Steve Forbes and John Carney react to President Biden attacking former President Trump’s tax cuts and how Americans are paying more under Biden on ‘Kudlow.’
Originally posted August 2013
“A fundamental principle of information theory is that you can’t guarantee outcomes… in order for an experiment to yield knowledge, it has to be able to fail. If you have guaranteed experiments, you have zero knowledge” — George Gilder
Lonely Conservative[now no longer] mentions the inevitable:
Ah well, I guess they figure if they lose enough money on Volt production they can just come back to the taxpayer trough for another big bailout.
Nearly a year ago General Motors was losing almost $50,000 for each Chevrolet Volt it built. Now GM’s business model, driven by trendy environmentalism, calls for it to cut the price and lose even more money.
The green lobby wants more hybrids and plug-in electric cars on the roads. Therefore the president wants 1 million electrics humming around by 2015 — and the carmakers have to ignore market reality under pressure to do what the environmentalist-political complex demands.
Even if it makes no sense. ….
This time it’s because the automaker is going to drop the price by $5,000. USA Today reports that with “a full $7,500 federal tax credit, the price is cut to $27,495,” a figure that doesn’t include some state tax credits.
Aside from those whose egos demand that they use their cars to scream out their moral superiority as environmentalists, and maybe a few enthusiasts who dabble in the technology, does anyone really want these electric cars? Their dismal sales numbers simply do not justify their existence.
Hat-tip to The Renegade Institute for Liberty at Bakersfield College (FACEBOOK):
Ford’s Latest Earnings Report Reveals Automaker Losing $65,000 for Each Electric Vehicle Sold (EPOCH TIMES)
…. Last month, the U.S. Environmental Protection Agency (EPA) finalized the “strongest-ever pollution standards” for cars that accelerate the “adoption of cleaner vehicle technologies.”
A coalition of 5,000 U.S. car dealerships criticized the EPA standards, noting that the regulations require a bump in EV sales “that is far beyond the consumer interest we are experiencing at our dealerships.”
“Despite generous government, manufacturer, and dealer incentives, our customers continue to bypass EVs over concerns about affordability, charging infrastructure, performance in cold weather, and resale value,” the coalition stated. ….
EDITOR’S NOTE:this is how the USSR ended up with warehouses FULL of “widgets” (things made that it could not use or people did not want) no one needed in the real world. This economic law enforcers George Gilder’s contention that when government supports a venture from failing, no information is gained in knowing if the program actually works. Only the free-market can do this.
GEORGE GILDER – UNCOMMON KNOWLEDGE
This week on Uncommon Knowledge, author George Gilder discusses his conception of knowledge, power, and the economy, as described in his latest book, Knowledge and Power: The Information Theory of Capitalism and How it is Revolutionizing our World. He argues that a low entropy, or predictable and stable, carrier is required for the emergence of knowledge — whether it be a fiber optic cable and communication, or a social system governed by the rule of law and economic innovation. Such a social system is not spontaneous, but rather developed through sacrifice and a religious order.
This is really a story about a GOVERNMENT INDUCED SHIT SHOW. The artificial inflation of a segment of the market that will “trickle-down” (so-to-speak) to many aspects of our lives. And so, with billions given to EV production from the Inflation Reduction Act will accomplish the exact opposite of what the Democrats promised it would do. Of course we all knew this, I am just pointing out the EV connection. As one article notes below,
The automakers are still healing from the chip shortage, which we talked about in one of our previous articles: Chip Shortage Puts a Brake on Automotive Production. They are now faced with lithium supply constraints which are not expected to ease down for a couple of years. And then there is also a looming threat of a shortage of other minerals such as graphite, nickel, cobalt, etc., which are also critical for the production of EV components.
It will take years for economists to sift through the wreckage of Big-Government edicts and messianic proclamations to “save the planet.” For now, all I can do is sound the alarm bells, in my own corner of the WWW.
QUOTE w/MEDIA
This is a FLASHBACK that originally aired on the radio Jul 2, 2013. Dennis Prager interviews George Gilder about his new book, “Knowledge and Power: The Information Theory of Capitalism and How it is Revolutionizing our World.” I found this small bit on Dodd-Frank interesting as it leads to government interference creating a business atmosphere that nets zero information — or — creativity, entrepreneurial investment, or new growth and business.
“A fundamental principle of information theory is that you can’t guarantee outcomes… in order for an experiment to yield knowledge, it has to be able to fail. If you have guaranteed experiments, you have zero knowledge” | George Gilder(The Fuller Interview Is Here)
EDITOR’S NOTE: this is how the USSR ended up with warehouses FULL of “widgets” (things made that it could not use or people did not want) no one needed in the real world. This economic law enforcers George Gilder’s contention that when government supports a venture from failing, no information is gained in knowing if the program actually works. Only the free-market can do this.
Why the posting of this key idea, or, rightly called an economic law. There are two stories I wish to share that brought me to think about this old audio I uploaded to my YouTube, and just fixed and reuploaded to my RUMBLE.
The United States is making $12 billion available in grants and loans for automakers and suppliers to retrofit their plants to produce electric and other advanced vehicles, Energy Secretary Jennifer Granholm told reporters Thursday.
The Biden administration will also offer $3.5 billion in funding to domestic battery manufacturers, Granholm said.
For the advanced vehicles, $2 billion of the funding will come from the Inflation Reduction Actwhich Democrats passed last year, and $10 billion will come from the Energy Department’s Loans Program Office, Granholm said…….
EV share of the new-vehicle market flattened out at 7.1 percent across the first half of the year after growing steadily in 2021 and 2022, according to U.S. new-vehicle registration data from Experian.
Is the party over? Hardly.
But in the fast-growing U.S. market of the moment, as microchip supplies improve and the production of popular gasoline-engine autos returns in force this summer, EVs are no longer outpacing the rest of the car business — at least for now…..
ALSO:
EVs sat at dealerships for an average of 92 days in the second quarter of 2023 versus 36 days for the same period in 2022. (U.S. NEWS and WORLD REPORT)
However, the push by governments to replace fossil fuels will increase production of these EV vehicles, reducing inflation will be impossible as prices of all sorts of items will greatly increase. 2-billion wasted and doing just the opposite of what Democrats say it would do.
The below articles will deal primarily with Nickel, but the overuse of this material as well as others in battery production due to this artificial inflation by governments will create interference in knowledge to be produced allowing the market [people] to make choices based on supply and demand.
What this means is that a shit show will trickle-down the supply chain. To the cost of stainless steel, to other ingredients key to electronics and all batteries. In other words,
Nickel is a chemical element and a transition metal. It is mostly used for high-grade steel manufacturing, and increasingly so, in batteries. Global production of nickel from mines was estimated to amount to a total of 3.3 million metric tons in 2022. The major countries in nickel mining include Indonesia, Philippines, Russia, and New Caledonia. Home to the world’s two largest nickel mines based on production in 2022 was Russia, with the Kola MMC Mine’s production amounting to 151,030 metric tons and the Sorowako Mine producing 77,270 metric tons of nickel. Indonesia has the largest reserves of nickel, tied with Australia, and followed by and Brazil in third place. Interestingly, nickel reserves are among the metals and minerals with the least remaining life years, however, because nickel is a highly recyclable material, this poses less of a problem.
Nickel Mining Companies
The leading companies based on nickel production worldwide as of 2022 were Tsingshan Group and Delong from China, Nornickel from Russia, and Jinchuan Group from Hong Kong [China]. Tsingshan Group alone accounted for a 20 percent share of global nickel production that year. The world’s leading nickel producing companies based on market capitalization as of July 2023, however, were a different cohort: BHP from Australia had the leading market cap, at 155.2 billion U.S. dollars. The Brazilian company Vale came in second, with a market cap of nearly 62 billion U.S. dollars…..
