The WHOI Lye Dumping Experiment: A Reckless Attempt at Climate Mitigation

The recent announcement by the Woods Hole Oceanographic Institution (WHOI) to conduct an experiment involving the dumping of lye into the ocean is a striking example of the overzealous and poorly thought-out measures being taken under the guise of combating climate change. This initiative, detailed in a July 7th Nantucket Current article, is fraught with scientific uncertainties and potential environmental hazards that far outweigh any speculative benefits.

From Watts Up With That?

By Charles Rotter

The recent announcement by the Woods Hole Oceanographic Institution (WHOI) to conduct an experiment involving the dumping of lye into the ocean is a striking example of the overzealous and poorly thought-out measures being taken under the guise of combating climate change. This initiative, detailed in aย July 7th Nantucket Current article,ย is fraught with scientific uncertainties and potential environmental hazards that far outweigh any speculative benefits.

https://nantucketcurrent.com/news/whoi-plans-experiment-to-combat-climate-change-in-waters-southwest-of-nantucket

According to the article, WHOI plans to conduct a geoengineering experiment aimed at reducing atmospheric carbon dioxide levels by adding alkaline substances, specifically lye, to the ocean. The underlying hypothesis is that the addition of lye will increase the oceanโ€™s alkalinity, enhancing its ability to absorb COโ‚‚ from the atmosphere.

Starting this August, the Woods Hole Oceanographic Institution will conduct a small-scale study on the effects of ocean alkalinity enhancement, a process that artificially increases the pH of ocean water to combat human-caused ocean acidification. The experiment will be conducted in the waters southwest of Nantucket and Marthaโ€™s Vineyard.

Dubbed the โ€œLOC-NESSโ€ project โ€“ short for Locking away Ocean Carbon in the Northeast Shelf and Slope โ€“ the experiment involves the dumping of 20 metric tonnes of sodium hydroxide (also known as lye and caustic soda) and up to 75 kilograms of tracer dye into the ocean followed by five days of on-site, 24-hour monitoring of alkalinity dispersal, CO2 uptake, and environmental impacts.

https://nantucketcurrent.com/news/whoi-plans-experiment-to-combat-climate-change-in-waters-southwest-of-nantucket

The science behind this experiment is speculative at best. The oceanโ€™s complex chemistry and the myriad of variables that affect carbon sequestration processes make it difficult to predict the outcomes of such an intervention accurately. There are significant uncertainties regarding the extent to which increased alkalinity will actually lead to enhanced COโ‚‚ absorption.

In a press release, the EPA said that it โ€œdoes not anticipate any measurable environmental or other impacts beyond the monitoring periods of the studyโ€ and Woods Holeโ€™s website stresses that because of the purity of sodium hydroxide, โ€œthe effects on water quality are limited only to the effect on pH.โ€

https://nantucketcurrent.com/news/whoi-plans-experiment-to-combat-climate-change-in-waters-southwest-of-nantucket

Woah, tell that to the fish and other organisms you poison with Lye. Might as well be dynamite fishing.

We will track the addition ofย 20 tonnes of NaOHย for ~5 days, resulting in the potential sequestration of up to 20 tonnes of CO2. This experiment is small enough in scale that any immediate impacts will be minimal, and any alkalinity effects will, by the end of the experiments, be fully diluted back to baseline conditions.

https://nantucket-current.nyc3.cdn.digitaloceanspaces.com/assets/1-LOCNESS_PermitApplication_Resubmission4_29042024_South-of-Mass.pdf

Moreover, the potential ecological impacts of dumping a caustic substance like lye into the ocean cannot be overstated. Lye, or sodium hydroxide, is a strong base that can cause severe chemical burns and damage marine life if not properly managed. There are risks associated with altering the oceanโ€™s chemistry, including potential harm to marine ecosystems and the organisms that inhabit them.

The experimentโ€™s potential environmental consequences are manifold. Altering ocean alkalinity could disrupt the delicate balance of marine ecosystems. The effects on phytoplankton, which form the base of the oceanic food web, are particularly concerning. These microorganisms are crucial for carbon cycling and any significant changes to their environment could have cascading effects throughout the ecosystem.

Geoengineering opponents are skeptical of the scientistsโ€™ confidence and warn that human interventions in the environment often have unintended consequences.

https://nantucketcurrent.com/news/whoi-plans-experiment-to-combat-climate-change-in-waters-southwest-of-nantucket

Additionally, the introduction of lye could lead to localized areas of high pH, which might harm marine life, particularly species that are sensitive to changes in their environment. This is a significant risk that appears to be downplayed in the pursuit of geoengineering solutions.

