AD 1764-1791: The First Climate Change and Geoengineering Acts

Have environmentalism and climate change fear always been based on an unproven ideology full of hate against humanity and its material progress?

Yes.

Introducing the (fourth?) climate change and geoengineering act: the Kings Hill Forest Act, “passed in 1791 on St. Vincent, [...] setting up a “rain reserve”in an upland part of the island“:

 The Kings Hill Forest Act passed on St Vincent in 1791 was a remarkable piece of legislation. Above all, it was based on a novel climatic theory, that deforestation might cause rainfall decline. The objective of the Act was to “appropriate for the benefit of the neighbourhood the Hill …….and for enclosing the same and preserving the timber and other trees growing thereon in order to attract rain”. The fact that the Act was highly innovative was clearly recognised at the time. Governor James Seton commented that the Act is “of an unusual and extraordinary character”, not least in the powers which the state arrogated to itself to control land and to impose penalties for its misuse. In the language of today the Act thus conceived of two kinds of sustainability, at a local level, in terms of timber supply; and in a much broader climatic sense. It thus enshrined in legislation a highly sophisticated set of principles and was, in short, based on ‘scientific’ theory rather than on social structures or assumptions.

(more details about the Kings Hill Forest Act - fascinatingly, the actual text is very likely to mention clouds too, resulting in the wording “for the purpose of attracting clouds and rain”)

Environment worries? Check. Impending climate catastrophe caused by human greed? Check. Evil deforestation? Check. Strong-armed governmental intervention? Check. And yhe idea was not new. Already in Tobago (1764), Barbados and Dominica (1765) local authorities had been busying themselves in planting trees in order to get more rains:

an ordinance was passed in 1764 designating the mountainous part of Tobago a protected forest, “reserved in wood for rains.”This protected forest still exists within its original boundaries. The legislation that created it marked a critical watershed in the history of environmental concern, since it applied a universal scientific theory about earth-atmosphere processes (since shown to be substantially correct) to a local environment. It was thus the forerunner to all subsequent national and international attempts to control rainfall and climate change. The 1764 Tobago ordinance specifically recognized the need to restrict profits to sustain an environment in the long term. Moreover, the mechanisms used to set up forest reserves under the ordinance justified the alienation (in the face of much local litigation) of large tracts of private plantation land to colonial state control and implied a permanent role for the state, rather than the individual, in conserving forests and the atmosphere. In 1765, identical ordinances were applied to Barbados and Dominica.

Also in Mauritius (1769):

In a law of 1769, called the Reglement Economique, and in later laws passed after Poivre had left the island in 1772, an extensive system of forest reservations and riverside reservations was established in Mauritius, on the basis both of climatic arguments to protect the rainfall and to provide a sustainable timber supply

Pierre Poivre, Commissaire-Intendant of Mauritius from 1766, is in fact a key person in this story (that can be traced back to “the pupil of Isaac Newton“):

Pierre Poivre had already been extensively involved in attempts to transfer spice trees from the Dutch East Indies to Mauritius. In the course of trying to develop these and other objectives Poivre set up what was effectively a physiocratic state on the island. However, partly as a result of his experiments in plant transfer Poivre was already very interested in soil conditions and the effects of deforestation on moisture and local climate. He had developed these ideas in Lyons in the context of agricultural society meetings during the 1750s and in a paper written in 1763 made direct reference to what he thought were now well-established connections between deforestation and rainfall change. The provenance of these notions is not clear and further research would be needed to establish the source of Poivre’s very definitive desiccationist convictions. But it seems likely that the main source of inspiration for Poivre’s climate thinking came from the arboricultural handbooks written by his contemporary, Duhamel de Monceau. De Monceau, an anglophile, had in turn been very much influenced by the thinking of Stephen Hales, the pupil of Isaac Newton and the discover of the principle of transpiration. A Newtonian linking of trees and atmosphere was thus essential to early environmentalism.

Stephen Hales of 1677-1761, of course. There is another possibly complementary reason behind Poivre’s efforts though: the arrival in Mauritius in 1768 of botanist Jacques Henri Bernardine de Saint Pierre, later author of Paul and Virginie (1787) and clearly influenced by the thoughts of Jean-Jacques Rousseau. And what did Rousseau write in Emile: or, On Education?

Everything is good as it leaves the hands of the author of things, everything degenerates in the hands of man. He forces one soil to nourish the products of another, one tree to bear the fruits of another. He mixes and confuses the climates, the elements, the seasons. He mutilates his dog, his horse, his slave. He turns everything upside down, he disfigures everything, he loves deformities, monsters. He wants nothing as nature made it, not even man himself. For him man must be trained like a saddle- horse; he must be shaped according to the fashion, like trees in his garden.

