Author: Neville

  • Marine algae show resilience to carbon dioxide emissions

    Marine algae show resilience to carbon dioxide emissions

    Posted By News On April 15, 2013 – 3:00pm

    Marine algae show resilience to carbon dioxide emissions
    A type of marine algae could become bigger as increasing carbon dioxide emissions are absorbed by the oceans, according to research led by scientists based at the National Oceanography Centre, Southampton (NOCS).

    The study, published this month in PLoS ONE, investigated how a strain of the coccolithophore Emiliania huxleyi might respond if all fossil fuels are burned by the year 2100 – predicted to drive up atmospheric CO2 levels to over four times the present day. Specimens grown under this high CO2 scenario were compared with specimens grown under present day CO2 levels.

    Coccolithophores are microscopic algae that form the base of marine food chains. They secrete calcite shells which eventually sink to the seafloor and form sediments, drawing down and locking away carbon in rocks. Because of their calcitic shells, some species have been shown to be sensitive to ocean acidification, which occurs when increasing amounts of atmospheric CO2 are absorbed by the ocean, increasing seawater acidity.

    But these findings suggest that not all coccolithophore species respond to ocean acidification in the same way.

    “Contrary to many studies, we see that this species of coccolithophore gets bigger and possesses more calcite under worst-case scenario CO2 levels for the year 2100,” says Dr Bethan Jones, lead author and former researcher at University of Southampton Ocean and Earth Science, which is based at NOCS. “They do not simply dissolve away under high CO2 and elevated acidity.”

    The image shows two Emiliania huxleyi coccoliths, one grown under present day CO2 conditions, and one grown under CO2 levels over four times the present day. Diameters are 4.5 micrometres and 6 micrometres, respectively. The images were taken using a scanning electron microscope. Credit: Bethan Jones

    (Photo Credit: Bethan Jones)

    However, the researchers also observed that cells grew more slowly under the high CO2 scenario, which could be a sign of stress.

    The researchers also tested for changes in protein abundance – using a technique developed by the collaborating institutes – as well as other biochemical characteristics. They detected very few differences between the two scenarios, indicating that apart from growth, this strain of coccolithophore does not seem to be particularly affected by ocean acidification.

    Co-author Professor Iglesias-Rodriguez, formerly at University of Southampton Ocean and Earth Science, says: “This study suggests that this strain of Emiliania huxleyi possesses some resilience to tolerate future CO2 scenarios, although the observed decline in growth rate may be an overriding factor affecting the success of this ecotype in future oceans. This is because if other species are able to grow faster under high CO2, they may ‘outgrow’ this type of coccolithophore.

    “Given that chalk production by calcifiers is the largest carbon reservoir on Earth – locking away atmospheric CO2 in ocean sediments – understanding how coccolithophores respond to climate change is a first step in developing models to predict their fate under climate pressure such as ocean acidification.”

    The team used a technique called ‘shotgun proteomics’, optimised for marine microbiological research at the University of Southampton’s Centre for Proteomic Research, to detect changes in proteins under the different CO2 scenarios.

    Source: National Oceanography Centre, Southampton (UK)

    Read more at http://www.sciencecodex.com/marine_algae_show_resilience_to_carbon_dioxide_emissions-110402#sf2o3AUGIWVMAXfM.99

  • NASA and JAXA’s GPM Mission Takes Rain Measurements Global

    NASA and JAXA’s GPM Mission Takes Rain Measurements Global

    Apr. 15, 2013 — As anyone who has ever been caught in a sudden and unexpected downpour knows, gaps still exist in our knowledge about the behavior and movement of precipitation, clouds and storms. An upcoming satellite mission from NASA and the Japan Aerospace Exploration Agency (JAXA) aims to fill in those gaps both in coverage and in scientists’ understanding of precipitation.

    ——————————————————————————–

    Share This:

    1

    Related Ads:
    •Climate Change
    •Satellite
    •Dry Weather
    •NASA

    See Also:

    Earth & Climate
    •Weather
    •Severe Weather
    •Water
    •Geography
    •Storms
    •Climate

    Reference
    •Instrumental temperature record
    •Precipitation (meteorology)
    •Temperature record
    •Supercell

    The Global Precipitation Measurement, or GPM, mission will set a new standard for precipitation measurements from space and it’s doing so by joining forces with countries around the world, keeping not just one satellite’s weather eye on the horizon, but nine.

    “We need virtually continuous observation everywhere to construct a complete picture of precipitation around the globe, and that requires a lot of resources,” said Arthur Hou, GPM project scientist at NASA’s Goddard Space Flight Center in Greenbelt, Md. “Precipitation does not recognize national boundaries. It is in the best interest of every nation to pool resources together to make the best possible measurements through partnership.”

    For the GPM mission, NASA and JAXA are joining forces with the space agencies of France and India, as well as the operators of meteorological satellites in Europe and the United States. The eight partner satellites on the mission are called the GPM constellation.

    “Each of the constellation members has its own scientific or operational objectives, but they all contribute data to GPM to create a unified global precipitation data product every three hours,” said Hou.

    At the center of this effort is the GPM Core Observatory, a satellite that will unify all the measurements from the constellation. The high quality measurements made by the GPM Core Observatory will serve as a reference standard for improving the accuracy of precipitation measurements made by other satellites.

