Waxahachie might have been the fusion hub

Fifteen years ago, award-winning journalist Timothy Noah observed that the excitement over the prospect of isolating the Higgs boson (the subatomic โ€œGod particleโ€) at the Large Hadron Collider in Geneva could have happened in Waxahachie, Texas.

From CFACT

By Duggan Flanakin

โ€œSheโ€™s got a superconducting super collider inside of her and Iโ€™m a billion-dollar hole in the groundโ€

โ€“ Bill Davis, Waxahachie

Fifteen years ago, award-winning journalist Timothy Noah observed that the excitement over the prospect of isolating the Higgs boson (the subatomic โ€œGod particleโ€) at the Large Hadron Collider in Geneva could have happened in Waxahachie, Texas.

The Superconducting Super Collider project was the worldโ€™s first attempt to use powerful superconducting magnets to create magnetic fields necessary for confining fusion plasma. Completing the SSC, according to laboratory director Roy Schwitters, a University of Texas at Austin physicist, would have led to discovery of the Higgs boson (โ€œGodโ€) particle 10 years earlier and attracted 120,000 visitors a year to north Texas.

President Clintonโ€™s Energy Secretary Hazel Oโ€™Leary, under whose watch the project was canceled, lamented in 1993, โ€œThe superconducting super collider held the promise of taking humanity to the next level of understanding about the origins of the universe and the fundamental dynamics of matter.โ€

As stated by Science reporter Jeffrey Mervis, this colossal embarrassment โ€“ the cancellation of the project โ€“ provides a classic example of the incompetency of the Washington swamp that can likely be traced to unaccountable bureaucrats spending taxpayersโ€™ money in ways no drunken sailor would ever consider.

Staffers proposed projects with lowball budgets, then bureaucrats write regulations that triple real-world costs, and finally (Congress having funneled millions to donors and friends) the project is mothballed. From healthcare to war to nuclear energy, Congress (the authors of the $38 trillion official national debt plus untold trillions in unfunded mandates) is a proven spendthrift.

For decades, nuclear energy research was dependent on government funding. Since the Eisenhower years, lowball budgets, bureaucratic overkill, and a lack of commitment to the best science made it virtually impossible to design and build new nuclear power plants โ€“ and the ones completed were way over budget.

Proponents of the superconducting super collider made several mistakes, most notably not convincing the public of long-term benefits beyond satisfying scientific curiosity. They sold the SCSC as a $4.4 billion project, yet people saw the cost balloon to $12 billion with no end in sight. That was enough to embarrass the Capitol Hill crowd that their reelection was far more important than discovering the secrets of the universe.

Science writer David Appell laments that the death of the SSC opened the door for the glory of particle physics to move to Europe โ€” the older, broadly collaborative CERN project. CERN was born out of UNESCO in 1951 and formally established as French Conseil Europรฉen pour la Recherche Nuclรฉaire in 1953, though many call it the European Laboratory for Particle Physics. At its outset, 12 nations signed on.

CERNโ€™s own website explains that, since the 1950s, its Directorates have been subdivided into departments and in turn into groups and sections. In short, a typical European bureaucratic labyrinth. They further boast that the massive organization has โ€œmore than fulfilledโ€ scientistsโ€™ dreams of โ€œstretch(ing) the limits of our technology and imaginations.โ€

But hereโ€™s the rub. Many blame the death of the SSC on an obstinate Congress that did not seek international support, yet it was not until 2010 โ€“ 55 years into its existence โ€“ that CERN finally discovered the Higgs boson. CERNโ€™s particle accelerator is far less powerful than the one Americans had begun to build before Congress backed out.

What was missing from the American project was the spirit of the Eisenhower Age coupled with the vision of public-private partnerships to provide funding not dependent on short-term political calculations.

The spirit that says Americans can do anything because we have the freedom to explore.

Some young Americans still have that spirit.

Take Gitanjali Rao, from a small town in Colorado, who at age 13 invented the Tethys device that detects lead levels in drinking water. Timeโ€™s first Kid of the Year got a scholarship to MIT.

Or Ethiopian-born teenager Heman Bekele, named Americaโ€™s Top Young Scientist for inventing โ€“ at age 14 โ€“ a skin-cancer-treating soap that uses lipid-based nanoparticles to activate immune cells at a price competitive with ordinary soaps.