Geoengineering should not be seen as a viable approach to environmental management. The presumed threats associated with climate change should not drive us to such extreme measures.

In light of the significant uncertainties and potential risks associated with this experiment, it is crucial to exercise caution. Dumping lye into the ocean without a comprehensive understanding of the potential impacts is a reckless approach that could lead to unforeseen and possibly irreversible damage.

Critics argue that the potential negative consequences of such experiments far outweigh any theoretical benefits, particularly given the current lack of understanding of oceanic chemical processes and the potential for unintended consequences.

The WHOIโ€™s plan to dump lye into the ocean as a means to address a speculative problem is a deeply flawed and dangerous initiative. The scientific uncertainties and potential environmental risks associated with this experiment far outweigh any speculative benefits. Geoengineering should not be seen as a viable approach to environmental management and the presumed threats associated with climate change should not drive us to such extreme measures.

As we continue to explore ways to maintain a healthy environment, it is imperative that we prioritize approaches that are grounded in solid science and that minimize risks to our planetโ€™s ecosystems. We must ensure that we do not undertake interventions that could cause more harm than good. The WHOI experiment serves as a stark reminder of the need for prudence and responsibility in our efforts to manage our natural resources, as well as how fanatic obeisance to ideology tosses all that out the window.

This reckless lye-dumping experiment is a testament to the desperation and shortsightedness that often accompany geoengineering proposals. Instead of turning to such high-risk strategies, we should focus on realistic and evidence-based environmental practices, ensuring a healthier and more stable environment for future generations.

Climate Deranged Bureaucrats, Spare Us Your Guiltย Trip!

Recent posts (here) have highlighted the increasingly irrational and hysterical outbursts by UN chief Guterres, triggering howlers by other climatists. Clearly many high ranking and influencial people are in the grasp of a mass delusion we could call Climate Derangement Syndrome (CDS).

From Science Matters

Byย Ron Clutz

Charles MacKay: โ€œMen, it has been well said, think in herds; it will be seen that they go mad in herds, while they only recover their senses slowly, and one by one.โ€

Recent posts (here) have highlighted the increasingly irrational and hysterical outbursts by UN chief Guterres, triggering howlers by other climatists.  Clearly many high ranking and influencial people are in the grasp of a mass delusion we could call Climate Derangement Syndrome (CDS).

These warnings of wolves are starting to sound the same: โ€œIt never happened before, is not happening now, but it will surely destroy us in the future if we donโ€™t do something.โ€

Meanwhile the facts on the ground are not alarming: For example September Arctic ice minimums:

More details atย 2023 September Arctic Outlook and Results Not Scary

And theย warmingย from previous El Ninos was reversed prior to the 2023 unusual and likely temporary spike:

See UAH May 2024: NH Cooling by Land and Sea

And regard sea level rise in historical rather than hysterical context

These outrageous appeals by alarmists in the face of contrary facts remind me of the story defining the term โ€œchutzpuh.โ€ A young man is convicted of killing his parents, and later appears before the judge for sentencing. Asked to give any last words, he replies: โ€œGo easy on me, your Honor, Iโ€™m an orphan.โ€

Fortunately, there is help for climate alarmists. They can join or start a chapter of Alarmists Anonymous. By following the Twelve Step Program, it is possible to recover and unite in service to the real world and humanity.

Step One: Fully concede (admit) to our innermost selves that we were addicted to climate fear mongering.

Step Two: Come to believe that a Power greater than ourselves causes weather and climate, restoring us to sanity.

Step Three: Make a decision to study and understand how the natural world works.

Step Four: Make a searching and fearless moral inventory of ourselves, our need to frighten others and how we have personally benefited by expressing alarms about the climate.

Step Five: Admit to God, to ourselves, and to another human being the exact nature of our exaggerations and false claims.

Step Six: Become ready to set aside these notions and actions we now recognize as objectionable and groundless.

Step Seven: Seek help to remove every single defect of character that produced fear in us and led us to make others afraid.

Step Eight: Make a list of all persons we have harmed and called โ€œdeniersโ€, and become willing to make amends to them all.

Step Nine: Apologize to people we have frightened or denigrated and explain the errors of our ways.

Step Ten: Continue to take personal inventory and when new illusions creep into our thinking, promptly renounce them.

Step Eleven: Dedicate ourselves to gain knowledge of natural climate factors and to deepen our understanding of natureโ€™s powers and ways of working.