    Building on the success of the NASA and JAXA Tropical Rainfall Measuring Mission (TRMM), GPM carries two instruments. The GPM Microwave Imager (GMI) — provided by NASA — will estimate precipitation intensities from heavy rain, light rain and falling snow by carefully measuring the minute amounts of energy naturally emitted by precipitation. The Dual-frequency Precipitation Radar (DPR) — provided by JAXA — will make detailed measurements of three-dimensional rainfall structure and intensity. Together the two instruments will combine with the core’s near-global coverage of Earth and data from the constellation satellites to give a more complete picture of global precipitation.

    Pole-to-Pole Coverage

    GPM’s predecessor, the TRMM satellite, revolutionized scientists’ view of precipitation with its highly sensitive and high-resolution observations. But TRMM was designed to measure moderate to heavy rainfall over the tropics, from 35 degrees latitude north and south of the equator. Most of Europe, the northern portion of the United States, Canada and Japan are outside of TRMM’s view. When launched, GPM’s coverage will expand beyond TRMM’s into those mid- and high latitudes. Its orbit from 65 degrees north latitude to 65 degrees south latitude will mean measurements of precipitation across 90 percent of Earth’s surface, from about the Arctic Circle to the Antarctic Circle.

    Expanding coverage also means expanding the types of precipitation that GPM will measure, most notably light rain and snowfall. They account for about half of the precipitation in temperate mid-latitudes and cold high latitudes and are major contributors to freshwater resources in places like the United Kingdom and northern Europe, the southern Appalachian Mountains, and the snow packs of the Rocky Mountains and the Sierra Nevada.

    Measuring snow and light rain from space is a technical challenge because of their small size, and the multitude of shapes of ice crystals, said Gail Skofronick-Jackson, GPM’s deputy project scientist at NASA Goddard and a specialist in detecting snow from space.

    The advancements on the GMI radiometer include an increased sensitivity to light rain and for the first time snowfall, and the two radar channels on the DPR will provide information on the size and shapes of raindrops and snowflakes, which will improve estimates of how much water they hold. “We’re very excited about this new capability,” said Skofronick-Jackson.

    The new data on light rain and snow, like all the measurements GPM will make, won’t just affect the weather forecast. They will also improve what climate modelers can say about the distribution of rainfall in the coming years. “As the Earth’s temperature warms, most models predict that we’ll have more heavy rain events, but they disagree on whether we’ll have more or less light rain,” said Hou. “GPM data will help us to clarify that.”

    A Song of Water and Heat

    As part of Earth’s climate system, precipitation tells us about the ways energy moves around the planet. Hou says energy and precipitation are connected through the process of how water vapor in the atmosphere is converted into liquid or ice particles that make up clouds, rain and snow.

    This process releases heat energy, called latent heat, into the atmosphere. You can see this happening in thunderstorm clouds: The release of heat causes air masses to rise and grow upward in a tall, billowing shape. This vertical movement of air masses creates pressure changes and wind — ultimately influencing how large-scale winds circulate and transport heat around the globe, which then affects local climate.

    Precipitation at Earth’s surface is the signature of the total latent heat released throughout an atmospheric column above it. Scientists will use the combined moisture information from the GMI with the DPR’s three-dimensional images of precipitation to get a better understanding of the mechanisms and behavior of latent heat structures that evolve with clouds and precipitation.

    Now Presenting: Rain in 3-D

    Studying latent heat in storms dovetails with the direct need to study storm behavior, especially of hurricanes and tropical cyclones that can have devastating effects in terms of flooding, landslides, economic damage and loss of life.

    The first space-borne precipitation radar on the TRMM satellite changed the way scientists understood storms. Its single radar frequency provided a new three-dimensional view of how systems like hurricanes grow and intensify as they move through the tropics. When the GPM Core Observatory satellite launches, its DPR will have a second radar frequency that will not only add precision, but will also give scientists the ability to infer the microphysical processes that govern rain droplets and snowflakes within storm systems, including the process of condensation that produces latent heat. Additional heat accumulating high up in a storm is one of the signs that it’s about to intensify, which is valuable information for forecasters.

    Even more valuable will be the ability to continue to observe intense storms, like Superstorm Sandy, which devastated the New Jersey and New York coasts in October of 2012, as they move north or south into the middle and higher latitudes. The GPM Core’s expanded coverage will give scientists a window into understanding how individual storms like Sandy intensify and change over the course of their entire life cycles.

    “Satellite data are already being used operationally to improve weather forecasts,” said Hou. “GPM data will be of much higher quality and that will enable the operational agencies to continue to improve their forecast products.”

    GPM will also be used to improve other computer models, including those for understanding and predicting climate, floods, watershed hydrology and crop forecasting. One of the moving parts they each depend on is accurate and frequent observations of rain, sleet, hail, snow and other forms of precipitation. Global GPM data will be part of fitting the puzzle pieces together.

    “When most people start a puzzle, they do the edge pieces first. Other satellites have started that, but the GPM Core is really poised to complete the boundaries so we can understand how liquid rain and frozen precipitation fall out of clouds,” said Skofronick-Jackson. The constellation observations fill in the rest of that puzzle, she said, “so that we have a complete understanding both scientifically and structurally of precipitation so we can apply it to all sorts of applications.”

    The GPM Core Observatory, the largest satellite to be built and tested at Goddard, will be transported from Maryland to Tanegashima Island in Japan, where it will launch on a Japanese H-IIA rocket in early 2014.

