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NNadir

NNadir's Journal
NNadir's Journal
December 31, 2020

What does Christmas mean to me?

For Christmas, I got two books, one from each of my sons.

My far left son gave me Obama's book, "The Promised Land."

My more moderate left son, gave me Dmitry Antonovich Volkogonov's biography of Trotsky.

It's days later, and I'm still trying to figure out what this means.

December 29, 2020

Design of Lithium Battery Electrolytes to Prevent the Batteries from Bursting into Flame.

(Note: Graphics in this post, and many of my earlier posts, may not be visible in Google Chrome, but should be visible in Microsoft Edge, Firefox, and Android.)

The paper, a review article, that I'll discuss in this post is this one: Design Strategies of Safe Electrolytes for Preventing Thermal Runaway in Lithium Ion Batteries (Xiaolu Tian, Yikun Yi, Binren Fang, Pu Yang, Te Wang, Pei Liu, Long Qu, Mingtao Li, and Shanqing Zhang, Chemistry of Materials 2020 32 (23), 9821-9848)

As I often point out, a battery is a device that wastes energy, loses energy, owing to the Second Law of Thermodynamics, which despite any nonsense spouted by the likes of say, Amory Lovins, cannot be repealed by Congress, or by journalists at "Clean Technica" or any other body or person engaged in wishful thinking as an approach to address the complete and total destruction of this planet's atmosphere, which is ongoing, continuous, and accelerating.

The Second Law of Thermodynamics, simply stated as dS/dt > 0, involves entropy (S) which for the universe as a whole is monotonically increasing over time (t). Entropy shows up most prominently as heat. which is discharged into the surroundings, on Earth, our atmosphere, in a form that cannot be entirely recovered as mechanical or chemical, or electrochemical chemical work. Therefore, we know that batteries waste energy simply by touching them when they are charging and discharging. They are warmed when we do this; and this paper is about when the heating goes beyond "warming" into "hot" to the point of causing a fire or explosion.

This issue famously arose in the case with the Samsung Galaxy Note 7 cell phones, which had to be recalled, after being banned on aircraft because their batteries spontaneously caught fire, apparently causing a number of injuries. There have been a number of fires in batteries in Tesla cars, which are designed to help millionaires and billionaires pretend that they care about the environment, even though they don't.

The paper cited here is about lithium battery fires and approaches to designing electrolytes that are fire resistant or even fire proof.

From the introduction to the paper, which begins with a sentence that I personally find dubious:

Renewable and clean energy resources are urgently needed due to the shortage of traditional fossil energy and serious environmental pollution. The wide exploration of new energy prompts the fast development of energy storage devices.(1?5) The lithium ion battery is a promising representative of energy storage equipment among portable electronic devices and energy storage fields due to its advantages of low cost, high energy density, weak self-discharge effect, and long service life.(6?19,19) In recent years, the demand for LIBs is rapidly increasing in the market of electric vehicles, digital products, and mobile electronic devices because of the aggravation of environmental pollution and the guidance of governmental policies.(20?22) There is no doubt that LIBs are bringing great changes and convenience to environmental improvement and people’s daily lives, but at the same time, their safety problems have aroused much attention and remain to be solved urgently...(23?27)


I often argue, flying in the face of popular opinion, that so called "renewable energy" is neither clean, nor in fact, renewable. Since I assert these things to be truths, I believe that we don't "need" them at all. We have a superior option to climate change gas free energy, and have broad experience with it extending over more than half a century.

Nevertheless, there is a widespread belief that claims that batteries, along with a massive increase in the number of copper wires connecting batteries to things like wind turbines and solar cells, will save the day. This idea has been massively funded in the 21st century, to the tune of trillions of dollars.

It is, however, a fact that the rate of accumulation of the dangerous fossil fuel waste carbon dioxide in the planetary atmosphere has accelerated all through the same 21st century during which this faith based article has been widely accepted.

Facts matter.

As this statement is a fact, it is obvious that wires, solar cells and wind turbines, along with all the trillions of dollars thrown at them have not addressed climate change, are not addressing climate change, and, as I often argue, will not address climate change.

Despite half a century of hype, batteries remain a relatively trivial form of energy storage on the scale at which energy is consumed by humanity, around 600 ExaJoules per year. Below, I'll look at some real time (CAISO) data in that so called "renewable energy" nirvana, fire prone California, that graphically and explicitly - words often associated with obscenities - gives some sense of the scale of grid battery use to maintain power to the grid. It is nonetheless useful to consider what the consequences of them becoming a significant form of energy storage might be, assuming we can find enough slaves in the world to dig enough cobalt ores for the manufacture of them.

The authors continue:

...The heat accumulation in LIBs is dominated by heat generation and dissipation. Commercial LIBs work on the delivery of lithium ions in liquid electrolyte between the cathode of lithium alloy metal oxide and the graphite anode, which leads to heat generation because of the current thermal effect.(28) When LIBs work at lower rates, the heat generated by the thermal effect can be dissipated spontaneously. However, during the high rate charge–discharge process of LIBs, especially in those batteries equipped in electronic devices, the heat generation rate is significantly larger than the heat dissipation rate which results in a heat accumulation, and the heat accumulation can lead to an increase of internal temperature to over 300 °C. The high temperature may further lead to thermal runaway: combustion or explosion problems caused by the flammable organic liquid electrolyte with low thermal stability.(29?31) Moreover, the uneven deposition of lithium ions on the electrode/electrolyte interface may cause the growth of lithium dendrites, which further leads to a piercing effect and internal short circuit; also also a huge thermal effect and the decomposition of battery components arise, including SEI film decomposition, anode/solvent reactions, separator melt, and cathode breakdown reactions.(32?38) In addition to internal chemical reaction factors, external factors such as overheating, overcharging, and short circuits caused by mechanical shock can also lead to thermal runaway of LIBs.(26,39) Anyway, the instability of internal components such as the flammable organic electrolyte is the immediate cause of thermal runaway issues, and as a result, electrolytes with high conductivity, nontoxicity, nonflammability, and good interfacial compatibility with electrodes to suppress lithium dendrite growth are the keys to deal with thermal runaway risks.(40?42)...


