Climate Change Bites Big Business

“Electoral politics is not the solution to the Earth-threatening problems we face.”
– Jeffrey St. Clair (10 August 2018, Counter Punch)

There is now no non-violent way to reverse climate change. Even with morally unrestrained action, it is probable that there is now no physical possibility of reversing climate change. The time for action was 1973-1979, the time of the two oil embargoes (the post Israeli War – against Egypt and Syria – Arab Oil Embargo of 1973; and the related-to-the-Iranian-Revolution vengeful price gouge oil embargo of 1979). This was the period of the Watergate-climax finale of the Nixon Administration, the Ford Administration, and the Carter “energy crisis” Administration. Politically, the election of Ronald Reagan in 1980 killed the possibility of US climate change action.

From Reagan through Bush I, Clinton, Bush II and Obama to Trump, the mentioning of climate change – as one of government’s highest priorities, as one of corporate America’s foremost concerns (to be addressed, not suppressed), and as one of mainstream media’s primary and continuing focuses and leading stories – was minimized if not altogether absent. If anything, climate change denialism was heavily promoted by corporate and partisan (right wing) media, and by legions of corporate agents, flacks and factotums masquerading as elected representatives in federal and state governments. That has now changed.

Climate change is now all over the front pages of the newspapers and is the headline story of the mainstream mass media, primarily because of the massive fires in California whose smoke has even reached New York City. Why this new overt and blaring mainstream news attention to climate change, a subject that was officially hush-hush, trivial and fake news so recently in the past? Obviously because climate change has begun costing big money to major sectors of American capitalism.

In the case of the 2017-2018 California wildfires, one of the costs to capitalism is the financial threat of bankruptcy via liability suits against Northern California’s regulated monopoly utility company, Pacific Gas & Electric (PG&E), which is being held responsible for causing the Sonoma and Napa Counties fires of 2017, because electric power lines swung into too-near tree branches during high winds setting off sparks that ignited fires that raced across the dry countryside, incinerating many communities and much industrial infrastructure (e.g., for telephone, internet and TV distribution, and also numerous small business facilities, croplands and vineyards).

A second set of costs to capitalism from California’s vast wildfires of 2017-2018 are the high losses to fire insurance companies, prompting their threats to leave the California insurance market, which in essence would mean a very sharp increase of fire insurance rates for California residents, homeowners and businesses. It seems unlikely to everybody that multi-countywide wildfires like those of 2017 and 2018 are a fluke unlikely to reoccur next year and thereafter.

Companies offering flood, tornado and hurricane insurance along the Gulf and Atlantic coasts of the United States, and in Puerto Rico, may now also be smarting from the increased damage caused by more frequent and more powerful hurricanes, and the drenching and flooding rainstorms of the last few years. As with the vaster wildfires and longer wildfire season in the West, the more frequent and extensive flood and tornado disasters in the Great Plains and Gulf and Atlantic coasts have likely seeded thoughts of insurance flight and massive rate increases, and loan rate increases, in the minds of the moguls of the liability underwriting industry and the investment banking industry.

Higher insurance and loan costs hamper any business operation, and dampen real estate construction and sales activity, as well as adding usually unproductive costs to the living expenses of homeowners and renters seeking to buy a little security against unanticipated personal catastrophes.

It is good to remember that the reason the nuclear power industry (for electric generation) is dead is because the insurance industry worldwide rates nuclear power as an infinite liability and thus an uninsurable risk. Nuclear power can only exist where government assumes 100% of the liability in perpetuity. Insurance companies are starting to get the queasy feeling that perhaps wildfires in California (and probably the Great American Desert west of the Mississippi), as well as hurricanes along the Gulf and Atlantic coasts of the United States, are growing into potentially bankrupting infinite liability insurance risks.