In a sweeping long-term agreement, Vladimir Putin and Xi Jinping, the two most powerful autocrats, challenge the current political and military order.
n their matching mauve ties, Russia’s Vladimir Putin and China’s Xi Jinping last week declared a “new era” in the global order and, at least in the short term, endorsed their respective territorial ambitions in Ukraine and Taiwan. The world’s two most powerful autocrats unveiled a sweeping long-term agreement that also challenges the United States as a global power, nato as a cornerstone of international security, and liberal democracy as a model for the world. “Friendship between the two States has no limits,” they vowed in the communiqué, released after the two leaders met on the eve of the Beijing Winter Olympics. “There are no ‘forbidden’ areas of cooperation.”
Agreements between Moscow and Beijing, including the Treaty of Friendship of 2001, have traditionally been laden with lofty, if vague, rhetoric that faded into forgotten history. But the new and detailed five-thousand-word agreement is more than a collection of the usual tropes, Robert Daly, the director of the Kissinger Institute on China and the United States, at the Wilson Center, in Washington, told me. Although it falls short of a formal alliance, like nato, the agreement reflects a more elaborate show of solidarity than anytime in the past. “This is a pledge to stand shoulder to shoulder against America and the West, ideologically as well as militarily,” Daly said. “This statement might be looked back on as the beginning of Cold War Two.” The timing and clarity of the communiqué—amid tensions on Russia’s border with Europe and China’s aggression around Taiwan—will “give historians the kind of specific event that they often focus on.”….
…One of the key commodities to realizing this ambition is nickel. Unlike other battery materials such as cobalt and lithium, nickel is unique in not being primarily driven by global battery demand. About 70% of the world’s nickel production is consumed by the stainless steel sector, while batteries take up a modest 5%.
S&P Global Market Intelligence forecasts global primary nickel consumption to rebound year-on-year due to stainless steel capacity expansions in China and Indonesia. Demand outside China is expected to be the main driver of global growth in volume terms in 2022 and global consumption is forecasted to rise at a compound annual growth rate of about 7% between 2020 and 2025.
The battery sector’s nickel demand is also expected to accelerate substantially, with many predicting it to near 35% of total demand by the end of the decade….
With more electric vehicle orders than ever, can our international supply chain keep up with the demand? Or can the U.S. constrict its own battery plants in time?
Consumers have never been more interested in electric cars and climate change goals. But with automakers scrambling to produce more EVs than ever, we could be facing a problematic shortage in the near future.
Jerry, your favorite super car app, breaks down why the predicted lack of inventory could be much worse than the current computer chip shortage.
A Storm Is Brewing
With a looming battery shortage, carmakers are doubling down on mining raw battery materials like lithium, nickel, and cobalt. The shortage would affect not only sourcing materials but processing and building the actual batteries as well.
Some companies are taking battery manufacturing into their own hands and constructing exclusive battery plants.
Rivian Automotive Inc. Chief Executive RJ Scaringe said, “Put very simply, all the world’s cell production combined represents well under 10% of what we will need in 10 years,” according to Market Watch. Essentially, at least 90% of the necessary supply chain to keep up with demand does not exist.
…CNN notes that “the United States sources about 90% of the lithium it uses from Argentina and Chile, and contributes less than 1% of global production of nickel and cobalt, according to the Department of Energy. China refines 60% of the world’s lithium and 80% of the cobalt.”
No Ev Battery Plan For The Long-Term
We all know about Biden’s goal to ensure that at least half of all vehicles will be electric by 2030. We’re talking a $7.5 billion electric vehicle charging infrastructure. California even pledged that by 2035, all cars must be zero-emission vehicles.
Though the Biden administration has pushed for more EV production in the short term, there aren’t long-term plans pertaining to electric batteries. Did you know it can take at least seven to 10 years to set up a mine?
Unfortunately, the U.S. is very dependent on foreign countries that have the manufacturing capacity and raw materials that we don’t.
If for political reasons China shut down the world’s electric vehicle transition, what happens then? It’s also possible that China could restrict “exports of lithium hydroxide to give its domestic electric battery and vehicle manufacturers an advantage,” according to CNN.
As you can imagine, the price for critical battery metals has shot through the roof. According to CNN, “Some automakers like Tesla have made deals with suppliers of raw materials recently, which may help insulate them from shortages.”
If you’ve looked into buying an electric car recently, you’re very familiar with the federal tax credit awarded to EV car owners.
According to CNN, “The government has offered subsidies for electric vehicle purchases and charging infrastructure, but the mining sector hasn’t seen similar support, the battery metals experts say.”
Electric vehicle battery costs soared in 2022. But that doesn’t seem to have slowed the pace of automakers planning to adopt ever larger battery packs to satisfy ever-higher EV driving range claims.
As Bloomberg recently calculated, using EV models from the U.S., Europe, and China, the average pack size is now around 80 kwh, from in the vicinity of 40 kwh in 2018, and the growth trend is expected to continue for some years.
Meanwhile, average global EV range is now at 210 miles—up dramatically versus the average range of 143 miles in 2018.
That also means average EVs are less efficient, the byproduct of a shift to larger EVs.
EV driving range has been increasing at a rate of about 10% each year. Bloomberg sees the market finally reaching a ceiling in its demand for more range at 250-310 miles depending on the size of the EV, with the smallest city cars well below that range.
[….]
According to Bloomberg New Energy Finance, the Silverado EV’s pack, topping 200 kwh, represents $25,000 to $27,000 of direct cost to GM. That happens to be as much as a well-equipped 2024 Chevrolet Trax crossover, or a base 2024 Chevrolet Trailblazer SUV.
The Chevy Silverado EV won’t even have the biggest battery among full-size electric trucks. Ram plans a gigantic 229-kwh pack for its upcoming Ram 1500 REV.
The Silverado EV’s battery pack has more than twice the capacity versus that of the top Lucid Air that can go more than 500 miles on a charge. It’s also enough to power an average American house for almost three weeks, based on the U.S. Energy Information Administration’s 2021 household daily average of 10.632 kwh.
Ford isn’t going to go to 600 miles of range and thinks the sweet spot is around 350 miles. Mazda has said that long-range EVs aren’t the future…..
Global sales of electric cars are set to surge to yet another record this year, expanding their share of the overall car market to close to one-fifth and leading a major transformation of the auto industry that has implications for the energy sector, especially oil. That’s according to the International Energy Agency’s (IEA) recent report, “Global EV Outlook, 2023”, accessible here [as a PDF], which, in its 142 pages, shines a bright light on the remarkable dynamics that have unfolded in the field of battery demand for Electric Vehicles (EVs). This gallery summarizes the IEA report to navigate six compelling sides of the industry’s transformative journey. It begins with a surge in battery demand for EVs, outlining how, in 2022, it soared by approximately 65%, reaching a colossal 550 GWh from 330 GWh in 2021. This growth, fueled by a 55% increase in electric passenger car registrations, is a global phenomenon, yet it finds its epicenter in China and the United States.
[….]
1. Battery demand by mode and region, 2016–2022:
IEA’s report states that the demand for lithium-ion (Li-ion) batteries in the automotive sector surged significantly in 2022, rising by approximately 65% to reach 550 GWh, up from about 330 GWh in 2021. This remarkable growth was primarily attributed to the increasing sales of electric passenger cars, which saw new registrations rise by 55% in 2022 compared to the previous year.
In China, the demand for batteries in the automotive industry experienced an even more substantial increase, exceeding 70%. This coincided with an 80% increase in electric car sales in 2022 compared to 2021. However, this upward trajectory in battery demand was somewhat tempered by the rising prevalence of Plug-in Hybrid Electric Vehicles (PHEVs).
Meanwhile, in the United States, the demand for vehicle batteries also witnessed robust growth, expanding by approximately 80%, even though electric car sales only saw a comparatively modest increase of around 55% in 2022 relative to the preceding year.
