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Tuesday, October 6, 2015

Investing in coal was once motivated by a desire to generate wealth

A look backwards through the Whitehaven Coal Annual Report of September 2015

A Year of Delivery - Whitehaven Coal Annual Report 2015 / page 79

DIVIDENDS

Paid During the Year
During the year the Company did not pay any dividends.
Declared After End of Year
Directors have resolved not to declare a dividend in respect of the 2015 financial year.

A Year of Delivery - Whitehaven Coal Annual Report 2015 / page 4

KEY ECONOMIC CONTRIBUTION

We contribute to the social and economic development of the communities in which we operate. The Company’s economic contribution was $470.1m in 2015. This includes:
  • $125.6m in payments including wages and superannuation to employees
  • $214.9m in payments to suppliers in the Gunnedah, Narrabri, Tamworth and Liverpool Plains shires
  • $129.6m in taxes and royalties to governments

A Year of Delivery - Whitehaven Coal Annual Report 2015 / page 2

FINANCIAL

Net loss after tax $342.7m


Investing in coal is now the way to make charitable "key economic contributions".

In 2015 shareholders very generously chipped in a lazy $342.7m towards the $470.1m Whitehaven Coal paid for "key economic contributions".
Whitehaven Coal Annual Report 2015 - Financial
Whitehaven Coal Annual Report 2015 - Financial

Monday, October 5, 2015

Treasury officials' blinkered view of innovation

"Australia's Economic Policy Challenges"

as seen through the eyes of

John Fraser | Secretary to the Treasury | 27 February 2015

I will spend a few minutes reflecting on the trends that we're seeing in the three drivers of long term economic growth — population, participation and productivity — and the implications for policy.

...the first key driver of economic growth in the medium term is population.

In recent years, Australia's population growth has been amongst the fastest in the developed world, driven by migration.

A growing population can be a source of dynamism for the economy.
The blinkered leading the blinkered
The blinkered leading the blinkered

It provides a larger domestic market for business, increases the size of the labour force and facilitates the injection of new ideas.

But it also places additional demands on government budgets in areas such as infrastructure, health and education.
...

The Government has commissioned a number of policy reviews that will recommend ways to enhance Australia's economic prosperity.

Making the most of these reform opportunities is essential, where three areas stand out as priorities for raising Australia's productivity performance.

The first is tax reform.

Studies have consistently shown that tax reform offers one of the largest policy opportunities to increase incomes and living standards.
...
Tax reform can promote strong investment and encourage workforce participation.

Our company tax rate is high by international standards.
...
A second priority is continuing to modernise the workplace relations system.

Workplace regulation has been progressively and substantially reformed in recent decades.

A more flexible workplace relations system that supports the economy will help Australia respond to the challenge of lifting productivity growth.
...
A third priority area for structural reform is driving greater competition in goods and services markets.

Ian Harper proposes that we apply competition law and a new set of competition principles to all purchasing activities of government such as health, education and aged care.

Even small improvements here, where government has a large footprint and where Australia's population will impose greater demands on health and aged care, can deliver big benefits over time.

Beyond the blinkered economics policy advice from Treasury - that must surely be overdue for a dose of its own advice on the value of fresh ideas inside Treasury itself - "a growing population can be a source of dynamism" - there are of course other places to look  for policy ideas for growing an economy.
For instance:
  1. "The effect of our poorly planned mental health system is a massive drain on the wellbeing of people and families, and on Australia’s productivity and economic growth. The economic cost of mental ill-health is enormous. Estimates range up to $28.6 billion a year in direct and indirect costs, with lost productivity and job turnover costing a further $12 billion a year - collectively $40 billion a year or more than two per cent of GDP,” Prof. Fels said. (See National Review of Mental Health Programmes and Services Report released, 16 April 2015)
  2. "The use of Information Technology in the production of goods and services has had a strong influence on productivity and economic growth in industrial and in newly industrialized countries... Information communications technology (ICT) is not only one of the fastest growing industries – directly creating millions of jobs – but it is also an important enabler of innovation and development." (See  Five ways technology can help the economy , 11 April 2013)
  3. "The International Energy Agency (the IEA) believes that the world needs a clean energy revolution in order to break dependence on fossil fuels. Such a revolution would enhance global energy security, promote enduring economic growth and tackle environmental challenges such as climate change. It would break the long-standing link between economic growth and carbon dioxide (CO2) emissions." (See  Clean Energy Technologies )