The authors summarize the current state of affairs in a few sentences:

2. Thermal Runaway Mechanism

The source of thermal runaway issues is internal exothermic reactions including the following (Figure 1): 1. Improper operation, such as overcharge, causes a constant Li stripping reaction at the cathode and, thus, leads to cathode breakdown and the release of oxygen, which prompts the oxidation of organic carbonate solvent and massive heat generation.(47) 2. Excessive Li plating on the anode results in the growth of lithium dendrite, causing internal circuits and reactions between Li and carbonate solvent that can generate a large amount of gas and heat.(33,35,48) 3. The unstable SEI film decomposes at high temperatures and releases heat.(49,50) 4. The oxidation of carbonate solvent typically includes ethylene carbonate (EC), propylene carbonate (PC), dimethyl carbonate(DMC), and diethyl carbonate (DEC), and the decomposition of lithium salt such as LiPF6 is easily triggered under high temperature and high voltage conditions, which further contributes to heat generation.(27,51?53) All these reactions can increase the internal pressure and the temperature of LIBs, bringing about severe thermal runaway risks...


"SEI" here, refers to "solid electrolyte interphase" (or sometimes interface), which is described in more detail here (for one case) and elsewhere: Solid Electrolyte Interphase Film on Lithium Metal Anode in Mixed-Salt System(Sho Eijima et al 2019 J. Electrochem. Soc. 166 A5421) The nature of the SEI will depend on the nature of the electrolyte.

Ethylene carbonate (EC), propylene carbonate (PC), dimethyl carbonate(DMC), and diethyl carbonate (DEC) are all, by the way, products of the dangerous fossil fuel industry. In general - although many alternatives are being developed, including carbon dioxide - organic carbonates are manufactured by the use of phosgene, a war gas that was widely used in the the First World War to kill huge numbers of soldiers fighting for...fighting for...fighting for...well...who knows what? Phosgene is made by reacting carbon monoxide obtained generally from either dangerous coal and/or dangerous natural gas, with chlorine, which is made industrially by electrolysis of salt solutions in continuous processes that run 24/7 whether the sun is shining or not, whether the wind is blowing or not.

Now it turns out that phosgene can be used safely, at least with careful attention to its handling; I’ve done it myself, but it’s very clear that fossil fuels cannot be used safely, because, as familiarity breeds contempt, their familiar use invites sloppiness and contempt for safety. Some results of this attitude is the fact that dangerous fossil fuel waste (aka “air pollution”) kills millions of people every year and climate change has advanced so far that we literally have people dropping dead from overheating on a rising scale.

Figure 1, to which the text from the paper refers:



The caption:

Figure 1. Schematic of the classification of thermal runaway stages of LIBs.


Some more text from the paper:

...Up to now, there have been fairly thorough studies on the thermal stability and the decomposition mechanism of LIBs components.(54,55)

Richard et al. observed that the initial decomposition temperature of the SEI membrane was about 80 °C through accelerating rate calorimeter (ARC) experiment.(56) It is found that the equations of the SEI membrane decomposition reaction is as follows:



...



(LiOCOCH2)2 is the lithium salt of ethylene glycol dicarbonate.

...As the temperature further rises, the chemical properties of each component material inside the battery become more active. The protection of the anode will be lost when the decomposition of the SEI film reaches a certain level, and the lithium embedded in the anode will undergo a further exothermic reaction with the electrolyte. Biensan et al. studied the reactions between the electrolyte and the lithium anode, which contributed to the exothermic peak of up to 120 °C.(57) The anode/electrolyte reaction is as follows: (58)


...


C2H6 is of course the highly flammable gas ethane.

...The polyethylene (PP) separator begins to melt when the temperature further reaches 130–140 °C, leading to short circuits risks between electrodes.(59) As the anode/electrolyte reaction continuously contributes to heat accumulation, the cathode material decomposes and releases oxygen. Lithium cobalt oxide (LCO) is the earliest cathode material for LIBs, with a decomposition temperature of around 150 °C: (60)



I often in this space rail against the unsustainability of cobalt mining as well as its moral cost but will skip it here. God created the internet so you can find answers to moral questions that you might wish to avoid.

The release of oxygen and the heat of decomposition of LiPF6 can cause the organic carbonates to combust.

For commercial 1 M LiPF6-EC-DEC-DMC organic electrolyte, the solvent components can be oxidized at over 200 °C by the oxygen released from cathode decomposition, while LiPF6 decomposes to produce PF5 which facilitates the electrolyte decomposition in turn...


The standard combustion reactions of the various carbonates used in lithium batteries are shown in the text. These are the reactions one sees when a lithium battery bursts into flame, the flames often having a reddish tint from the flame emission of lithium.

This is a rather long paper, as it is a review article, and I obviously can't reproduce much of it here. It is available to subscribers and when and if university libraries again become available to the public at large, in them. Perhaps it is useful to show some pictures from the text and outline the strategies for addressing lithium battery fires.

One strategy is the use of flame retardants. A note about flame retardants: They are designed to be thermally stable, and thus represent persistent compounds. Many of them have been discovered to face toxicological issues and their use in the fabric and electronic industries have led in some cases to intractable environmental issues owing to contamination of water supplies and in solid matrices such as soil and dust. An example, the brominated diphenyl ether compounds represent a huge hazard in particular in the recycling of electronic components, an activity that is dangerous enough to have required bourgeois types in the so called "first world" to outsource this activity to poor people, while still feeling all smugly "green" about themselves.

Recently, there has been a trend to replace these with other types of flame retardants, notably phosphate esters and organophosphates. I'm not sure all these are that great either. Phosphate esters as a class include certain neurotoxins, which is why they are found in many insecticides. These statements may represent innuendo of a sort, but then again, without having looked too deeply into the matter, I believe I've come across some noise as to whether phosphate esters, as flame retardants actually are all that much of an improvement on polybrominated diphenyl ethers.

Apparently though, phosphate esters can help the SEI in lithium batteries maintain its integrity.



The caption:

Figure 2. (a) Molecular structure and functionalities of diethyl(thiophen-2-ylmethyl)phosphonate (DTYP). (b) Photographs of base and 0.5% DTYP-containing electrolytes before and after storage in the electrolytes. (c) Flammability of the PE membrane with base and DTYP-containing electrolytes. (d) Cycling performance of LiNi0.5Mn1.5O4 electrodes in the electrolytes after storage at room temperature at 0.5 C for the first three cycles and at 1 C for the subsequent cycles between 3 and 4.9 V, followed by a constant potential of 4.9 V until the current reached 0.1 C. Adapted with permission from ref (77). Copyright 2018 Royal Society of Chemistry.


