There are many ways to make a living, but there appear to be zero careers in plainspeaking.
I mean, who could I justify working with, or for ? And would any of them be prepared to accept me speaking my mind ?
Much of what I’ve been saying over the last ten years has been along the lines of “that will never work”, but people generally don’t get consulted or hired for picking holes in an organisation’s pet projects or business models.
Could I imagine myself taking on a role in the British Government ? Short answer : no.
The slightly longer answer : The British Government Department of Energy and Climate Change (DECC) ? No, they’re still hooked on the failed technology of nuclear power, the stupendously expensive and out-of-reach Carbon Capture and Storage (CCS), and the mythical beast of shale gas. OK, so they have a regular “coffee club” about Green Hydrogen (whatever that turns out to be according to their collective ruminations), and they’ve commissioned reports on synthetic methane, but I just couldn’t imagine they’re ever going to work up a serious plan on Renewable Gas. The British Government Department for Transport ? No, they still haven’t adopted a clear vision of the transition of the transport sector to low carbon energy. They’re still chipping away at things instead of coming up with a strategy.
Could I imagine myself taking on a role with a British oil and gas multinational ? Short and very terse and emphatic answer : no.
The extended answer : The oil and gas companies have had generous support and understanding from the world’s governments, and are respected and acclaimed. Yet they are in denial about “unburnable carbon” assets, and have dismissed the need for Energy Change that is the outcome of Peak Oil (whether on the supply or the demand side). Sneakily, they have also played both sides on Climate Change. Several major oil and gas companies have funded or in other ways supported Climate Change science denial. Additionally, the policy recommendations coming from the oil and gas companies are what I call a “delayer’s game”. For example, BP continues to recommend the adoption of a strong price on carbon, yet they know this would be politically unpalatable and take decades (if ever) to bring into effect. Shell continues to argue for extensive public subsidy support for Carbon Capture and Storage (CCS), knowing this would involve such huge sums of money, so it’s never going to happen, at least not for several decades. How on Earth could I work on any project with these corporations unless they adopt, from the centre, a genuine plan for transition out of fossil fuels ? I’m willing to accept that transition necessitates the continued use of Natural Gas and some petroleum for some decades, but BP and Royal Dutch Shell do need to have an actual plan for a transition to Renewable Gas and renewable power, otherwise I would be compromising everything I know by working with them.
Could I imagine myself taking on a role with a large engineering firm, such as Siemens, GE, or Alstom, taking part in a project on manufactured low carbon gas ? I suppose so. I mean, I’ve done an IT project with Siemens before. However, they would need to demonstrate that they are driving for a Renewable Gas transition before I could join a gas project with them. They might not want to be so bold and up-front about it, because they could risk the wrath of the oil and gas companies, whose business model would be destroyed by engineered gas and fuel solutions.
Could I imagine myself building fuel cells, or designing methanation catalysts, or improving hydrogen production, biocoke/biocoal manufacture or carbon dioxide capture from the oceans… with a university project ? Yes, but the research would need to be funded by companies (because all applied academic research is funded by companies) with a clear picture on Energy Change and their own published strategy on transition out of fossil fuels.
Could I imagine myself working on rolling out gas cars, buses and trucks ? Yes. The transition of the transport sector is the most difficult problem in Energy Change. However, apart from projects that are jumping straight to new vehicles running entirely on Hydrogen or Natural Gas, the good options for transition involve converting existing diesel engine vehicles to running mostly on Natural Gas, such as “dual fuel”, still needing roughly 20% of liquid diesel fuel for ignition purposes. So I would need to be involved with a project that aims to supply biodiesel, and have a plan to transition from Natural Gas to Renewable Gas.
Could I imagine myself working with a team that has extensive computing capabilities to model carbon dioxide recycling in power generation plant ? Yes.
Could I imagine myself modelling the use of hydrogen in petroleum refinery, and making technological recommendations for the oil and gas industry to manufacture Renewable Hydrogen ? Possibly. But I would need to be clear that I’m doing it to enable Energy Change, and not to prop up the fossil fuel paradigm – a game that is actually already bust and needs helping towards transition.
Could I imagine myself continuing to research the growth in Renewable Gas – both Renewable Hydrogen and Renewable Methane – in various countries and sectors ? Possibly. It’s my kind of fun, talking to engineers.
But whatever future work I consider myself doing, repeatedly I come up against this problem – whoever asked me to work with them would need to be aware that I do not tolerate non-solutions. I will continue to say what doesn’t work, and what cannot work.
If people want to pay me to tell them that what they’re doing isn’t working, and won’t work, then fine, I’ll take the role.
I’d much rather stay positive, though, and forge a role where I can promote the things that do work, can work and will work.
The project that I’m suitable for doesn’t exist yet, I feel. I’m probably going to continue in one way or another in research, and after that, since I cannot see a role that I could fit easily or ethically, I can see I’m going to have to write my own job description.
How do we get things changed in a democracy ? The model of political campaigning that has been established over the last century is failing us. In the past, if there was a problem, a small group of people could create a fuss about it, march some placards to somewhere relevant, write some letters, talk to some dignitaries, chain themselves to some railings, occupy a lobby, get some press, and after some years, maybe, get something done.
These days there are just too many complaints for them all to be heard. Philanthropic, charitable and political messages crowd the stage. In this age of social media, the campaign metaphor has been replaced by a ladder of concern. Concern is expressed. Hopefully others will find that they too are sufficiently concerned, and reflect that concern through some medium. And slowly, it is hoped, this concern climbs the ladder of attention, until it is visible, audible. The entitled and endowed middle classes catch the concern, and repeat it. Lots of emails fly. George Monbiot writes about it in The Guardian. Some speeches are made at serious meetings. Angelina Jolie is invited to grace a conference. And then, hopefully, this concern hits the people who have some kind of leverage over the problem, and they act.
Action is almost guaranteed if the concern is the result of a specific outrage, committed by a specific person or group, and has a specific solution. But otherwise, who knows ? How universal and impactful does a concern need to be before it gets acted upon ? And surely some things don’t need campaigns, because the governments already know enough about problems such as people trafficking, slavery, animal welfare, crime and torture ? After all, things such as prostitution and illegal drug trade are included in national economic statistics.
I took public transport today in London and I was doused in outrage pouring from advertisements asking for charitable giving to prevent the inhuman practice of Female Genital Mutilation (FGM). As I read these appeals, I felt two overwhelming sensations – one of intense anger that children are being permanently injured because of insane and unjustifiable, hateful beliefs about female sexuality. And a second feeling of dragging despair that giving a small donation every month to this organisation would have very little impact on abusive culture, which leads to many forms of violation, not just the unimaginably painful and destructive incision and even resection of a child’s clitoris and the sewing together of her labia, leading to permanent nerve damage, lasting wounds, loss of sexual function, complications from incontinence, ruined relationships, injuries from sexual intercourse, and serious medical risks during childbirth, and possibly the need for reconstructive surgery.
