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July 2010 - Swinburne University of Technology

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JULY <strong>2010</strong> swinburne<br />

Dr Darryl Biggar, consulting economist at<br />

the AER, says this is an issue for deregulated<br />

electricity markets around the world. What<br />

has been lacking is a tool with sufficient<br />

computational power to model all <strong>of</strong> the<br />

components <strong>of</strong> electricity generation, delivery<br />

and consumption and the ability to measure<br />

how investment in transmission capacity<br />

would affect marketplace competition.<br />

The variables that determine this are<br />

numerous and require complex computer<br />

modelling that can integrate both engineering<br />

and economic factors – two quite disparate<br />

matrices.<br />

This is where Mohammad Hesamzadeh<br />

steps in. Though still to formally complete his<br />

PhD (on the economics <strong>of</strong> energy markets)<br />

under his supervisor, Dr Nasser Hosseinzadeh,<br />

who leads <strong>Swinburne</strong>’s Power Engineering<br />

Research Group, Mr Hesamzadeh has already<br />

published 15 research papers, five journal<br />

papers and has three others under review,<br />

bringing international attention to his groundbreaking<br />

work.<br />

His achievement has been to develop the<br />

first computer model, and future s<strong>of</strong>tware<br />

tool, that can assimilate the engineering<br />

parameters <strong>of</strong> electricity generation, the<br />

economics <strong>of</strong> wholesale and retail electricity<br />

markets, and the scale <strong>of</strong> transmission<br />

networks needed to join them all together.<br />

The unique aspect <strong>of</strong> Mr Hesamzadeh’s<br />

approach is that he has been able to<br />

conceptualise, intuitively, both the<br />

engineering and the economic variables and<br />

then undertake the painstaking process <strong>of</strong><br />

developing a mathematical model that melds<br />

them into a functional management tool.<br />

A measure <strong>of</strong> just how difficult this has<br />

been, and why it has never been previously<br />

achieved, is that Mr Hesamzadeh has been<br />

working 12 hours a day, seven days a week,<br />

for three years on this project, conceiving,<br />

writing, testing, reworking and retesting<br />

complex mathematical equations.<br />

He quips with a wry smile that it has been<br />

“brain eating” and that he is exhausted …<br />

then adds that the model so far developed has<br />

actually really only brought him to another<br />

starting point. He feels the progressive<br />

introduction <strong>of</strong> renewable energy from a mix <strong>of</strong><br />

generation sources will present more challenges<br />

for market regulators. He would also like to test<br />

his modelling on other complex, environmentdictated<br />

markets, such as water.<br />

To develop a model able to cope<br />

with numerous, fluctuating scenarios<br />

Mr Hesamzadeh has drawn on advanced<br />

computer algorithms, which draw on ideas<br />

from genetics and gaming principles (such<br />

as those that allow optimisation based<br />

on a sequential-move game to operate<br />

concurrently within a simultaneous-move<br />

game) to find the best strategies in a complex<br />

range <strong>of</strong> interactions.<br />

Electricity producers and sellers<br />

effectively become dynamic ‘players’ in a<br />

giant multi-faceted market game. And in the<br />

real world there is also the unknown impact<br />

<strong>of</strong> the Australian Government’s proposed<br />

Carbon Pollution Reduction Scheme and<br />

Renewable Energy Target.<br />

While building the model, Mr Hesamzadeh<br />

has worked closely with industry specialists,<br />

particularly Dr Darryl Biggar at the AER,<br />

testing his model on real-world conditions.<br />

Dr Biggar says Mr Hesamzadeh has made<br />

an important step towards giving regulators a<br />

tool for more accurate cost-benefit analyses<br />

<strong>of</strong> transmission investments and the impact<br />

on market competition.<br />

“The next step will be to see if what<br />

has worked on a comparatively small-scale<br />

network <strong>of</strong> about 20 generators will still work<br />

with the added complexities posed by a real<br />

world network <strong>of</strong> 200 generators,” he says.<br />

It was the opportunity to work more<br />

closely with the AER and Dr Biggar on<br />

actual scenarios that encouraged both<br />

Mr Hesamzadeh and Dr Hosseinzadeh to<br />

move to <strong>Swinburne</strong>. Both were previously<br />

at Central Queensland <strong>University</strong>, where<br />

Mr Hesamzadeh started his research in<br />

2007. His co-supervisor there was Pr<strong>of</strong>essor<br />

Peter Wolfs, now at Curtin <strong>University</strong> <strong>of</strong><br />

<strong>Technology</strong> in Western Australia.<br />

Mr Hesamzadeh had earlier graduated<br />

(top <strong>of</strong> class) at Shiraz <strong>University</strong> in Iran,<br />