A recently reported additive for an electrolyte is a cyclic phoshazene, ethoxy-(pentafluoro)-cyclotriphosphazene, PFN. What the toxicology profile of this interesting compound may be is probably unknown. It apparently prevents flame without compromising battery performance:



Figure 3. (a) Photographs of the flammability testing of the electrolytes: the base electrolyte 1 M LiPF6/EC+DEC+DMC (1:1:1, v/v/v) and the same electrolyte with 5 wt % PFN additive. (b) TEM images of LiNi0.5Mn1.5O4 electrodes with PFN additive after 100 cycles and without PFN additive after 100 cycles. (c) Electrochemical impedance spectra of LiNi0.5Mn1.5O4 in base and 5 wt % PFN-containing electrolyte before cycling and after 100 cycles. Reprinted with permission from ref (102). Copyright 2018 Elsevier.


Reference 102 is this one: Fluorinated phosphazene derivative – A promising electrolyte additive for high voltage lithium ion batteries: From electrochemical performance to corrosion mechanism (Jianwen Liu, Xin Song, Lai Zhou, Shiquan Wang, Wei Song, Wei Liu, Huali Long, Lixin Zhou, Huimin Wu, Chuanqi Feng, Zaiping Guo, Nano Energy 46 (2018) 404–414) This compound, it would seem on inspection, is made from hydroquinone, isobutylene, and 1-methoxy-2-chloroethane, pretty much all products of the dangerous fossil fuel industry.



Apparently this additive helps protect the SEI via polymerization. A graphic from that paper:



The caption:

Fig. 6. (a-e) Illustration of the mechanism of PFN additive decomposition on the surface of the electrode; schematic diagrams of (f) damaged CEI and exposed particles formed due to corrosion without PFN additive; and (g) uniform CEI formed due to corrosion suppression with PFN additive.


It is not, of course, entirely clear how this polymer, or its degradation products might effect that exercise about electronic components that always generates lots of "I'm green!" handwaving, recycling. If you look into this matter, given the massive scale of these distributed components, the recycling of batteries is in now way a "slam dunk" exercise. To wit: There are a lot of unaddressed and unanswered questions, as well as some well known issues in safety and toxicology.

The paper refers to a proposed additive, DBBB, 2,5-ditert-butyl-1,4-bis(2-methoxyethoxy)benzene to prevent overcharge, another issue in flammability:



The caption:

Figure 4. (a) Redox mechanism of DBBB additive in LIBs. (b) Charging voltage profile as a function of the SOC for graphite/C-LFP pouch cells without (STD Cell) and with 0.4 M DBBB additive (DBBB Cell). (c) The 1st, 400th, and 700th cycle voltage profiles for graphite/C-LFP pouch cells with 0.4 M DBBB additive cycled with 100% overcharge. (d) Charge capacity, discharge capacity retention, and Coulombic efficiency for graphite/C-LFP pouch cells with 0.4 M DBBB additive cycled with 100% overcharge. Reprinted with permission from ref (119). Copyright 2018 American Chemical Society.


I would guess that DBBB is made from hydroxyquinone, isobutylene, and 1-chloro-2-methoxyethane, all products of the dangerous fossil fuel industry.

There is a lot of discussion beyond these, aqueous electrolytes, solid electrolytes, etc., etc., but the fact remains that right now, the overwhelming majority of lithium batteries are flammable, and moreover, it is not entirely clear that the components are either, beyond flammability, safe, and sustainable. The main source of the common carbonates is dangerous fossil fuels.

And yet, and yet, and yet... ...we hear that batteries are "green" and that they will help so called "renewable energy" address climate change, this after half a century in which vast expenditures on so called "renewable energy" have failed miserably to do anything at all about climate change.

Looking at this full and admittedly interesting paper, which I do not have the time to explore any deeper than this, I'm not entirely convinced that the "cure" for these obvious limitations to batteries is worse than the problem themselves. I really can't find the time to discuss it all that much further, but it's there; it's there. There's a problem, a big problem, with our "green" fantasies, and we are not even close to recognizing them.

The extent to which batteries are currently serving the grid is limited. Recently in this space, I referred to the CAISO data for the California electricity grid, California being a so called "renewable nirvana" where the power company has gone bankrupt because it couldn't prevent all those wires linking all those solar cells and all those wind turbines from sparking and causing catastrophic fires.

It's about to become 2021, leaving that horrid year 2020 behind. For the week beginning December 20, 2020 the average concentration of the dangerous fossil fuel waste carbon dioxide was 414.60 ppm, 24.33 ppm higher than it was in the same week of 2010.

I've been hearing about how batteries would save the world with so called "renewable energy" my whole adult life. I'm not young. I'm old. I'm disgusted with what my generation is leaving behind.

On 12/22/20, according to the CAISO data, the peak power demand in California was 28,901 MW at 5:48 pm, after the sun went down. At that moment, the wires connecting California's solar infrastructure was consuming, not producing, about 40 MW of electricity, that is the power output was negative, -40 MW.

At 21:00 hours, 9:00 pm, California time, midnight here in New Jersey, I downloaded a set of graphics reflecting the sources of energy in that state, which includes all of the batteries serving the grid, as of 2020, in a week where the concentration of carbon dioxide was, again, 24.33 ppm higher than it was 10 years before, half a century into the cheering for the idea that so called "renewable energy" and batteries would save the day.

Here's what all the batteries connected to the grid in that so called "renewable energy" nirvana in California were doing:



When, when, when do we get serious?

I wish you the happiest of New Years.
December 28, 2020

I'm officially the world's biggest crybaby.

I was whining about getting a Covid test, which my wife told me would be painful.

Uncomfortable would have been a better word, slightly uncomfortable.

I was also terrified it would come back positive, and even that I wouldn't live to see Biden inaugurated and Trump out on his ass.

NEGATIVE!

And then...

And then...

Twenty four days and Trump is gone!!!!!

Just got to make it to the vaccine now. I'm in group 3, high risk, but not as high risk as people in nursing homes.

I think I'll go upstairs and kiss my wife.

December 27, 2020

Global human-made mass exceeds all living biomass

(Graphics in this post may not be visible in Google Chrome, but should show up in Microsoft Edge, Firefox and Android.)

The paper I'll discuss in this post is this one: Global human-made mass exceeds all living biomass (Emily Elhacham, Liad Ben-Uri, Jonathan Grozovski, Yinon M. Bar-On & Ron Milo, Nature volume 588, pages 442–444 (2020))

The current rate at which we are dumping the dangerous fossil fuel waste carbon dioxide into the atmosphere amounts to roughly 35 billion metric tons a year, this while we all wait with child like anticipation for the grand so called "renewable energy" nirvana that did not come, is not here, and will not come. This is the highest rate ever recorded, and is reflected by the fact that increases in the concentration of this particular dangerous fossil fuel waste in the planetary atmosphere has risen to 2.4 ppm/year, after being 1.6 ppm/year as recently as the year 2000.