    For more information about the GPM mission, visit:
    •http://www.nasa.gov/gpm
    •http://gpm.nasa.gov

    Share this story on Facebook, Twitter, and Google:

  • Seasonal Patterns of Tropical Rainfall Changes from Global Warming Revealed

    Seasonal Patterns of Tropical Rainfall Changes from Global Warming Revealed

    Apr. 15, 2013 — Projections of rainfall changes from global warming have been very uncertain because scientists could not determine how two different mechanisms will impact rainfall. The two mechanisms turn out to complement each other and together shape the spatial distribution of seasonal rainfall in the tropics, according to the study of a group of Chinese and Hawaii scientists that is published in the April 14, 2013, online issue of Nature Geoscience.

    ——————————————————————————–

    Share This:

    9

    Related Ads:
    •Climate Change
    •Global Warming
    •Dry Weather
    •Daily Rainfall

    See Also:

    Earth & Climate
    •Weather
    •Global Warming
    •Water
    •Environmental Issues
    •Climate
    •Severe Weather

    Reference
    •Infiltration (hydrology)
    •Precipitation (meteorology)
    •Consensus of scientists regarding global warming
    •Monsoon

    The one mechanism, called “wet-gets-wetter,” predicts that rainfall should increase in regions that already have much rain, with a tendency for dry regions to get dryer. The second mechanism, called the “warmer-gets-wetter,” predicts rainfall should increase in regions where sea surface temperature rises above the tropical average warming.

    The team of scientists compared current rainfall in the tropics with future rainfall projections from simulations of 18 cutting-edge climate models forced with a likely scenario of atmospheric greenhouse gas concentrations. They found that rainfall in the models increases more in regions that currently are already wet and decreases slightly in currently dry regions, supporting the wet-gets-wetter mechanism. But they also found evidence for the warmer-gets-wetter mechanism in that the higher the surface temperature in a region, the more the rainfall. By merging the impact from the two mechanisms, they noted that they could account for nearly 80 percent of the variations in the models’ projected rainfall changes from global warming.

    The complementary action of the two mechanisms is because the pattern of ocean warming induces more convection and rainfall near the Equator, where the temperature warming peaks, and subsidence and drying further away from the Equator, reflecting the warmer-gets-wetter view. But as this band of increased rain marches back and forth across the Equator with the Sun, it causes seasonal rainfall anomalies that follow the wet-gets-wetter pattern.

    The wet-gets-wetter mechanism contributes more to the projected seasonal rainfall changes, whereas the warmer-gets-warmer mechanism more to the mean annual rainfall changes.

    “Because our present observations of seasonal rainfall are much more reliable than the future sea surface temperatures, we can trust the models’ projections of seasonal mean rainfall for regional patterns more than their annual mean projections,” says co-author Shang-Ping Xie, meteorology professor at the International Pacific Research Center, University of Hawaii at Manoa and Roger Revelle Professor at Scripps Institution of Oceanography, University of California at San Diego. “This is good news for monsoon regions where rainfall by definition is seasonal and limited to a short rainy season. Many highly populated countries under monsoon influences already face water shortages.”

  • Planning reforms mean new homes in NSW could get approval from councils in just 10 days

    Planning reforms mean new homes in NSW could get approval from councils in just 10 days

    EXCLUSIVE by Vikki Campion
    The Daily Telegraph
    April 16, 201312:00AM

    Increase Text Size
    Decrease Text Size
    Print
    Email

    NEW homes could be approved within 10 days under radical changes to planning laws that are tipped to spark a construction boom in Sydney.

    In a bid to address the state’s housing shortage and affordability crisis, councils will be forced to give the green light to 80 per cent of all suitable NSW buildings in just 25 days, according to a state government white paper to be released today.

    As long as new homes and renovations are under two storeys and do not affect neighbours with overshadowing or privacy issues, authorities will have to give their rulings within 10 days or risk losing decision-making powers on major projects.

    Suitable apartments in town centres, developments of up to 20 townhouses, new shops and land subdivisions will also get the go-ahead in less than a month.

    Councils currently take an average of 71 days to decide on new development, from garages to subdivisions, and more than eight months on developments worth more than $5 million, such as apartment blocks.

    “If you put in a DA for a new house that meets all the requirements, you shouldn’t have to wait for up to two or three months to get an approval like you do now,” Planning Minister Brad Hazzard said.

    “We expect our changes to the DA system will generate savings for the community and industry of up to $1.7 billion over the next 10 years.”

    Councils will also be forced to spend millions of dollars of infrastructure levies they have been hoarding – with the 43 Sydney councils accumulating $760 million paid by developers, earning $40 million in interest last year. Under the changes, authorities will only be able to charge infrastructure fees for essential roads, drainage and parks, instead of saving for decades for pet projects.

    The state government has rejected calls to bring in a flat tax of $160 on every ratepayer in the state to fund $1.2 billion of infrastructure a year for new urban growth.

    Instead, it will make dramatic changes to council taxes on new properties, forcing new apartments in the affluent east to pay infrastructure levies to stop western homebuyers copping up to $40,000 on the cost of their houses, while $2 million properties in the east pay just $5000.

    At the moment, a $450,000 new house in Camden will cost homebuyers more than $40,000 in combined local and state infrastructure contributions, while the owners of a new three-bedroom, $2 million apartment in Double Bay would pay just over $5000 in local contributions.