There we go then: climate and geoengineering legislation officially based on science, but on a “science” in turn based on activism takings its inspiration from the science-free humanity- and material-progress-hating thoughts of a distant philosopher (Rousseau).

Nothing new under the sun. Science-based policy, it ain’t.

(h/t Fabio Spina and ClimateMonitor.it)

Schechtman's Lessons

From Haaretz, from an article published a full six months before the Nobel Prize was awarded to Dan Schechtman, some climate-relevant findings. In no particular order:

  1. “Unchallengeable basic tenets” must be considered as transient in any scientific field
  2. Any scientific field that is considered “closed”, “solid”, “total” is ripe for a revolution that will still be burning decades later
  3. New discoveries are surrounded by suspicion and ridicule, accompanied by outright rationalized dismissals
  4. It doesn’t matter if you can show people your discovery. It doesn’t matter if they can replicate your discovery in their own lab. Many will still refuse to believe it. We have not moved an inch since the times of Galileo and telescope-denier Cesare Cremonini
  5. Many of them will change their mind only if the discovery is demonstrated using their old techniques
  6. Scientists-discoverers don’t keep their techniques secret
  7. Many discoveries are observed for many years, before somebody realizes there is a new discovery to be made of those observations
  8. Scientists-discoverers are worried about losing their job because of their discovery
  9. And rightly so
  10. They are even worried of being unable to find any job because of their discovery
  11. You need at least two Professors to support the article describing the discovery, before it passes so-called “peer” review
  12. The famous, influential, powerful people invited to deliver the keynote addresses at scientific conferences, they are very likely wrong on any new topic
  13. We have no idea how many Schechtman’s will forever remain unknown, because they didn’t have the luck and the guts to persevere the way Shechtman did

And now for the excerpts:

[...] Since the birth of modern crystallography in 1912, when x-rays were diffracted from a crystal for the first time, until that moment 70 years later, this branch of science had relied on an unchallengeable basic tenet [...]

The scientists concluded that there can be no pentagonal symmetry in crystals, since they cannot create periodic order – as anyone who has tried to cover a bathroom floor with five-sided tiles knows. In countless observations over many decades, crystallographers indeed saw only geometric crystals, all of them possessing rotational symmetry.

But on that April day in 1982, when Shechtman looked at the pattern of points created by the crystal of the alloy he had prepared in the lab from aluminum and manganese, he saw a structure that contradicted both rules: the 10 points that appeared through the microscope attested to the existence of pentagonal symmetry; and the immediate conclusion was that the crystal did not possess a periodic structure. Shechtman had discovered a new world, in which there are solid crystals, but the known order was gone. [...]

Within days, his peculiar ideas generated suspicion and ridicule, to which he would be subjected for some time [...]

“I told everyone who was ready to listen that I had material with pentagonal symmetry. People just laughed at me,” [...]

In the months that followed, he tried to persuade his colleagues in the lab that what they were looking at was a previously unknown crystal. But in vain. “I knew my observations were in order. I couldn’t explain the phenomenon, but I knew it was material that no one had seen before me, impossible material according to the laws of crystallography,” he says [...]

One day, the administrative director of his research group approached him. “He gave a sheepish smile, placed a textbook on my desk and said, ‘Please read what’s written here.’ I told him that I taught my students from the book, but that I also knew that we’re dealing with something that exceeded the book’s understanding,” Shechtman says. The director returned 24 hours later and asked him to leave the research group, because he was “bringing disgrace” on the members. [...]

the researchers at the institute were not able to check the discovery for themselves. Many of them did not know how to work with an electron microscope, which is the most appropriate tool for identifying rotational symmetries in small crystals. Moreover, he notes, “They were not really interested in dealing with it.”

Shechtman also forwarded the findings to a friend, who was about to go on a scientific tour. When the friend returned, Shechtman relates, he brought an array of off-the-wall explanations for the 10 microscopic points, gleaned from colleagues. None of them took seriously the possibility that it was a case of pentagonal symmetry. [...]

only one person was ready to listen in earnest: Prof. Ilan Blech [...] Shechtman now felt sufficiently confident to publish an article on the subject. Until then, he says, “I was afraid to publish alone, in case it turned out to be nonsense.” [...]