Switch to BBC News. Roger Harrabin reports that “The UK’s chief scientist says the oceans face a serious and growing risk from man-made carbon emissions. […] Sir Mark Walport warns that the acidity of the oceans has increased by about 25% since the industrial revolution, mainly thanks to manmade emissions. […] He told BBC News: “If we carry on emitting CO2 [carbon dioxide] at the same rate, ocean acidification will create substantial risks to complex marine food webs and ecosystems.” […] The consequences of acidification are likely to be made worse by the warming of the ocean expected with climate change, a process which is also driven by CO2.”
Media Lens Editors reported this piece. My reaction was – who would be paying attention to this ? This is not the “dangerous climate change comes from global warming” story, this is the “other” carbon problem, the decimation of marine productivity and the whole pyramid of life, resulting from increasing levels of dissolved carbon dioxide in seawater because of higher levels of carbon dioxide in the air. The overwhelmingly major causes of this problem are irrefutably and definitely fossil fuel combustion, and its seriousness is hard to deny, even though Roger Harrabin attempts to make light of it by devoting column inches to a laboratory crab who isn’t getting with the programme.
Ocean acidification is a concern that shouldn’t get lost in amongst other concerns. It should be paid serious levels of attention. And not just by middle class philanthropists who work for non-governmental organisations and charities. And yet, cursory analysis of the segmentation of the population who treat BBC News as a main and trusted information source may suggest that the only readers who would act on this piece are exactly these middle class charity staff, or at a push, retired middle class charity staff.
My Media Lens comment was, “Right expert. Right message. Wrong audience. Wrong medium. The UK Government’s chief scientist. OK. Good. Ocean acidification. OK. Good. No quibbles about whether or not extra carbon dioxide in the atmosphere is a real problem or not (as known as “climate change” or “global warming”, which is real by the way). The BBC News. Wrong medium. Wrong audience. The only people going to listen to this are those who already know about the problem but are still as powerless to act as they were yesterday. The UK Government should present this information to the oil, gas and coal companies with a polite request for them to unveil their plan of action in the face of this undeniable problem.”
There is no reason why this story should be covered in BBC News by Roger Harrabin. What can anybody reading it do about the problem ? There is no purpose for this article. It is a pointless statement of concern, or rather, a belittling rehearsal of the concern. Unless this article, and the thousands like it, lead to the Government demanding answers on Energy Change from the fossil fuel companies, there is no point in reporting it, or in this case, disparaging it with faint humour.
The only time that ocean acidification should appear in a media piece is to report that the problem has been presented to the architects of increased ocean carbon dioxide, and answers have been requested.
And who are the architects of increased atmospheric and ocean carbon dioxide ? Those who mine fossil fuels. Those companies like BP and Shell, ExxonMobil, and all the coal extraction companies should act. They should offer us alternative non-fossil fuel energy. And the news should be about how these companies are taking action to offer us Renewable Hydrogen, Renewable Methane, solar power, wind power and Zero Carbon transport fuels.
Answers from the past will simply not do. Trying to assert that somebody needs to pay for pollution won’t prevent pollution occurring. Carbon taxes or carbon pricing won’t work – since they won’t prevent the mining of fossil fuels – and if fossil fuels are mined, of course they will be burned. Carbon combustion quotas won’t work – since economic wealth is based on burning carbon, so many forces will conspire to maintain levels of fossil fuel combustion. Carbon mining quotas won’t work, since the forces for increasing mining quotas are strong. Carbon trading won’t work, since it won’t reduce the amount of fossil fuels mined – because, obviously, if fossil fuels are mined, they will be burned.
I am tired of reading about climate change, global warming, freshwater stress and ocean acidification in the news. It seems there is nothing I can do that I have not already done that can provide a solution to these problems. Enough with communicating the disaster. I want to read about engineering and energy companies who have switched business models to producing Zero Carbon energy. I want to hear how energy security concern is taking oil, gas and coal companies towards Renewable Everything.
A normal, everyday Monday morning at Energy Geek Central. Yes, this is a normal conversation for me to take part in on a Monday morning. Energy geekery at breakfast. Perfect.
Nuclear Flower Power
This whole UK Government nuclear power programme plan is ridiculous ! 75 gigawatts (GW) of Generation III nuclear fission reactors ? What are they thinking ? Britain would need to rapidly ramp up its construction capabilities, and that’s not going to happen, even with the help of the Chinese. (And the Americans are not going to take too kindly to the idea of China getting strongly involved with British energy). And then, we’d need to secure almost a quarter of the world’s remaining reserves of uranium, which hasn’t actually been dug up yet. And to cap it all, we’d need to have 10 more geological disposal repositories for the resulting radioactive spent fuel, and we haven’t even managed to negotiate one yet. That is, unless we can burn a good part of that spent fuel in Generation IV nuclear fission reactors – which haven’t even been properly demonstrated yet ! Talk about unconscionable risk !
Baseload Should Be History By Now, But…
Whatever the technological capability for nuclear power plants to “load follow” and reduce their output in response to a chance in electricity demand, Generation III reactors would not be run as anything except “baseload” – constantly on, and constantly producing a constant amount of power – although they might turn them off in summer for maintenance. You see, the cost of a Generation III reactor and generation kit is in the initial build – so their investors are not going to permit them to run them at low load factors – even if they could.
There are risks to running a nuclear power plant at partial load – mostly to do with potential damage to the actual electricity generation equipment. But what are the technology risks that Hinkley Point C gets built, and all that capital is committed, and then it only runs for a couple of years until all that high burn up fuel crumbles and the reactors start leaking plutonium and they have to shut it down permanently ? Who can guarantee it’s a sound bet ?
If they actually work, running Generation III reactors at constant output as “baseload” will also completely mess with the power market. In all of the scenarios, high nuclear, high non-nuclear, or high fossil fuels with Carbon Capture and Storage (CCS), there will always need to be some renewables in the mix. In all probability this will be rapidly deployed, highly technologically advanced solar power photovoltaics (PV). The amount of solar power that will be generated will be high in summer, but since you have a significant change in energy demand between summer and winter, you’re going to have a massive excess of electricity generation in summer if you add nuclear baseload to solar. Relative to the demand for energy, you’re going to get more Renewable Energy excess in summer and under-supply in winter (even though you get more offshore wind in winter), so it’s critical how you mix those two into your scenario.
The UK Government’s maximum 75 GW nuclear scenario comprises 55 GW Generation III and 20 GW Generation IV. They could have said 40 GW Gen III to feed Gen IV – the spent fuel from Gen III is needed to kick off Gen IV. Although, if LFTR took off, if they had enough fluoride materials there could be a Thorium way into Gen IV… but this is all so technical, no MP [ Member of Parliament ] is going to get their head round this before 2050.
The UK Government are saying that 16 GW of nuclear by 2030 should be seen as a first tranche, and that it could double or triple by 2040 – that’s one heck of a deployment rate ! If they think they can get 16 GW by 2030 – then triple that by 10 years later ? It’s not going to happen. And even 30 GW would be horrific. But it’s probably more plausible – if they can get 16 GW by 2030, they can arguably get double that by 2040.