    “Whether you are in Camden or Collaroy, if your new development creates demand for infrastructure, you should make a modest contribution to the cost of new or upgraded infrastructure to support growth,” Mr Hazzard said.

    The white paper will allow NSW councils the chance to keep their powers to determine the fate of DAs worth up to $20 million.

    However, they will be encouraged to appoint independent hearing and assessment panels in an effort to depoliticise local government decision making and “remove any potential corruption risks”.

  • Jeremy Grantham on population growth, China and climate sceptics

    Jeremy Grantham on population growth, China and climate sceptics

    ‘The world’s most powerful environmentalist’ on battling the ‘misinformation machine’ and why China is his ‘secret weapon’
    Share 9

    inShare.2
    Email

    Jeremy Grantham, co-founder of GMO, speaks during the Ira Sohn Investmen Research Conference
    ‘China know this is serious’… environmental philanthropist Jeremy Grantham. Photograph: Daniel Acker/Getty Images

    My interview with Jeremy Grantham, the environmental philanthropist and legendary fund manager, was published in the Guardian on Saturday. As I have done for my interviews with the likes of Al Gore, Bill McKibben and James Lovelock (in 2010 and 2012), I have taken the time to transcribe the full interview so readers can see what Grantham said in the kind of detail that the print edition of the Guardian can’t provide. The interview lasted three hours, so I have split the transcript in two. I will publish part two tomorrow, but here’s part one…

    Jeremy Grantham on why he has stepped up his environmental activities:

    It’s data driven. We [the Grantham Foundation for the Protection of the Environment] were gracefully moving into the environment, save these animals and habitats, and all these good things, then the data on resources – starting about four years ago – made me realise that some of these were really urgent. That we were already entering a food crisis, for example. This time last year I thought it was clear from the data that we were already five years into a food crisis and it is highly unlikely to go away. And unless we get our act together it is likely to become a cascading problem.

    On how much time we have to tackle the world’s environmental problems:

    We’re already in a bad place. We’re on a sliding scale. The language “it’s too late” is very unsuitable for most environmental issues. It’s too late for the dodo and for people who’ve starved to death already, but it’s not too late to prevent an even bigger crisis. The sooner we act on the environment, the better. The sooner we cut off the carbon dioxide going into the air, etc. The worse accidents we will prevent from happening are 20, 30, 40 years from now. The same applies to food. The faster we act to improve the situation, the fewer Africans – North Africans, in particular – will come to grief. What is happening through the market mechanism is that the rich countries, by being unnecessarily sloppy – and by the Chinese getting richer in a real hurry and eating more meat – we are pricing up grain so that the poor are getting hungry. It’s hard to see this stopping in the immediate future. It’s also very hard to see the poor and hungry getting richer at the same speed as the way we are driving up the price of grain.

    On feeding a growing human population:

    There is a stretching disparity between the haves and have nots. It’s not the win-win of globalisation that we all grew up with studying in Econ 101. The irony is that as China gets richer, it burns more coal. They put pressure on the global environment and on global grain prices. So in order to give them a nice middle class, variegated diet, they could cause poorer Asians and Africans to starve. There is no mechanism to prevent that. Egypt runs a trade deficit. Their population is programmed to grow dramatically. Three million at the time of Napoleon. Eighty-three million, said their standard when they marched into the Olympic Games last year. And they’re on their way to 140m. They’ve always been very efficient, but they can’t feed much more than half their people. The price of grain from about 2002-2008 – a tiny window – tripled. Why did it grow so sharply? We knew population was growing, but it was growing steadily, if dramatically. When I was born there were two billion, now there are seven billion. It’s the kind of curve than anyone in finance would look at and jump nervously, when you see an exponential curve like that. That’s one factor, but nothing particular to the period of 2002-2008…

    On the rising price of oil:

    …2002 was a nothing year. The only numbers I was paying attention to in 2002 was for oil. A little wheel was turning at the back of my brain that noted that oil was beginning to act differently. Our firm specialises in the study of investment bubbles. We have the best data. Over the years, we have put together a database that has 330 bubbles of which about 40 are really important ones. What we found about the important bubbles is that every single one had burst completely back to the original trend. Three years up to something triple, and then three years down. They actually tend to go down a little more quickly than they went up, which is surprising. But they always broke. I used to specialise in asking financial audiences to give me an example of the paradigm shift, a major shift in a major financial asset class. And never was one offered. Six years ago I wrote about the paradigm shift in the New York Times. It had 100 years of oil prices – very volatile, but a very central, steady trend line of about 16 dollars a barrel in today’s currency. But then around OPEC in 1972/3, the price trend leaps up to $36.

    On the unwillingness to process unpleasant data:

    I find the parallels between how some investors refuse to recognise the trends and our reaction to some of our environmental challenges very powerful. There is an unwillingness to process unpleasant data. In a bull market you want to believe good news. You don’t want to hear that the market is going to go off a cliff. You don’t want to listen to the climate people who are telling you it is getting worse and even worse unless you do this and that. You want to listen to the good news. There were always people willing to tell you that smoking was OK and that stuff about cancer was exaggerated. There’s a professor at MIT who defended tobacco who now defends carbon dioxide saying it seems to have lost its greenhouse effect, or whatever. And then there are the vested interests. They are the single most powerful force because you are dealing with an audience who wants to hear good news and into the stock market come all the bullish stock market giant firms telling you everything’s fine because they love bull markets because they make a fortune. They don’t even mind crashes because they don’t do so badly there either. What they would die at is if the market went up at its long-term trend line at 1.8%, plus inflation, a year. But we’re not going back to 2% growth. Maybe we’ll do 1% and it will be reported as 1.5% and once again people don’t want to hear that. They want to hear Ben Bernanke’s news that it should return to 3%…
    Me calling bubbles correctly is all data driven and based on the optimism that is built into humans. Every time we see a bubble, we see an army of people screaming, “No, no, it’s not a bubble, everything is fine.” We see the climate and scores of people screaming the same that everything is fine, or that it’s a plot. It’s par for the course. The general public don’t want to hear it and will choose to listen to the optimistic interpretation. It’s a real uphill struggle. You don’t stop the bubble really until the damage is done. It goes so high that it can’t sustain itself and just pops. And maybe that will happen here and our job is to try to do a better job than we did in the tech bubble.

    On climate sceptics:

    The misinformation machine is brilliant. As a propagandist myself [he has previously described himself as GMO’s “chief of propaganda” in reference to his official title of “chief investment strategist”], I have nothing but admiration for their propaganda. [Laughs.] But the difference is that we have the facts behind our propaganda. They’re in the “screaming loudly” rather than the “fact based” part of the exercise, because they don’t have the facts. They are masters at manufacturing doubt. What I have noticed on the blogs and in the comments section under articles is that over several years, as the scientific evidence for climate change gets stronger, the tone of the sceptics is getting shriller and more vicious and nastier all the time. The equivalent on the other side is a weary resignation, sorrow and frustration and amazement that people on the other side can’t look at the facts. The sceptics are getting angrier and more vicious every year despite the more storms we have, and the more mad crazy weather we have…
    One of the problems is that typically you are not dealing with the facts. Putting in more facts makes the sceptics more angry. They have profound beliefs – as opposed to knowledge – that they are willing to protect by all manner of psychological tricks. So you have people who are very smart – even great analysts and hedge fund managers – who on paper know that their argument is wrong, but who promote it fiercely because they are libertarians. Libertarians believe that any government interference is bad. Anyone with a brain knows that climate change needs governmental leadership and they can smell this is bad news for their philosophy. Their ideology is so strongly held that remarkably it’s overcoming the facts. They are using incredible ingenuity to steer their way around facts that they do not choose to accept philosophically. Laying down more facts just makes them more angry. You may win over a few neutrals. They are the people you can win over. But it’s very hard to win over the hardcore sceptics, of which there are plenty.
    We can try to bypass them on one level and we try to contest the political power of the sceptics. They are using money as well as propaganda to influence the politicians, particularly in America. It almost doesn’t even exist in countries outside the US, UK and Australia. A cynic would say that the petrol-chemical industry also happens to be Anglo-Saxon. Where are the great oil companies based? They still have great power. The oil companies seem to have pulled back from directly supporting climate sceptics over the past few years because – in England, in particular – they were embarrassed and it became untenable to be so obvious. But they’re still influential. You don’t have go via back-channels any more, courtesy of the US Supreme Court, because it is completely legal for a corporation to invest tons of money in advertising programmes to say who is good and who is bad in a race for the Senate without even asking permission from the people who actually own the company. Corporations are treated as human beings and money is treated as having the right to speak. There’s dark money and light money. The anonymity they adopt is legal. They don’t have to say who their donors are. It is quite remarkable. And then you get the Something Something for the Environment, which are actually just sceptics funded by the bad guys. And then there are the thinktanks who have become propaganda-tanks. I used to respect the Cato Institute when it came out with reports on this, that and the other, and they have received a lot of hydrocarbon funding. But when the University of East Anglia break-in was engineered they had something like 20 press conferences the following month. The response to the break-in was almost immediate and co-ordinated. I don’t think it was suspiciously rapid, but I do think it was unusually and unexpectedly rapid. It’s very likely that it was simply a terrific response of their behalf. They moved very fast. The good guys are learning slowly, but surely, to step up their response time…
    If you’re saying something that people don’t want to hear or accept, a significant proportion of them will reply with hostility. Not because they know the facts, or because they have researched it themselves, but because they’re so psychologically involved in believing good news that they will oppose it with a reflex. In addition, if the solutions proposed sound like they involve the government, you will have all the political rightwing try to block it as a reflex, even if it means them overriding hard science, which is what’s going on today. Changing people’s minds is almost impossible, even among scientists. Max Planck said, to paraphrase, that science advances one funeral at a time. You could add that economics advances the same way. You have to wait to get rid of the people who have career investment in a topic before a new generation can see the light.

    On the UK’s unseasonably cold spring in 2013, and recent icy winters:

    The scientists are getting very concerned privately – they are conservative in public and have yet to write it up – that blocking processes are sticking in the system. The jet stream is behaving very strangely. One very senior atmospheric scientist said to me recently off the record that we are liable to wake up one day and find ourselves on the latitude – which we are in the UK – of Montreal. It’s a liveable place, but not like London. They have underground tunnels because of their winters. The Gulf Stream is having a few wobbles, too, and the theory there is the melting in Greenland and the Arctic is creating a lot of cold, fresh water, which is a possible source for loss of power in the conductor, so it moves less warm water up from the Caribbean.