The irresponsibility of my generation, which surely will be condemned in history, has meant that the only option for restoration of the planetary atmosphere will involve the removal of carbon dioxide from the atmosphere, and I have spent no inconsiderable amount of time reflecting on the feasibility of this enormously challenging engineering task. In a purely thermodynamic sense, the fixation of carbon dioxide requires not only enthalpy, which may be thought of, somewhat naïvely, as putting the energy released by combustion of the carbon in carbon dioxide back into it, but also the entropy of mixing, the fact that while the carbon dioxide concentrations are rising, with the result of a profound physicochemical effects on heat exchange and acidity, they are still dilute. The 420 ppm we will likely see in 2021 while reaching unprecedented levels, still is only present as 0.042% of air.

This means that to obtain one kilogram of carbon dioxide at 100% extraction efficiency - which is not likely - one would need to process over 2,000 kg of air. Large amounts of air are processed by devices built by humans, but most of them, in fact the overwhelming majority of them, add carbon dioxide to the air since they are combustion devices. A jet engine is an example of such a device, a heat engine operating on the Brayton cycle, where the air is heated by the combustion of jet fuel in it.

(It does seem fairly obvious to me that Brayton cycle devices might operate without dangerous fossil fuels, but that's another subject.)

The situation is ameliorated to a limited extent by the fact that water, in particular seawater, acts as a liquid extractant for CO2, in equilibria with carbonates, as seawater is slightly basic, although less so than it was even 50 years, even 10 years, ago. The rate of change for the pH of the oceans is estimated to be about -0.002 pH units/year, which is not trivial, since pH is a logarithmic function. (cf. Climatological distributions of pH, pCO2, total CO2, alkalinity, and CaCO3 saturation in the global surface ocean, and temporal changes at selected locations (Taro Takahashi, S.C. Sutherland, D.W. Chipman, J.G. Goddard, Cheng Ho, Timothy Newberger, Colm Sweeney, D.R. Munro, Marine Chemistry 164 (2014) 95–125)). Of the roughly 35 billion tons of carbon dioxide dumped each year, alleged - in complete opposition to something called "reality" - to be "transitional" by the complete fools who have bet the planetary atmosphere and the future of the biosphere on their reactionary enthusiasm for so called "renewable energy," about 26 billion tons of CO2 are absorbed by the ocean each year. (cf. Total alkalinity minus dissolved inorganic carbon as a proxy for deciphering ocean acidification mechanisms (Liang Xue, Wei-Jun Cai, Marine Chemistry 222 (2020) 103791)). This paper, citing Climatological distributions of pH, pCO2, total CO2, alkalinity, and CaCO3 saturation in the global surface ocean, and temporal changes at selected locations out of Columbia University, (Takahashi et al., Marine Chemistry 164 (2014) 95–125), gives a working figure of 2061 ?mol/kg of total dissolved inorganic carbon. This figure translates to about 0.11% w/w dissolved organic carbon. This figure corresponds to seawater containing about 260 times as much carbon dioxide as does air on a weight basis. It is important to note that seawater is not homogenous, and the precise concentrations vary with conditions such as temperature gradients, pressure gradients, salinity gradients and many other factors connected with the properties of seawater. All of these parameters will have an effect on the chemistry and concentrations of dissolved inorganic carbon. A great deal of scientific literature has been equations of state for seawater, and international consortiums have worked diligently to address and formulate these. The current equation of state for seawater often utilized is TEOS-10 Just a single sample, among thousands upon thousands, of papers relating to either the measurement or modeling of seawater, this one about density is this one: (p,?,T) Properties of seawater at brackish salinities: Extensions to high temperatures and pressures (J. Safarov, S.Berndt, F.J.Millero, R.Feistel, A.Heintz, E.P.Hassel, Deep-Sea Research I 78( 2013) 95–101) This interesting paper extends the equation of state for seawater into regions approaching the supercritical state, which in my view, represents the best path to recovering carbon dioxide, and many other valuable constituents, notably phosphorous, from seawater.)

The actual chemical form of dissolved inorganic chemistry depends heavily on pH, temperature, density and other thermophysical properties of seawater, but these forms are dominated by carbonate, bicarbonate, and CO2 clathrates. This figure from the Xue and Cai paper cited above, gives a feel for this issue:



The caption:

Fig. 1. Relative proportions of HCO3?, CO32– and aqueous CO2 (CO2⁎ ) in seawater (a) and relationships of pH with log ([CO32?]/[CO2⁎]) (b), aragonite saturation state (?arag) with [CO32?] (c) and [TA–DIC] with pH and ?arag (d). Also provided are the pH value, i.e., 0.5 (pK⁎1 + pK⁎2) where [CO32?] equals to [CO2⁎] in (a) and the linear relationship between Borate alkalinity (B-Alk) and [CO32?] (insert in c). In addition, the quasi-linear relationships of [TA–DIC] with pH and ? are shown by gray dashed lines in (d). This figure is obtained by calculating the concentration of CO2 species, pH (pH@25-p) and ?arag (?arag@25-p) at constant temperatures (25 °C), salinities (35) and pressures (3 dbar) with the CO2SYS program (Lewis and Wallace, 1998) and apparent carbonic acid dissociation constants (K⁎1 and K⁎2) of Mehrbach et al. (1973) as refit by Dickson and Millero (1987).


The laws of thermodynamics dictate that processes of this type are not actually reversible without putting more energy into a system than it put out. Thus the energy required to remove carbon dioxide from the air will be greater than the energy released putting it there, but the extraction of carbon dioxide by seawater will surely aid in improving the thermodynamic efficiency of any such effort. Thus future generations, attempting to do this will need not only to provide energy for their own use, but also produce all of the energy produced by previous generations in the profligate use of dangerous fossil fuels. As we prattle on with our "by 2050" and "by 2100" and "by 'such and such a year'" obscenities, placing the onus on people who are now infants, or future infants to do what we have been unable to do ourselves, this with depleted resources and a destroyed environment, it is important to keep this dolorous fact in the backs of our minds.

The reason that so called "renewable energy" has not worked, is not working and will not work to address climate change or save the planet, and why humanity abandoned it almost completely (except for, in most cases, among extremely impoverished people) in the 19th and early 20th century, is that it has a low energy to mass ratio. The conceit among people hyping the failed solar industry, for example (failure being defined as addressing climate change, and not the wasteful exchange of money and resources) is to state the energy to area flux of sunlight and then to act, stupidly, as if it is all there for the taking taking at no environmental or material cost. In addition to the 35 billion tons of carbon dioxide, according a lecture I attended a year or so ago by Dr. Robert Kopp, about 10 billion tons of carbon dioxide in addition to that dumped by the rising use of dangerous fossil fuels is attributable to land use changes. Ploughing access roads through pristine wilderness for diesel trucks to haul wind turbine parts around is not climate neutral. The material cost of manufacturing this temporary crap is also a factor.