As a rule of thumb, you would need around 10 tonnes of fissionable fuel to kickstart a Gen IV reactor. They’ve got 106 tonnes of Plutonium, plus 3 or 4 tonnes they recently acquired – from France or Germany (I forget which). So they could start 11 GW of Gen IV – possibly the PRISM – the Hitachi thing – sodium-cooled. They’ve been trying them since the Year Dot – these Fast Reactors – the Breeders – Dounreay. People are expressing more confidence in them now – “Pandora’s Promise” hangs around the narrative that the Clinton administration stopped research into Fast Reactors – Oak Ridge couldn’t be commercial. Throwing sodium around a core 80 times hotter than current core heats – you can’t throw water at it easily. You need something that can carry more heat out. It’s a high technological risk. But then get some French notable nuclear person saying Gen IV technologies – “they’re on the way and they can be done”.
Radioactive Waste Disposal Woes
The point being is – if you’re commissioning 30 GW of Gen III in the belief that Gen IV will be developed – then you are setting yourself up to be a hostage to technological fortune. That is a real ethical consideration. Because if you can’t burn the waste fuel from Gen III, you’re left with up to 10 radioactive waste repositories required when you can’t even get one at the moment. The default position is that radioactive spent nuclear fuel will be left at the power stations where they’re created. Typically, nuclear power plants are built on the coast as they need a lot of cooling water. If you are going for 30 GW you will need a load of new sites – possibly somewhere round the South East of England. This is where climate change comes in – rising sea levels, increased storm surge, dissolving, sinking, washed-away beaches, more extreme storms […] The default spent fuel scenario with numerous coastal decommissioned sites with radioactive interim stores which contain nearly half the current legacy radioactive waste […]
Based on the figures from the new Greenpeace report, I calculate that the added radioactive waste and radioactive spent fuel arisings from a programme of 16 GW of nuclear new build would be 244 million Terabequerel (TBq), compared to the legacy level of 87 million TBq.
The Nuclear Decommissioning Authority (NDA) are due to publish their Radioactive Waste Inventory and their Report on Radioactive Materials not in the Waste Inventory at the end of January 2014. We need to keep a watch out for that, because they may have adapted their anticipated Minimum and Maxmium Derived Inventory.
Politics Is Living In The Past
What you hear from politicians is they’re still talking about “baseload”, as if they’ve just found the Holy Grail of Energy Policy. And failed nuclear power. Then tidal. And barrages. This is all in the past. Stuff they’ve either read – in an article in a magazine at the dentist’s surgery waiting room, and they think, alright I’ll use that in a TV programme I’ve been invited to speak on, like Question Time. I think that perhaps, to change the direction of the argument, we might need to rubbish their contribution. A technological society needs to be talking about gasification, catalysis. If you regard yourselves as educated, and have a technological society – your way of living in the future is not only in manufacturing but also ideas – you need to be talking about this not that : low carbon gas fuels, not nuclear power. Ministers and senior civil servants probably suffer from poor briefing – or no briefing. They are relying on what is literally hearsay – informal discussions, or journalists effectively representing industrial interests. Newspapers are full of rubbish and it circulates, like gyres in the oceans. Just circulates around and around – full of rubbish.
I think part of the problem is that the politicians and chief civil servants and ministers are briefed by the “Old Guard” – very often the ex-nuclear power industry guard. They still believe in big construction projects, with long lead times and massive capital investment, whereas Renewable Electricity is racing ahead, piecemeal, and private investors are desperate to get their money into wind power and solar power because the returns are almost immediate and risk-free.
Together in Electric Dreams
Question : Why are the UK Government ploughing on with plans for so much nuclear power ?
1. They believe that a lot of transport and heat can be made to go electric.
2. They think they can use spent nuclear fuel in new reactors.
3. They think it will be cheaper than everything else.
4. They say it’s vital for UK Energy Security – for emissions reductions, for cost, and for baseload. The big three – always the stated aim of energy policy, and they think nuclear ticks all those three boxes. But it doesn’t.
What they’ll say is, yes, you have to import uranium, but you’ve got a 4 year stock. Any war you’re going to get yourselves involved in you can probably resolve in 4 days, or 4 weeks. If you go for a very high nuclear scenario, you would be taking quite a big share of the global resource of uranium. There’s 2,600 TWh of nuclear being produced globally. And global final energy demand is around 100,000 TWh – so nuclear power currently produces around 2.6% of global energy supply. At current rates of nuclear generation, according to the World Nuclear Association, you’ve got around 80 years of proven reserves and probably a bit more. Let’s say you double nuclear output by 2050 or 2040 – but in the same time you might just have enough uranium – and then find a bit more. But global energy demand rises significantly as well – so nuclear will still only provide around 3% of global energy demand. That’s not a climate solution – it’s just an energy distraction. All this guff about fusion. Well.
Cornering The Market In Undug Uranium
A 75 GW programme would produce at baseload 590 TWh a year – divide by 2,600 – is about 23% of proven global uranium reserves. You’re having to import, regardless of what other countries are doing, you’re trying to corner the market – roughly a quarter. Not even a quarter of the market – a quarter of all known reserves – it’s not all been produced yet. It’s still in the ground. So could you be sure that you could actually run these power stations if you build them ? Without global domination of the New British Empire […]. The security issues alone – defending coastal targets from a tweeb with a desire to blow them up. 50 years down the line they’re full of radioactive spent fuel that won’t have a repository to go to – we don’t want one here – and how much is it going to cost ?
My view is that offshore wind will be a major contributor in a high or 100% Renewable Electricity scenario by 2050 or 2060. Maybe 180 GW, that will also be around 600 TWh a year – comparable to that maximum nuclear programme. DECC’s final energy demand 2050 – several scenarios – final energy demand from 6 scenarios came out as between roughly 1,500 TWh a year and the maximum 2,500 TWh. Broadly speaking, if you’re trying to do that just with Renewable Electricity, you begin to struggle quite honestly, unless you’re doing over 600 TWh of offshore wind, and even then you need a fair amount of heat pump stuff which I’m not sure will come through. The good news is that solar might – because of the cost and technology breakthroughs. That brings with it a problem – because you’re delivering a lot of that energy in summer. The other point – David MacKay would say – in his book his estimate was 150 TWh from solar by 2050, on the grounds that that’s where you south-facing roofs are – you need to use higher efficiency triple junction cells with more than 40% efficiency and this would be too expensive for a rollout which would double or triple that 150 TWh – that would be too costly – because those cells are too costly. But with this new stuff, you might get that. Not only the cost goes down, but the coverage goes down. Not doing solar across swathes of countryside. There have always been two issues with solar power – cost and where it’s being deployed.
Uh-Oh, Summer Days. Uh-Oh, Summer Nights
With the solar-wind headline, summer days and summer nights are an issue.
With the nuclear headline, 2040 – they would have up to 50 GW, and that would need to run at somewhere between 75% and 95% capacity – to protect the investment and electric generation turbines.
It will be interesting to provide some figures – this is how much over-capacity you’re likely to get with this amount of offshore wind. But if you have this amount of nuclear power, you’ll get this amount […]
Energy demand is strongly variable with season. We have to consider not just power, but heat – you need to get that energy out in winter – up to 4 times as much during peak in winter evenings. How are you going to do that ? You need gas – or you need extensive Combined Heat and Power (CHP) (which needs gas). Or you need an unimaginable deployment of domestic heat pumps. Air source heat pumps won’t work at the time you need them most. Ground source heat pumps would require the digging up of Britain – and you can’t do that in most urban settings.