    On how he chooses where to spend his foundation’s money:

    We don’t fund the hard science of solar technology. That would take hundreds of millions. But what we are funding is bringing together the data and put it together and representing it conveniently to the outside world. And we want to train people with a good range of skills so they can produce good PhDs for the future at LSE and Imperial. We also fund old-fashioned style investigative journalism which is dying out in newspapers because the newspaper industry has become incredibly tough. The first people to get fired were the environmental journalists. We had a prize for environmental journalism which we brought in at the top of the market, but we discontinued it last year because there was basically no leverage left for the two-and-a-half environmental journalists left. All we were interested in was the net result of whether it could produce a more effective presentation of the facts. We got going in the nick of time to see that it could drag up environmental journalism, but then all the “dragees” were suddenly looking for different jobs, or put on different beats. Or that they were already working for the handful of independent investigative organisations. We fund about a dozen fledgling journalistic projects. Our argument was they are all fledgling so let’s fund them all first, then winnow them down later – come back in 3-4 years and pick eight and, a couple of years later, pick five. In the end, it doesn’t matter if there are one or two, but that they are the best. They whole point really is to allow these people to do their thing and to play to their skills and to pick the people who are highly motivated and very skilled. None of them would be very happy if we tried to tell them what precisely to do and we don’t know what they should do.

    On assessing if the money his foundation spends has achieved its objectives:

    It’s a great problem for philanthropists and NGOs. The problems where you can measure the impact are not common in the environmental field. If you can measure them, they tend to be over decades. One is the wildlife population of Namibia. That is by far and away the most successful [conservation project the foundation has funded], by the way. You can see the population of the various types of antelope have improved. But that is unusual. But the ones you feel are most important are the vaguest of them all. How do measure the shift in attitudes towards processing the data? There are guys working on studying the changes in attitudes in the media. But you have to take a leap of faith that they are smart and dedicated.

    On whether he tries to persuade other philanthropists to support his causes:

    No, I don’t. We might discuss such things informally over lunch. There’s a handful of hedge fund managers, mainly, who have decided to be aggressive about the environment, thank heavens. This doesn’t exist in England where you could get them all on the finger of one hand. I can try to persuade them. I gave a talk in London recently at the head office of a major financial player and someone went to considerably effort to make sure a couple of hundred potential philanthropists and wealthy individuals were there for me to have a go at them. A lot of them left their business cards and if you do that you are kind of asking for trouble. [Laughs.] I believe the majority left their cards, which as things go, is a huge potential hit because even if you get one or two that could be significant. They were a receptive audience. I try to paint the picture of how I got to where I am [as an investor] and then of how fact based the issues appear to be to me. I now try to add my thoughts about food and the “carbon math”…

    On the “carbon math”:

    …It’s simple, comprehensible maths, as Bill McKibben explained in Rolling Stone last year. There are five times the amount of proven carbon reserves as we can possibly allow to be burned if we want to remain under 2C of warming, which is now not even considered to be a safe margin. We must burn just a fifth of what’s there. We will burn all the cheap, high-quality oil and gas, but if we mean to burn all the coal and any appreciable percentage of the tarsands, or even third derivative, energy-intensive oil and gas, with fracking for shale gas on the boundary, then we’re cooked, we’re done for. Terrible consequences that we will lay at the door of our grandchildren. Some things might change very quickly, though. For example, the business mathematics of alternative energy are changing much faster than the well-informed business man realises.

    On the falling costs of alternative energy:

    Read my next quarterly newsletter entitled, “The Race of Our Lives”, [will be available here] on why civilisations fall and why they’ve always fallen and why we may not because we have two advantages that they did not – a voluntary fall in fertility, which is just amazing, and alternative energy. Every wave of technology has seen an incremental increase in energy needed – steam engines, cars, air conditioning, iPads – they all add to our energy needs and mean we dig a deeper hole, but we feel we are making wonderful progress. But now we have a technology wave which protects us from needing to burn every last ton of coal. Solar, wind, biomass, intelligent grids, and storage – please, more storage – protect us. That is the best part of capitalism. The price of solar panels is now 25% of what it was two years ago and that’s the bit people have missed. If these prices were to be held – they may not be – we are competitive, without a carbon tax, in the areas that have the sun – California, North Africa, Spain, etc. You can build a solar farm and it can be commercial. Meanwhile, the price of hydrocarbons are getting more expensive all the time, because you’ve extracted all the easy stuff first and with China rising and still growing at 7% a year. And that’s just China. Don’t forget India which actually has more coal power plants down to be built on the books at the moment than China. Now you start to get an idea of, wow, why this does not compute. If it computes, it’s only at the enormous increase in cost of digging and shipping coal. Meanwhile, back at the ranch, solar and wind power are getting cheaper and cheaper. Those lines are going to cross big time in the next 20 years. There is no such thing as “locked in and committed” because you can reverse. They might build a few more coal-fired plants, but then they will stop completely. The pay-off for China of getting out of the way of those lines crossing is so great.