A true and honest free market zealot would say: “So what, if companies like PG&E are at fault for wildfire apocalypses then let them get sued into bankruptcy. Another set of entrepreneurs will take their place as providers of electricity and natural gas for consumers, and profit as they deserve for providing safe and reliable service. Also, if some insurance companies are too scared to underwrite the risks of wildfires, hurricanes, tornadoes and floods, then let them run away or price themselves out of the market, because newer entrepreneurs will become new insurance providers who will take advantage of capturing an underserved market by offering affordable insurance, and thus profit by gaining a large customer base that would then dilute their aggregate risk.” Yes, zealot, but “true and honest” does not usually pair with “profit” when we are dealing with Big Money operators. So, what is more likely to happen?

In the official postmortem of the 2017 Northern California wildfires, PG&E was pointed to as the primary (essentially only) culprit because of the arcing contact between live electric cables and dry tree limbs during the high winds preceding the fires. PG&E is required by regulations to maintain a set clearance between its power cables and all trees near them. That clearance was obviously insufficient, either because of an inadequacy of the state regulations, or an insufficiency of tree trimming maintenance by PG&E’s tree trimming contractors, or both. Fingers will point, courts will be busy.

However, the idea of thousands of burned-out wildfire victims suing PG&E into bankruptcy will not happen because the state of California would then have the colossal headache of finding a new enormous and technically competent business entity to seamlessly take over the operations of producing and distributing electric power and natural gas to many millions of Californians populating a large and geographically diverse terrain. So, California state government will revise old laws or craft new ones to provide too-important-to-fail utilities like PG&E (and Edison International, and San Diego Gas & Electric) with some legal protection from the financial threat of bankruptcy over the liability of causing wildfires. (See the citation at the end for the legalistic details.)

The FIRE combine (Finance, Insurance and Real Estate; and their meshing as Wall Street speculation), along with the War Industries Complex, has a stranglehold on today’s U.S. Government. Recall that FIRE owned the political career of Barack Obama, who dutifully protected them from justifiable prosecution and punishment for the greatest robbery of all time, in 2008; and that military-related expenses and subsidies consume over 70% of the federal budget (our taxes). While American Big Business includes many other rich and politically powerful sectors, like Big Pharma, I think that FIRE and the War Industries Complex are the largest forces in American capitalism today.

It seems to me that now that climate change is biting Big Business in a big way, the mainstream media is excited to report all the lurid details of catastrophes spawned by climate change, because it is echoing the fears of their prime and patronizing audience: the loss of big money by Big Business, and its fear of the loss of future certainty of uninterrupted profitability. Big Capital is now openly scared about climate change, and that is what we are now seeing as headline news.

We will also be seeing urgent promotions – presented as mass media news and commentary – for varieties of government subsidized protection for those sectors of Big Business that feel most financially threatened by the biting furies of climate change. The little that California state government is now doing for moderating the potentially infinite liabilities of its wildfire-haunted electric utilities is only the beginning of what we can expect in the way of publicly subsidized climate change insurance for Big Business.

I think that the pretense of climate change denialism by the Big Money has crumbled, and we are now entering a period of overt climate change acknowledgment coupled with fanatical efforts to gain public subsidies for private interests to both insure and indemnify them against climate change-related financial losses, and to also preserve the nature of their businesses even if they are major CO2 and organic vapor polluters, like the petrochemical and coal companies.

Notes:

California Governor Taking PG&E Closer to Fire Law Changes
July 25, 2018
https://www.insurancejournal.com/news/west/2018/07/25/496015.htm

Facing $17 Billion in Fire Damages, a CEO Blames Climate Change
By: Mark Chediak
August 13, 2018
https://www.bloomberg.com/news/articles/2018-08-13/facing-17-billion-in-fire-damages-a-ceo-blames-climate-change

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This article appeared first as:

Climate Change Bites Big Business
14 August 2018
https://www.counterpunch.org/2018/08/14/climate-change-bites-big-business/

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The Thermodynamics of 9-11

When hijacked airliners crashed into the tall Towers of the World Trade Center, in New York City [on 11 September 2001], each injected a burning cloud of aviation fuel throughout the 6 levels (WTC 2) to 8 levels (WTC 1) in the impact zone. The burning fuel ignited the office furnishings: desks, chairs, shelving, carpeting, work-space partitions, wall and ceiling panels; as well as paper and plastic of various kinds.