District Heat Fields
The other way to get heat out to everyone in a low carbon world – apart from low carbon gas – is having a field-based ground source heat pump scheme – just dig up a field next to a city – and just put in pipes and boreholes in a field. You’re not disturbing anybody. You could even grow crops on it next season. Low cost and large scale – but would need a District Heating (DH) network. There are one or two heat pump schemes around the world. Not sure if they are used for cooling in summer or heat extraction in the winter. The other thing is hot water underground. Put in an extra pipe in the normal channels to domestic dwellings. Any excess heat from power generation or electrolysis or whatever is put down this loop and heats the sub-ground. Because heat travels about 1 metre a month in soil, that heat should be retained for winter. A ground source heat sink. Geothermal energy could come through – they’re doing a scheme in Manchester. If there’s a nearby heat district network – it makes it easier. Just want to tee it into the nearest DH system. The urban heat demand is 150 TWh a year. You might be able to put DH out to suburban areas as well. There are 9 million gas-connected suburban homes – another about 150 TWh there as well – or a bit more maybe. Might get to dispose of 300 TWh in heat through DH. The Green Deal insulation gains might not be what is claimed – and condensing gas boiler efficiencies are not that great – which feeds into the argument that in terms of energy efficiency, you not only want to do insulation, but also DH – or low carbon gas. Which is the most cost-effective ? Could argue reasonable energy efficiency measures are cheapest – but DH might be a better bet. That involves a lot of digging.
Gas Is The Logical Answer
But everything’s already laid for gas. (…but from the greatest efficiency first perspective, if you’re not doing DH, you’re not using a lot of Renewable Heat you could otherwise use […] )
The best package would be the use of low carbon gases and sufficient DH to use Renewable Heat where it is available – such as desalination, electrolysis or other energy plant. It depends where the electrolysis is being done.
The Age of Your Carbon
It also depends on which carbon atoms you’re using. If you are recycling carbon from the combustion of fossil fuels into Renewable Gas, that’s OK. But you can’t easily recapture carbon emissions from the built environment (although you could effectively do that with heat storage). You can’t do carbon capture from transport either. So your low carbon gas has to come from biogenic molecules. Your Renewable Gas has to be synthesised using biogenic carbon molecules rather than fossil ones.
[…] I’m using the phrase “Young Carbon”. Young Carbon doesn’t have to be from plants – biological things that grow.
Well, there’s Direct Air Capture (DAC). It’s simple. David Sevier, London-based, is working on this. He’s using heat to capture carbon dioxide. You could do it from exhaust in a chimney or a gasification process – or force a load of air through a space. He would use heat and cooling to create an updraft. It would enable the “beyond capture” problem to be circumvented. Cost is non-competitive. Can be done technically. Using reject heat from power stations for the energy to do it. People don’t realise you can use a lot of heat to capture carbon, not electricity.
Young Carbon from Seawater
If you’re playing around with large amounts of seawater anyway – that is, for desalination for irrigation, why not also do Renewable Hydrogen, and pluck the Carbon Dioxide out of there too to react with the Renewable Hydrogen to make Renewable Methane ? I’m talking about very large amounts of seawater. Not “Seawater Greenhouses” – condensation designs mainly for growing exotic food. If you want large amounts of desalinated water – and you’re using Concentrated Solar Power – for irrigating deserts – you would want to grow things like cacti for biological carbon.
Say you had 40 GW of wind power on Dogger Bank, spinning at 40% load factor a year. You’ve also got electrolysers there. Any time you’re not powering the grid, you’re making gas – so capturing carbon dioxide from seawater, splitting water for hydrogen, making methane gas. Wouldn’t you want to use flash desalination first to get cleaner water for electrolysis ? Straight seawater electrolysis is also being done.
It depends on the relative quantities of gas concentrated in the seawater. If you’ve got oxygen, hydrogen and carbon dioxide, that would be nice. You might get loads of oxygen and hydrogen, and only poor quantities of carbon dioxide ?
But if you could get hydrogen production going from spare wind power. And even if you had to pipe the carbon dioxide from conventional thermal power plants, you’re starting to look at a sea-based solution for gas production. Using seawater, though, chlorine is the problem […]
Look at the relative density of molecules – that sort of calculation that will show if this is going to fly. Carbon dioxide is a very fixed, stable molecule – it’s at about the bottom of the energy potential well – you have to get that reaction energy from somewhere.
How Much Spare Power Will There Be ?
If you’ve got an offshore wind and solar system. At night, obviously, the solar’s not working (unless new cells are built that can run on infrared night-time Earthshine). But you could still have 100 GWh of wind power at night not used for the power grid. The anticipated new nuclear 40 GW nuclear by 2030 will produce about 140 GWh – this would just complicate problems – adding baseload nuclear to a renewables-inclusive scenario. 40 GW is arguably a reasonable deployment of wind power by 2030 – low if anything.
You get less wind in a nuclear-inclusive scenario, but the upshot is you’ve definitely got a lot of power to deal with on a summer night with nuclear power. You do have with Renewable Electricity as well, but it varies more. Whichever route we take we’re likely to end up with excess electricity generation on summer nights.
In a 70 GW wind power deployment (50 GW offshore, 20 GW onshore – 160 TWh a year), you might have something like 50 to 100 GWh per night of excess (might get up to 150 GWh to store on a windy night). But if you have a 16 GW nuclear deployment by 2030 (125 TWh a year), you are definitely going to have 140 GWh of excess per night (that’s 16 GW for 10 hours less a bit). Night time by the way is roughly between 9pm and 7am between peak demands.
We could be making a lot of Renewable Gas !
Can you build enough Renewable Gas or whatever to soak up this excess nuclear or wind power ?
The energy mix is likely to be in reality somewhere in between these two extremes of high nuclear or high wind.
But if you develop a lot of solar – so that it knocks out nuclear power – it will be the summer day excess that’s most significant. And that’s what Germany is experiencing now.
Choices, choices, choices
There is a big choice in fossil fuels which isn’t really talked about very often – whether the oil and gas industry should go for unconventional fossil fuels, or attempt to make use of the remaining conventional resources that have a lower quality. The unconventionals narrative – shale gas, coalbed methane, methane hydrates, deepwater gas, Arctic oil and gas, heavy oil, is running out of steam as it becomes clear that some of these choices are expensive, and environmentally damaging (besides their climate change impact). So the option will be making use of gas with high acid gas composition. And the technological solutions for this will be the same as needed to start major production of Renewable Gas.
But you still need to answer the balancing question. If you have a high nuclear power scenario, you need maybe 50 TWh a year of gas-fired power generation. If high Renewable Electricity, you will need something like 100 TWh of gas, so you need Carbon Capture and Storage – or low carbon gas.
Even then, the gas power plants could be running only 30% of the year, and so you will need capacity payments to make sure new flexible plants get built and stay available for use.
If you have a high nuclear scenario, coupled with gas, you can meet the carbon budget – but it will squeeze out Renewable Electricity. If high in renewables, you need Carbon Capture and Storage (CCS) or Carbon Capture and Recycling into Renewable Gas, but this would rule out nuclear power. It depends which sector joins up with which.