All this said, this brings me to the relevant point, in terms of the paper cited at the outset, specifically, biomass. The combustion of biomass is responsible for slightly less than half of the 6 to 7 million air pollution deaths that take place each year, while anti-nukes carry on about so called "nuclear waste," which has a spectacular record of killing, if anyone, only a few people. (When you ask anti-nukes to report how many deaths are associated with the storage of used nuclear fuel, they generally start mumbling insipid nonsense about thousands, millions and even billions of years from now. They suffer from Trumpian type delusions.) Thus the death toll associated with this particular form of so called "renewable energy," at least as currently practiced, makes it the most dangerous of all of them, not that the others are risk free.

However, biomass has the property of being self-replicating, thus being able to cover vast surface areas without human intervention, or in spite of human intervention, which it historically it has, despite human efforts to minimize or destroy these surface areas. My contempt for solar energy fantasies notwithstanding, biomass, albeit at low thermodynamic efficiency, because of its ability to cover large surface areas, is capable of, and obviously is, a potentially very useful tool for the removal of carbon dioxide from the air, using only solar energy. Understanding this, I have spent quite a bit of time studying the chemistry, in particular, of cellulose and lignin derived products, such as furanoyl compounds, aromatic species, notably phenolic polymers, as these products can represent carbon that is sequestered in an economically viable, in fact, value added fashion. It is generally true that processes exploiting biomass need not be anywhere near as deadly as is currently observed, where the victims are largely the poorest citizens of the world, on whom the first world relies to produce endless piles of stuff in quasi-slavery or actual slavery settings.

Of course, the carbon released largely in the last two centuries by the combustion of dangerous fossil fuels represents many hundreds of millions of years of captured solar energy, and so it is not reasonable to expect that photosynthesis will instantaneously address the scale of carbon that needs to be captured, but this said, it is not wise to ignore the potential to do something. I would guess that humanity will still need industrial means, for example, raising the temperature of seawater to supercritical levels using nuclear heat, thus separating dissolved inorganic carbon, oxidizing microplastics to carbon dioxide and reducing water to hydrogen, that now pollute our oceans, and providing fresh water to fossil freshwater groundwater, dried lakes, and agricultural regions.

In order to evaluate the potential to do this, it is useful to note how much biomass there is, which is something the paper at the outset addresses, while noting that human "stuff" now outstrips the amount of biomass on the planet.

From the introduction to the paper:

The face of Earth in the twenty-first century is affected in an unprecedented manner by the activities of humanity and the production and accumulation of human-made objects. Given the limitations of human cognition in the face of the immensity of the globe and the seeming infinity of the natural world, it is desirable to provide a rigorous and objective measure of the overall balance between the living and human-made. However, in spite of pioneering efforts1,2,3,4,5,6,7,8, we lack a holistic picture that quantifies and compares the composition of the world in terms of both biological and human-made mass.

A case in point is our planet’s biomass. While the mass of humans is only about 0.01% of global biomass, our civilization had already had a substantial and diverse impact on it by 3,000 years ago9. Since the first agricultural revolution, humanity has roughly halved the mass of plants, from approximately two teratonnes (Tt, units of 10^(12) tonne; where estimates are on a dry-mass basis) down to the current value10 of approximately 1 Tt. While modern agriculture utilizes an increasing land area for growing crops, the total mass of domesticated crops (about 0.01 Tt)11 is vastly outweighed by the loss of plant mass resulting from deforestation, forest management and other land-use changes10. These trends in global biomass have affected the carbon cycle and human health12,13. Additional human actions, including livestock husbandry, hunting and overfishing, have also strongly affected the masses of various other taxa11,14,15. A recent survey of Earth’s remaining living biomass11 has found that, on a mass basis, plants constitute the vast majority (about 90%)16, followed by bacteria, fungi, archaea, protists, and animals.

Beyond biomass, as the global effect of humanity accelerates, it is becoming ever more imperative to quantitatively assess and monitor the material flows of our socioeconomic system, also known as the socioeconomic metabolism17,18. This quantification is at the heart of the economy-wide material flow analysis framework, under the field of industrial ecology, which is based on mass balance accounting19,20...


There you have it. The total dry biomass of the planet represents about a trillion tons, only a portion of which is carbon. (Carbohydrates, which dominate biomass, contain only about 40% carbon by weight.) It can be shown, crudely assuming as a first approximation that all of this biomass is represented by carbonhydrates, that this corresponds to about 1.4 trillion tons of carbon dioxide, were all of the carbon in these putative carbohydrates oxidized. In other words, all of the biomass on the planet, every living thing, contains, assuming 30 billion tons of carbon dioxide dumping per year on average over the last century, about 50 years worth of dumped carbon. Of course, you, the readers, are biomass, and I'm fairly well convinced that you will not desire to be reduced to sequested carbon to serve the cause of addressing climate change, even if - this is true - climate change threatens your life in other ways.

Further on down, the paper does address the mass of humanity, and the animals raised by humanity along with some other commentary:

We estimate the global biomass and human-made mass from 1900 in units of teratonnes (which equal 10^(18) grams) of dry weight (that is, excluding water). Biomass represents the overall global mass of all living taxa11. Anthropogenic mass is defined as the mass embedded in inanimate solid objects made by humans (that have not been demolished or taken out of service, which we define as ‘anthropogenic mass waste’). The mass of humans themselves (and their livestock) is naturally accounted for as part of the global biomass. In any case their mass contribution is negligible. Figure 1 shows changes in biomass and anthropogenic mass over the studied period. It is clear that the two exhibit markedly different temporal dynamics. Over the past 100 years, anthropogenic mass has increased rapidly—doubling in a Moore-law-like fashion approximately every 20 years—in contrast to total biomass, which has not changed as markedly (affected by a complex interplay of deforestation, afforestation and the rising CO2 fertilization effect, among other things). The accumulation of anthropogenic mass has now reached 30 Gt per year, based on the average for the past 5 years. This corresponds to each person on the globe producing more than his or her body weight in anthropogenic mass every week. As a result, the gap between anthropogenic mass and overall biomass has quickly shrunk. We find that the two curves intersect in the year 2020 ± 6 years (1 s.d.), at which point anthropogenic mass will surpass biomass.


Some figures from the text:

Fig. 1: Biomass and anthropogenic mass estimates since the beginning of the twentieth century on a dry-mass basis.



