Dear John, Mike et al.,

I make an attempt to provide the "authoritative" answer. The ocean will 
continue to take up CO2 from the atmosphere as long as it has not fully 
equilibrated with the atmospheric CO2 perturbation - and that will take a long 
time (thousands of years), as it includes not only the transport and mixing 
with the deep ocean (roughly responsible for taking up 80% of a perturbation), 
but also CaCO3 compensation mechanisms (a rough additional 10% or so). Ocean 
warming, changes in ocean circulation and biological activity have the 
potential to alter the exact path and the final air-sea redistribution of the 
additional carbon put into the Earth System, but based on everything we know to 
this point, these potential feedbacks do not fundamentally change the picture. 

What is important to recognize is that in the same way as any addition of CO2 
to the atmosphere drives a flux of CO2 INTO the ocean, any removal of CO2 from 
the atmosphere will drive a flux of CO2 OUT of the ocean. Thus, the widespread 
application of BECCS will not be 100% effective in reducing atmospheric CO2. 

This is the global picture. If you start looking into the details, the 
situation gets much more complex, but also more fascinating. For example, once 
CO2 is stabilized in the atmosphere or even starts to fall, the ocean uptake is 
no longer simply driven by the flux of CO2 across the air-sea interface, but 
involves strong internal reorganizations of the anthropogenic CO2 pool. And 
when atm. CO2 really starts to come down, some regions will actually begin to 
outgas anthropogenic CO2, while others will continue to take it up vigorously. 

There exists a nice analog right now in the form of bomb radiocarbon, where atm 
14C has come down strongly since the peak, while the ocean has not fully 
equilibrated with this perturbation yet. I refer to a recent paper of ours 
(Graven et al., 2012) that discusses the oceanic uptake of radiocarbon in this 
(second) phase of uptake. And for a general background, I refer to Sarmiento 
and Gruber (2006)

I hope this helps.

For specific answers, see below.

-- best regards, Niki

Reference: 
Graven, H.D., N. Gruber, R. Key, S. Khatiwala and X. Giraud (2012), Changing 
controls on oceanic radiocarbon: New insights on shallow-to-deep ocean exchange 
and anthropogenic CO2 uptake, J. Geophys. Res., doi:10.1029/2012JC008074.

Sarmiento, J. L. and N. Gruber, Ocean Biogeochemical Dynamics, Princeton 
University Press, Princeton, NJ, 526pp, 2006.

PS: Note that I did not mention El Nino, outgassing etc, since these are 
largely fluctuations of the natural carbon cycle and actually have only a 
limited impact on the net uptake of (anthropogenic) CO2 from the atmosphere.

PPS: Re the specific questions:

a.     1. Would a time lagged model reveal a stronger pattern?

NO - or only to a marginal degree: The net ocean uptake of anthropogenic CO2 
depends primarily on the total amount of excess CO2 in the atmosphere and only 
to 2nd order on its rate of change. 

> 
> b.     2.  If we could separate out the land sink, would the ocean sink show 
> a stronger relationship between sink and emissions? 

Not on annual scales. Again, what matters primarily is total amount of CO2 in 
the atmosphere, i.e., the air-borne fraction weighted integral of the emissions.

> 
> c.     3.   Does the ocean sink each year have little to do with annual 
> emissions and more to do with the disequilibrium between deep and mixed layer 
> referred to above. 
> 
> 
YES - this is the rate-limiting step.

__________________________________________________

Prof. Nicolas Gruber, Environmental Physics Group, ETH Zürich 
Institute of Biogeochemistry and Pollutant Dynamics and 
                     Center for Climate Systems Modeling (C2SM)
http://www.up.ethz.ch/people/ngruber


On 17 Jun 2015, at 15:50, Mike MacCracken <mmacc...@comcast.net> wrote:

> Hi John—I’m guessing (hopefully in an educated way), but I would think that 
> the variation in the apparent net atmosphere to surface ocean flux is mainly 
> a result of state of the tropical ocean, so whether the upward moving deep 
> water that is supersaturated in CO2 is getting mixed into the ocean surface 
> layer and outgassing or is covered by warm water (as in El Nino years) and so 
> the CO2 remains trapped below, and that all of this creates a bit of a lag (a 
> year or so, etc.). Yes, there is also some variation in bottom water 
> formation rates and so how much CO2 is being taken down but I would guess the 
> larger variation is from the outgassing effect at low latitudes. It would be 
> nice if a real carbon cycle modeler stepped in and provided authoritative 
> answers.
> 
> Best, Mike
> 
> 
> On 6/16/15, 8:54 PM, "John Harte" <jha...@berkeley.edu> wrote:
> 
>> Mike, you are posing the following knotty question:
>> How much of the ocean sink is driven by the mismatch between annual 
>> emissions and the mixed layer concentration (this is the portion of the sink 
>> that should scale with annual emissions) vs. how much of the sink is driven 
>> by the disequilibrium between the mixed layer and the deep ocean (this is 
>> the portion of the sink that is driven by the difference between the current 
>> level in the air and the level in the deep ocean, which in turn should scale 
>> roughly with cumulative emissions(.
>> Here are some things I think I know about the ocean sink.
>> 1.     1. Revelle factor: assuming only carbonate chemistry and pH, ~ 80-85% 
>> of whatever we emit to the atmosphere will eventually be removed. 
>> 
>> 2.     2. Temperature dependence of chemical equilibrium constants: a warmer 
>> ocean will outgas CO2, so the Revelle limit has to be corrected if the ocean 
>> is warmer.  
>> 
>> 3.     3. The flow from air to sea is roughly proportional to the gradient  
>> between air and mixed layer.
>> 
>> 4.    4.   The flow from mixed layer to deep ocean is very complex.  It has 
>> already brought significant carbon down to at least 500-700 m, or in other 
>> words well below the mixed layer.                                  It is 
>> this mixed layer depletion through the thermocline that  allows the mixed 
>> layer to continue drawing more CO2 from the atmosphere. 
>> 
>> I believe that simple models that combine the chemistry and the temperature 
>> effects tend to show a persistent sink …                                     
>>                                                                              
>>           i.e., 2. reduces 1. only a little.  At least that is what the 
>> modeling I have done reveals.  But this is where I would like to see the 
>> output of the most recent and advanced modeling.                             
>>                                                                              
>>                                                          The strength of the 
>> outgassing will of course depend on the time evolution of the temperature 
>> profile into the deep ocean, and unfortunately our data on that are sparse 
>> (to my knowledge). 
>> Related to all this, I would like to see answers to the following questions 
>> that are suggested by the fact that a plot of the total sink strength 
>> (GT(C)/y) does not appear to bear a strong relationship to annual emissions 
>> the previous year.    
>> a.     1. Would a time lagged model reveal a stronger pattern?
>> 
>> b.     2.  If we could separate out the land sink, would the ocean sink show 
>> a stronger relationship between sink and emissions? 
>> 
>> c.     3.   Does the ocean sink each year have little to do with annual 
>> emissions and more to do with the disequilibrium between deep and mixed 
>> layer referred to above. 
>> 
>> In other words, is the annual ocean sink proportional to annual emissions 
>> (maybe with a lag adjustment) or is it proportional to the flow from mixed 
>> layer to deep ocean (in which case it would persist even if emissions went 
>> to zero).
>> 