Step Twelve: Having awakened to our delusion of climate alarm, we try to carry this message to other addicts, and to practice these principles in all our affairs.

Summary:

Let us hope that many climate alarmists take the opportunity to turn the page, by resolving a return to sanity. It is not too late to get right with reality before the cooling comes in earnest.

This is your brain on climate alarm.ย  Just say No!

Footnote:

Q: Why would โ€œbureaucratsโ€ be more accurately described as โ€œbureaucrabs?โ€

A: Because they seem to be moving forward, but on closer inspection are only going sideways.

A Tale of 2 Opposing Ocean Warming Narratives!

There are 2 narratives claiming to explain most of the observed ocean warming. One suggests recent ocean warming has been totally driven by human emissions that amplified the greenhouse effect. That narrative is supported the correlation with rising CO2 that blankets the globe. The second suggests the El Niรฑo-Southern Oscillation (ENSO) and solar heating have conspired to warm the oceans.

By Jim Steele

There are 2 narratives claiming to explain most of the observed ocean warming. One suggests recent ocean warming has been totally driven by human emissions that amplified the greenhouse effect. That narrative is supported the correlation with rising CO2 that blankets the globe. The second suggests the El Niรฑo-Southern Oscillation (ENSO) and solar heating have conspired to warm the oceans. This 2nd narrative is supported by data illustrated in NOAAโ€™s graphic (A) of ocean heat flux, with more heat entering into the eastern tropical Pacific and Atlantic (yellow) than is released. That high heat flux region is moderated by ENSO and Pacific Decadal Oscillation (Graphic E). The white regions show no net heat flux into a quarter of the ocean surfaces. Such observations do not support the first narrative of homogeneous warming from a thickening CO2 blanket.

Wherever there is a greater flux of heat into the ocean than ventilates out, the oceans will warm. All scientists agree that any absorbed heat can only be ventilated away through the oceanโ€™s cool skin surface which is just 2-10 microns thick.

Coincidentally, greenhouse infrared heat only penetrates a few microns into that skin surface. Thus, any infrared warming of the skin surface can be quickly radiated back to space. Any warming of the skin surface also increases evaporation which further cools the ocean. Finally, 99% of the time the skin surface is warmer than the layer of air immediately above and so warms the air. Those 3 dynamics make ocean warming by greenhouse gases relatively insignificant. In contrast, because solar heat penetrates the subsurface where it cannot radiate away, solar heating is more capable of heating the ocean.

Oceans can store heat for longer periods of time wherever saltier water is overlaid by fresh water. That condition creates what is known as a subsurface barrier layer that inhibits normal upwards convection of heated water to the skin layer for ventilation. Because a salty barrier layer is more dense it doesnโ€™t rise with limited subsurface heating.

The natural Hadley circulation causes rising moist air around the equator and sinking dry air in latitudes north and south of the equator. That causes high rates of evaporation but reduced precipitation in those latitudes (yellow regions in graphic B) which causes relatively saltier ocean water. As the Trade Winds are pulled towards the equator, they also curl westward driving the saltier ocean water and atmospheric water vapor towards the equator and westward. Where the northern and southern trade winds converge, the Intertropical Convergence Zone forms (blue equatorial region) creating a zone of concentrated water vapor and the greatest rainfall. The freshwater rainfall caps the saltier subsurface water resulting in tropical barrier layers that trap heat which then is redistributed around the globe (graphic C).

The tropics register cooler temperatures than solar heating predicts, while temperatures outside the tropics are warmer than predicted (Graphic D) Although the tropics receive the greatest amount of solar heating, they gain a โ€œsurplusโ€ of heat that does not increase air temperatures while stored in the subsurface layers. Ocean currents carry that surplus heat pole-wards into cooler waters. There, itโ€™s easier for heated subsurface waters to rise to the skin surface and ventilate any stored heat (blue regions in graphic A). That ventilation allows air temperatures outside the tropics to be warmer than predicted.

Still, for narrative 2 to best explain the observed ocean warming trend, there must be an increase in absorbed solar heat in the eastern Pacific and eastern Atlantic. Believers in the CO2 narrative dismiss such increased solar heating by simply pointing to the sunโ€™s decreasing solar irradiance. However, observed decreases in cloud cover increase solar heating. A La Nina event and the 20 to 30-years of a La Nina-like (negative) Pacific Decadal Oscillation (Graphic E) create a cooler eastern Pacific that reduces cloud cover and increases solar flux into the ocean.