The caption:

The green line shows the total weight of the biomass (dashed green lines, ±1 s.d.). Anthropogenic mass weight is plotted as an area chart, where the heights of the coloured areas represent the mass of the corresponding category accumulated until that year. The anthropogenic mass presented here is grouped into six major categories. The year 2020 ± 6 marks the time at which biomass is exceeded by anthropogenic mass. Anthropogenic mass data since 1900 were obtained from ref. 22, at a single-year resolution. The current biomass value is based on ref. 11, which for plants relies on the estimate of ref. 10, which updates earlier, mostly higher estimates. The uncertainty of the year of intersection was derived using a Monte Carlo simulation, with 10,000 repeats (see Methods). Data were extrapolated for the years 2015–2025 (lighter area; see Methods). For a detailed view of the stock accumulation for the ‘metals’ and ‘other’ groups, see Extended Data Figs. 4, 5.


Our waste, how we love waste, counts too.

Fig. 2: Biomass (dry and wet), anthropogenic mass and anthropogenic mass waste estimates since the beginning of the twentieth century.



The caption:

Green lines show the total weight of biomass (± 1 s.d.). Anthropogenic mass weight is plotted as an area chart. The wet-weight estimate is based on the results presented in Fig. 1 and the respective water content of major components (see Methods). The year 2013 ± 5 marks the time at which the dry biomass is exceeded by the anthropogenic mass, including waste. The years 2037 ± 10 and 2031 ± 9 mark the times at which the wet biomass is exceeded by the anthropogenic mass and the total produced anthropogenic mass, respectively. The uncertainties of the years of intersection were derived using a Monte Carlo simulation, with 10,000 repeats (see Methods). Weights are extrapolated for the years 2015–2037 (lighter area; see Methods).


Fig. 3: Contrasting key components of global biomass and anthropogenic mass in the year 2020 (dry-weight basis).



The ratio between the circle areas within each pair represents the corresponding mass ratio of the two illustrated masses. For visual clarity, the two pairs use different scales. The plastic estimate includes plastic currently in use and plastic waste, taking into account recycling. Infrastructure includes the mass of constructed elements, such as roads.


These figures speak for themselves.

From the conclusion of the paper's discussion section:

Previous efforts, such as quantifying the human appropriation of net primary production24,25,26, have focused on the allocation of the biosphere productivity flow for human usage. The anthropogenic mass, the accumulation of which is documented in this study, does not arise out of the biomass stock but from the transformation of the orders-of-magnitude higher stock of mostly rocks and minerals. In doing so, humanity is converting near-surface geological deposits into a socially useful form, with wide implications for natural habitats, biodiversity, and various climatic and biogeochemical cycles.

This study joins recent efforts to quantify and evaluate the scale and impact of human activities on our planet9,23,27,28. The impacts of these activities have been so abrupt and considerable that it has been proposed that the current geological epoch be renamed the Anthropocene29,30,31,32. Our study rigorously and quantitatively substantiates this proposal. In parallel, it adds another dimension to this discussion—a symbolic quantitative demarcation of the transition to our epoch.


Don't worry, be happy. Wind turbines. Solar cells. Tesla electric cars, "freedom of the road." Batteries. Blah, blah, blah. It's not our problem, but the problem of those "by 2100" kids in the renewable energy nirvana we've declared for them, albeit with oblivious contempt for reality and, especially, for them.

I note that the history of our times will be written by them. As I often say:

History will not forgive us, nor should it.


I trust you will have a safe and happy New Year.
December 25, 2020

Who wants to bet that the Nashville terrorist proves to be a right wing terrorist?

Undoubtedly Trump will refer to that person as a very fine person.

December 25, 2020

Capacity Factor of California's Solar Infrastructure 12/24/20 Through 22:10 PST.

According to the web page of the California Energy Commission, California has installed 11,089.2 MW (peak) of solar energy capacity.

At the CAISO "supply" page, which reports on the power output of all power sources in the state, if one scrolls down to the graphic for so called "renewables" one can see a drop down data button, which records the power output of all forms of so called "renewable energy" in the state, measured in increments of five minutes.

As of 22:10 PST, 12/23/20 (10:10 PM), the average power for all of California's solar facilities was . This suggests a capacity utilization of 8.9%.

The highest solar power output was observed at 3755 MW observed this afternoon (PST) at 13:25 PST (1:35 PM). The lowest output was continuously from 16:55 PST through 17:20 PST (4:55 PM PST through 5:20 PST) , was -47 MW through each 5 minute interval. The standard deviation was actually greater than the mean - reflecting huge variability and unreliability for the 5 minute segments; it was is 1422 MW. (The negative values for the minima refer to the energy losses associated with power flowing to the power lines that service the solar facilities when the sun isn't shining.)

For wind power, the mean was 890 MW, with a high of 1486 MW at 4:15 PST (4:15 AM), a low of 445 at 15:10 PST (3:10 PM PST), with a standard deviation of 314 MW.

The performance of California's so called "renewable energy" infrastructure is shown in the following graphic which, regrettably will not show up in Google Chrome, but will be visible in Microsoft Edge and or Firefox or Android:



California's peak energy demand on 12/24/20 was observed at 17:45 PST (4:45 PM PST) and was 27,632 MW. At this point, solar energy power lines were sucking 44 MW of power out of the grid to the then useless connections to the solar cells lying in the dark, doing nothing.

As I noted a few days ago on the solstice, the single operating nuclear reactor at Diablo Canyon - one unit is shut currently, probably for refueling - has continuously been producing between 1141 and 1144 MW. It is producing the same power today as it was 4 days ago, continuously, with a trivial fluctuation, reliably and predictably. The highest output today was 1145 MW; the lowest 11.41. The standard deviation is 0.9 MW, reflecting high reliability

This means that were both Diablo Canyon units operating, these two reactors could have easily provided all the energy provided by wind power today, with the added bonus of being predictable and reliable, in two small buildings, using only two turbines, and largely without the vast array of wires that crisscross California and need to be shut when the wind is blowing too strongly on dry days, lest they cause another of the huge fires we've seen in the last few years in that State.

As of 22:40 PST, California generating facilities were dumping 8,469 tons per hour of the dangerous fossil fuel waste carbon dioxide directly into the atmosphere. At that time, California was generating 12,858 MW of power using dangerous natural gas. The website emissions page includes the emissions associated with imported electricity.

All of the wind and solar capacity in California will need, more or less, to be replaced by 2040, since the average lifetime for these so called "renewable energy" devices is roughly 20 years.