How did these fires progress? How much heat could they produce? Was this heat enough to seriously weaken the steel framework? How did this heat affect the metal in the rubble piles in the weeks and months after the collapse? This report is motivated by these questions, and it will draw ideas from thermal physics and chemistry. My previous report on the collapses of the WTC Towers described the role of mechanical forces (1).

Summary of National Institute of Technology and Standards (NIST) Report

Basic facts about the WTC fires of 9/11/01 are abstracted by the numerical quantities tabulated here.

Table 1, Time and Energy of WTC Fires

ITEM                              WTC 1           WTC 2
impact time (a.m.)          8:46:30          9:02:59
collapse (a.m.)               10:28:22        9:58:59
time difference               1:41:52          0:56:00
impact zone levels          92-99            78-83
levels in upper block       11                 27
heat rate (40 minutes)     2 GW            1 GW
total heat energy             8000 GJ       3000 GJ

Tower 1 stood for one hour and forty-two minutes after being struck between levels 92 and 99 by an airplane; the block above the impact zone had 11 levels. During the first 40 minutes of this time, fires raged with an average heat release rate of 2 GW (GW = giga watts = 10^9 watts), and the total heat energy released during the interval between airplane impact and building collapse was 8000 GJ (GJ = giga-joules = 10^9 joules).

A joule is a unit of energy; a watt is a unit of power; and one watt equals an energy delivery rate of one joule per second.

Tower 2 stood for fifty-six minutes after being struck between levels 78 and 83, isolating an upper block of 27 levels. The fires burned at a rate near 1 GW for forty minutes, diminishing later; and a total of 3000 GJ of heat energy was released by the time of collapse.

WTC 2 received half as much thermal energy during the first 40 minutes after impact, had just over twice the upper block mass, and fell within half the time than was observed for WTC 1. It would seem that WTC 1 stood longer despite receiving more thermal energy because its upper block was less massive.

The data in Table 1 are taken from the executive summary of the fire safety investigation by NIST (2).

The NIST work combined materials and heat transfer lab experiments, full-scale tests (wouldn’t you like to burn up office cubicles?), and computer simulations to arrive at the history and spatial distribution of the burning. From this, the thermal histories of all the metal supports in the impact zone were calculated (NIST is very thorough), which in turn were used as inputs to the calculations of stress history for each support. Parts of the structure that were damaged or missing because of the airplane collision were accounted for, as was the introduction of combustible mass by the airplane.

Steel loses strength with heat. For the types of steel used in the WTC Towers (plain carbon, and vanadium steels) the trend is as follows, relative to 100% strength at habitable temperatures.

Table 2, Fractional Strength of Steel at Temperature

Temperature, degrees C      Fractional Strength, %
200                                     86
400                                     73
500                                     66
600                                     43
700                                     20
750                                     15
800                                     10

I use C for Centigrade, F for Fahrenheit, and do not use the degree symbol in this report.

The fires heated the atmosphere in the impact zone (a mixture of gases and smoke) to temperatures as high as 1100 C (2000 F). However, there was a wide variation of gas temperature with location and over time because of the migration of the fires toward new sources of fuel, a complicated and irregular interior geometry, and changes of ventilation over time (e.g., more windows breaking). Early after the impact, a floor might have some areas at habitable temperatures, and other areas as hot as the burning jet fuel, 1100 C. Later on, after the structure had absorbed heat, the gas temperature would vary over a narrower range, approximately 200 C to 700 C away from centers of active burning.

As can be seen from Table 2, steel loses half its strength when heated to about 570 C (1060 F), and nearly all once past 700 C (1300 F). Thus, the structure of the impact zone, with a temperature that varies between 200 C and 700 C near the time of collapse, will only have between 20% to 86% of its original strength at any location.

The steel frames of the WTC Towers were coated with “sprayed fire resistant materials” (SFRMs, or simply “thermal insulation”). A key finding of the NIST Investigation was that the thermal insulation coatings were applied unevenly — even missing in spots — during the construction of the buildings, and — fatally — that parts of the coatings were knocked off by the jolt of the airplane collisions.