>> To my knowledge, no definitive answer has been given to this quesition.  
>> Given the rather large amount of C (and heat) that has penetrated below the 
>> mixed layer I suspect the answer is the latter, but this question really 
>> begs for more analysis.
>> 
>> 
>> Regarding the land sink, I don't think today's GCM's have the capability of 
>> generating believable predictions…because ecologists don't have the 
>> necessary information/insight.
>> 
>> 
>> 
>> 
>> John Harte
>> Professor of Ecosystem Sciences
>> ERG/ESPM
>> 310 Barrows Hall
>> University of California
>> Berkeley, CA 94720  USA
>> jha...@berkeley.edu
>> 
>> 
>> 
>> On Jun 16, 2015, at 1:33 PM, Mike MacCracken <mmacc...@comcast.net> wrote:
>> 
>>> Re: [geo] World Bank report highlights necessity of (BE)CCS 
>>> John H and Greg—Sorry, I’m running a bit behind. I want to go back to this 
>>> issue of how long the carbon sink in the ocean will continue at the 
>>> magnitude it is. Someone will have a good model to actually run and see, 
>>> but I’m concerned that the rate will not continue so large for so long.
>>> 
>>> So, the atmosphere works to be in equilibrium with the upper ocean 
>>> concentration, and that time constant is pretty fast (years to a decade or 
>>> so). Right now, water at low latitudes comes up supersaturated and emits 
>>> CO2 to the atmosphere as it warms, so a lower CO2 concentration in the 
>>> atmosphere will lead to increased emissions. And then as the ocean moves 
>>> poleward and cools CO2 is taken up and a lower CO2 concentration in 
>>> atmosphere will mean less is taken up.
>>> 
>>> Now, the upper ocean is also seeking to reach equilibrium with the deep 
>>> ocean, and this will indeed take a long time given deep ocean circulation 
>>> time is of order 1000 years. So, the upward flux from deep ocean will 
>>> continue as is (assuming that the overturning does not change), but would 
>>> not the downward flux to the deep ocean be decreasing per discussion above? 
>>> So, it seems to me, the downward circulation aspect of the carbon cycle 
>>> becomes goes down as the atmospheric concentration stops going up.
>>> 
>>> Thus, I just don’t think it is right that one can assume the net removal 
>>> rate from the atmosphere to the ocean will persist at its current rate for 
>>> well into the future as global emissions go down (or go to zero). In the 
>>> past, the net transfer rate to the deep ocean has gone up as the 
>>> atmospheric concentration has gone up—why would it not go down as the rate 
>>> of increase in the CO2 goes to zero?
>>> 
>>> Mike
>>> 
>>> 
>>> On 6/10/15, 4:54 PM, "John Nissen" <johnnissen2...@gmail.com 
>>> <x-msg://673/johnnissen2...@gmail.com> > wrote:
>>> 
>>>> Hi John,
>>>> 
>>>> Even IPCC admits that there will be dangerous climate change without 
>>>> negative emissions, by which they mean geoengineering of the CO2 removal 
>>>> type (CDR).  RCP2.6, the only scenario which has a reasonable chance of 
>>>> keeping global warming below 2 degrees C, relies on negative emissions.  
>>>> So I argue that it is indefensible not to consider what CDR techniques can 
>>>> be implemented.  Such consideration will lend force to the efforts to 
>>>> reduce emissions, because people will realise how serious the situation 
>>>> has become.  Thus the consideration of geoengineering will be 
>>>> strategically productive, rather than counterproductive as you suggest.
>>>> 
>>>> We have to find a way to remove CO2 faster than it is being put into the 
>>>> atmosphere.  That is the bottom line.
>>>> 
>>>> BTW, we also have to find a way to cool the Arctic and save the sea ice: 
>>>> that is even more urgent.  (CO2 reductions will not help here; nor will 
>>>> CDR.)  This will almost certainly require SRM-type geoengineering together 
>>>> will local interventions such as snow generation and ice thickening to 
>>>> restore albedo.
>>>> 
>>>> Cheers, John
>>>> 
>>>> 
>>>> On Wed, Jun 10, 2015 at 7:50 PM, John Harte <jha...@berkeley.edu 
>>>> <x-msg://673/jha...@berkeley.edu> > wrote:
>>>>> I am no more confident than you, Greg, that we will reduce emissions by 