The Diablo Canyon nuclear reactors came on line in early 1985 (Unit One) and 1986 (Unit 2), 35 years ago. They are being shut, in 2024 and 2025, prematurely and not because they couldn't operate longer thus saving lives, but because of appeals to public ignorance.

In 35 years of nuclear operations, the number of people killed by storage of the boogey man used nuclear fuel, often referred to, with some measure of stupidity as "nuclear waste" at Diablo Canyon has been zero. The number of people who have died from air pollution in California is not zero.

The closure of the Diablo Canyon nuclear reactors represents a crime against humanity, inasmuch as it will increase air pollution and worsen climate change. California's power plants dumped over 51,049,896 tons of carbon dioxide into the planetary atmosphere in 2019, and that was a "good year."

These are facts. Facts matter.

I trust that those who are celebrating the Christmas holidays will enjoy a Merry Christmas and a Happy New Year.

December 24, 2020

Capacity Factor of Wind Energy Facilities in California 12/23/2020

According to the California Wind Energy Association "Fast Facts," California has a minimum of 5,535 MW of installed wind capacity.

At the CAISO "supply" page, which reports on the power output of all power sources in the state, if one scrolls down to the graphic for so called "renewables" one can see a drop down data button, which records the power output of all forms of so called "renewable energy" in the state, measured in increments of five minutes.

As of 20:55 PST, 12/23/20 (8:55 PM), the average power for all of California's wind turbines was 2003 MW. This suggests a capacity utilization of 36.2%.

The highest power output was observed at 2541 MW observed this morning (PST) at 10:20 PST (10:20 AM). The lowest output was at 20:35 PST (20 minutes before downloading of the file.) The standard deviation for the 5 minute segments is 363 MW

As I noted a few days ago on the solstice, the single operating nuclear reactor at Diablo Canyon - one unit is shut currently, probably for refueling - has continuously been producing between 1141 and 1144 MW. It is producing the same power today as it was 4 days ago, continuously, with a trivial fluctuation, reliably and predictably. The highest output today was 1145 MW; the lowest 11.41. The standard deviation is 0.9

This means that were both Diablo Canyon units operating, these two reactors could have easily provided all the energy provided by wind power today, with the added bonus of being predictable and reliable, in two small buildings, using only two turbines, and largely without the vast array of wires that crisscross California and need to be shut when the wind is blowing too strongly on dry days, lest they cause another of the huge fires we've seen in the last few years in that State.

As of 21:30 PST, California generating facilities were dumping 9,846 tons per hour of the dangerous fossil fuel waste carbon dioxide directly into the atmosphere. At that time, California was generating 12,858 MW of power using dangerous natural gas. The website emissions page includes the emissions associated with imported electricity.

The average power output of all solar facilities in California, Arnie Schwarzenegger's "million solar roofs" included, was 2,483 MW, the high being 8,222 MW at 13:20 PST (1:20 pm PST) and the lowest being a negative number to account for losses to the connecting lines was -45 MW 17:20 PST (5:20 PM PST). This minimum was observed a 36 minutes before the peak demand for electricity in California, which was observed at 17:56 was 29,089 MW. At 5:30, when the solar connection lines were sucking 45 MW of power out of the grid, demand was 28,612 MW. The standard deviation for solar power output over the period reflecting the time I downloaded the spreadsheet was 3,321 MW.

All of the wind and solar capacity in California will need, more or less, to be replaced by 2040, since the average lifetime for these so called "renewable energy" devices is roughly 20 years.

The Diablo Canyon nuclear reactors came on line in early 1985 (Unit One) and 1986 (Unit 2), 35 years ago. They are being shut, in 2024 and 2025, prematurely and not because they couldn't operate longer thus saving lives, but because of appeals to public ignorance.

In 35 years of nuclear operations, the number of people killed by storage of the boogey used nuclear fuel at Diablo Canyon has been zero. The number of people who have died from air pollution in California is not zero.

The closure of the Diablo Canyon nuclear reactors represents a crime against humanity, inasmuch as it will increase air pollution and worsen climate change. California's power plants dumped over 51,049,896 tons of carbon dioxide into the planetary atmosphere in 2019, and that was a "good year."

The vast world wide "investment" in so called "renewable energy" - this on a trillion dollar scale - has done absolutely nothing to address climate change. In fact, since these investments began scaling to billion dollars a year scale, beginning in the early 21st century, the rate of increases measured at the Mauna Loa CO2 Observatory have accelerated.

Reference for the "investment" scale for so called "renewable energy:" UNEP/Bloomberg Global Investment in Renewable Energy, 2019

These are facts. Facts matter.

I trust that those who are celebrating the Christmas holidays will enjoy a Merry Christmas and a Happy New Year.

December 23, 2020

I'm getting tested for Covid tomorrow.

Someone with whom I work tested positive as did her husband. I'm told she's not sick, but her husband is mildly ill.

I'm a little annoyed, because while everyone at work has been wearing a mask, she was one of the people who kept pulling it down from her nose. We've had a few people who test the limits, and she was one.

It's especially annoying because I'm high risk, and I distributed the secret Santa gifts, being white haired and fat, dressed as Santa Claus. I was heavy on the hand sanitizer handling the gifts, and wearing a mask over the beard, but still...

My wife tells me if the test - it's a PCR - doesn't hurt, it's not good. She keeps pointing out to me that the test is painful to get; if you don't wince when they poke the swab up your nose, it doesn't count. That's great of her to let me know, since I'm a big baby. I love her anyway.

It would be good to know if I have it of course, particularly if I have one of those nice mild strains that are going around. Other than a stuffy nose, I feel great. It would, of course, be even better to learn that I do not have it.

At my age, one feels one's mortality in all sorts of ways beyond this, but in the worst case, were I to kick off, I can have no regrets, as my life has been fabulous indeed, better I think, than I actually deserved.

I hope, of course, not to go just yet. It would be a wonderful cap to a wonderful life to see the fat idiot orange racist out of the White House and being dragged, whining and screaming, through a legal system under the restored rule of law.

Then again, during the last US Civil War, many of the people who died to determine the outcome didn't live to see that outcome, but it all turned out alright, in a sense, anyway. That first Civil War our nation's first necessary major strike against our intrinsically racist history, and if I don't live the outcome of this present cold (as of yet) Civil War, I am confident that the American people will ultimately prevail against the crimes of our past, and in so doing, become a better country. It is well that we faced this down, this hydra of racism that the pustule Trump brought to the surface, here and now, and and I trust Americans, real Americans, will continue to face it down.