    On why China is his big hope:

    China is my secret weapon. I call them the Chinese cavalry riding to the rescue. They have the capital. They have an embarrassment of capital – 50% of their GDP is capital investment. We have a shortage of capital and also have debts. Their problem is how to invest all that capital. My partners worry all the time about them wasting their money. What better programme could they possibly have, with huge social pay-off, than a massive replacement of sustainable energy? When you think what it would mean to them – it would get rid of their pollution – it makes sense. Because of that pollution, they announced recently an incredible increase of 65% in their plans to install by 2015 – just three short years away – 36GW, which is equivalent to 20 vast, state-of-art coal plants, of solar. Throw in wind, too. And, by the way, we will have many breakthroughs in storage. If I had to make a bet, I would say that’s the most promising, important breakthrough of the next several years. Everyone is working on this. If you have a big smart grid – and all the desert of Xinjiang and all the wind of Inner Mongolia – and it’s all swirling around with relatively little loss and you have a grid smart enough to go in there Chinese-style and turn your fridge off for half an hour to save energy, and do this and do that, you don’t need nearly the back-up. The bad guys will tell you that you need 100% back-up and messianic environmentalists will tell you that you need 0%. But maybe 20% back-up will be needed as everyone is working on storage. I’m certain it will happen. Some technologies take time then go, “Bang!”. Look at video conferencing. It has been around forever and the quality was terrible. But now it is so clear and instant. Technology has a habit of boring you to death and disappointing you for 20 years then suddenly it delivers a new world…
    I have very high hopes for China because they have embedded high scientific capabilities in their leadership class. And that is huge. They know this is serious. They can calculate the social threat of getting this pollution, weather instability, water out of control. And they are acting much faster now than we are. They have it within their capabilities of coming back in 30 years with the guarantee of complete energy independence – all alternative and sustainable forever. They have an embarrassment of capital. We have an embarrassment of debt. So they can set a stunning pace, which they are doing. And they could crank it up. To hell with their five-year plans, they should move up to 25-year plans for alternative energy – energy security, reducing pollution and low cost. They would have such low-cost energy at the end of it they will be the terror of the capitalist system. With low energy and low labour, that’s the ball game. Five years into a 25-year programme and any capitalist will be urging their government to copy them.

    On the Scandinavian countries:

    I am inspired by [them]. They have to cope with short-term election cycles and a parliamentary system and all four of them nevertheless act responsibly, not just on alternative energy and environmental issues, but also on social issues that matter. They are, by and large, models of good behaviour. They say in America to me what’s the solution to all this, I say cede your government to Denmark. [Laughs]. They are good enough that they would get the job done.

    On environmentalism’s track record of making predictions:

    Go and read Limits to Growth, which I did recently. They pretty much predicted doom and gloom 20 years from now. They have been grossly misinterpreted and are pretty much on schedule. There are details that are over and under, but it is amazingly accurate. The William Ophuls model is that we are hard-wired to collapse. Given half a chance we will over-reach. We are over-confident that we will solve every problem. But we will leave it too late and we will crash. All the confidence that people try to give you – the “infinite capacity of the human brain”, unquote – all of that hinges on the apparent infinite supply of hydrocarbons. No civilisation looked durable and resilient until coal and then we acquired this amazing power. We are now coming to the end of that era. If we don’t use that window to fix it and have a sustainable replacement, we are toast. Don’t worry about peak oil, worry about peak temperature. All our flora and fauna has thrived in the last 10,000 years since the end of the last ice age, a period which has seen unbelievable stable weather by long-term standards. Now it is becoming unstable. If you drive the temperature above 40C, well-known brands of corn will not produce. They just stop. You might be able to twist and turn and get it to produce at 41C, and you might move further north in latitude, but temperatures rises are very bad news for grain. The wider point is it [temperature rise] is generally bad for everything that evolved in one stable environment. It has no resilience to produce outside the temperatures experiences during this 10,000 year period. Quite a few grains are now topping out in terms of productivity. I look around and I say just look at the food-producing problems we face. In fact, let’s make it even simpler: look at the grain-producing problems we face around the world. We’ve just had three consecutive monster-bad grain harvests. Not one of those three poor harvests was more likely than a one-in-25-year harvest. But the terrible thing is they went, “whack, whack, whack”. I took some grief when I wrote about the first one and said next year was bound to be less bad, but the next year became a monster. I’ve done more research and reading in the last two years than I ever did at college. I’ve read all the classics. All the limits to growth, all the end of civilisations stuff, all the peak everything stuff, all the soil destruction stuff.

    On confronting our environmental problems:

    Asking, “Are we too late?”, is not the logic for this problem. It is too late for the dodo. It is too late for the one third of arable land that we have destroyed in 10,000 years. It’s too late for 10% of global biodiversity, and almost certainly another 10%, and 50/50 for yet another 10% after that. But it would be nice to end up with a planet that we can still relate to, that still has a fairly handsome biodiversity. We can still do that. There is one chance that the real pessimists are right. The chance that on our way to a 4-8C rise, and a 10-15ft rise in the oceans, which is probably what’s going to happen over the next two centuries, that things will get worse before they get better, because there is inertia built into the system. You can easily imagine resource wars breaking out unless we put our best foot forward on alternative energy. This would buy us time for everything else to be solved. If you can become energy sustainable in the next 40 years and suck up the pain that will have been paid by then, then you have probably bought the time for another 40 years to transfer the whole of global agriculture into a fully sustainable system before we run out of the resources to run old-fashioned agriculture. And if you do that then, in turn, you have probably bought enough time to deal with the intractable long-term issue of metals, which are entropy writ large. No matter how careful you are with them, they slip through your fingers. In the end, you will need to use organic replacements, which will take a long, long time [to develop]. We’d better start working on it now, but not too many are and they’re not getting much funding. You’ve got to get the population down and you’ve got to ignore the Economist magazine and others talking about rising population as a terrible economic problem. It is a necessary, short-term, intermediate pain to pay for the absolute minimum hope of survival, which is a gracefully declining population, because if you don’t do that you will have a rapidly imploding population one day.