Furthermore, the increased east-west temperature difference during La Nina-like conditions amplifies the Trade Windsโ€™ intensity. The stronger winds increase the transport of warm surface and subsurface water into the western Pacific where it can be stored down to 200-meter-depths (Graphic F) until ventilated by an El Nino event, as well as supplying heat to the Indian Ocean (Sprintall 2014) or into poleward currents. More warm water transport raises global temperatures. This is why Jones (2022) refers to these dynamics as the Pacific Ocean Heat Engine.

During El Nino events and a positive Decadal Oscillation, a cloudier eastern Pacific and weaker Trade Winds results in ocean cooling. El Nino-like conditions dominated during the Little Ice Age. The switch to more La Nina-like conditions since 1850 increased heat flux and heat redistribution that has contributed to modern warming. La Nina-like redistribution of heat also explains why NOAA doesnโ€™t observe an increase in heat content in the eastern Pacific (gray regions Graphic G) but observes increased heat content in the western Pacific.

Finally, scientists integrating heat and salt transport from all ocean currents construct an Ocean Conveyor Belt that carries warm water from the Pacific, through the Indonesian Island passages into the Indian Ocean, around southern Africa into the Atlantic and northward into the Arctic (Graphic H). The Ocean Conveyor Belt explains why the Atlantic is warmer and saltier. The Conveyor Belt also explains reduced Arctic sea-ice. Where warm Atlantic water first enters the Arctic accounts for most of the observed lost sea ice inside the Arctic Circle. A thick layer of warm Atlantic water exists 100 to 900 meter deptsh (Graphic I). It slowly ventilates its heat through the insulating sea ice, but open water ventilates 35 times more heat than greenhouse warming, causing the Arctic temperature to be 3 times warmer than the global average.

London To Relocate To South ofย France!

These are not โ€œexpertsโ€, and they most certainly are not โ€œscientistsโ€. Real scientists would never publish such baseless, evidence free, unadulterated nonsense.

And that is exactly what this new study is.

From NOT A LOT OF PEOPLE KNOW THAT

By Paul Homewood

h/t Patsy Lacey

Another fake news story that has doubtlessly been well coordinated around the media:

A cold, rainy summer might not be much to look forward to, but experts now say Britons should enjoy it while they can.

This interactive map developed by scientists from the University of Maryland lets you take a terrifying glimpse into the scorching future of your city in 60 yearsโ€™ time.

Already, more than half of the planet is expected to shift into new climate zones by the end of the century.

Experts predict that Londonโ€˜s summers will become 4.6ยฐC (8.3ยฐF) warmer and 10 per cent drier โ€“ giving the city the same climate as the South of France.

Lead researcher Matthew Fitzpatrick, of the University of Maryland, says: โ€˜Everything is moving towards the equator in terms of the climate thatโ€™s coming for you.โ€™

https://www.dailymail.co.uk/sciencetech/article-13611145/Interactive-map-future-climate-60.html#newcomment

These are not โ€œexpertsโ€, and they most certainly are not โ€œscientistsโ€. Real scientists would never publish such baseless, evidence free, unadulterated nonsense.

And that is exactly what this new study is.

.

The idea that UK cities will get 4C warmer in the next fifty years is simply bunkum and has no basis in reality.

Forget about average trends; these tell you more about extremely cold summers than hot ones. The fact remains that the summer of 1976 is still by far the hottest in England.

But even if you ignore this as an outlier, the hottest of recent summers are still less than a degree warmer than the likes of  1899, 1911, 1933 and 1947:

There is one reason, and one reason only, why the South of France is 4C hotter โ€“ the sun. Unless the Earth changes its orbit, our summers will never become Mediterranean.

As for the drier summers predicted, the claim also flies in the face of the evidence, which shows that summers are becoming neither drier or wetter.

Giant oyster shell shows the sea near Taiwan was up to 3m higher, several degrees hotter 7,000 years ago

Awkwardly, carbon dioxide levels were very low during this five thousand year Monster Heatwave, so climate modelers are forever trying to erase the hot Holocene, itโ€™s just that the dang evidence keeps turning up in the damnedest of places.

In 2002 construction workers in Taipei dug up a giant oyster shell, and a whole oyster reef, rather improbably in the metropolitan area. This was 20 kilometers from the ocean where oysters are not supposed to grow.

From JoNova

By Jo Nova

Kenneth Richard at NoTricksZone reports on yet another paper that shows things were much hotter back in the early Holocene when there were hardly any coal fired power plants, and cars were just molecules spread across hematite deposits, emitting nothing.