2. Overall supply and demand of battery metals by sector, 2016–2022
The surge in battery demand is spurring the need for essential materials. In 2022, there was still an imbalance between the demand for lithium and its supply, a situation that persisted from 2021. This discrepancy occurred despite a significant 180% rise in production since 2017.
This chart shows that in 2022, EV batteries accounted for approximately 60% of the demand for lithium, 30% for cobalt, and 10% for nickel. In contrast, just five years prior, in 2017, these proportions were roughly 15%, 10%, and 2%, respectively.
The transition to Electric Vehicles (EVs) is picking pace with concentrated efforts to achieve the net-zero carbon scenario by 2050. The International Energy Agency (IEA) estimated that global EV sales reached 6.6 million units in 2021, nearly doubling from the previous year. IEA projects that the number of EVs in use (across all road transport modes excluding two/three-wheelers) is expected to increase from 18 million vehicles in 2021 to 200 million vehicles by 2030, recording an average annual growth of over 30%. The estimation is based on policies announced by governments around the world as of mid-2021. This scenario will result in a sixfold increase in the demand for lithium, a key material used in the manufacturing of EV batteries, by 2030. With increasing EV demand, the industry looks to navigate through the lithium supply disruptions.
Lithium Supply Shortages Are Not Going Away Soon
The global EV market is already struggling with lithium supply constraints. Both lithium carbonate (Li2CO3) and lithium hydroxide (LiOH) are used for the production of EV batteries, but traditionally lithium hydroxide is obtained from processing of lithium carbonate, so the industry is more watchful of lithium carbonate production. BloombergNEF, a commodity market research provider, indicated that the production of lithium carbonate equivalent (LCE) was estimated to reach around 673,000 tons in 2022, while the demand was projected to exceed 676,000 tons LCE. In January 2023, a leading lithium producer, Albemarle, indicated that the global demand for LCE would expand to 1.8 million metric tons (MMt) (~1.98 million tons) by 2025 and 3.7 MMt (~4 million tons) by 2030. Meanwhile, the supply of LCE is expected to reach 2.9 MMt (~3.2 million tons) by 2030, creating a huge deficit.
There is a need to scale up lithium mining and processing. IEA indicates that about 50 new average-sized mines need to be built to fulfill the rising lithium demand. Lithium as a resource is not scarce; as per the US Geological Survey estimates, the global lithium reserves stand at about 22 million tons, enough to sustain the demand for EVs far in the future.
However, the process of mining and refining the metal is time-consuming and not keeping up pace with the surging demand. As per IEA analysis, between 2010 and 2019, the lithium mines that started production took an average of 16.5 years to develop. Thus, lithium production is not likely to shoot up drastically in a short period of time.
Considering the challenges in increasing the lithium production output, industry stakeholders across the EV value chain are racing to prepare for the anticipated supply chain disruptions.
[….]
The automakers are still healing from the chip shortage, which we talked about in one of our previous articles: Chip Shortage Puts a Brake on Automotive Production. They are now faced with lithium supply constraints which are not expected to ease down for a couple of years. And then there is also a looming threat of a shortage of other minerals such as graphite, nickel, cobalt, etc., which are also critical for the production of EV components. While the world is determined and excited about the EV revolution, the transition is going to be challenging.
So challenging in fact that GOOGLE years ago admitted the problem:
We came to the conclusion that even if Google and others had led the way toward a wholesale adoption of renewable energy, that switch would not have resulted in significant reductions of carbon dioxide emissions. Trying to combat climate change exclusively with today’s renewable energy technologies simply won’t work; we need a fundamentally different approach.
[…..]
“Even if one were to electrify all of transport, industry, heating and so on, so much renewable generation and balancing/storage equipment would be needed to power it that astronomical new requirements for steel, concrete, copper, glass, carbon fibre, neodymium, shipping and haulage etc etc would appear. All these things are made using mammoth amounts of energy: far from achieving massive energy savings, which most plans for a renewables future rely on implicitly, we would wind up needing far more energy, which would mean even more vast renewables farms – and even more materials and energy to make and maintain them and so on. The scale of the building would be like nothing ever attempted by the human race.”
Google Joins the Common Sense Crew On Renewable Energies ~ Finally! (RPT)
Here’s what could happen if demand outstrips supply.
The automotive industry could be in for a shock, with a new report predicting that a lithium shortage is on the horizon. Citing BMI, a research unit of Fitch Solutions, CNBC reports that by 2025, demand will outstrip supply. The BMI report puts this down to China’s soaring appetite for the alkali metal.
“We expect an average of 20.4% year-on-year annual growth for China’s lithium demand for EVs alone over 2023-2032,” reads the report. Lithium is an essential component in electric vehicle batteries. It is used in most battery packs, including those found in popular vehicles such as the Tesla Model S. According to Euronews, the electric sedan uses approximately 26 pounds of lithium in its battery pack.
While China’s lithium demand will increase by 20.4% year-on-year, the country’s supply will only grow by 6% over the same time. It’s worth noting that China is the world’s third-largest lithium producer after Australia and Chile…..
As an aside, this/these critiques are not meant to be “Ford specific,” rather, ALL EV SPECIFIC. Ford’s CEO’s truthful admission while ignoring other TROOTHZ is the point ALL CEO’s should take note of.
Ford CEO Jim Farley said he faced a “reality check” while attempting to charge his electric truck during a road trip across the American West, an admission that comes as President Joe Biden spends billions to spur electric vehicle adoption.
Farley embarked on the trip in Ford’s new electric F-150 Lightning last week in an attempt to “see the EV transition in action.” He started in Silicon Valley, made a stop in Los Angeles, and then ended in Las Vegas. Farley documented much of the trip on social media, including his late-night charging sessions and the “challenging” nature of obtaining enough power to travel long distances.
“Charging has been pretty challenging,” Farley said, adding that at one stop it took him 40 minutes to charge his truck’s battery to just 40 percent. “It was a really good reality check—the challenges of what our customers go through.” (OFF THE PRESS BULLET POINTS)
‘Reality Check’: Ford CEO Struggles to Charge EV During Road Trip(WASHINGTON FREE BEACON):
Earlier this year, the Biden administration unveiled a new rule to limit tailpipe emissions, which is aimed at ensuring two-thirds of new vehicles are electric by 2032. That benchmark far exceeded Biden’s 2021 executive order pushing for half of all vehicles sold by 2030 to be zero-emission. Still, getting drivers to hop on board with the EV transition has been difficult. Last year, just 6 percent of vehicles sold were electric.
RPT Offers Ford CEO Jim Farley Some More “Reality Checks”
Check One:
State Sized Chunks of Land To Go Green
To give you a sense of scale, to replace the energy from one average natural gas well, which sits on about four acres of land, would require 2,500 acres of wind turbines. That is a massive amount of land. You would have to cover this entire nation with wind turbines in an attempt to replace the electricity that we generate from coal, natural gas, and nuclear power, and even that would not get the job done.
[….]
Achieving Biden’s goal will require aggressively building more wind and solar farms, in many cases combined with giant batteries. To fulfill his vision of an emission-free grid by 2035, the U.S. needs to increase its carbon-free capacity by at least 150%. Expanding wind and solar by 10% annually until 2030 would require a chunk of land equal to the state of South Dakota, according to Princeton University estimates and an analysis by Bloomberg News. By 2050, when Biden wants the entire economy to be carbon free, the U.S. would need up to four additional South Dakotas to develop enough clean power to run all the electric vehicles, factories and more.
We came to the conclusion that even if Google and others had led the way toward a wholesale adoption of renewable energy, that switch would not have resulted in significant reductions of carbon dioxide emissions. Trying to combat climate change exclusively with today’s renewable energy technologies simply won’t work; we need a fundamentally different approach.
[….]