with a diploma in mathematics, a degree in<br />

electrical engineering and a masters degree<br />

in science. He came to Australia under an<br />

International Postgraduate Research Award.<br />

Mr Hesamzadeh hopes the Australian<br />

electricity market will soon be the first to<br />

benefit from what he has achieved, though<br />

Dr Hosseinzadeh points out that others, such<br />

as the Californian and European market<br />

regulators, are also interested.<br />

His long-term ambition is to stay in<br />

research. “I have enjoyed the challenge <strong>of</strong><br />

the past three years. What we have achieved<br />

will be good for Australia … and it is<br />

rewarding to have created the beginning – a<br />

new approach to modelling – that will be<br />

good for science,” he says. ••<br />

* Brad Collis is author <strong>of</strong> Snowy – The<br />

Making <strong>of</strong> Modern Australia, the history <strong>of</strong><br />

the Snowy Mountains Hydro-Electric Scheme.<br />

CONTACT. .<br />

<strong>Swinburne</strong> <strong>University</strong> <strong>of</strong> <strong>Technology</strong><br />

1300 275 788<br />

magazine@swinburne.edu.au<br />

www.swinburne.edu.au/magazine<br />

Fast facts<br />

ADVANCED SOLAR FACILITY LAUNCHED<br />

• The Victoria-Suntech Advanced Solar Facility (VSASF), launched in<br />

Melbourne in June, aims to develop the next generation <strong>of</strong> solar cells.<br />

The facility, a collaborative venture between <strong>Swinburne</strong> <strong>University</strong> <strong>of</strong><br />

<strong>Technology</strong> and Suntech Power Holdings, one <strong>of</strong> the world’s leading<br />

producers <strong>of</strong> solar panels, has been partially funded by a $3 million grant<br />

under the Victorian Science Agenda Investment Fund. The collaboration will<br />

provide a platform for the partners to commercialise NANOPLAS,<br />

a nanoplasmonic solar cell technology developed at<br />

<strong>Swinburne</strong>. The new cell technology will allow for the efficient collection<br />

<strong>of</strong> solar energy, which could make them twice as efficient as the<br />

current generation <strong>of</strong> cells and significantly less costly to produce and<br />

therefore use.<br />

VOTERS AGAINST POPULATION GROWTH<br />

• More than two-thirds <strong>of</strong> Australian voters are against population growth<br />

according to new data from the 2009-10 Australian Survey <strong>of</strong> Social<br />

Attitudes. The survey, held from December 2009 to February <strong>2010</strong> and<br />

administered by the Australian Social Science Data Archives at the Australian<br />

National <strong>University</strong>, drew on a random sample <strong>of</strong> 3142 voters. The data,<br />

analysed by <strong>Swinburne</strong> researcher Associate Pr<strong>of</strong>essor Katharine Betts,<br />

shows that 69 per cent <strong>of</strong> voters believe Australia does not<br />

need more people, while 31 per cent believe it does. It also shows<br />

that: women are more likely to want a stable population than men (75 per<br />

cent compared to 62 per cent); voters living in Queensland are more likely to<br />

say no to growth (73 per cent) than voters in other areas; and voters living<br />

in the ACT are the least likely to say no to growth (50 per cent). Voters who<br />

wanted growth tended to give economic reasons, while those who wanted<br />

stability emphasised the need to train our own skilled workers and the need<br />

to protect the environment.<br />

‘MISSION CO2’ GAME LAUNCHED<br />

• Online energy and water-saving game ‘Mission CO2’ has been launched to<br />

encourage people to reduce their impact on the environment. <strong>Swinburne</strong> and<br />

the savewater! ® Alliance teamed up to create the interactive resource aimed<br />

at creating real-world behavioural changes in Australian teenagers. ‘Mission<br />

CO2’ covers the top 70 energy and water-saving ideas, giving teenagers<br />

practical tips to use around the house. The educational resource<br />

features seven characters, the ‘Carbon Tradies’, who<br />

guide players through a 3-D home setting, saving water and energy,<br />

reducing waste and choosing efficient transport. Through online play, users<br />

learn tips to help them in conserving resources in daily life.<br />

See www.missionco2.com<br />

A MILLION WOMEN TO TAKE ACTION ON CLIMATE CHANGE<br />

• <strong>Swinburne</strong> is a major partner in the ‘1 Million Women’ campaign, a<br />

national initiative created by the non-pr<strong>of</strong>it, non-partisan group Climate<br />

Coolers that aims to inspire one million Australian women to<br />

take practical action on climate change by cutting one<br />

million tonnes <strong>of</strong> carbon dioxide (CO 2 ), the main greenhouse<br />

pollutant causing global warming. Women, who make 70 per cent <strong>of</strong><br />

purchasing decisions in the home, are encouraged to make changes to the<br />

way they live, shop, commute, travel and buy to enable them to reduce their<br />

emissions by at least one tonne <strong>of</strong> CO 2 within a year. The website provides<br />

guidance on CO 2 saving activities and enables participants to track their<br />

progress.<br />

Women can join the campaign at www.1millionwomen.com.au<br />

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