Spraying the lumpy gummy insulation mixture evenly onto a web of structural steel, assuming it all dries properly and none is banged off while work proceeds at a gigantic construction site over the course of several years, is an unrealistic expectation. Perhaps this will change, as a “lesson learned” from the disaster. The fatal element in the WTC Towers story is that enough of the thermal insulation was banged off the steel frames by the airplane jolts to allow parts of frames to heat up to 700 C. I estimate the jolts at 136 times the force of gravity at WTC 1, and 204 at WTC 2.

The pivotal conclusion of the NIST fire safety investigation is perhaps best shown on page 32, in Chapter 3 of Volume 5G of the Final Report (NIST NCSTAR 1-5G WTC Investigation), which includes a graph from which I extracted the data in Table 2, and states the following two paragraphs. (The NIST authors use the phrase “critical temperature” for any value above about 570 C, when steel is below half strength.)

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“As the insulation thickness decreases from 1 1/8 in. to 1/2 in., the columns heat up quicker when subjected to a constant radiative flux. At 1/2 in. the column takes approximately 7,250 s (2 hours) to reach a critical temperature of 700 C with a gas temperature of 1,100 C. If the column is completely bare (no fireproofing) then its temperature increases very rapidly, and the critical temperature is reached within 350 s. For a bare column, the time to reach a critical temperature of 700 C ranges between 350 to 2,000 s.

“It is noted that the time to reach critical temperature for bare columns is less than the one hour period during which the buildings withstood intense fires. Core columns that have their fireproofing intact cannot reach a critical temperature of 600 C during the 1 or 1 1/2 hour period. (Note that WTC 1 collapsed in approximately 1 1/2 hour, while WTC 2 collapsed in approximately 1 hour). This implies that if the core columns played a role in the final collapse, some fireproofing damage would be required to result in thermal degradation of its strength.” (3)

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Collapse

Airplane impact sheared columns along one face and at the building’s core. Within minutes, the upper block had transferred a portion of its weight from central columns in the impact zone, across a lateral support at the building crown called the “hat truss,” and down onto the three intact outer faces. Over the course of the next 56 minutes (WTC 2) and 102 minutes (WTC 1) the fires in the impact zone would weaken the remaining central columns, and this steadily increased the downward force exerted on the intact faces. The heat-weakened frames of the floors sagged, and this bowed the exterior columns inward at the levels of the impact zone. Because of the asymmetry of the damage, one of the three intact faces took up much of the mounting load. Eventually, it buckled inward and the upper block fell. (1)

Now, let’s explore heat further.

How Big Were These Fires?

I will approximate the size of a level (1 story) in each of the WTC Towers as a volume of 16,080 m^3 with an area of 4020 m^2 and a height of 4 m (4). Table 3 shows several ways of describing the total thermal energy released by the fires.

Table 3, Magnitude of Thermal Energy in Equivalent Weight of TNT

ITEM                                  WTC 1              WTC 2
energy (Q)                          8000 GJ           3000 GJ
# levels                              8                       6
tons of TNT                       1912                 717
tons/level                           239                  120
lb/level                               478,000           239,000
kg/m^2 (impact floors)       54                    27
lb/ft^2 (impact floors)         11                    6

The fires in WTC 1 released an energy equal to that of an explosion of 1.9 kilotons of TNT; the energy equivalent for WTC 2 is 717 tons. Obviously, an explosion occurs in a fraction of a second while the fires lasted an hour or more, so the rates of energy release were vastly different. Even so, this comparison may sharpen the realization that these fires could weaken the framework of the buildings significantly.

How Hot Did The Buildings Become?

Let us pretend that the framework of the building is made of “ironcrete,” a fictitious mixture of 72% iron and 28% concrete. This framework takes up 5.4% of the volume of the building, the other 94.6% being air. We assume that everything else in the building is combustible or an inert material, and the combined mass and volume of these are insignificant compared to the mass and volume of ironcrete. I arrived at these numbers by estimating volumes and cross sectional areas of metal and concrete in walls and floors in the WTC Towers.