“Even if one were to electrify all of transport, industry, heating and so on, so much renewable generation and balancing/storage equipment would be needed to power it that astronomical new requirements for steel, concrete, copper, glass, carbon fibre, neodymium, shipping and haulage etc etc would appear. All these things are made using mammoth amounts of energy: far from achieving massive energy savings, which most plans for a renewables future rely on implicitly, we would wind up needing far more energy, which would mean even more vast renewables farms – and even more materials and energy to make and maintain them and so on. The scale of the building would be like nothing ever attempted by the human race.”
“the plausible path to decarbonization, modeled by researchers at Princeton, sees wind and solar using up to 590,000 square kilometers — which is roughly equal to the land mass of Connecticut, Illinois, Indiana, Kentucky, Massachusetts, Ohio, Rhode Island and Tennessee put together. The footprint is big.” — Ezra Klein in the New York Times.
Check Three:
Added Weight (Parking Garages/Fatality Risks)
For example, the 2023 GMC Hummer EV, a full-size pickup, weighs more than 9,000 pounds, sporting a 2,900-pound battery. In comparison, the 2023 GMC Sierra, also a full-size pickup, weighs less than 6,000 pounds, according to Kelley Blue Book.
The average weight of U.S. vehicles has already increased from about 3,400 pounds to 4,300 pounds over the last 30 years as Americans have ditched passenger cars for pickups and SUVs, according to Evercore ISI analysts.
Threat level: Safety watchdogs are raising concerns after the recent deadly collapse of a parking garage in New York City called attention to the challenge of creaking infrastructure.
Traffic safety is particularly concerning. In crashes, the “baseline fatality probability” increases 47% for every 1,000 additional pounds in the vehicle — and the fatality risk is even higher if the striking vehicle is a light truck (SUV, pickup truck, or minivan), according to a 2011 study published by the National Bureau of Economic Research.
“Since we’re seeing pedestrian and roadway fatalities at record levels, the introduction of more weight into crashes via EVs will complicate any attempts to reduce the ongoing fatality crisis that has showed no signs of abating,” Center for Auto Safety acting executive director Michael Brooks tells Axios in an email.
The Disturbing Reality of Cobalt Mining for Rechargeable Batteries
….Regarding the demand for the different minerals, in the case of aluminum, according to our results, the demand for minerals from the rest of the economy would stand out, with the requirement for batteries having little influence. Copper would have a high demand from the rest of the economy, but it would also have a significant demand from vehicles, infrastructure and batteries. Cobalt would be in high demand because of the manufacture of batteries with the exception of the LFP battery that does not have this mineral, in the case of its demand from the rest of the economy it can be stated that it would be important but less influential than the demand for batteries. Lithium would have very high requirements from all the batteries and with a reduced demand from the rest of the economy. Manganese would have an important but contained demand coming from LMO and NMC batteries, since the requirements for this mineral would stand out in the rest of the economy. Finally, nickel would have a high demand from NMC and NCA batteries, but its main demand would come from the rest of the economy.
The batteries that would require the least materials are the NCA and LFP batteries. The NMC battery has been surpassed in performance and mineral usage by the NCA. The LiMnO2 battery has a very poor performance, so it has been doomed to disuse in electric vehicles. In addition, the LFP battery, the only one that does not use critical materials in the cathode (other than lithium), also has poor performance, requiring very large batteries (in size and weight) to match the capacity and power of batteries using cobalt.
Charging infrastructure, rail and copper used in electrified vehicles could add up to more than 17% of the copper reserve requirement in the most unfavourable scenario (high EV) and 7% in the most favourable (degrowth), so these are elements that must be taken into account…..
You Dig Up 500,000 Pounds of the Earth’s Crust for One EV Auto Battery! And each of these half a million pounds of earth are dug up with a diesel engine. A typical EV battery weighs one thousand pounds, about the size of a travel trunk. It contains twenty-five pounds of lithium, sixty pounds of nickel, 44 pounds of manganese, 30 pounds cobalt, 200 pounds of copper, and 400 pounds of aluminum, steel, and plastic. Inside are over 6,000 individual lithium-ion cells. To manufacture each EV auto battery, you must process 25,000 pounds of brine for the lithium, 30,000 pounds of ore for the cobalt, 5,000 pounds of ore for the nickel, and 25,000 pounds of ore for copper. All told, you dig up 500,000 pounds of the earth’s crust for one battery.” (NATIONAL REVIEW – AUSTRALIA)
Check Six:
China’s “Red Barchetta”
Check Seven:
ECON 101
[….]
On a more serious note, yes, pushing technology that does not work well at all in replacing fossil fuels as sound (solar, wind, current battery tech, etc.) through subsidies and edict… yes, THATis the issue. This video highlights [encapsulates] the result of government largess IN THAT people have a false impression these vehicles are just as good and would in a free and open market fail. Europe is moving to make natural gas and nuclear “green,” because (a)they are, and (b)they work. The U.S. has the most corrupt and politicians that vote legislation based on a Utopian ideal (say, a Bernie Sanders, AOC, etc.) or personal enrichment (say McConnell or Pelosi, etc.). Reality bites and refuses to let go… even Newsom extended Diablo Canyon nuclear plant life instead of shutting it down. Why? because it works, wind and solar wanes at best…
… The U.S. would need up to four additional South Dakotas to develop enough clean power to run all the electric vehicles, factories and more….. (RPT: State Sized Chunks Land for a Zero-Carbon Economy)
It is an impossible goal, but many miss out on inculcating that fact into their thinking. Thomas Sowell notes the biggest difference between “conservatives” and “the Left” are these simple and basic questions:
1) compared to what? 2) at what cost? 3) what hard-evidence do you have?
Which even if someone were to read just my “BATTERY” section of my EV Post, they will encounter thinking unheard of in their normal diet of “clean energy” thinking. “At What Cost”
So, the “short answer” to my fellow compatriot on a similar life journey is, that that video shows the failure of what a large government “buying widgets” can do:
“A fundamental principle of information theory is that you can’t guarantee outcomes… in order for an experiment to yield knowledge, it has to be able to fail. If you have guaranteed experiments, you have zero knowledge” — George Gilder
Via an Interview by Dennis Prager [EDITOR’S NOTE: this is how the USSR ended up with warehouses FULLof “widgets” no one needed in the real world (things made that it could not use, or people did not want based on what a politician or leader in a controlled environment “thought” people would need). This economic law enforcers George Gilder’s contention that when government supports a venture from failing, no information is gained in knowing if the program works. Only the free-market can do this: I-PENCIL]
Another good comment, based on the drop in performance* when these batteries are cold, is this:
Can’t wait to see winter and snow performance numbers on these.
* CLIMATE/WEATHER IMPACT ON EVs
Another factor regarding optimal output and electric vehicles is hot and cold weather. I will let a wonderful WIRED MAGAZINE article explain:
…EV drivers have other factors to consider in winter weather: How far they can go, and how long it will take them to recharge.
Cold temperatures can hurt both, especially when it gets as severe as Winter Storm Jaden, which has triggered states of emergency across the country and will subject more than 70 percent of the US population to subzero temperatures over the next few days. That’s because the lithium-ion batteries that power EVs (as well as cellphones and laptops) are very temperature sensitive.
“Batteries are like humans,” says Anna Stefanopoulou, director of the University of Michigan’s Energy Institute. They prefer the same sort of temperature range that people do. Anything below 40 or above 115 degrees Fahrenheit and they’re not going to deliver their peak performance. They like to be around 60 to 80 degrees. As the temperature drops, the electrolyte fluid inside the battery cells becomes more sluggish. “You don’t have as much power when you want to discharge,” says Stefanopoulou. “The situation is even more limited when you want to charge.”
Modern cars are designed to take that into account, with battery thermal management systems that warm or cool a battery. But while an internal combustion engine generates its own heat, which warms the engine and the car occupants, an EV has to find that warmth somewhere else, either scavenging the small amount of heat that motors and inverters make or running a heater. That takes energy, meaning there’s less power available to move the wheels.