Carbon Capture, Carbon Budget
Can the Drax power plant – with maybe one pipeline 24 inches in diameter, carrying away 20 megatonnes of carbon dioxide per year – can it meet the UK’s Carbon Budget target ?
Whilst doing a little background research into biological routes to hydrogen production, I came across a scientific journal paper, I can’t recall which, that suggested that the geological evidence indicates that Earth’s second atmosphere not only had a high concentration of methane, but also high levels of hydrogen gas.
Previously, my understanding was that the development of microbiological life included a good number of methanogens (micro-life that produces methane as a waste product) and methanotrophs (those that “trough” on methane), but that hydrogenogen (“respiring” hydrogen gas) and hydrogenotroph (metabolising hydrogen) species were a minority, and that this was reflected in modern-day decomposition, such as the cultures used in biogas plants for anaerobic digestion.
If there were high densities of hydrogen cycle lifeforms in the early Earth, maybe there are remnants, descendants of this branch of the tree of life, optimal at producing hydrogen gas as a by-product, which could be employed for biohydrogen production, but which haven’t yet been scoped.
After all, it has only been very recently that psychrophiles have been added to the range of microorganisms that have been found useful in biogas production – cold-loving, permafrost-living bugs to complement the thermophile and mesophile species.
Since hydrogen and methane are both ideal gas fuels, for a variety of reasons, including gas storage, combustion profiles and simple chemistry, I decided I needed to learn a little more.
I have now read a plethora of new theories and several books about the formation of the Earth (and the Moon) in the Hadean Eon, the development of Earth’s atmosphere, the development of life in the Archaean Eon, and the evolution of life caused by climate change, and these developments in living beings causing climate change in their turn.
“Amino acids, sugars, and the components of DNA and RNA adsorb onto all of Earth’s most common rock-forming minerals […] We concluded that wherever the prebiotic ocean contacted minerals, highly concentrated arrangements of life’s molecules are likely to have emerged from the formless broth […] Many other researchers have also settled on such a conclusion – indeed, more than a few prominent biologists have also gravitated to minerals, because origins-of-life scenarios that involve only oceans and atmosphere face insurmountable problems in accounting for efficient mechanisms of molecular selection and concentration. Solid minerals have an unmatched potential to select, concentrate, and organize molecules. So minerals much have played a central role in life’s origins. Biochemistry is complex, with interwoven cycles and networks of molecular reactions. For those intricately layered processes to work, molecules have to have just the right sizes and shapes. Molecular selection is the task of finding the best molecule for each biochemical job, and template-directed selection on mineral surfaces is now the leading candidate for how nature did it […] left- and right-handed molecules […] It turns out that life is incredibly picky : cells almost exclusively employ left-handed amino acids and right-handed sugars. Chirality matters […] Our recent experiments have explored the possibility that chiral mineral surfaces played the starring role in selecting handed molecules, and perhaps the origins of life as well. […] Our experiments showed that certain left-handed molecules can aggregate on one set of crystal surfaces, while the mirror image […] on other sets […] As handed molecules are separated and concentrated, each surface becomes a tiny experiment in molecular selection and organization. On its own, no such natural experiment with minerals and molecules is likely to have generated life. But take countless trillions of trillions of trillions of mineral surfaces, each bathed in molecule-rich organic broth […] The tiny fraction of all those molecular combinations that wound up displaying easier self-assembly, or developed a stronger binding to mineral surfaces […] survived […] possibly to learn new tricks.”
On the face of it, the oceans are increasing their capacity to suck carbon out of the air, either by biological means or through simply mixing with the air, so some argue that we should relax and rely on these carbon sinks to avert dangerous warming of the ground level atmosphere – maintaining a healthy atmosphere for all land-based life.
For now, the ocean carbon sink is holding up and compensating for some global warming, but there are concerns should the carbon pump fail, or the effects of global warming overtake it.
The very latest research into changes in the World Ocean show clear trends in salinity – how fresh or how salty seawater is. These changes are associated with the higher energy in the Earth system : more heat captured by the ocean is making wind patterns more powerful, which makes ocean overturning stronger.
Of special concern is the effect this could have on the Southern Ocean. A stronger overturning would increase the upwelling of deep ocean water, which would draw long-sequestered carbon-rich gases from the deeps to the surface of the sea, where it would outgas to the atmosphere.
Carbon Capture and Storage (CCS) is a collection of actual and proposed technologies to return the carbon dioxide from fossil fuels back underground, or somewhere else where they can stop interfering with the global carbon cycle.
An excess of carbon dioxide in the atmosphere is causing a range of problems, including acid ocean and most seriously, climate change.
Carbon Capture and Storage, or Sequestration, was first seriously proposed back in the 1970s, by a range of scientists and engineers, including Cesare Marchetti, (“On Geoengineering and the CO2 problem”, Climatic Change, Volume 1, Number 1, Pages 59 – 68) who is reputed to have coined the term “geoengineering” (see “Geoengineering: Could or should we do it?”, Stephen H. Schneider, Climatic Change, Volume 33, Number 3, Pages 291 – 302).
I was less than a metre above current sea level, rooting about in the holy bookshelves of my Evangelical host, searching for a suitable title.
I pulled out “Who Made God ?” from underneath a pile of books on their sides, letting the column slump downwards, alerting my companions to the fact that I had definitively made my choice for the evening’s reading.
We were treated to gentle Christmassy music for an hour or so as we all gave up talking to read by candlelight and compact fluorescent.
I didn’t read fast, as at first I didn’t have my newly-necessary reading glasses, and when I was encouraged to fetch them, the light was too dim to make reading easy. Those fashionable uplighters.
I read into the second part, and I had already formed in my mind several disagreements with the author, Professor Edgar Andrews, despite him having taken several good lines of reasoning and made some humourous points which I had duly responded to with a slight audible giggle.
I instinctively didn’t like his pitch about the impossibility of organic chemistry and I froze a little : personally I see no need for God’s personal, literal, physical intervention to make the ladders and spirals of genes – the DNA and RNA forming from the appropriate nucleotide bases – A, T, G, C.
And then the book’s author blew away his credibility, for me, at least, by getting bogged down in the absolutes of Physics, and ignoring Chemistry. He quoted the Laws of Thermodynamics, and claimed Entropy as proof that God doesn’t play dice because he’s in the garage playing mechanic. The direction of the universe, the arrow of time, plays towards randomness, the author of the book proclaimed. Order cannot come from inorganic matter – Life is the organising force.
At this, I took several forms of dispute, and immediately found in my mind the perfect counter-example – the formation of crystals from saturated solution – the building of the stalgamite and stalagtite from the sedimentary filtering of rainwater. Another example, I think, is chiral forms of molecular compounds – some chemicals behave in different ways if formed lefthandedly or righthandedly. The different forms behave predictably and consistently and this is an ordered behaviour that I believe – without the necessary university instruction in Chemistry – is an imposed denial of chaos.
In fact, the whole of Chemistry, its world of wonder in alchemy, I think points to a kind of natural negation of the Laws of Physics. There is the Micro World, where Newton, and more introspectively, Einstein, are correct in their theoretical pragmas. But in the Macro World, there is Chemistry, and there are precursor compounds to organic essentials. Life forms itself from dead stone. For a Physicist this is “just not cricket”, it is a whole new universe.