The first proposal for building CERNโ€™s Large Hadron Collider came in 1984, but not until 2010 did its experiments yield first collisions. That approval only came after the U.S. began planning the SSC. As CERN accelerator physicist says, โ€œThe SSC cancellation helped the LHC get approved, and then the U.S. joined the LHC.โ€

But Zimmermann also said, โ€œWe need a minimum of competition between projects, because itโ€™s not good to only have one idea. The competing projects are stimulating and challenging each other, pushing colliders to maximum performance.โ€

Today, the U.S. remains out of, or rather on the periphery of, the loop in particle physics. CERN talks of building the Future Circular Collider to succeed the LHC, with operations starting in stages in the 2040s.

Stage 1 (FCC-ee), an electron-positron collider to function as a Higgs factory, would operate for about 15 years. Stage 2, (FCC-hh), a proton-proton collider capable of reaching 100 TeV collision energies (5 times that of the SSC), would not be completed until the 2070s.

Meanwhile, China just announced plans to have its Circular Electron Positron Collider (CEPC) with a circumference of 62 miles (larger than the SSCโ€™s 54 miles) completed by 2037. The Chinese envision the CEPC as a โ€œHiggs factoryโ€ generating millions of Higgs bosons through electron-positron collisions.

A little over a year after the death of the SSC, Carl Sagan wrote of his โ€œforebodingโ€ of a future America as โ€œa service and information economy when nearly all the key manufacturing industries have slipped away to other countries, when awesome technological powers are in the hands of a very few, and no one representing the public interest can even grasp the issues.โ€

When a few Americans begin to speak of a revival of American industry, maybe it is not too late.

Maybe we can avoid Saganโ€™s nightmare of a people โ€œunable to distinguish between what feels good and whatโ€™s trueโ€ who โ€œslide, almost without noticing, back into superstition and darknessโ€ that looms today over our horizons.

Isnโ€™t it time for America to be โ€œsuperโ€ again?

This article originally appeared at RealClear Energy

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Duggan Flanakin

Duggan Flanakin is a Senior Policy Analyst with the Committee For A Constructive Tomorrow. A former Senior Fellow with the Texas Public Policy Foundation, Mr. Flanakin authored definitive works on the creation of the Texas Commission on Environmental Quality and on environmental education in Texas. A brief history of his multifaceted career appears in his book, “Infinite Galaxies: Poems from the Dugout.”

The Myth of โ€œSettledโ€ Climate Science: A Revelatory Study on Cloud Formation

From Watts Up With That?

Trees, Clouds, and the Unsettling Truth about Climate Science

In a recent revelation from the international CLOUD project at the nuclear research center CERN, researchers have identified sesquiterpenesโ€”gaseous hydrocarbons released by plantsโ€”as a pivotal factor in cloud formation. This study, published in the journal Science Advances, might just be the wrench in the works for those who have long touted the notion of โ€œsettledโ€ climate science.

The Intergovernmental Panel on Climate Change (IPCC) has been confidently projecting that the global climate will warm by 1.5 to 4.4 degrees Celsius above pre-industrial levels by 2100. Yet, these projections are riddled with uncertainties. For instance, in a worst-case scenario, the temperature could swing anywhere between 3.3 to 5.7 degrees Celsius. Such a vast range hardly inspires confidence.

The root of these uncertainties? A glaring lack of understanding of the intricate processes occurring in our atmosphere. The CLOUD project, in its quest to demystify these processes, has been delving deep into the enigma of cloud formation.

Clouds, as it turns out, are not just fluffy white entities in the sky. Their formation and behavior have profound implications for the planetโ€™s temperature. While itโ€™s known that clouds reflect solar radiation, cooling the earthโ€™s surface, the exact mechanics of their formation remain elusive.

Aerosols, both natural and man-made, provide the condensation nuclei essential for cloud formation. However, a significant portion of these nuclei form in the air when gaseous molecules combine, turning into solidsโ€”a process known as โ€œnucleationโ€ or โ€œnew particle formationโ€ (NPF).

While the role of anthropogenic gases like sulfur dioxide is somewhat-documented, the study has shed light on the underestimated influence of natural gases like sesquiterpenes. Despite being less prevalent than other substances, sesquiterpenes have a disproportionately large impact on cloud formation. In fact, they form ten times more particles than other organic substances at equivalent concentrations.

This studyโ€™s findings underscore the need to reconsider the role of sesquiterpenes in climate models, potentially rendering many existing models obsolete.


Conclusion:

For those whoโ€™ve been echoing the mantra that climate science is โ€œsettledโ€ and beyond dispute, this study serves as a stark reminder of the complexities and unknowns still at play. Itโ€™s high time to question the wisdom of pouring vast sums of money into policies based on potentially flawed models. The discovery of sesquiterpenesโ€™ role in cloud formation is a testament to the ever-evolving nature of climate scienceโ€”a field that is far from settled.

Source:ย How trees influence cloud formationย (2023, September 8).