Additionally, to protect the battery—the most expensive component of an EV—the onboard computer may limit how it’s used in extreme low temperatures. The Tesla Model S owners manual warns: “In cold weather, some of the stored energy in the Battery may not be available on your drive because the battery is too cold.”…
Updated Video Comparison: Ev vs. Gas
How Far Can a Gas Truck & an Electric Ford Lightning Go Towing the Same Camper On ONE Fill-up?
Near the end the EV hauler says of the gas-powered Ford, “Even though he is burning dinosaurs” — um — so are you.
According to the study directed by Christoph Buchal of the University of Cologne, published by the Ifo Institute in Munich last week, electric vehicles have “significantly higher CO2 emissions than diesel cars.” That is due to the significant amount of energy used in the mining and processing of lithium, cobalt, and manganese, which are critical raw materials for the production of electric car batteries.
A battery pack for a Tesla Model 3 pollutes the climate with 11 to 15 tonnes of CO2. Each battery pack has a lifespan of approximately ten years and total mileage of 94,000, would mean 73 to 98 grams of CO2 per kilometer (116 to 156 grams of CO2 per mile), Buchal said. Add to this the CO2 emissions of the electricity from powerplants that power such vehicles, and the actual Tesla emissions could be between 156 to 180 grams of CO2 per kilometer (249 and 289 grams of CO2 per mile).
In a conversation between EV owners and others at WATTS UP WITH THAT, a comment that sums up the above but in a short paragraph, reads:
It’s not just bigger, it’s huge. Unlike an IC powered car, where cold weather won’t really affect it much, an electric car is severely disadvantaged. Drop outside temperatures down to -10 degrees F (not uncommon in Chicago) and that 300 mile range drops to 75 miles. Commute 20 miles to work on a frigid winter morning and 20 miles home in slooow traffic in a snowstorm with lights, wipers, and defroster on hi, and you just might not make it.
THE DAILY MAIL notes that “[e]lectric cars have 40 per cent less range when the temperature dips below freezing, new research has revealed.” Wow. Canadians are well-aware of the issue — as are the people in the northern states.
IN~OTHER~WORDS, this “venture is a giant boondoggle and these charging-stations would never survive outside of transferring wealth from business owners and those that drive the economy to cover this failure of a “choice.”
I was also “challenged” a bit, not really a challenged as much as a friendly observation — to which I just wish to record my response, as, it is a decent summation to the video regarding the review of the EV Ford Truck. My friend noted:
I think you’re tilting at windmills with this anti EV trend. The market should decide, and EV’s are getting really good. Can they replace a diesel f250? No, but for running around town they’re pretty damn good. I guess your issue is with government mandates.
After a somewhat silly response I continued with this:
On a more serious note, yes, pushing technology that does not work well at all in replacing fossil fuels as sound (solar, wind, current battery tech, etc.) through subsidies and edict… yes, THATis the issue. This video highlights [encapsulates] the result of government largess IN THAT people have a false impression these vehicles are just as good and would in a free and open market fail. Europe is moving to make natural gas and nuclear “green,” because (a)they are, and (b)they work. The U.S. has the most corrupt and politicians that vote legislation based on a Utopian ideal (say, a Bernie Sanders, AOC, etc.) or personal enrichment (say McConnell or Pelosi, etc.). Reality bites and refuses to let go… even Newsom extended Diablo Canyon nuclear plant life instead of shutting it down. Why? because it works, wind and solar wanes at best…
… The U.S. would need up to four additional South Dakotas to develop enough clean power to run all the electric vehicles, factories and more….. (RPT: State Sized Chunks Land for a Zero-Carbon Economy)
It is an impossible goal, but many miss out on inculcating that fact into their thinking. Thomas Sowell notes the biggest difference between “conservatives” and “the Left” are these simple and basic questions:
1) compared to what? 2) at what cost? 3) what hard-evidence do you have?
Which even if someone were to read just my “BATTERY” section of my EV Post, they will encounter thinking unheard of in their normal diet of “clean energy” thinking. “At What Cost”
So, the “short answer” to my fellow compatriot on a similar life journey is, that that video shows the failure of what a large government “buying widgets” can do:
“A fundamental principle of information theory is that you can’t guarantee outcomes… in order for an experiment to yield knowledge, it has to be able to fail. If you have guaranteed experiments, you have zero knowledge” — George Gilder
Via an Interview by Dennis Prager [EDITOR’S NOTE: this is how the USSR ended up with warehouses FULLof “widgets” no one needed in the real world (things made that it could not use, or people did not want based on what a politician or leader in a controlled environment “thought” people would need). This economic law enforcers George Gilder’s contention that when government supports a venture from failing, no information is gained in knowing if the program works. Only the free-market can do this: I-PENCIL]
Dennis Prager reads from an article regarding concerns over the increased weight of EV vehicles:
Here is the AXIOS article Dennis was reading from:
EVs Are Much Heavier Than Gas Vehicles, And That’s Posing Safety Problems
For example, the 2023 GMC Hummer EV, a full-size pickup, weighs more than 9,000 pounds, sporting a 2,900-pound battery. In comparison, the 2023 GMC Sierra, also a full-size pickup, weighs less than 6,000 pounds, according to Kelley Blue Book.
The average weight of U.S. vehicles has already increased from about 3,400 pounds to 4,300 pounds over the last 30 years as Americans have ditched passenger cars for pickups and SUVs, according to Evercore ISI analysts.
Threat level: Safety watchdogs are raising concerns after the recent deadly collapse of a parking garage in New York City called attention to the challenge of creaking infrastructure.
Traffic safety is particularly concerning. In crashes, the “baseline fatality probability” increases 47% for every 1,000 additional pounds in the vehicle — and the fatality risk is even higher if the striking vehicle is a light truck (SUV, pickup truck, or minivan), according to a 2011 study published by the National Bureau of Economic Research.
“Since we’re seeing pedestrian and roadway fatalities at record levels, the introduction of more weight into crashes via EVs will complicate any attempts to reduce the ongoing fatality crisis that has showed no signs of abating,” Center for Auto Safety acting executive director Michael Brooks tells Axios in an email.
Flashback: In a speech in January, National Transportation Safety Board chair Jennifer Homendy praised the effort to reduce carbon emissions by switching to EVs but warned of the “unintended consequences” being “more death on our roads,” the AP reported…..
Study: Heavy Electric Vehicles Cause TWICE the Road Damage than Their Petrol Equivalents
A UK study led by the University of Leeds found the average electric car puts 2.24 times more stress on roads than a similar petrol vehicle – and 1.95 more than a diesel. Larger electric vehicles can cause up to 2.32 times more damage to roads.
Heavy EVs Pose Threat of Parking Structure Collapses
The safety concern is now front and center in the UK, where, as in the U.S., many older parking structures exist. “I don’t want to be too alarmist, but there definitely is the potential for some of the early car parks in poor condition to collapse,” structural engineer Chris Whapples told The Telegraph. “Operators need to be aware of electric vehicle weights, and get their car parks assessed from a strength point of view, and decide if they need to limit weight.”
If maintenance has not been kept up at these older parking structures, structural flaws are “baked in” according to building supply company Sika’s senior technical manager Steve Holmes. Many Ford F-150 Lightnings come close to 7,000 lbs, while gas-powered F-150s range between 4,000 and 5,700 lbs. So all EVs pose added stresses when combined into one stacked car park…..
Electric Vehicles May Be Too Heavy For Old Parking Garages: Report
The collapse of a parking garage in New York City on Tuesday that killed at least one person has put a new spotlight on aging structures used for vehicle storage.
The five-level building, which has several active violations listed with the city, dates back to 1925 and was first licensed as a garage in 1957 for five or more vehicles per floor, WNBC reported.
The exact cause of the structure’s failure has not been determined, but updates have been made to it in the years since and it is currently licensed to accommodate 276 vehicles.
[….]