Awkwardly, carbon dioxide levels were very low during this five thousand year Monster Heatwave, so climate modelers are forever trying to erase the hot Holocene, itโ€™s just that the dang evidence keeps turning up in the damnedest of places.

In 2002 construction workers in Taipei dug up a giant oyster shell, and a whole oyster reef, rather improbably in the metropolitan area. This was 20 kilometers from the ocean where oysters are not supposed to grow.

One particular oyster shell was especially hard to ignore because it was a 42cm across. When it was carbon-14 dated, it clocked in as 7,500 years old. This particular kind of oyster is not found around Taipei any more (even in the ocean), but is found in colder waters around Japan and Korea. So the researchers wondered if this meant the oceans were somehow improbably higher but cooler at the time. They also wanted to find out if these oysters died out in Taipei because of global warming.  Instead it turns out the ocean there was much warmer and quite a lot higher.

So they sampled the heck out of this shell. They took so many data points they could figure out the seasonal swings from four years in a row in what was somewhere around 5,500 BC. Somehow even when CO2 levels were perfect, the water temperature swings around quite a lot. Neolithic people probably prayed for better weather, rolled some runes or read some tea leaves. These were early climate models and five thousand years later, seasonal models have not improved much.

Given that these oysters like to live 1 to 3m below the surface, the seas then must have been 1 to 3 meters above where they are now. Which gives us that awkward truth, yet again, that everywhere we look 7,000 years ago the seas were 1 โ€“ 2 meters higher than where they are today. Our seas are only rising at 1mm a year, (or 3mm if you believe the adjusted satellites).  How could that be unless the natural world was much hotter, frying and expanding the oceans and melting the ice caps to some degree?

And indeed, current winter water temperatures around Taipei on our Catastrophe-Earth  are 14โ€“16oC but back 7,500 years ago researchers suggest the water in winter ranged from 15 to a shocking 23oC.

And if youโ€™re wondering, the big oyster shell was not just carried there by some fisherman long ago โ€” it was found in a  muddy black silt clay layer that was more than 5-m thick and filled with other marine remnants above and below that. The researchers dated other things in that stack going back to about 10,000 years ago.

The researchers concluded as drily as possible โ€œThe disappearance of this type of oyster in Taiwan during the late Holocene should not be due to a warming trend.โ€

Indeed.

So yet again, we find something made the Earth a lot hotter 7,000 years ago, and yet the corals survived, the koalas managed and the extinction apocalypse never came. Sensible people would stop throwing money at the wind to control these natural swings that we canโ€™t predict.

REFERENCE

Li H-C, Mii H-S, Liu T-K, et al. (2024) AMS 14C Dating and Stable Isotope Analysis on an 8 kyr Oyster Shell from Tapei Basin: Sea level and SST changes. Radiocarbon. Published online 2024:1-15. doi:10.1017/RDC.2023.117

Discovery of 2-million-year-old DNA in Greenland reveals new details about ancient life

Scientists working in Greenland have identified the oldest samples of DNA ever found on Earth. By analyzing this two-million-year-old genetic material, they have revealed how Northern Greenland was once a wildly different environment than the cold polar region it is today, one teeming with ancient wildlife and plants, including some that scientists thought had never lived so far north. William Brangham is back now to explore this with one of the researchers who made this discovery.

From Watts Up With That?

Here is the transcript


JUDY WOODRUFF: Scientists working in Greenland have identified the oldest samples of DNA ever found on Earth. By analyzing this two-million-year-old genetic material, they have revealed how Northern Greenland was once a wildly different environment than the cold polar region it is today, one teeming with ancient wildlife and plants, including some that scientists thought had never lived so far north. William Brangham is back now to explore this with one of the researchers who made this discovery.

WILLIAM BRANGHAM: For more on this remarkable discovery, Iโ€™m joined by one of the lead scientists on this project. Professor Eske Willerslev is an evolutionary geneticist and one of the early pioneers in studying ancient DNA. Heโ€™s director of the Center for GeoGenetics at the University of Copenhagenโ€™s GLOBE Institute. Professor Willerslev, so good to have you, and congratulations on this research. So you discovered this DNA in Northern Greenland. Can you just tell us a little bit about how you actually found the DNA?

ESKE WILLERSLEV, University of Copenhagen: So itโ€™s some settings, big hills of two-million-year-old dirt basically lying in Northern Greenland. And what we did is we were digging into this dirt and we were drilling out some dirt core. You canโ€™t see any biological material like bones or anything like that. Itโ€™s basically dirt, but the DNA from the past has stuck to this dirt. And this is because weโ€™re shedding DNA all the time while weโ€™re alive. And so did these animals and plants also two million years ago.