Shechtman turned to the senior scientist John Cahn, who had invited him to work in the institute. Cahn initially had reservations, but afterward worked with Shechtman and proposed that they co-author an article. For the mathematical aspects he added a French crystallographer, Denis Gratias, and the three wrote an article that was a concise, refined version of the first article. They added Ilan Blech’s name as a fourth author and sent the article to Physical Review Letters, which also deals with physics. The addition of Cahn’s name turned out to be a winning move: the article appeared in November 1984, within a few weeks of its submission [...]

To get researchers to believe him, Shechtman described exactly how to prepare the alloy. “There are people who keep the mode of preparation secret, but I wanted every researcher who had an appropriate laboratory to be able to prepare the material and examine it under an electron microscope within a few days,” [...]

despite the success in repeating the experiment in several labs, only a few scientists accepted the thesis of pentagonal symmetry. Leading scientists rejected Shechtman’s conclusions, and towering above all of them was Linus Pauling [...]

“There are tens of thousands of chemists in the United States, and Pauling was their star,” Shechtman notes. “He would open the conferences of the American Chemical Society, and quasiperiodic crystals were always his topic. I attended one of the conferences, at Stanford. Thousands of people were there, and he attacked me. He would stand on those platforms and declare, ‘Danny Shechtman is talking nonsense. There is no such thing as quasicrystals, only quasi-scientists.’ [...]

In the first years following the discovery, Shechtman’s support came primarily from physicists and mathematicians. But crystallographers had a serious problem with the findings: Shechtman had used an electron microscope, whereas their main tool was the x-ray. “It’s as though a mechanical engineer were to explain to a heart surgeon how to perform an operation,” Shechtman says. “From their point of view, I was not a crystallographer, because I had used a tool they considered imprecise and illegitimate.” [...]

in 1987, friends of Shechtman’s from France and Japan succeeded in growing quasi-periodic crystals large enough for x-rays to repeat and verify what he had discovered with the electron microscope: the existence of pentagonal symmetry. [...]

“In the forefront of science there is not much difference between religion and science,” Shechtman says. “People harbor beliefs. That’s what happens when people believe something religiously. The argument with Linus Pauling was almost theological.” [...]

As his fear of not finding employment faded, Pauling’s assaults became a compliment for Shechtman. “I realized that if it’s Pauling against Shechtman, then at some level we are equals. [...]

Prof. Shlomo Ben-Abraham, one of the first Israeli scientists to support the discovery, says, “Until Danny’s discovery, we thought the subject of crystal structure was completely closed. Today, nearly 30 years later, we know we have not even scratched the surface. [...]

Prof. Ron Lifshitz, a physicist from Tel Aviv University, describes Shechtman’s discovery as “a scientific revolution that is still in going on.” Science, he says, must now answer questions that were once thought to be basic and closed, such as what a crystal is, alongside new questions, such as how the nonperiodic structure influences the qualities of those materials. [...]

For decades, crystallography clung to a mistaken description of the physical world, which was presented as a solid, total truth. On the other hand, that same science was able to acknowledge its mistake and refute long-held basic assumptions within a relatively short time, once the theory was shown to be inconsistent with reality. Still, it was necessary to have someone who is capable of shouldering the revolution.

Prof. Ben-Abraham explains Shechtman’s strength: “The greatness of a discoverer lies in knowing what he has discovered. People encounter things and ignore them for one reason or another. I know of four documented cases in which people found this before Danny.” However, he notes, because all the books state that pentagonal symmetry is inconsistent with periodicity of crystals, the researchers ignored what they saw. [...]

Klima Süß

(comment just left at WUWT)

From the [Crownies] show’s website (my emphasis):

Richard is prosecuting a case in court, this time with a good chance of winning. But he is not happy. He has to prosecute his climate scientist hero Tim Coghburn for assault, after Coghburn punched a persistent climate denialist, James Watt. Watt is an annoying gadfly and Richard detests all he stands for. And the fiasco is made worse when Richard sees Coghburn is being represented by Richard’s old, much admired law lecturer. Richard makes a stuttering start in court, and the defence QC makes Watt look unreliable and a bit of a goose. Part of Richard wants to lose because of his environmental concerns, but part of him needs a win. Richard finally cross examines Tim Coghburn and gets to reconcile his needs. He leads Tim through a series of questions as put by James Watt and his ilk, stirring Coghburn’s anger as he airs the simple rebuttals. Eventually Tim blurts out that yes, he did hit James Watt, and it felt great. Richard has his win, Tim is fined, and Watt still comes out of it looking like an idiot.

If it were England, a trip to the defamation court would have been in order.

Anyway…a filmed story that has no connection with reality and portrays the “villain” using basic, demeaning stereotypes? Where did we see that already