December 23, 2020

Decreased COVID-19 Mortality--A Cause for Optimism

From the JAMA newsfeed, invited commentary:

Decreased COVID-19 Mortality—A Cause for Optimism

Excerpts:


After a hard year, good news related to coronavirus disease 2019 (COVID-19) is welcome. In this issue of JAMA Internal Medicine, Asch and colleagues1 provide a reason for optimism that our health care system has improved in our ability to care for persons with COVID-19. The authors performed a national analysis of COVID-19–associated mortality that spanned 955 US hospitals, representing nearly 40 000 patients. Using administrative claims data from a large national health insurer, they found that a hospital’s risk-standardized event rate (a composite of hospital mortality or referral to hospice) because of COVID-19 had significantly decreased. Specifically, the risk-adjusted mortality decreased from 16.56% to 9.29% in the early period of this study (January through April 2020) compared with the later period (May through June 2020).

Similar improvements in mortality due to COVID-19 have been seen in other studies. A study using national intensive care unit data from the UK2 found a reduction in mortality from 41.4% in March 2020 to 24.8% in June 2020, and a study of patients with COVID-19 in a single hospital system in New York City, New York3 reported that hospital COVID-19–adjusted mortality dropped from 25.6% to 7.6% between March and August 2020. These improvements in mortality likely represent multiple clinical, health care system, and epidemiologic trends...

...Asch and colleagues1 found that mortality rates were higher when the community prevalence of COVID-19 was higher. One likely reason for this finding is that hospitals do not perform as well when they are overwhelmed. In particular, patients with a precarious respiratory status require expert, meticulous therapy to avoid intubation; those who undergo intubation or have kidney failure require nuanced and timely expert care with ventilatory adjustments and kidney replacement therapy, which are difficult to perform optimally when hospital capacity is strained.


Bad news for rural hospitals in the mask adverse Republicastan regions.

...A more speculative possibility of why mortality has decreased is the possibility that larger infective doses of COVID-19 may lead to more severe illness than smaller inoculums.7 In the beginning of the first wave, there was very limited use of face masks and social distancing. As 2020 progressed, more people wore masks and distanced themselves, which may have decreased the infecting inoculum. The finding by the authors that the strongest risk factor for a hospital’s standardized event rate was community prevalence of COVID-19 is consistent with this hypothesis, although the connection between inoculum and severity is far from certain.8


The full Asch paper to which the commentary refers can be found here: Variation in US Hospital Mortality Rates for Patients Admitted With COVID-19 During the First 6 Months of the Pandemic (Asch DA, Sheils NE, Islam MN, et al. Variation in US Hospital Mortality Rates for Patients Admitted With COVID-19 During the First 6 Months of the Pandemic. JAMA Intern Med. Published online December 22, 2020. doi:10.1001/jamainternmed.2020.8193)
December 22, 2020

It appears that only one of the two remaining nuclear reactors in California is operating tonight.

(Graphics in this post will not show up in Google Chrome, but should be visible in Microsoft Edge and/or Firefox.)

Both reactors are located at the Diablo Canyon plant; I would guess that one is refueling for its final run before it's shut and replaced by dangerous natural gas, probably accompanied by wide cheering by people who don't know shit about climate change, or for that matter, about the number of deaths caused daily from air pollution. (Hint: More people die every day from air pollution than die from Covid-19 on Covid-19's worst day.)

Around the equinox, I took it upon myself to download graphics at various times of the day from the CAISO website.

I kind of put that project on the back burner, but I have been reminding myself to check in on California's electricity profile around the winter solstice, which is today.

California is rather unique among the various so called "renewable energy" nirvanas all around the world as we surge toward 420 ppm of the dangerous fossil fuel waste carbon dioxide in the atmosphere. It's one of the few places where solar electricity routinely produces more instantaneous power than does wind, usually between 7 am and 6 pm, although in the early morning the solar energy supply is trivial, as it is in the late afternoon. Peak demand in California begins in late afternoon to early evening time frame, most days if you look.

As of 18:45 PST here are today's power supply graphically displayed as of 18:45 PST 12/21/20:



The grey line near the bottom is the single nuclear reactor operating right now at Diablo Canyon in one building. If you use the pop up on the live website, you will see that the power output at Diablo Canyon's single operating reactor has varied only by 3 MW, from 1,141 MW to 1,144 MW, more or less, continuously, all day, all night.

Here is the so called "renewable energy" output for all the renewable energy systems in California, again as of 18:45 PST 12/21/20



It appears that as of 18:45 the single reactor operating at Diablo Canyon is producing more power than all of the wind and solar facilities in the entire state, reliably.

Each evening the solar output goes (slightly) into negative territory because of power losses to all the power lines connecting Californias so called "renewable energy" infrastructure. As of 18:45, these power losses amounted to -39 MW. All of the wind turbines in California, combined, were producing 534 MW of power, less than what a single turbine in a moderately sized power plant can produce. This means that the overwhelming amount of the copper, steel, neodymium iron boride magnets in all of California's wind turbines represents stranded assets, doing nothing, producing nothing. California has laced itself densely with power lines to service all that wonderful so called "renewable energy" infrastructure. On very windy days, these wires have to be disconnected, lest they spark and cause a fire, big fires, like those we've been seeing in recent years, as climate change worsens at an ever increasing pace.

As of 18:45 12/21/20, California was dumping 10,542 metric tons of CO2 per hour into the planetary atmosphere to power its grid.

2020's atmospheric concentrations peaked during the week beginning May 24, 2020 at 417.43 ppm. I would estimate, having followed the figures at the Mauna Loa Carbon Dioxide Observatory closely for many years that in May of 2021 will end up somewhere around 420 ppm. The current 12 month rolling average for 10 year increases (measured weekly) in carbon dioxide concentrations is now at 24.13 ppm/10 years, or 2.41 ppm per year. 2.4 ppm per year is the fastest such rate of increase ever observed.

There's a little bit of noise in these figures, which is understandable.

Oh, in case, you're thinking that Covid impacted climate change, it didn't all that much.

Near the end of December, 2002 - I started writing here in 2002, the 12 month rolling average for 10 year increases was 16.81 ppm/10 years, or 1.68 ppm/year. In the week of December 22, 2002, the concentration of the dangerous fossil fuel waste carbon dioxide in the planetary atmosphere was 374.25 ppm. The most recent reading at the Mauna Loa website (Week of 12/13/20) was 413.92.

For the 18 years I've been writing here, arguing for nuclear energy, I've been hearing how nuclear energy wasn't necessary, because solar, wind, geothermal and wave energy would save the day.

They didn't.

These are facts. Facts matter.

I trust you are enjoying, in spite of the Covid plague, the run up to the holidays.

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