Saturday, October 3, 2015

Planning to phase-out fossil fuels in Australia

Australia has over-invested in electricity generation and distribution infrastructure. It has not invested adequately in building strategic reserves of transport fuels.

"One version of electric vehicles might use a battery for short trips and activate a hydrogen fuel cell on longer trips after the battery charge is depleted." A plan for transitioning the economy to zero reliance on fossil fuels could take advantage of the first of these issues and overcome the second issue at the same time. The plan would increase the use of electricity generation and distribution that is presently not being effectively used for the benefit of the economy and reduce the reliance on transport fuels for which there are inadequate strategic reserves.

The transition from leaded to unleaded transport fuels begun in 1981 with a target end-date of 2002 is a good example of how the adoption of a long-term policy simplifies the making of investment decisions of stakeholders for new plant and equipment.

Vehicle manufacturers at present face considerable uncertainty in predicting which of the emerging clean fuel transport systems will win out in the long run.
Fuel cell electric vehicle with battery for short trips
Fuel cell electric vehicle with battery for short trips

Adopting a policy for the introduction of electric vehicles would reduce that uncertainy. Allowance can still be made for competing technologies that are quickly evolving. Fuel cells for instance that produce electric power from, say, hydrogen, are not that dissimilar from batteries that store and recharge electrolyte in situ. Vehicles using either, or both, of these energy supply systems would be powered by electric motors regardless of which these two evolving technologies provides the electricity. One version of electric vehicles might use a battery for short trips and activate a hydrogen fuel cell on longer trips after the battery charge is depleted.

Both renewable and fossil fuel investments for generating and distributing electricity can be utilised at close to full capacity to provide electricity for recharging electric battery powered vehicles.

Both of these investments can also be used to manufacture hydrogen for fuel-cell powered electric vehicles.

This plan would encourage continuing expansion and technological advances in renewable energy without the need to immediately write off substantial capital invested in fossil fuel power plants.

It would give this existing investment (or excess investment) in fossil fuel plants both an extended life and a definite expiry date. Rather than keeping them running at partial capacity to supply a diminishing share of fixed energy needs, they could begin to take over demand for transport fuels. The expiry date for these power plants would be extended to the date by which ongoing investments in renewable energy are planned to take over 100 percent of both fixed energy and transport energy needs of the Australian economy.

Update, 29 February 2016

Budget savings of $150 billion by eliminating dependence on imported transport fuel

The Australian Government's 2016 defence white paper reveals the economic impact of relying on imported transport fuel.

THE cost of Australia's new fleet of submarines could blow out to $150 billion after the defence white paper confirmed the price tag. 

The strategic importance of this military hardware is explained in a number of documents. This is a typical example:

ASPI Future Submarine Conference
The Role of Submarines in a Maritime Strategy
VADM Ray Griggs, Chief of Navy
9 April 2014
"Good Morning Minister for Defence, Senator the Honourable David Johnston, Mr Stephen Loosley, Mr Peter Jennings, Former Chiefs of Navy, Ladies and Gentlemen. I’m delighted to be able to speak to you about submarines in Australia’s maritime strategy.

My intention today is to provide as objective a view as possible of the strategic rationale for submarines in Australia’s defence forces. More than anyone else, I understand it’s about much more than the platform but I do want to focus on the role of the platform because, let’s not kid ourselves, along with the people, the platform is the key component in the capability.

…

The recent NRMA Study on Australia’s liquid fuel security is for me a significant case in point. Who here is really comfortable that a serious interruption to our liquid fuel supplies to this country would, within a month, have significant impacts on our economy and society?