Why can Aluminium be used for containers in microwave ovens, but steel cannot ? And why is Aluminium so light ? Why does water expand when it freezes ? Here the Physicists can help out. But they cannot, when it comes to explaining, or even accurately predicting, all the chemical properties of alloys and compounds.
I have been pondering, in a crude, uneducated way, about industrial chemistry for the last couple of months. How large volume reactions are encouraged, catalysed. How fluids work. How gases breathe. My conclusion is that most chemical engineering is a bit brutish, like the workings of the internal combustion engine. Things are a tad forced. It is probably not possible for chemical engineers to replicate photosynthesis entirely – it’s too dainty for them. But that is the kind of chemistry we need to overcome our climate and energy problems.
We may not be able to match the leaves on the trees, but we can do gas chemistry and electricity and semiconductor physics, and it is gas chemistry and electricity and semiconductor physics that will save the planet. Electricity to replace much fuel. Semiconductor physics to bypass photosynthesis. And Renewable Gas chemistry – engineering the chemical building blocks of the future and providing backup to the other green energies.
On my Christmas journey, on the train from Brussels, Belgium, to the Dutch border, besides the wind turbines, I counted the number of solar electric rooftop installations I could see. My estimate was that roughly 300 kilowatts of solar could be seen from the track.
There has been an explosion of deployment. The renewable energy policies that are behind this tide of photovoltaics in Flanders seem to be working, or have been until recently.
On my journey back from Holland to England, I pondered about the polders and the low-lying landscape around me. I don’t know what river it was we crossed, but the river was only held in place by narrow banks or dikes, as it was higher than the farmland around it – waterlogged fields in some places – where parcels of land were divided by stillwater ditches instead of hedges or fences.
“Oh no, we don’t have “Mary Poppins” on Dutch TV any more at Christmas every year like we used to. We’re going to see the film “The Storm”…” said my host. Curiouser and curiouser. “De Storm” is a film that harks back to an actual historical event, the major North Sea flooding in 1953. “I remember what it was like afterwards,” says an older English relative, “I visited Belgium and Holland with my aunt and uncle just after the flooding – he wanted to visit the family war graves. We stayed in Middelburg. You could see how high the water reached. There were tide marks this high on the side of the houses, and whelks left stuck on the walls.”
The film attempts to nail down the coffin casket lid of bad weather history. By telling the narrative of major, fearful floods of the past, people are distracted from the possibility that it may happen again. History is history, and the story tells the ending, and that’s a finish to it.
We have to be prepared for change, major change. If you or anyone you know has Dutch relatives and friends, think about whether you can invite them to live with you in future if things get reallybad. One or two really bad storms combined with excessive tides and a few centimetres of sea level rise could be all it takes to wreck the country’s ability to organise water and destroy a significant amount of agricultural land.
“I’ve been studying Climate Change science”, I told another host. “You believe in Climate Change ?”, he asked, somewhat incredulously. “It’s 200 years of science”, I replied, smiling, “but we probably shouldn’t discuss it. I don’t think it would be very productive.”
Flushing gas from sandy mud-rock, deep underground. Hmmm. Bet that’s energy- and resource-efficient. Not.
So…the whole caravan comes to town, builds the rig, pipes in water, pumps in chemicals, filters off the gas, pipes out the poisoned water somewhere unquantified, and then packs everything up after a few months because there’s no more gas coming up, leaving the area looking like a moon crater :-
So how carbon-intensive is this kind of operation ? It’s a bit like chopping down Indonesian and Malaysian tropical rainforest to grow oil palm and then burning dirty bunker fuel to ship it all the way to Europe to make “cleaner burning” biodiesel. In fact, it could be worse than that – it could be dirtier than coal :-
And what’s all this business about chemical adulteration of groundwater ? That could be to do with the “hydraulic fracturing” process from horizontal drilling :-
It’s true that the business needn’t resemble a travelling circus when there’s a large “play” of shale and horizontal drilling is used, but what about the possible side effects of chemical leakage into bodies of water and seismic activity, which doesn’t seem to get mentioned very often ? :-
There is some concern that shale gas is being promoted as a new “cure-all” for the energy industry, as gas is believed to be a cleaner source of fuel than coal, and gas shale is much, much cheaper than the proposed carbon capture projects and new nuclear power stations, which will only be developed with substantial tax breaks or subsidies or grants. (I mean, can you see a carbon price being set high enough to pay to make it worthwhile to fit Carbon Capture to every coal plant in the world ?) :-
“The recent ‘shale gas revolution’ in the United States has created huge uncertainties for international gas markets that are likely to inhibit investment in gas – both conventional and unconventional – and in many renewables. If the revolution continues in the US and extends to the rest of the world, energy consumers can anticipate a future dominated by cheap gas. However, if it falters and the current hype about shale gas proves an illusion, the world will face serious gas shortages in the medium term”
A Carbon Capture and Storage (CCS) fan wrote to me, linking to the CCS industry :-
“A British study indicates that cheap low-emission shale gas, with double the global reserves of conventional sources, will discourage investment in nuclear reactors and carbon storage. “In a world where there is the serious possibility of cheap, relatively clean gas, who will commit large sums of money to expensive pieces of equipment to lower carbon emissions?” Paul Stevens, senior research fellow at Chatham House, a London-based institute for the study of international affairs, wrote in the report published today.”
This is what the CCS fan had to add :-
“What this important article from the ‘CaptureReady’ international CCS news website fails to pick up (although other authors have) is that these prices will have an equal dampening effect on all renewables projects as well, […] never mind offshore wind power costs, while easily meeting all conceivable carbon dioxide reduction targets out to beyond 2050 and delivering reliable, dispatchable power, with none of the unreliability/unpredictability ‘down-sides’ of variable wind output. ‘I know which I’d pick’ as a power company today, especially given the low investment cost per kW […]. Looks like it may be ‘gas forever’ for at least the next couple of decades, so we need to lobby very hard for CCS from the start on every new gas powerplant and large industrial plant, followed by a big programme of properly-subsidised CCS retrofits, if that’s where the real industrial world is going…the quoted US conventional gas number is just plain wrong (far too high!), and the Shale gas price is very geology/location and project-scale-dependent (that is, variable), so that price in Texas does not mean similarly low shale gas prices everywhere – meaning the total resource quoted is certainly not available at that sort of low price. As with all resources, there’s actually a ‘staircase’ of amount versus price. Shale gas exploitation is ‘inherently costly’ (capital-intensive) due to the relatively larger number of wells needed, the poor permeability and the considerable cost of the ‘fracking’ operation itself. The poor inherent permeability inevitably means that the production rate will decline more steeply and quickly than conventional gas wells, meaning that costly multiple repeat fracking may be necessary, adding to costs.”
And as a summary of the shale gas downsides :-
Main conclusions [on shale gas] :
1. Huge levels of uncertainly on total reserves and future production rates, even in the USA.
2. Not at all certain that the large-scale US shale gas experience can be replicated in Europe/Rest of the World at all – environmental issues/local NIMBY [Not In My Back Yard] may stop it in its tracks.