The space between floors is under 4 meters; and the floors include a layer of concrete about 1/10 meter thick. The building’s horizontal cross-section was a 63.4 meter square. Thus, the gap between floors was nearly 1/10 of the distance from the center of the building to its periphery. Heat radiated by fires was more likely to become trapped between floors, and stored within the concrete floor pans, than it was to radiate through the windows or be carried out through broken windows by the flow of heated air. We can estimate a temperature of the framework, assuming that all the heat became stored in it.

The amount of heat that can be stored in a given amount of matter is a property specific to each material, and is called heat capacity. The ironcrete mixture would have a volumetric heat capacity of Cv = 2.8*10^6 joules/(Centigrade*m^3); (* = multiply). In the real buildings, the large area of the concrete pads would absorb the heat from the fires and hold it, since concrete conducts heat very poorly. The effect is to bath the metal frame with heat as if it were in an oven or kiln. Ironcrete is my homogenization of materials to simplify this numerical example.

The quantity of heat energy Q absorbed within a volume V of material with a volumetric heat capacity Cv, whose temperature is raised by an amount dT (for “delta-T,” a temperature difference) is Q = Cv*V*dT. We can solve for dT. Here, V = (870 m^3)*(# levels); also dT(1) corresponds to WTC 1, and dT(2) corresponds to WTC 2.

dT(1) = (8 x 10^12)/[(2.8 x 10^6)*(870)*8] = 410 C,

dT(2) = (3 x 10^12)/[(2.8 x 10^6)*(870)*6] = 205 C.

Our simple model gives a reasonable estimate of an average frame temperature in the impact zone. The key parameter is Q (for each building). NIST spent considerable effort to arrive at the Q values shown in Table 3 (3). Our model gives a dT comparable to the NIST results because both calculations deposit the same energy into about the same amount of matter. Obviously, the NIST work accounts for all the details, which is necessary to arrive at temperatures and stresses that are specific to every location over the course of time. Our equation of heat balance Q = Cv*V*dT is an example of the conservation of energy, a fundamental principle of physics.

Well, Can The Heat Weaken The Steel Enough?

On this, one either believes or one doesn’t believe. Our simple example shows that the fires could heat the frames into the temperature range NIST calculates. It seems entirely reasonable that steel in areas of active and frequent burning would experience greater heating than the averages estimated here, so hotspots of 600 C to 700 C seem completely believable. Also, the data for WTC Towers steel strength at elevated temperatures is not in dispute. I believe NIST; answer: yes.

Let us follow time through a sequence of thermal events.

Fireball

The airplanes hurtling into the buildings with speeds of at least 200 m/s (450 mph) fragmented into exploding torrents of burning fuel, aluminum and plastic. Sparks generated from the airframe by metal fracture and impact friction ignited the mixture of fuel vapor and air. This explosion blew out windows and billowed burning fuel vapor and spray throughout the floors of the impact zone, and along the stairwells and elevator shafts at the center of the building; burning liquid fuel poured down the central shafts. Burning vapor, bulk liquid and droplets ignited most of what they splattered upon. The intense infrared radiation given off by the 1100 C (2000 F) flames quickly ignited nearby combustibles, such as paper and vinyl folders. Within a fraction of a second, the high pressure of the detonation wave had passed, and a rush of fresh air was sucked in through window openings and the impact gash, sliding along the tops of the floors toward the centers of intense burning.

Hot exhaust gases: carbon monoxide (CO), carbon dioxide (CO2), water vapor (H2O), soot (carbon particles), unburned hydrocarbons (combinations with C and H), oxides of nitrogen (NOx), and particles of pulverized solids vented up stairwells and elevator shafts, and formed thick hot layers underneath floors, heating them while slowly edging toward the openings along the building faces. Within minutes, the aviation fuel was largely burned off, and the oxygen in the impact zone depleted.