WILLIAM BRANGHAM: So youโ€™re not drilling into an ancient carcass or an ancient tree. This is something that the animals or plants excreted during their lives?

ESKE WILLERSLEV: Thatโ€™s correct. So itโ€™s coming from skin cells. Itโ€™s coming from ancient feces, from urine, and stuff like that. If I touch the screen like this, right, my DNA will be on the screen. So we will basically โ€” every person is shedding DNA to the surroundings, and some of this DNA will bind to these sediment particles and survive for two million years, basically.

WILLIAM BRANGHAM: What you just said there is so striking, though, because I had no idea that DNA could survive for such a long period of time. How is that possible?

ESKE WILLERSLEV: Well, I was surprised about that too. So the oldest DNA until this study was one million years. And thatโ€™s basically what most people believed was possible. But apparently, I mean, when it binds to these mineral particles in the soil, it basically protects the DNA so it can survive much longer.

WILLIAM BRANGHAM: So once you have isolated the DNA and said, aha, this is ancient DNA, how do you go about then trying to figure out what itโ€™s DNA fromโ€ฆ what these organisms were?

ESKE WILLERSLEV: Yes, that was a challenge too because two million years is a long time in evolution, right? So whatever DNA we were finding is not identical to what we see today. But we can basically compare it to all known DNA sequences ever recorded from both the present and also what people have retrieved from bones and teeth of the past, for example. And then we can basically identify these fragments, and from these fragments, through the comparison, reconstruct what animals and plants they belonged to.

WILLIAM BRANGHAM: And tell us a little bit about what you discovered.

ESKE WILLERSLEV: Itโ€™s a total surprise. I mean, you have to understand that today this area up in Northern Greenland is what we called an arctic desert. Thereโ€™s almost nothing. It looks like the Sahara, basically. And then what we can see two million years ago, it was a diverse forest of all kinds of trees and also animals like mastodon, these extinct big elephants, as well as the ancestor of reindeers. There were hares, there were lemmings, there were geese. I mean, so a very different ecosystem than what you see today.

WILLIAM BRANGHAM: And I understand as well you found some traces of horseshoe crabs as well. I mean, again, Iโ€™m no paleontologist, but it seems striking to think that youโ€™re finding mastodons in some proximity to horseshoe crabs.

ESKE WILLERSLEV: Yes, but this is because if you had been there two million years ago and you were standing at the shore with your rubber boots at the water, right, you would see basically a river โ€” facing a river that is coming out, bringing material with it into the bay, into the ocean. So therefore, itโ€™s a mixture between the DNA from the terrestrial surroundings, right? You would have looked up again at this forest and seen the mastodon and so forth. And then you also get marine organisms, right, because the sediments fold into a marine setting. And thatโ€™s why we see the horseshoe crab. And all of these animals suggest a time where it was way warmer than today, probably 11 to 12 degrees Celsius warmer than today.

WILLIAM BRANGHAM: Well, walk me through the implications of that. If these species existed in that warmer world, what are the implications for modern-day man?

ESKE WILLERSLEV: Well, to me, thereโ€™s two major implications. One is that what we see is an ecosystem with no modern analogue. Thereโ€™s nowhere in the world you find this ecosystem, which is a mixture between arctic organisms and temperate organisms. So what it tells us is really that climate change, when itโ€™s getting warmer, is actually quite unpredictable. I mean, most models, if not all models, that are trying to predict how our surroundings, our biology will react to this moment, probably wouldnโ€™t be able to have predicted this when you go back in time. So you can say the plasticity of organisms is different than what we think. And this is, of course, worrisome because if youโ€™re bad at forecasting, it means you also have โ€” itโ€™s difficult to make a strategy to mitigate the consequences of global warming. On the other hand, I would say now we have a genetic road map, right? We have a genetic โ€” itโ€™s the building blocks of life. We have a genetic road map where we can find out how did these organisms back in time adapt to global warming.

WILLIAM BRANGHAM: I know that you have been studying ancient DNA for much of your career, but this does seem like a genuinely striking advancement in your own work. And I wonder how that personally resonates with you. When you realized what you had and what you discovered, what is that like for you?

ESKE WILLERSLEV: I mean, itโ€™s amazing, right? I mean, sometimes I kind of divide our discoveries into what we call founding papers and then you can see the papers where we just build on what we found, basically. And this is definitely one of the founding papers. I mean, it allows us to go back to โ€” for the first time back to before the last Ice Age, right, and to a climate which is very similar to what we are heading towards because of global warming. So itโ€™s also a very important period because it tells us something about what we can expect to happen in the future.