3. Said huge uncertainties, on top of the recent recession, is significantly increasing commercial risk factors and inhibiting new production investment in all types of energy supply. Possibility of resulting very steep multi-year price rises, if shale gas ‘fails to deliver’, as demand rises and exceeds current supply, due to investment cycle time lag.
4. Particular over-supply problems in the LNG [Liquid Natural Gas – mostly from the Middle East] sector which should keep the cost of UK imported LNG low for a considerable time.
5.The EU has shown itself unable/unwilling to invest state funds in new gas production/transport projects of all types.”
Forget about price just for a moment…remind me again…where does all that fracking water, with all those toxic chemicals in it, end up ?
Very long-lived trees tell the story of the last 5,000 years or so.
The gradual cooling of the Holocene interglacial is overtaken by a truly anomalous warming over the last few hundred years.
How unusual have conditions been in the last few hundred years ? The carbon 13 isotope can give us one point of view [ Boehm et al. (2002) ] :-
And the oxygen 18 isotope can add detail about climatic changes not readily apparent from the carbon isotope record [ Berkelhammer and Stott (2008) ] :-
The balance of oxygen isotopes in plants in this study provide some perspective on rainfall and storm patterns, which appear to have started changing before significant temperature changes came into view.
Depletion of oxygen from the atmosphere provides evidence that the accumulation of carbon dioxide is from the oxidation (burning) of fossil fuels :-
An incomplete recording of the BBC Horizon programme “The Death of the Oceans ?” narrated by David Attenborough is below.
It’s about Global Warming, of course (and overfishing, and sonar making whales deaf – which is the bit that’s missing at the end). But it’s also about Global Warming’s evil twin – Ocean Acidification.
Believe what you will about the Anthropogenic component of Global Warming, and I know some of you resist the Science as if it were a hairy, sweaty, alcoholic dentist threatening to pull your teeth without Novocaine, but there’s no way you can deny that the increasing concentration of Carbon Dioxide in the atmosphere, most of it a direct result of humankind’s burning of Fossil Fuels, is turning the Oceans into a giant bucket of fizzy soda, and is threatening marine life, which is a huge risk to the whole of Life on Earth.
The only solution is to stop burning so much Coal, Oil and Gas. Really, that’s the only way.
Oh, you can fight this inevitability with every brain circuit you have, trying to force others to believe that everything’s still OK, that the Earth is not dangerously heating up, that Life on Land and in the Oceans is not on the cusp of mass extinction, and that Progress is just fine, and Economic Recovery, or Shiny New Technology, or Geoengineering will save us, but one day you will understand. You will accept. The global systems of production, transport and agriculture have to change. The Carbon-based Industrial Age will be gone in only a few decades, only a couple of hundred years after it started.
You can relax. Everything will be fine – eventually. When we have Wind Farms on every ridge top, Solar Power plants in every desert, Geothermal stations in our Town Halls, Combined Heat and Power running on Biomass in every street, Marine Power-gathering machines, Organic food, small electric cars, useful 24 hours-in-a-day networks of electricity-powered public transportation. The time is coming for the new human world to be born – and it will be green, clean and less energy-hungry than before.
It’s going to be a bit of a traumatic birth and the Climate Medics are working hard in the delivery suite, but soon, very soon, Green Investment will see the light of day – those who are wealthy will, as one, put their finances towards Renewable Energy and Energy-efficient machines and Energy Demand Management, real assets, with real returns on investment, and the future will be secured.
“August 2010 : Scientific American Magazine : Threatening Ocean Life from the Inside Out; August 2010; Scientific American Magazine; by Marah J. Hardt and Carl Safina : …As researchers, we were concerned about the underappreciated effects of changing ocean chemistry on the cells, tissues and organs of marine species. In laboratory experiments at the University of Gothenburg in Sweden, Havenhand had demonstrated that such changes could seriously impede the most fundamental strategy of survival: sex. Ocean acidification—a result of too much carbon dioxide reacting with seawater to form carbonic acid—has been dubbed “the other CO2 problem.” As the water becomes more acidic, corals and animals such as clams and mussels have trouble building their skeletons and shells. But even more sinister, the acidity can interfere with basic bodily functions for all marine animals, shelled or not. By disrupting processes as fundamental as growth and reproduction, ocean acidification threatens the animals’ health and even the survival of species. Time is running out to limit acidification before it irreparably harms the food chain on which the world’s oceans—and people—depend.”
And global warming will only make the problem worse :-
Letter : Nature Geoscience 2, 105 – 109 (2009)
Published online: 25 January 2009 : doi:10.1038/ngeo420
“Long-term ocean oxygen depletion in response to carbon dioxide emissions from fossil fuels”
Gary Shaffer, Steffen Malskær Olsen & Jens Olaf Pepke Pedersen
“Abstract : Ongoing global warming could persist far into the future, because natural processes require decades to hundreds of thousands of years to remove carbon dioxide from fossil-fuel burning from the atmosphere. Future warming may have large global impacts including ocean oxygen depletion and associated adverse effects on marine life, such as more frequent mortality events, but long, comprehensive simulations of these impacts are currently not available. Here we project global change over the next 100,000 years using a low-resolution Earth system model, and find severe, long-term ocean oxygen depletion, as well as a great expansion of ocean oxygen-minimum zones for scenarios with high emissions or high climate sensitivity. We find that climate feedbacks within the Earth system amplify the strength and duration of global warming, ocean heating and oxygen depletion. Decreased oxygen solubility from surface-layer warming accounts for most of the enhanced oxygen depletion in the upper 500 m of the ocean. Possible weakening of ocean overturning and convection lead to further oxygen depletion, also in the deep ocean. We conclude that substantial reductions in fossil-fuel use over the next few generations are needed if extensive ocean oxygen depletion for thousands of years is to be avoided.”
One can only imagine the frustration that Rob Dunbar feels as, calmly as he can, he explains why the Earth is in trouble from rising Atmospheric Carbon Dioxide concentrations, the product of the last few hundred years of the industrial use of Fossil Fuel energy.
Just ignore the wrap-around advertisement and get to grips with the presentation of the data.
The part about Ocean Acidification may alarm or scare you – but you, and you alone, are in charge of your personal emotional state. If you feel it is more appropriate to act out of concern rather than live in the despair of fear, join the Climate Activists, wherever you find them.
Watch out, though. Some give the appearance of being Climate Concerned but are actually Climate Zombies :-
Linking Climate Change to other Environmental Problems
The Greenhouse Gas Carbon Dioxide (CO2) from humankind’s activities is accumulating very rapidly in the Atmosphere, and this is why the international Climate Change negotiations and Climate Change Science focus on it so heavily.
The warming response of the Earth’s surface correlates strongly with the rise in Carbon Dioxide in the Atmosphere, so Global Warming can be treated almost entirely as the Earth system’s reaction to rising levels of this one gas.
Other Greenhouse Gases, such as Methane (CH4) and high level water vapour (H2O), are increasing in line with the rise in Carbon Dioxide.
Logic and experiment dictates that they are doing this in response to the rise in Carbon Dioxide, so their rise is a feedback effect in the Earth system – a reaction to rising temperatures – caused by the warming due to increasing airborne Carbon Dioxide.