The incident occurred after a recent study raised concerns that many older parking garages may need to be re-evaluated due to the increasing average weight of vehicles, particularly electric models.
The report from the British Parking Association noted that some electric cars weigh more than double what popular models in the same segments did in the 1960s, due in part to their heavy battery packs. This also often applies to contemporary cars.
For instance, a Tesla Model S weighs over a thousand pounds more than a gas-powered Mercedes E-Class, while a 9,000-pound GMC Hummer EV is 2,400 pounds heavier than the similarly-sized Hummer H2 that was last sold in 2009…..
EVs Are Too Heavy for Current Road Weight Limits, Car Haulers Say
The car hauling industry is lobbying various departments of the federal government to increase weight limits on U.S. highways in order to accommodate the transportation of electric vehicles.
According to Reuters, the industry says current weight limits on trucks roaming around U.S. roads are outdated and not equipped for the imminent pivot to battery-heavy EVs. Currently, federal highway safety standards restrict trailers to 80,000 pounds gross vehicle weight. This standard was set back in 1975, back when a Honda Civic weighed 1,570 pounds, or roughly half what one weighs now.
Per EPA figures, the average car or truck on U.S. roads has swollen from 3,200 to 4,200 pounds over the last 40 years. EVs carrying very heavy batteries—the 9,000-pound GMC Hummer EV attributes almost one-third of its weight to just its cells—stand to raise that figure even higher. And while electric cars are a relative minority today, the government aims to have half of all new vehicle sales be of electric vehicles by 2030…..
In an excellent post linking to a German documentary (30-minutes) and study showing the devastation to Chili of lithium mining, we find the following:
German ZDF public television recently broadcast a reportshowing how electric cars are a far cry from being what they are all cracked up to be by green activists.
The report titled: “Batteries in twilight – The dark side of e-mobility” [now not available] shows how the mining of raw materials needed for producing the massive automobile batteries is highly destructive to the environment. For example, two thirds of the cobalt currently comes from the Congo, where the mining rights have been acquired by China. Other materials needed include manganese, lithium and graphite.
Every electric car battery needs about 20 – 30 kg of lithium.
The mining of the raw materials often takes place in third world countries where workers are forced to work under horrendous conditions and no regard is given to protecting the environment. When it comes to “going green”, it seems everything flies out the window….
The production of lithium through evaporation ponds uses a lot of water – around 21 million litres per day. Approximately 2.2 million litres of water is needed to produce one ton of lithium. (EURO NEWS)
AGAIN… here is a Facebookpost of the same thing regarding Lithium Fields:
This is a Lithium leach field.
This is what your Electric Car batteries are made of.
It is so neuro-toxic that a bird landing on this stuff dies in minutes.
Take a guess what it does to your nervous system?
Pat yourself on the back for saving the environment.
Chile, 2nd largest lithium producer, is having water-scarcity problems as this technology takes so much water to produce battery-grade lithium. 2000 tons: 1 ton.
And the current version of the “inflation reduction act” wants 100% of EV battery components produced in the US.
Lead, nickel, lithium, cadmium, alkaline, mercury and nickel metal hydride.
Batteries are a collection of things that are extremely deadly.
Alternative fuels/energy is a DIRTY BUSINESS… but the left who live in the seclusion of the New York Times and MSNBC would never know this. I can show a graph showing skyrocketing carbon emissions worldwide for the past decade and that the temperature has dropped during this time by a small amount, and it is like showing them instructions to build an IKEA bookcase with instructions written in Gaelic!
What about the impact and supply of the materials needed to produce batteries? TreeHugger has a good post that mentions some of these environmental pitfalls. These issues involve many devices we use daily (cell phones, lap-top computers, rechargeable batteries, etc.), but add to this burden a mandated or subsidized car industry:
…lithium batteries take a tremendous amount of copper and aluminum to work properly. These metals are needed for the production of the anode & the cathode, cables and battery management systems. Copper and aluminum have to be mined, processes and manufacturing which takes lots of energy, chemicals and water which add to their environmental burden.
[….]
First of all, this study emphasizes that there would be less Lithium available than previously estimated for the global electric car market. It also states the fact that some of the largest concentrations of Lithium in the world are found in some of the most beautiful and ecologically fragile places, such as The Salar de Uyuni in Bolivia. The authors note:
“It would be irresponsible to despoil these regions for a material which can only ever be produced in sufficient quantities to serve a niche market of luxury vehicles for the top end of the market. We live in an age of Environmental Responsibility where the folly of the last two hundred years of despoilment of the Earth’s resources are clear to see. We cannot have “Green Cars” that have been produced at the expense of some of the world’s last unspoiled and irreplaceable wilderness. We have a responsibility to rectify our errors and not fall into the same traps as in the past.”
[….]
The report estimates that there would be less Lithium available than previously estimated for the global electric car market, as demand is rising for competing markets, such as cellular telephones and other electronic devices. At the same time, due to a great concentration of Lithium found in Chile, Bolivia and Argentina (70% of the world’s deposits), the United States and other developed countries needing the material will be subject to geopolitical forces similar to those they have already encountered from the member countries of OPEC…
Click HERE to go to larger file (use mouse wheel to zoom in)
In an excellent article we see the projected demands on other metals involved in the battery and transit goals:
….Regarding the demand for the different minerals, in the case of aluminum, according to our results, the demand for minerals from the rest of the economy would stand out, with the requirement for batteries having little influence. Copper would have a high demand from the rest of the economy, but it would also have a significant demand from vehicles, infrastructure and batteries. Cobalt would be in high demand because of the manufacture of batteries with the exception of the LFP battery that does not have this mineral, in the case of its demand from the rest of the economy it can be stated that it would be important but less influential than the demand for batteries. Lithium would have very high requirements from all the batteries and with a reduced demand from the rest of the economy. Manganese would have an important but contained demand coming from LMO and NMC batteries, since the requirements for this mineral would stand out in the rest of the economy. Finally, nickel would have a high demand from NMC and NCA batteries, but its main demand would come from the rest of the economy.
The batteries that would require the least materials are the NCA and LFP batteries. The NMC battery has been surpassed in performance and mineral usage by the NCA. The LiMnO2 battery has a very poor performance, so it has been doomed to disuse in electric vehicles. In addition, the LFP battery, the only one that does not use critical materials in the cathode (other than lithium), also has poor performance, requiring very large batteries (in size and weight) to match the capacity and power of batteries using cobalt.
Charging infrastructure, rail and copper used in electrified vehicles could add up to more than 17% of the copper reserve requirement in the most unfavourable scenario (high EV) and 7% in the most favourable (degrowth), so these are elements that must be taken into account…..
Are Electric Vehicles really clean? | They run on dirty energy and blood of children as young as 6. | Electric cars drive human rights abuse and child labour. | China is one of the villains in this story. | Are electric carmakers equally guilty too? | Palki Sharma Upadhyay tells you.
TO MAKE MATTERS WORSE….
…. lithium is also not the only battery ingredient with a dark side. Perhaps the darkest of all is cobalt, which is commonly used, alongside lithium, in the batteries of many electric vehicles.
Worse still, UNICEF estimates 40,000 of the workers in these mines are children under the age of 18, with some as young as 7 years old. Cobalt mining also comes with serious health risks. Chronic exposure to dust containing cobalt can cause the potentially fatal lung disease “hard metal lung disease.” Many fatal accidents have also been caused by mines not being constructed or managed safely.
Clearly then, in the face of such widespread environmental damage and human rights abuses, the ethics of electric vehicles is far more complicated than the expensive car adverts and glowing newspaper headlines would have us believe…..
Typical gasoline-powered auto engines are approximately 27% efficient. Typical fossil-fueled generating stations are 50% efficient, transmission to end user is 67% efficient, battery charging is 90% efficient and the auto’s electric motor is 90% efficient, so that the fuel efficiency of an electric car is also 27%. However, the electric car requires 30% more power per mile traveled to move the mass of its batteries. (See more here)
GREEN ENERGY GRID
But manufacturing the famous gasoline-electric hybrid can be a dirty business.