WILLIAM BRANGHAM: Such a tremendous discovery here. Professor Eske Willerslev of the University of Copenhagen, thank you so much for talking with us.

ESKE WILLERSLEV: My pleasure.

JUDY WOODRUFF: So fascinating. I am in awe of these scientists.


H/T jz

Naturally Nuclear: Why Government Owned Nuclear Plants Make Perfectย Sense

In a growing, energy-starved world nuclear power generation makes perfect sense, at every level. While carpet bagging, crony capitalists rant and rave against nuclear โ€“ in an effort to protect their investments in subsidised wind and solar โ€“ the rest of the world is moving towards nuclear as the natural energy source of the future, and moving fast.

From STOP THESE THINGS

In a growing, energy-starved world nuclear power generation makes perfect sense, at every level. While carpet bagging, crony capitalists rant and rave against nuclear โ€“ in an effort to protect their investments in subsidised wind and solar โ€“ the rest of the world is moving towards nuclear as the natural energy source of the future, and moving fast.

Peter Dutton, leader of the Liberal/National Coalition in Australia is pitching a policy to voters by which Australia would ditch its idiotic ban on nuclear power, and the Federal government would build and operate nuclear plants in every State.

In the piece below, Michael de Percy spells out why Duttonโ€™s policy is a political and economic winner.

Michael touches on the fact that wherever governments get involved in business, consumers tend to suffer. True enough.

What Michael could have added to his list of nuclear pros is that power generation and distribution fits the economic definition of a โ€œnatural monopolyโ€ which occurs when the most efficient number of firms in the industry is one.

For the longest time, students of that dismal science were taught that electricity generation and distribution was the very archetype of a natural monopoly.

As with every form of monopoly, its owner can exploit their market power by charging over the money for whatever good or service they supply, simply because they have no competition.

The textbook answer to a natural monopoly abusing its market power was that governments should own and operate all such monopolies โ€“ eg, railways, gas and water distribution networks โ€“ with the government setting the supply price.

Then, starting around 30 years ago, the idea that natural monopolies owned by governments could be privatised and then regulated to prevent them abusing their monopoly position in the market took hold. Australiaโ€™s electricity market (with a few exceptions like QLD) largely followed that model. Which worked well enough, for a time.

However, following the introduction of punitive mandates pushing, and massive subsidies for, chaotically intermittent wind and solar, the power market has turned into a fiasco, with super profits being made by market manipulators every time wind and solar output collapses. Which is, as Michael points out below, another reason why government-owned nuclear power plants make perfect sense.

The case for a government-owned nuclear reactor fleet
The Spectator
Michael de Percy
23 June 2023

Peter Duttonโ€™s announcement that the Coalition will build seven nuclear reactors on the sites of existing coal-fired power stations is good policy and it will work. In response, the Albanese government has nothing but lame memes and a $1.3 trillion renewables policy that shows no signs of providing reliable, affordable electricity for industry or consumers.

Indeed, under Alboโ€™s watch, Australia is in the worst shape itโ€™s ever been, considering the cost-of-living crisis is an own-goal by Albo and Minister for Climate Change and Energy Chris Bowen. Even the much-maligned RMIT ABC Fact Check is now saying that Bowenโ€™s claims about nuclear plants are โ€˜exaggeratedโ€™.

Labor is scared because it knows its ideologically driven energy policy is a grifterโ€™s paradise that has nothing to do with providing cheap and reliable energy.

But much of this has been said already and it is not the point of my argument.

Here I outline the merits of a government-owned and built fleet of nuclear reactors for Australia.

I have been highly critical of government control of industry in the past, especially when it comes to networked infrastructure such as telecommunications, roads, and energy assets. Key to my argument is that the purpose of government is to protect the public interest, not to provide goods and services that are innovative and meet the needs of consumers.

Businesses operating in the market are incentivised by potential profits. Businesses compete in the marketplace with each other and take risks to secure rewards for their shareholders.

Governments, on the other hand, are necessarily risk-averse and, in attempting to function as โ€˜model employersโ€™, can often create perverse incentives that minimise risk while also rewarding compliance rather than achieving outcomes.

Sound relationships between governments and businesses are fundamental to a healthy, functional, and free society. But experience proves that neither is very good at performing the otherโ€™s role. Labor governments typically develop what I call targeted or anticipatory industry policy where the government attempts to โ€˜stimulate or assistโ€™ industries to achieve desired outcomes.