That is why Navy’s contribution to the effective operation of the maritime global trading system is so important. Those contributions are needed around the system, not just in a tight set of concentric rings drawn around Darwin. These contributions are more sophisticated than traditional notions of SLOC protection and that is something we need to explore. So, as we discuss the role of submarines in our national maritime strategy, it’s important to keep in mind the stakes we are considering."


From a paper by Troy Whitford, Fuel Mandates have a History of Success and a Lesson for Bio Fuels Implementation. Australian Policy and History, April 2010.
URL: http://aph.org.au/fuel-mandates-have-a-history-of-success-and-a-lesson-for-bio-fuels-implementation/
"In 1981, Australian state and federal transport ministers met to address pollution problems. Driving the shift towards unleaded petrol were vast environmental and health concerns.

During the 1980s, automobile associations were critical of the introduction of unleaded fuel. The RACV opposed the implementation believing it was too costly. The oil industry was cynical, too, arguing the introduction of unleaded fuel did not follow from a technological breakthrough but rather a decision by ministers. Without doubt, the position taken by oil companies, automobile associations and other stakeholders regarding unleaded fuel changed over time.

Despite opposition to unleaded fuel, the Transportation Council adopted a program to mandate unleaded petrol by 1985. The implementation policy for unleaded fuel was undertaken in stages. Initially, regulations were made calling for all new motor vehicles made after January 1986 (manufactured within Australia or imported) to meet the new fuel requirements. The policy then called for a complete phase out of leaded fuel by 2002. Prior to the national mandate, states had led the way on unleaded fuel of which NSW took the lead. The decision to mandate was essential for implementing unleaded fuel. It forced car manufacturers, oil producers and consumers to make the transition."

Thursday, July 16, 2015

Wind turbines complement coal, natural gas and liquid fuels

New German technology converts 2 gigawatt-hours of off-peak electricity from wind turbines into hydrogen in its first year of operation. (See E.ON Wind Energy Gas Storage GmbH)

For private households the “Wind-to-Hydrogen” product can be obtained as a mix of 90 % natural gas and 10 % regenerative hydrogen.

This technology competes with battery energy storage. The commercial value of hydrogen and oxygen from off-peak wind energy has to be weighed up by investors against the cost of storing this off-peak energy in batteries for resale at a higher price during peak periods.
Wind farm energy to hydrogen and oxygen
Wind energy to hydrogen and oxygen

There are opportunities to expand the market for hydrogen and oxygen from low-cost off-peak electricity generated by wind farms:
  • Oil refineries consume a vast amount of hydrogen to produce transport fuels. At present refineries use natural gas to make hydrogen.
  • Oxygen from wind turbine electrolysis units can cut the reliance on air separation plants making oxygen for use in coal gasification. (The process of gasifying coal and municipal or crop waste with pure oxygen also lowers the cost of separating carbon dioxide - itself a valuable product in the emerging algae-oil industry and traditional markets such as fertiliser manufacture.)

The Purox process was developed by Union Carbide in the early 1970's

Air may be cheap but from a thermal-efficiency perspective it's expensive because only one fifth of air is oxygen with nitrogen forming the remaining four fifths. Gasifiers that use air as the oxidizing gas have to heat up five times as much air than one using pure oxygen as the oxidizer and separating carbon dioxide from large volumes of nitrogen is an expensive process.

In the mid-1970's pure oxygen was produced by the fractional distillation of liquid air, a process which is energy intensive and technologically challenging.

Obsolete technology and the end of poverty

With the coal lobby flogging obsolete coal-fired power technology as a solution to poverty it must be time to dust off the factories that made incandescent light bulbs, black and white televisions, MS-DOS computers and all the other clapped-out technology so lovingly cherished and then discarded by advanced economies.

Clapped-out technology to fight poverty!