Toyota studied the car’s total environmental impact from factory to junkyard.
In fact, when looking at the “materials manufacturing” phase of the car’s life cycle, the Prius was worse than the class average across all five emissions categories. (AUTO SPIES)
Also, this from Reuters a few years back to put an emphasis on Dr. Lomborg’s $44 dollars of savings subsidized with $7,500 in tax-payers monies:
(REUTERS)– General Motors Co. sold a record number of Chevrolet Volt sedans in August — but that probably isn’t a good thing for the automaker’s bottom line.
Nearly two years after the introduction of the path-breaking plug-in hybrid, GM is still losing as much as $49,000 on each Volt it builds, according to estimates provided to Reuters by industry analysts and manufacturing experts.
Cheap Volt lease offers meant to drive more customers to Chevy showrooms this summer may have pushed that loss even higher. There are some Americans paying just $5,050 to drive around for two years in a vehicle that cost as much as $89,000 to produce….
SO, to be clear… it requires A LOT MORE energy to produce the electric or hybrid car, and takes more energy to “fuel” them.
It is time to stop our green worship of the electric car. It costs us a fortune, cuts little CO2 and surprisingly kills almost twice the number of people compared with regular gasoline cars.
Electric cars’ global-warming benefits are small. It is advertised as a zero-emissions car, but in reality it only shifts emissions to electricity production, with most coming from fossil fuels. As green venture capitalist Vinod Khosla likes to point out, “Electric cars are coal-powered cars.”
The most popular electric car, a Nissan Leaf, over a 90,000-mile lifetime will emit 31 metric tons of CO2, based on emissions from its production, its electricity consumption at average U.S. fuel mix and its ultimate scrapping. A comparable diesel Mercedes CDI A160 over a similar lifetime will emit 3 tons more across its production, diesel consumption and ultimate scrapping.
[….]
Comparing Apples to Apples
[….]
Yes, in both cases the electric car is better, but only by a tiny bit. Avoiding 3 tons of CO2 would cost less than $27 on Europe’s emissions trading market. The annual benefit is about the cost of a cup of coffee. Yet U.S. taxpayers spend up to $7,500 in tax breaks for less than $27 of climate benefits. That’s a bad deal.
(See also WUWT, where Lomborg notes that “…large battery pack [cars]… avoids nothing or even *increases* total CO2 emissions”)
This post will deal with two areas, the main one will be to simply compare the lifetime environmental impact of electric cars to regular gas cars and diesel cars and their carbon footprint. I will add some newer information here as well as combining some older posts herein. The second part is simple, where does the energy come to charge these Electric Vehicles (EVs).
SUBSIDY for CARS
These subsidies mainly benefit the rich, Tesla’s increased sales are directly linked to tax breaks offered to the wealthy on the backs of gas and diesel drivers:
…This means that CDA leader Sybrand Buma’s comments that ‘prosecco-drinking Tesla drivers’ have profited from the tax break at the ‘expense of the ordinary man in the street’ are largely true, the paper said.
It points out that the subsidies for electric cars are mainly funded by higher taxes paid by petrol and diesel car owners…
Follow the sources below to subsidy sites in purchasing an electric vehicle:
California just put another $116 million toward clean vehicle rebates(source)…. Administered by CSE for the California Air Resources Board, the Clean Vehicle Rebate Project (CVRP) offers up to $15,000 in electric vehicle rebates for the purchase or lease of new, eligible zero-emission and plug-in hybrid light-duty vehicles (source).
A side note. California, as a government, does not make money like a normal business. It CAN ONLY tax people to get the money it spends. If it gets money from the Federal government, THEY [the Federal government] can only tax people or print money [weakening the dollar if it does this too much]. So, this $116-million comes from somewhere, and, is really just a redistribution of peoples money to an area the State thinks is important ~ but! is in fact, based on bad science.
TOYOTA SAYS!
So let’s start with some Prius examples. AUTOMOTIVE NEWS documents a study done by Toyota that bursts greenies bubbles:
The Toyota Prius is among the greenest cars to operate. But manufacturing the famous gasoline-electric hybrid can be a dirty business.
Toyota studied the car’s total environmental impact from factory to junkyard.
Not surprisingly, the fuel-efficient Prius was better than average in its class of vehicles in lifetime emissions of carbon dioxide, nitrogen oxide and sulfur oxide, according to Toyota.
But it was slightly worse than average in emissions of nonmethane hydrocarbons and particulate matter. Toyota says this is because producing hybrid-only parts such as motors, inverters and nickel-metal hydride batteries consumes more energy and creates more emissions.
In fact, when looking at the “materials manufacturing” phase of the car’s life cycle, the Prius was worse than the class average across all five emissions categories.
One proponent (now detractor) of EVs is Dr. Ozzie Zehner who has written quite fairly on the issue of alternative energy, and has an open chapter in his book for people to read.
…An environmental activist who once pushed for EVs and now works as a visiting scholar at UC Berkeley now calls electric vehicles “unclean at any speed” in a recent article for the engineering journal IEEE Spectrum (via Weasel Zippers and UPI):
The idea of electrifying automobiles to get around their environmental shortcomings isn’t new. Twenty years ago, I myself built a hybrid electric car that could be plugged in or run on natural gas. It wasn’t very fast, and I’m pretty sure it wasn’t safe. But I was convinced that cars like mine would help reduce both pollution and fossil-fuel dependence.
I was wrong.
I’ve come to this conclusion after many years of studying environmental issues more deeply and taking note of some important questions we need to ask ourselves as concerned citizens. Mine is an unpopular stance, to be sure. The suggestive power of electric cars is a persuasive force—so persuasive that answering the seemingly simple question “Are electric cars indeed green?” quickly gets complicated.
Ozzie Zehner, who worked on the experimental EV-1 at GM before it got shelved, says some of the complications are due to the economics of science and scientific research. Most of the funding comes from interested parties, which tends to produce research that supports their positions…
The article HotAir references is actually really long, well balanced, and informative. I suggest the serious reader delve in as “Unclean At Any Speed” touches on the many aspects of the alternative energy push right now. One aspect noted in the article is the large rare-earth metals needed (mined) and energy used in the extraction of these and the destruction of large swaths of land mass in order to produce the batteries and magnets involved in EVs.
Prius vs. Hummer
I will combine a graphic from Dr. Zehner article with another noted study comparing the Prius to a Hummer (the better comparison will come later with a diesel and electric cars):
(click to enlarge)
A Prius has a life span of 100,000 miles.
A Hummer has a life span of 300,000 miles.
Over its lifetime, a Prius costs $3.25 per mile driven.
In contrast, the Hummer costs $1.95 per mile driven, and
The Toyota Scion xB costs $0.48 per mile driven.
The original fuel economy estimates for Hybrids were inflated 30% by the EPA.
One of the Prius’s battery factories causes so much environmental damage that NASA uses the lifeless land nearby to simulate moon landings.
Some have called the Hummer/Prius comparison into question, some of which is even hashed out in the comment section of the post where the bullet points are from, fine. (A diesel Hummer H2 would surely beat the total lifespan footprint of the comparison.) But the impact on the environment (note the moon-landing stat) and overall comparisons to diesel’s is what interests me. The author of the above article updated his post with this [for the curious]:
UPDATE: Apparently the Prius was only ranked #12 in overall green-ness, behind several diesels, city roadsters, and smart cars. Experts expect the ranking to be even worse next year.
This brings me to another idea noted in the aforementioned article, even given a growth pattern in alternative fuels diesel in 2030 is still projected to be the best in low impact on the environment:
Environmental Impact
This is an area that might be surprising. At face value, with high gas mileage and low emissions, hybrids seem like the easy answer. But as we have previously covered at Digital Trends, vehicles with batteries may not be nearly as “green” as is often claimed.