This often results in governments attempting to โ€˜pick winnersโ€™, like โ€˜renewablesโ€™.

And while it would make life easier if I could tell you that Coalition governments typically focus on โ€˜passiveโ€™ industry policy, where governments focus on โ€˜establishing conditions that support competition within all industriesโ€™, political conditions often dictate the extent the Coalitionโ€™s policy preferences can be actualised.

During the Hawke-Keating and later the Howard eras, the long prime ministerial tenures enabled consistent attempts at reform over time.

However, when governments or their leaders change in rapid succession, as we have seen in recent times, each new government must deal with the legacies of the previous governmentโ€™s policies. NBN and the NDIS are cases in point where dismantling the institutions established by previous governments is nigh impossible.

Governments therefore need to be pragmatic rather than follow a particular ideological agenda. Assuming of course the relevant political party is capable of doing so, which the Albanese government is not when it comes to nuclear energy.

Given the Albanese government has established an anticipatory industry policy in the energy sector, it would be impossible for a nuclear industry to compete with the heavily subsidised renewables energy sector.

And when it comes to energy policy, Laborโ€™s factions forget their market credentials and come together as one in their opposition to nuclear.

Much of the criticism of Mr Duttonโ€™s nuclear energy policy is that it will destroy โ€˜business certaintyโ€™. But any business that relies on elected governments to fund their operations is either operating in a false market or is cosying up to the government to access funds (or as Judith Sloan wrote recently, rent-seeking or grifting) it might otherwise not have received.

Laborโ€™s Home Insulation Program, which brought about the end of Peter Garrettโ€™s political career, is a recent example of the perverse outcomes that can result from the false market conditions created by government. Our energy industry is in this same false space now and it is failing Australians.

So why is a government-built and owned nuclear reactor fleet a good idea? There are five main reasons.

First, the Australian Nuclear Science and Technology Organisation (ANSTO) already has experience in managing the โ€˜overall design and construction processโ€™ of the OPAL reactor at Lucas Heights.

Second, the current false market conditions need to be rebalanced. Contracts that have been signed already are unlikely to be terminated for free. But elected governments can change policy and government control of the build and operation of a nuclear reactor fleet will help mitigate the risk at least in the early stages of the transition to nuclear energy.

Third, there is an enormous likelihood that the government can capitalise on goodwill with unions in the energy sector by creating new employment opportunities for energy industry workers who will otherwise lose their jobs under Labor.

Labor governments such as the federal government and the ACT government have effectively sidelined unions in the energy and transport sectors by privatising or subsidising new infrastructure modes. In a country that is now deeply divided, the irony of bringing the unions on board should not be lost on Mr Dutton.

While I am sure many readers will disagree, the case for compromise politics with the energy sector unions is strong. And if we donโ€™t get a nuclear reactor fleet soon our future will be hell.

Fourth, key positions in the civilian nuclear industry will be crucial to supporting the Aukus submarine program. These key players need to have appropriate security clearances and government oversight as a national security priority. Australiaโ€™s nuclear history during the Menzies era and the earlier establishment of ASIO suggest the Americans will require government oversight of anything to do with nuclear.

And fifth, Australia has a nuclear cooperation treaty with Canada (and other governments) that enables the transfer of proven nuclear technologies. Canada, for example, is willing to share its technology with us now. This will require government control.

But probably the biggest hurdle is the public service. The skills needed to manage the build of nuclear reactors cannot be left to those whose experience is in avoiding risk. Australia routinely suffers from blowouts in time and budget for major infrastructure projects where the public service is involved. This is not a criticism but a fact concerning the role of the public service.

We do have the ability to manage major infrastructure projects, but we canโ€™t leave these to the old guard. The public service will have to get over itself and we may have to hire the best and brightest and pay them what they are worth.

This will be a major sticking point as it has often been with major defence projects where the value of project managers and contract negotiators has been minimised only to result in blowouts in timeframes and budgets that significantly outweigh the cost of hiring the best people.

Government ownership and control of a nuclear reactor fleet may not be a natural economic fit for the Coalition, but there seems to be little point in letting ideology drive our energy policy in the current cost of living crisis.

Ideology got us here in the first place.

And finally, a government-owned and controlled nuclear industry will only control the generators and the distribution assets. Under the current energy policy, the plan is to take control of your energy assets to back up the unreliable wind, solar, and battery assets being touted by Labor.

If the next election goes to plan, we can look forward to the Coalition providing affordable and reliable light at the end of the tunnel.
The Spectator