However, Carbon Dioxide is not the only Greenhouse Gas that humankind is pumping into the Atmosphere in excess of natural levels – a rather famous example being that growing numbers of livestock are belching Methane that is adding to the up-tick on concentrations of Methane in the Atmosphere.
There are still high levels of various gaseous industrial pollution, some of which is in the form of Greenhouse Gases.
In addition, Global Warming is not the only environmental problem, although it is exacerbating other environmental problems.
Climate Change is an added stressor on natural habitats that are being degraded by pollution, bad land management and deforestation.
It seems obvious to take a step back to the Rio Earth Summit of 1992 and mesh together once more the environmental threads of the United Nations conventions : on Climate Change, Biodiversity and Desertification.
We shouldn’t have to keep restating the very obvious, but it appears that public understanding is very poor in some cases.
We could simply say, “Ah well. The general public doesn’t need to be convinced of the truth of the matter. We can just present the data to the decision-making authorities and they will do the right thing, so it won’t matter what the people in general think.”
Trouble is, there appears to be continuing interference in the patterns of thought of the decision-makers, from a range of sources, notably the mainstream media.
Tune in to the facts. Banish the pacifying voices. We are at war with ourselves, and if we don’t stop burning fossil fuels, there will be an end to vast swathes of life on Earth.
It seems that anthropogenic interference with the atmosphere has undermined two important things :-
(a) The ability of phytoplankton to reproduce because of the heat and the acidity of the oceans – thereby compromising the base of the entire global food chain and, more seriously,
(b) By reducing the conditions for phytoplankton success, cutting off one of the “Carbon sinks” on the planet that we really need to soak up a proportion of the excess Carbon Dioxide that we are pumping into the air.
Currently, the world’s biomass processes somewhere between 40% and 50% of all humankind’s excess Carbon Dioxide emissions, the CO2 we have made by taking Fossil Fuels out of the ground and burning them.
If this Carbon sink becomes less effective, Global Warming will become much stronger, as there will be a faster build-up of Carbon Dioxide in the Atmosphere.
Much as, in principle, progress could be made in having an 80% majority push through commitments on Global Warming, as part of the United Nations Climate Change negotiations process, some commentators feel highly uneasy that important voices from the international community, based around the emerging Science, could be drowned out by these “big hitters” :-
“July 19-20 2010 : The first-ever Clean Energy Ministerial will bring together ministers and stakeholders from more than 20 countries to collaborate on policies and programs that accelerate the world’s transition to clean energy technologies.”
“UN in fresh bid to salvage international deal on climate change : Campaigners welcome plans to amend the way Kyoto protocol resolutions are passed : The Guardian, Thursday 22 July 2010…If the UN’s [United Nations] suggestions are adopted, decisions will be forced through if four-fifths of the protocol vote in favour, after all efforts to reach agreement by consensus have been exhausted. The amendments would come into force after six months…”It is surprising and a big, big deal that the UN is suggesting such considerable reforms as a change in the consensus rules,” said [Mark] Lynas…In a further attempt to galvanise the climate change body into motion, the UN also suggested that countries could be forced to opt out of any amendments, as opposed to the current arrangement whereby they must explicitly agree to any decisions tabled…The amendment, which will be presented in Bonn in August, reads: “An amendment would enter into force after a certain period has elapsed following its adoption, except for those parties that have notified the depositary that they cannot accept the amendment.”…But Lynas warned that any changes to the current consensus situation would cause “fury, angst and consternation”. It could, he said, exacerbate the deep mistrust between rich and poor countries that has already bedevilled the global climate talks.”…
Don’t believe that the globe is warming up ? Not even after scanning the available sources ? Well, that’s probably down to the failure of your public and private Media, who are, for the most part, seemingly institutionally incapable of telling the full unexpurgated facts :-
“19 June 2010 : Contrary to the impression you might have gained from the media, the global climate is NOT cooling. In fact, the last twelve months, June 2009 – May 2010, has been the hottest June-May period on record, in both the 31-year satellite record of lower atmosphere global temperature and the 131-year surface global temperature record. In both data series the last 12 months have been more than 0.4C hotter than the average temperature of the last two decades of the 20th century…”
And why just stop at the evidence from the temperatures ? Don’t believe the oceans are deteriorating ? Why not look at the full range of research ?
Oct. 20 (Bloomberg) — Steven D. Levitt and Stephen J. Dubner are so good at tweaking conventional wisdom that their first book, “Freakonomics,” sold 4 million copies. So when Dubner, an old friend, told me their new book would take on climate change, I was rooting for a breakthrough idea.
No such luck. In “SuperFreakonomics,” their brave new climate thinking turns out to be the same pile of misinformation the skeptic crowd has been peddling for years.
“Obviously, provocation is not last on the list of things we’re trying to do,” Dubner told me the other day. This time, the urge to provoke has driven him and Levitt off the rails and into a contrarian ditch.
…Having downplayed the problem, they try to solve it with a set of silver-bullet technologies known as geoengineering. One would shoot millions of tons of sulfur dioxide 18 miles into the air to artificially cool the planet. This could work; it also could have dire unintended consequences.
Caldeira, who is researching the idea, argues that it can succeed only if we first reduce emissions. Otherwise, he says, geoengineering can’t begin to cope with the collateral damage, such as acidic oceans killing off shellfish.
Levitt and Dubner ignore his view and champion his work as a permanent substitute for emissions cuts. When I told Dubner that Caldeira doesn’t believe geoengineering can work without cutting emissions, he was baffled. “I don’t understand how that could be,” he said. In other words, the Freakonomics guys just flunked climate science.”
“It all started with climate activist Joe Romm accusing the authors Steven Levitt and Stephen Dubner of global warming denial and misrepresenting the research of a key climate scientist. They pushed back, and fellow New York Times blogger and celebrated columnist Paul Krugman jumped in the fray…”
Environmentalism has trudged a long, winding, often silent road, with many cul-de-sacs of defeat, desperation and despair.
In the last few years there has been a raising of the collective consciousness about how many problems are interrelated with an obscure corner of gas chemistry, which offers grave prospects for the whole of Life on Earth.
Ecologists and treehuggers of all varieties have started to gather round the camp fire of Climate Change, finding that people will pay attention to the destruction of Nature if they pay attention to their own fate first.
Atlanta, Georgia is running out of fresh drinking water. I heard about it at second hand from one of my relatives who lives there.
Lake Lanier is suffering from drought. Of course there are a number of factors, not just Climate Change. But the combination of cyclical drought, US Army Corps of Engineers activities, increasing urban population and agricultural take doesn’t seem to be able to explain everything.
Of particular concern is the condition known as anoxia, lack of oxygen in the water. This will be partly caused by chemical run-off from surrounding farming land and any industrial activity, and also changes in composition of the tributary rivers which feed it, which will all be exacerbated by changes in rainfall caused by Climate Change.
Geoengineering. Sounds great. Treat the Earth like one big motoring machine, get under the hood (bonnet) and tinker with it.
But what if actually this is the equivalent of putting the Planet on a life support system ventilator, and the plug could be pulled at any time ?
How sustainable are some of the Geoengineering proposals ? Are they guaranteed to work ? Won’t they have knock-on side-effects ? Are they reversible if they prove unhelpful ? And how much will they cost ?