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