>>>>> ~2%/y.  That we could do so does not mean we will.  My point was simply 
>>>>> to address the argument of some who suggest that that no matter how fast 
>>>>> we reduce emissions, the CO2 level in the atmosphere will continue to 
>>>>> rise and we are doomed to see large and very risky future climate warming.
>>>>> 
>>>>> I believe it is both scientifically indefensible and strategically 
>>>>> counterproductive to base the case for further research on geoengineering 
>>>>> on the grounds that nothing else we can possible do will stave off 
>>>>> catastrophe.
>>>>> 
>>>>> John Harte
>>>>> Professor of Ecosystem Sciences
>>>>> ERG/ESPM
>>>>> 310 Barrows Hall
>>>>> University of California
>>>>> Berkeley, CA 94720  USA
>>>>> jha...@berkeley.edu <x-msg://673/jha...@berkeley.edu> 
>>>>> 
>>>>> 
>>>>> 
>>>>> On Jun 9, 2015, at 9:05 PM, Greg Rau <gh...@sbcglobal.net 
>>>>> <x-msg://673/gh...@sbcglobal.net> > wrote:
>>>>> 
>>>>> > I'd say that we are nowhere near reducing global emissions by 2-3% per 
>>>>> > year let alone getting to zero emissions. This would seem to up the 
>>>>> > chances that we are going to blow through a critical CO2 level which 
>>>>> > could last more than 85 years, depending. E.g., if the 2 degree 
>>>>> > threshold is real and only requires 1000 Gt more of CO2 emissions to 
>>>>> > achieve, miraculously stabilizing anthro emissions at current levels, 
>>>>> > 37 Gt CO2/yr, gets us to the  next 1Tt of CO2 emitted in under 30 
>>>>> > years. Those trying to conserve glacial and sea ice and permafrost 
>>>>> > might say we've already passed a point of no return.
>>>>> >
>>>>> > So I side with caution and John N. At our current pace of year-to-year 
>>>>> > global CO2 emissions reductions (nonexistent) and with clear AGW and 
>>>>> > OA, it is time to seriously ask what are all of our options for 
>>>>> > managing CO2 and its consequences. As pointed out in this thread, 
>>>>> > natural CO2 sinks are already saving our bacon to the tune by some 18 
>>>>> > Gt CO2/yr removed from air. Is it unthinkable that we cannot increase 
>>>>> > this uptake by enhancing existing sinks or inventing new ones that can 
>>>>> > compete on a cost and efficiency basis with other methods of CO2 
>>>>> > management? In this regard, making supercritical CO2 from dilute 
>>>>> > sources and storing it underground (BECCS) is a nonstarter from a 
>>>>> > thermodynamics standpoint, not to mention land use impacts of biomass 
>>>>> > production plus safety and security issues of underground molecular CO2 
>>>>> > storage. Do we really want the CCS lobby and marketing machine to 
>>>>> > monopolize the CDR space, as they have point-source CO2 mitigation, at 
>>>>> > the expense
>>>>> > of a much broader search for safer and more cost effective CO2 
>>>>> > managment strategies, thus holding hostage any significant movement in 
>>>>> > mitigating pre- or post-emissions fossil fuel CO2? And, given what is 
>>>>> > at stake, can we really afford to limit ourselves to using less than 
>>>>> > 30% of the planet in solving a global problem, i.e., ignore the ocean? 
>>>>> > I therefore find IPCC's  NAS's and now the World Bank's promotion of 
>>>>> > aforestation and BECCS as the poster children of CDR dangerously narrow 
>>>>> > minded.
>>>>> >
>>>>> > Greg
>>>>> >
>>>>> > --------------------------------------------
>>>>> > On Tue, 6/9/15, John Harte <jha...@berkeley.edu 
>>>>> > <x-msg://673/jha...@berkeley.edu> > wrote:
>>>>> >
>>>>> > Subject: Re: [geo] World Bank report highlights necessity of (BE)CCS
>>>>> > To: "John Nissen" <johnnissen2...@gmail.com 
>>>>> > <x-msg://673/johnnissen2...@gmail.com> >
>>>>> > Cc: "Schuiling, R.D. (Olaf)" <r.d.schuil...@uu.nl 
>>>>> > <x-msg://673/r.d.schuil...@uu.nl> >, "gh...@sbcglobal.net 
>>>>> > <x-msg://673/gh...@sbcglobal.net> " <gh...@sbcglobal.net 
>>>>> > <x-msg://673/gh...@sbcglobal.net> >, "geoengineering@googlegroups.com 
>>>>> > <x-msg://673/geoengineering@googlegroups.com> " 
>>>>> > <geoengineering@googlegroups.com 
>>>>> > <x-msg://673/geoengineering@googlegroups.com> >, "Peter R Carter" 