Thermal Storage

Fires raged throughout the impact zone in an irregular pattern dictated by the interplay of the blast wave with the distribution of matter. Some areas had intense heating (1100 C), while others might still be habitable (20 C). The pace of burning was regulated by the area available for venting the hot exhaust gases, and the area available for the entry of fresh air. Smoke was cleared from the impact gash by air entering as the cycle of flow was established. The fires were now fueled by the contents of the buildings.

Geometrically, the cement floors had large areas and were closely spaced. They intercepted most of the infrared radiation emitted in the voids between them, and they absorbed heat (by conduction) from the slowly moving (“ventilation limited”) layer of hot gases underneath each of them. Concrete conducts heat poorly, but can hold a great deal of it. The metal reinforcing bars within concrete, as well as the metal plate underneath the concrete pad of each WTC Towers floor structure, would tend to even out the temperature distribution gradually.

This process of “preheating the oven” would slowly raise the average temperature in the impact zone while narrowing the range of extremes in temperature. Within half an hour, heat had penetrated to the interior of the concrete, and the temperature everywhere in the impact zone was between 200 C and 700 C, away from sites of active burning.

Thermal Decomposition — “Cracking”

Fire moved through the impact zone by finding new sources of fuel, and burning at a rate limited by the ventilation, which changed over time.

Heat within the impact zone “cracks” plastic into a sequence of decreasingly volatile hydrocarbons, similar to the way heat separates out an array of hydrocarbon fuels in the refining of crude oil. As plastic absorbs heat and begins to decompose, it emits hydrocarbon vapors. These may flare if oxygen is available and their ignition temperatures are reached. Also, plumes of mixed hydrocarbon vapor and oxygen may detonate. So, a random series of small explosions might occur during the course of a large fire.

Plastics not designed for use in high temperature may resemble soft oily tar when heated to 400 C. The oil in turn might release vapors of ethane, ethylene, benzene and methane (there are many hydrocarbons) as the temperature climbs further. All these products might begin to burn as the cracking progresses, because oxygen is present and sources of ignition (hotspots, burning embers, infrared radiation) are nearby. Soot is the solid end result of the sequential volatilization and burning of hydrocarbons from plastic. Well over 90% of the thermal energy released in the WTC Towers came from burning the normal contents of the impact zones.

Hot Aluminum

Aluminum alloys melt at temperatures between 475 C and 640 C, and molten aluminum was observed pouring out of WTC 2 (5). Most of the aluminum in the impact zone was from the fragmented airframe; but many office machines and furniture items can have aluminum parts, as can moldings, fixtures, tubing and window frames. The temperatures in the WTC Towers fires were too low to vaporize aluminum; however, the forces of impact and explosion could have broken some of the aluminum into small granules and powder. Chemical reactions with hydrocarbon or water vapors might have occurred on the surfaces of freshly granulated hot aluminum.

The most likely product of aluminum burning is aluminum oxide (Al2O3, “alumina”). Because of the tight chemical bonding between the two aluminum atoms and three oxygen atoms in alumina, the compound is very stable and quite heat resistant, melting at 2054 C and boiling at about 3000 C. The affinity of aluminum for oxygen is such that with enough heat it can “burn” to alumina when combined with water, releasing hydrogen gas from the water,

2*Al + 3*H2O + heat -> Al2O3 + 3*H2.

Water is introduced into the impact zone through the severed plumbing at the building core, moisture from the outside air, and it is “cracked” out of the gypsum wall panels and to a lesser extent from concrete (the last two are both hydrated solids). Water poured on an aluminum fire can be “fuel to the flame.”

When a mixture of aluminum powder and iron oxide powder is ignited, it burns to iron and aluminum oxide,

Al + Fe2O3 + ignition -> Al2O3 + Fe.

This is thermite. The reaction produces a temperature that can melt steel (above 1500 C, 2800 F). The rate of burning is governed by the pace of heat diffusion from the hot reaction zone into the unheated powder mixture. Granules must absorb sufficient heat to arrive at the ignition temperature of the process. The ignition temperature of a quiescent powder of aluminum is 585 C. The ignition temperatures of a variety of dusts were found to be between 315 C and 900 C, by scientists developing solid rocket motors. Burning thermite is not an accelerating chain reaction (“explosion”), it is a “sparkler.” My favorite reference to thermite is in the early 1950s motion picture, “The Thing.”