    In part two tomorrow: Jeremy Grantham on genetically modified food, capitalism vs the environment, and why he still invests in oil and gas

  • Barnaby Joyce, New England and Senate Vacancies (Antony Green)

    April 15, 2013
    Barnaby Joyce, New England and Senate Vacancies

    I’ve been asked several times since Barnaby Joyce won National endorsement to contest New England, whether he has to resign from the Senate to contest New England.

    The short answer is no he does not have to resign, or at least not yet. However, he will need to resign once the legal election campaign is under way later this year if he wants his nomination to be accepted.

    If Joyce wins New England, he will become only the sixth person to represent two states in the Parliament, and the first to represent one state in the Senate and another in the House. He would also be the first two-stater since Billy Hughes to change state without an intervening defeat.

    If Joyce is not successful, he can be appointed to the Senate vacancy created by his resignation. However, Senator Joyce has ruled out this escape route. I’m sure Senator Joyce would not want to be seen as a politician who says one thing before an election to get elected, but does something else after the election.
    At this stage Senator Joyce is just a selected National Party candidate. Until the writs for the election are issued, there is no election, there is no call for nominations, and there are no candidates.

    While the Prime Minister has stated the election will be held on 14 September, that has very little meaning for the mechanics of the election until the writs are issued. According to the timetable published by the AEC, the writs will be issued on Monday 12 August, nominations will close on 22 August and the election will be held on 14 September.

    Senator Joyce must resign from the Senate before his nomination is lodged. Registered parties nominate candidates centrally, so Senator Joyce must resign from the Senate before the National nomination list is lodged, one day before the close of nominations.

    If Senator Joyce does not resign before his nomination is lodged, his nomination will be void. So you can be absolutely certain that Senator Joyce will have his resignation letter in the hands of the Senate President before the close of nominations.

    For the moment Senator Joyce can remain a Senator for Queensland at the same time as he is the National candidate for New England.

    Senator Joyce was first elected in 2004 and re-elected in 2010. His most recent term stated on 1 July 2011. His current term expires in 30 June 2017. Once he resigns from the Senate, the Parliament of Queensland will appoint a replacement to fill the balance of his term through to 2017.

    If Senator Joyce wins New England, the Queensland Parliament will act promptly to fill his vacancy.

    But what about if Joyce is defeated contesting New England? Can he be appointed to his own vacancy?

    The only Senator to be appointed to fill the vacancy caused by their own resignation was South Australian Jeannie Ferris. She had a qualification problem in relation to her election, a problem that was nullified by resignation and re-appointment.

    A Senator has never been re-appointed to their Senate vacancy after contesting the House, though it was briefly mooted in relation to John Stone after losing his House tilt in 1990. It has happened in the NSW Legislative Council, where Christian Democrat Fred Nile resigned to contest the 2004 Senate election, and was re-appointed to his own seat after he missed out on election.

    So Joyce could be re-appointed as long as the Queensland Parliament has not already filled his vacancy. However, as I pointed out, Senator Joyce has ruled out this path.

    Senator Joyce follows a well trodden path, as since the 1960s there have been some very high profile Senators who have resigned to win election to the House. These include Fred Chaney, Gareth Evans, Bob McMullan, John Gorton, Allan Rocher, Kathy Sullivan and Bronwyn Bishop. Three others, Steele Hall, Belinda Neal and Cheryl Kernot, switched houses with a break in service, in the case of Hall and Neal, losing at their first attempt to move to the House.

    If successful, Joyce will become only the sixth MP to represent more than one state, and the first to do so by switching chambers. He would also be only the second after Billy Hughes to do so without an intervening electoral defeat.

    Billy Hughes is the best known state shifter, representing the NSW seat of West Sydney 1901-17, shifting to Bendigo in Victoria after the Labor split on conscription, then the safe conservative seats of North Sydney and Bradfield 1922-52. Of course, Hughes is better known for his habit of switching party.

    The most recent state shifter was Nelson Lemmon, representing Forrest in WA from 1943 until defeated in 1949, then St George in NSW from 1954 until defeated in 1955.

    Labor’s Parker Moloney represented the Victorian seat of Indi 1910-13 and 1914-17 when he was defeated because of his opposition to conscription. He then crossed the Murray River to win the NSW seat of Hume in 1919, representing that seat until defeated in 1931, despite choosing to continue living in Melbourne.

    Dr Lewis Nott won Herbert at the 1925 election, an important result as he defeated Labor’s Ted Theodore, who had resigned as Premier to contest the seat. Theodore was forced to move to Sydney to enter Federal parliament. Nott was defeated in 1928, but moved to Canberra and became Medical Superintendent of Canberra Hospital. He won the new ACT seat in the House of Representatives at the 1949 election as an Independent, but was defeated by Labor’s Jim Fraser in 1951.

    The final case is Labor’s William Spence who represented the NSW seat of Darling 1901-17. Defeated at that year’s election, he was re-elected at a by-election for the Tasmanian seat of Darwin, but contested a Melbourne seat unsuccessfully at the 1919 election.

    UPDATE: I am sure I heard Senator Joyce say in an interview that he would not go back to the Senate. I can’t find the relevant quote, but it would make a good question for his next interview.

    Posted by Antony Green on April 15, 2013 at 08:45 PM in Electoral Law, Federal Politics and Governments, Senate Elections | Permalink