>>>>> > <petercarte...@shaw.ca <x-msg://673/petercarte...@shaw.ca> >, "Oliver 
>>>>> > Tickell" <oliver.tick...@kyoto2.org 
>>>>> > <x-msg://673/oliver.tick...@kyoto2.org> >
>>>>> > Date: Tuesday, June 9, 2015, 3:38 PM
>>>>> >
>>>>> > John, rather
>>>>> > than forgetting that, it is exactly the point I am making.
>>>>> > But it's not half of the actual emitted carbon that goes
>>>>> > down the sink; it is a quantity of carbon equal to half the
>>>>> > emitted carbon.  So if we emit no carbon next year, at the
>>>>> > end of the year there will be 4 or 5 Gt less carbon in the
>>>>> > atmosphere.  Modeling this out 85 years with a simple
>>>>> > gradient-driven (and thus diminishing) sink rate suggests
>>>>> > that by end of century there could be substantially reduced
>>>>> > atmospheric CO2…even in a scenario in which emissions are
>>>>> > reduced by ~ 2 or 3% per year.
>>>>> >
>>>>> > John HarteProfessor of Ecosystem
>>>>> > SciencesERG/ESPM310 Barrows
>>>>> > HallUniversity of CaliforniaBerkeley,
>>>>> > CA 94720  usajha...@berkeley.edu <x-msg://673/usajha...@berkeley.edu> 
>>>>> >
>>>>> >
>>>>> >
>>>>> >
>>>>> >
>>>>> > On Jun 9, 2015, at 3:25
>>>>> > PM, John Nissen <johnnissen2...@gmail.com 
>>>>> > <x-msg://673/johnnissen2...@gmail.com> >
>>>>> > wrote:
>>>>> > Hi John,
>>>>> >
>>>>> > I think you may be
>>>>> > forgetting that about half the CO2 emitted is immediately
>>>>> > absorbed by land and oceans.  The other half has a long
>>>>> > lifetime, measured in centuries (and a fraction of that
>>>>> > measured in millennia).  Thus reducing emissions to zero
>>>>> > would only produce a gradual reduction in the atmospheric
>>>>> > CO2 level.  Therefore active CO2 removal (CDR) is essential
>>>>> > for quickly reducing that level to a safe value: somewhere
>>>>> > in mid 300s of ppm.
>>>>> >
>>>>> > Cheers, John (just back from holiday and
>>>>> > a conference on ocean acidification)
>>>>> >
>>>>> >
>>>>> > On Wed, Jun 3, 2015 at 1:00
>>>>> > AM, John Harte <jha...@berkeley.edu <x-msg://673/jha...@berkeley.edu> >
>>>>> > wrote:
>>>>> > Recall that the natural sink
>>>>> > strength today is about 4 or 5 Gt(C)/y …  there is no
>>>>> > reason to think that this sink strength, which is
>>>>> > effectively driven by the difference between the current
>>>>> > atmospheric concentration and the concentration in an
>>>>> > atmosphere in equilibrium with the current ocean
>>>>> > concentration, and which sink has been increasing since
>>>>> > 1990, would rapidly quench until the atmospheric
>>>>> > concentration is well down into the mid 300's ppm
>>>>> > range.
>>>>> > Hence if we reduce
>>>>> > emissions down to a level of roughly 4 or 5 Gt(C)/y we will
>>>>> > see the atmospheric level roughly stabilize and if reduce
>>>>> > emissions to zero, we will see the atmospheric level  drop
>>>>> > at a very beneficial pace.
>>>>> >
>>>>> > What would invalidate this
>>>>> > projection is crossing a tipping point in which warming
>>>>> > results in a sharp increase in background C or CH4 emissions
>>>>> > (effectively a negative sink) but the paleo record does not
>>>>> > suggest that such tipping points are lurking at current or
>>>>> > even slightly higher temperatures.
>>>>> > If we do not reduce emissions, there
>>>>> > is a of course a better chance that we will cross such
>>>>> > tipping points in the coming century.
>>>>> >
>>>>> > John HarteProfessor of Ecosystem
>>>>> > SciencesERG/ESPM310 Barrows
>>>>> > HallUniversity of CaliforniaBerkeley,
>>>>> > CA 94720  usajha...@berkeley.edu <x-msg://673/usajha...@berkeley.edu> 
>>>>> >
>>>>> >
>>>>> >
>>>>> >
>>>>> >
>>>>> > On May 31, 2015, at 8:39 PM, John
>>>>> > Nissen <johnnissen2...@gmail.com <x-msg://673/johnnissen2...@gmail.com> 
>>>>> > >
>>>>> > wrote:
>>>>> > IPCC and the World bank ignore that we need ramp
>>>>> > up removal technologies until we are removing more CO2 than
>>>>> > we are putting into the atmosphere.  This ramp up needs to
>>>>> > start straight away, if we are to have a reasonable chance
>>>>> > of avoiding both dangerous global warming and dangerous