Radio Technology Museum, New Jersey
Radio Technology Museum, New Jersey







Monday, July 13, 2015

The coal industry needs better advice from business analysts and chemists

While the coal industry invests in political lobbyists and advertising agencies its future grows dim.

Sales volume is not a measure of success

Producing ever increasing volumes of any commodity at steadily falling prices is a well-trodden path to oblivion. The Australian fine merino wool industry has "been there, done that."

Australian thermal coal price


Peabody Energy share price chart

Innovation that reduces efficiency is misguided

"Leading edge" super-critical coal-fired power stations are far less efficient than modern gas-fired power stations. This technology is obsolete having been overtaken by rival technologies.


How an industry can lift the return per kilogram of carbon

To remain viable an industry needs innovation that lifts the return per unit of production. Coal gasification is a step in this process. The energy market is not the only game in town.

Farming needs stable supplies of fertiliser, one of which is urea. Urea is manufactured from carbon dioxide, sells for around $350 per tonne and has 200 kilograms of carbon in each tonne (ref: WebQC.org Chemical Portal).

Contrast this with thermal coal that sells for around $80 per tonne and has 610 kilograms of carbon in each tonne (ref: Coal conversion statistics.)


Urea price per tonne chart


Urea is made from carbon dioxide



The coal industry doesn't appreciate the commercial potential of carbon dioxide.

Algae can manufacture 1,000 kilograms of edible oil that contains about 750 kilograms of carbon from water, carbon dioxide and sunlight. Algae consume 2.75 tonnes of carbon dioxide to make a tonne of edible oil. Prices range from $1,000 to $5,000 per tonne.
"Nutraceuticals are various products that range from isolated nutrients, dietary supplements and herbal products, to processed foods and beverages. With the correct blend of enriched nutrients using custom selected micro-algae as a source, Algae.Tec is able to deliver specialty high value oils, antioxidant-rich products and supplements, as well as edible oils and pigments, which provide a variety of health benefits. This approach is a sustainable alternative to current feedstock options, for items such as Omega-3s, which are derived from static fish supplies. The Algae.Tec advantage provides both a quality and consistent product that meets the needs of many nutraceutical applications." (Source: Algae.Tec website)

Edible oil price chart

Friday, June 26, 2015

Better concentrated solar power (CSP) stations

Concentrating solar thermal power stations convert as little as 25 to 30 percent of collected solar energy into electrical energy and need large thermal energy storage systems that add to the cost of construction.

Existing technology allows solar thermal energy to be converted into electrical energy with an effective efficiency of 90 percent and eliminates the need for thermal energy storage systems.

Burning hydrocarbons and carbohydrates - energy used and released

What the diagram represents is that 1 kilogram (2.2 lbs) of brown coal is decomposed into carbon monoxide and hydrogen by absorbing 5.54 megajoules of heat energy. 

The resulting carbon monoxide and hydrogen then releases 14.14 megajoules of heat energy when it combines with oxygen to produce carbon dioxide and water vapour.

The net heat energy available from burning this kilogram of brown coal is the difference between these two energy flows: 14.14 - 5.54 = 8.60 megajoules of heat energy.

Burning a kilogram of brown coal in a coal-fired power station allows a proportion of this 8.60 megajoules of heat energy to be converted to electricity.  Typically only about 40 percent is delivered as electricity: around 0.96 kilowatt-hours.

A different way of converting brown coal to electricity enables a far greater amount of electricity to be produced from each kilogram:
  • First each kilogram of brown coal is decomposed into carbon monoxide and hydrogen by absorbing 5.54 megajoules of concentrated solar thermal energy.  
  • Second, the resulting carbon monoxide and hydrogen releases 14.14 megajoules of heat energy when it combines with oxygen to produce carbon dioxide and water vapour in a gas power plant. Typically about 60 percent is delivered as electricity: around 2.36 kilowatt-hours.

The coal needed to produce 0.96 kilowatt-hours of electricity is reduced from 1 kilogram (2.2 lbs) to just 405 grams (14.3 ozs).