Did patches of thermite form naturally, by chance, in the WTC Towers fires? Could there really have been small bits of melted steel in the debris as a result? Could there have been “thermite residues” on pieces of steel dug out of the debris months later? Maybe, but none of this leads to a conspiracy. If the post-mortem “thermite signature” suggested that a mass of thermite comparable to the quantities shown in Table 3 was involved, then further investigation would be reasonable. The first task of such an investigation would be to produce a “chemical kinetics” model of the oxidation of the fragmented aluminum airframe, in some degree of contact to the steel framing, in the hot atmosphere of hydrocarbon fires in the impact zone. Once Nature had been eliminated as a suspect, one could proceed to consider Human Malevolence.

Smoldering Rubble

Nature is endlessly creative. The deeper we explore, the more questions we come to realize.

Steel columns along a building face, heated to between 200 C and 700 C, were increasingly compressed and twisted into a sharpening bend. With increasing load and decreasing strength over the course of an hour or more, the material became unable to rebound elastically, had the load been released. The steel entered the range of plastic deformation, it could still be stretched through a bend, but like taffy it would take on a permanent set. Eventually, it snapped.

Months later, when this section of steel would be dug out of the rubble pile, would the breaks have the fluid look of a drawn out taffy, or perhaps “melted” steel now frozen in time? Or, would these be clean breaks, as edge glass fragments; or perhaps rough, granular breaks as through concrete?

The basements of the WTC Towers included car parks. After the buildings collapsed, it is possible that gasoline fires broke out, adding to the heat of the rubble. We can imagine many of the effects already described, to have occurred in hot pockets within the rubble pile. Water percolating down from that sprayed by the Fire Department might carry air down also, and act as an oxidizing agent.

The tight packing of the debris from the building, and the randomization of its materials would produce a haphazard and porous form of ironcrete aggregate: chunks of steel mixed with broken and pulverized concrete, with dust-, moisture-, and fume-filled gaps. Like a pyramid of barbecue briquettes, the high heat capacity and low thermal conductivity of the rubble pile would efficiently retain its heat.

Did small hunks of steel melt in rubble hot spots that had just the right mix of chemicals and heat? Probably unlikely, but certainly possible.

Pulverized concrete would include that from the impact zone, which may have had part of its water driven off by the heat. If so, such dust would be a desiccating substance (as is Portland cement prior to use; concrete is mixed sand, cement and water). Part of the chronic breathing disorders experienced by many people exposed to the atmosphere at the World Trade Center during and after 9/11/01 may be due to the inhalation of desiccating dust, now lodged in lung tissue.

Did the lingering hydrocarbon vapors and fumes from burning dissolve in water and create acid pools? Did the calcium-, silicon-, aluminum-, and magnesium-oxides of pulverized concrete form salts in pools of water? Did the sulfate from the gypsum wall panels also acidify standing water? Did acids work on metal surfaces over months, to alter their appearance?

In the enormity of each rubble pile, with its massive quantity of stored heat, many effects were possible in small quantities, given time to incubate. It is even possible that in some little puddle buried deep in the rubble, warmed for months in an oven-like enclosure of concrete rocks, bathed in an atmosphere of methane, carbon monoxide, carbon dioxide, and perhaps a touch of oxygen, that DNA was formed.

Endnotes

[1] MANUEL GARCIA, Jr., “The Physics of 9/11,” Nov. 28, 2006, [search in the Counterpunch archives of November, 2006 for this report and its two companions; one on the mechanics of building collapse, and the other an early and not-too-inaccurate speculative analysis of the fire-induced collapse of WTC 7.]