>>>>> > ocean acidification.  CCS reduces emissions of CO2 into the
>>>>> > atmosphere, but does not actually remove CO2 as needed to
>>>>> > get the level safely below 350 ppm or so.
>>>>> > There should be a formal complaint
>>>>> > to IPCC about this, as for some other issues.
>>>>> > Cheers, John
>>>>> > On Tue, May 26, 2015 at
>>>>> > 8:53 AM, Schuiling, R.D. (Olaf) <r.d.schuil...@uu.nl 
>>>>> > <x-msg://673/r.d.schuil...@uu.nl> >
>>>>> > wrote:
>>>>> > A serious
>>>>> > lack of knowledge about natural processes. A million times
>>>>> > more CO2 has been stored by nature in carbonate rocks than
>>>>> > is present in the oceans, atmosphere and biosphere combined,
>>>>> > and not a word about it, Olaf Schuiling
>>>>> >
>>>>> >
>>>>> >
>>>>> > -----Original Message-----
>>>>> >
>>>>> > From: geoengineering@googlegroups.com 
>>>>> > <x-msg://673/geoengineering@googlegroups.com> 
>>>>> > [mailto:geoengineering@googlegroups.com]
>>>>> > On Behalf Of Greg Rau
>>>>> >
>>>>> > Sent: maandag 25 mei 2015 21:55
>>>>> >
>>>>> > To: geoengineering@googlegroups.com 
>>>>> > <x-msg://673/geoengineering@googlegroups.com> 
>>>>> >
>>>>> > Subject: [geo] World Bank report highlights necessity of
>>>>> > (BE)CCS
>>>>> >
>>>>> >
>>>>> >
>>>>> > http://bellona.org/news/climate-change/2015-05-world-bank-report-highlights-necessity-ccs
>>>>> >
>>>>> >
>>>>> >
>>>>> > “We need Bio-CCS to attain carbon neutrality by 2100”
>>>>> >
>>>>> >
>>>>> >
>>>>> > "This statement forms a key area of scientific
>>>>> > consensus, shared by the IPCC in the 5AR and acknowledged by
>>>>> > the World Bank’s report. Achieving the 2°C target will
>>>>> > necessitate negative emissions in the second part of this
>>>>> > century. This can be achieved through the combination of
>>>>> > sustainable bioenergy with CCS. Find out how it works
>>>>> > here."
>>>>> >
>>>>> >
>>>>> >
>>>>> > GR - So says CCS promoters, completely ignoring numerous
>>>>> > other C-negative technologies.
>>>>> >
>>>>> >
>>>>> >
>>>>> > "Importantly, the report warns that beyond 2030, the
>>>>> > scenarios in which CCS is not available or not deployed at
>>>>> > scale, the negative emissions required to keep temperature
>>>>> > change below 2°C or even 3°C have to be generated from the
>>>>> > agriculture, forestry, and other land-use sectors, creating
>>>>> > immense challenges in land-use management."
>>>>> >
>>>>> >
>>>>> >
>>>>> > GR - Completely ignores ocean-based C-negative
>>>>> > technologies.  Who says that C-negative methods must be
>>>>> > limited to <30% of the Earth's surface, much of which
>>>>> > is already critical for other uses/services?
>>>>> >
>>>>> >
>>>>> >
>>>>> > "With regards to decarbonisation of the electricity
>>>>> > sector, the report argues that the share of low-carbon or
>>>>> > negative-carbon energy must rise from less than 20% in 2010
>>>>> > to about 60% in 2050. This is an increase of more than 300%
>>>>> > over 40 years."
>>>>> >
>>>>> >
>>>>> >
>>>>> > GR- There is no way this is going to happen if we limit
>>>>> > ourselves to making concentrated CO2 from flue gas and
>>>>> > storing it in the ground - (BE)CCS. We need to expand
>>>>> > RD&D, marketing and policy way beyond CCS. But how will
>>>>> > this happen as long as well funded, vested interests
>>>>> > continue to sell CCS as the only viable technology?
>>>>> >
>>>>> >
>>>>> >
>>>>> > "The report argues that oil and gas companies can in a
>>>>> > similar fashion reinvent themselves if they develop CCS
>>>>> > technology. A Bellona study has in fact found that the jobs
>>>>> > and skills of today’s North Sea petroleum industry could
>>>>> > largely be preserved when transformed into a CO2 storage
>>>>> > industry."
>>>>> >
>>>>> >
>>>>> >
>>>>> > GR - At last, the real reason to promote CCS, whether or not
>>>>> > it makes technical or economic sense and can compete with
>>>>> > other technologies.  The habitability of the planet held
>>>>> > hostage by petroleum industry jobs. Sound familiar?
>>>>> >
>>>>> >
>>>>> >
>>>>> > --
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