[2] “Executive Summary, Reconstruction of the Fires in the World Trade Center Towers,” NIST NCSTAR 1-5, , (28 September 2006). NIST = National Institute of Standards and Technology, NCSTAR = National Construction Safety Team Advisory Committee. https://www.nist.gov/topics/disaster-failure-studies/world-trade-center-disaster-study

[3] “Fire Structure Interface and Thermal Response of the World Trade Center Towers,” NIST NCSTAR1-5G, (draft supporting technical report G), http://wtc.nist.gov/pubs/NISTNCSTAR1-5GDraft.pdf, (28 September 2006), Chapter 3, page 32 (page 74 of 334 of the electronic PDF file).

[4] 1 m = 3.28 ft;    1 m^2 = 10.8 ft^2;    1 m^3 = 35.3 ft^3;    1 ft = 0.31 m;    1 ft^2 = 0.93 m^2;    1 ft^3 = 0.28 m^3.

[5] “National Institute of Standards and Technology (NIST) Federal Building and Fire Safety Investigation of the World Trade Center Disaster, Answers to Frequently Asked Questions,” (11 September 2006). https://www.nist.gov/topics/disaster-failure-studies/world-trade-center-disaster-study

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This article originally appeared as:

The Thermodynamics of 9/11
28 November 2006
https://www.counterpunch.org/2006/11/28/the-thermodynamics-of-9-11/

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Fire Evacuations vs. Homelessness Abatement

Just in from the edge of the fire zone at Annadel Park, Santa Rosa, in Sonoma County, California, U.S.A., on 18 October 2017. Fires in this vicinity raged from 8-17 October 2017.

Fire Evacuations vs. Homelessness Abatement

An advocate for the homeless (Miles Sarvis-Wilburn) just posted on his blog (link below) a criticism of Sonoma County (CA, U.S.A.) for working so hard and spending so much to help the county’s well-housed residents avoid the catastrophe of wildfires (during October 2017) destroying their homes and threatening their lives and prosperity, yet failing to eliminate the chronic homelessness of the county’s destitute street-people. Mr. Sarvis-Wilburn called this “hypocrisy.” The following is my reply to this argument.

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This is the U.S.A., it’s all about the money. The chronically homeless population in Sonoma County is a small fraction of the county’s population, and the current public expenses for them are not monumental (and I am sympathetic to the reasonable and compassionate arguments for increasing that public spending: federal, state and local).

Tens of thousands of Santa Rosa city and Sonoma County residents (normally well housed) were displaced by evacuations during the October Fires (I heard the number 70,000 at one point). The Herculean task of fighting the vast fires to save those homes and residences (rental housing, trailer parks and hotels, where possible) was clearly in large part motivated by instinctive human solidarity: to save lives and prevent and alleviate suffering.

However, another motivation in the public interest was to save housing stock to prevent suddenly having a huge increase in the local long-term homeless population (many aged), and thus a huge increase in unanticipated local public expenses.

The solution to the problem of chronic homelessness is known and has been successfully implemented elsewhere: provide secure affordable (i.e., free) housing for the homeless. Once street-living people are securely housed (and fed), social service professionals have a much easier time helping such people overcome the numerous other problems that bedevil their lives, and which overwhelmed them to the point of becoming homeless.

This solution has been found to be cost-effect because it eliminates many public nuisances = public expenses created by having people-in-need living on the streets indefinitely.

Also, and most crassly, preventing the homes and neighborhoods of secure tax-paying residents from being incinerated, and those residents becoming impoverished, bankrupt or fleeing the area, would prevent a drastic loss of revenue for local governments, and a loss of trade (income) for local businesses. The economic motivation to fight the fires is: to prevent a sag, even collapse, of the local economy.

What prevents, or at least slows, the elimination of homelessness in the U.S.A. is simply the individual and organized selfishness, which we in the U.S.A. call “conservative” politics and “free market” economy and personal “freedom,” as opposed to the “wasteful-pay-for-the-losers” political attitude known as “socialism,” which is disliked by “conservatives” because it “raises taxes” and in general makes greedy people apprehensive about not being able to get as much as they lust for.

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Fire Evacuations vs. Homelessness Abatement,
Miles Sarvis-Wilburn’s criticism of Sonoma County
http://www.westwardness.com/blog/2017/10/13/the-horrible-hypocrisy-of-sonoma-county

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