This is a complicated issue. Essentially, batteries – particularly lithium-ion batteries – are both incredibly energy intensive and also toxic to produce. This means that the carbon footprint for hybrid production is much larger than a gasoline-only or even diesel-powered car.
In fact, according to some studies, fully electric vehicles have a bigger carbon footprint than diesel powered vehicles in areas where most electricity is produced using fossil fuels.
Modern diesel-cars should not be compared with truck engines that blast clouds of panda-killing soot into the air. Thanks to improvements in technology, current diesel cars are comparable in terms of particulate emissions to any other gasoline-powered car. In fact Volkswagen and Audi’s clean diesel technology makes cars like the Passat TDI cleaner than 93 percent of other cars on the road.
As with price, there will be specific exceptions to this rule, but diesel is greener than hybrid technology.
So diesel hybrids are the ideal for those concerned about the environment. But the rare-earth metals and substances used to make the batteries and magnets are in much less supply than coal, oil, and the like. In fact, in the 70’s it was predicted that we would be running dry of oil this year, but in fact we have at least 200-years worth of supply, the highest ever in the history of man (see point #3). To be clear, the impact on land and energy to get these materials is worse than normal automotive choices:
This section is a response of sorts to Dr. Lomborg, who is interviewed in the opening video. And it is very simple, alternative energy sources create more pollution than they will save (carbon footprint wise).
Thousands of Britain’s wind turbines will create more greenhouse gases than they save, according to potentially devastating scientific research to be published later this year.
The finding, which threatens the entire rationale of the onshore wind farm industry, will be made by Scottish government-funded researchers who devised the standard method used by developers to calculate “carbon payback time” for wind farms on peat soils.
Wind farms are typically built on upland sites, where peat soil is common. In Scotland alone, two thirds of all planned onshore wind development is on peatland. England and Wales also have large numbers of current or proposed peatland wind farms.
But peat is also a massive store of carbon, described as Europe’s equivalent of the tropical rainforest. Peat bogs contain and absorb carbon in the same way as trees and plants — but in much higher quantities.
British peatland stores at least 3.2 billion tons of carbon, making it by far the country’s most important carbon sink and among the most important in the world.
Wind farms, and the miles of new roads and tracks needed to service them, damage or destroy the peat and cause significant loss of carbon to the atmosphere, where it contributes to climate change.
[….]
“This is just another way in which wind power is a scam. It couldn’t exist without subsidy. It is driving industry out of Britain and driving people into fuel poverty.”…
Wind power cannot meet demands, and are dependent on weather conditions, as the above graph shows. Here is a snippit of the issue at hand with Germany’s electric grid:
You can see the extreme volatility of wind power. Such volatility plays havoc with the electric grid and makes fossil fuel backup generation more expensive to run because it must constantly change production rate; it cannot be run efficiently. Those constant changes cause production of more emissions than would be produced without having to contend with the quirky wind power contribution.
Gosselin (a US citizen living in Germany, who received a Bachelor of Science in Mechanical Engineering at the University of Arizona) notes that “Resistance to wind power in Germany is snowballing.” “The turbines, which the German government says will become the ‘workhorse’ of the German power industry, ran at over 50% of their rated capacity only for 461 hours [out of a possible 8,766], or just 5.2% of the time.”
In addition to the unreliable power produced by allegedly “green” wind power, it is becoming increasingly obvious that wind generation is taking a large toll on wildlife and has deleterious effects on human health.
[….]
“The U.S. Fish and Wildlife Service (FWS) and American Bird Conservancy say wind turbines kill 440,000 bald and golden eagles, hawks, falcons, owls, cranes, egrets, geese and other birds every year in the United States, along with countless insect-eating bats. Wind turbines killed 600000 bats last year.
“Renewable energy technologies simply won’t work; we need a fundamentally different approach.” – Top Google engineers
“We get a tax credit if we build a lot of wind farms. That’s the only reason to build them. They don’t make sense without the tax credit.” – Warren Buffett
“Suggesting that renewables will let us phase rapidly off fossil fuels in the United States, China, India, or the world as a whole is almost the equivalent of believing in the Easter Bunny and Tooth Fairy.” – James Hansen (The Godfather of global warming
alarmism and former NASA climate chief)
(LINK TO ARTICLE IN POWER PLANT PICS)
Put another way:
“A fundamental principle of information theory is that you can’t guarantee outcomes… in order for an experiment to yield knowledge, it has to be able to fail. If you have guaranteed experiments, you have zero knowledge” ~ George Gilder
Interview by Dennis Prager {Editors note: this is how the USSR ended up with warehouses FULL of “widgets” (things made that it could not use or people did not want) no one needed in the real world. This economic law enforcers George Gilder’s contention that when government supports a venture from failing, no information is gained in knowing if the program actually works. Only the free-market can do this. [See my post on Capitalism.]}
….But on huge wind farms the motion of the turbines mixes the air higher in the atmosphere that is warmer, pushing up the overall temperature.
Satellite data over a large area in Texas, that is now covered by four of the world’s largest wind farms, found that over a decade the local temperature went up by almost 1C as more turbines are built.
This could have long term effects on wildlife living in the immediate areas of larger wind farms.
It could also affect regional weather patterns as warmer areas affect the formation of cloud and even wind speeds.
It is reported China is now erecting 36 wind turbines every day and Texas is the largest producer of wind power in the US.
Liming Zhou, Research Associate Professor at the Department of Atmospheric and Environmental Sciences at the University of New York, who led the study, said further research is needed into the affect of the new technology on the wider environment.
“Wind energy is among the world’s fastest growing sources of energy. The US wind industry has experienced a remarkably rapid expansion of capacity in recent years,” he said. “While converting wind’s kinetic energy into electricity, wind turbines modify surface-atmosphere exchanges and transfer of energy, momentum, mass and moisture within the atmosphere. These changes, if spatially large enough, might have noticeable impacts on local to regional weather and climate.”
The study, published in Nature, found a “significant warming trend” of up to 0.72C (1.37F) per decade, particularly at night-time, over wind farms relative to near-by non-wind-farm regions.
The team studied satellite data showing land surface temperature in west-central Texas….
….According to Prinn and Wang, this temperature increase occurs because the wind turbines affect two processes that play critical roles in determining surface temperature and atmospheric circulation: vertical turbulent motion and horizontal heat transport. Both processes are responsible for moving heat away from Earth’s surface.
In the analysis, the wind turbines on land reduced wind speed, particularly on the downwind side of the wind farms, which reduced the strength of the turbulent motion and horizontal heat transport processes. This resulted in less heat being transported to the upper parts of the atmosphere, as well as to other regions farther away from the wind farms….
Not only do wind farms kill off high-profile bird species like golden and bald eagles and California condors, the farms also cause global warming. After hundreds of millions in blown taxpayer money and thousands of dead birds the latest research shows that wind farms cause warming. Reuters reported, via Free Republic:
Large wind farms might have a warming effect on the local climate, research in the United States showed on Sunday, casting a shadow over the long-term sustainability of wind power…
…The world’s wind farms last year had the capacity to produce 238 gigawatt of electricity at any one time. That was a 21 percent rise on 2010 and capacity is expected to reach nearly 500 gigawatt by the end of 2016 as more, and bigger, farms spring up, according to the Global Wind Energy Council.
Researchers at the State University of New York at Albany analysed the satellite data of areas around large wind farms in Texas, where four of the world’s largest farms are located, over the period 2003 to 2011.
The results, published in the journal Nature Climate Change, showed a warming trend of up to 0.72 degrees Celsius per decade in areas over the farms, compared with nearby regions without the farms.
“We attribute this warming primarily to wind farms,” the study said. The temperature change could be due to the effects of the energy expelled by farms and the movement and turbulence generated by turbine rotors, it said.
“These changes, if spatially large enough, may have noticeable impacts on local to regional weather and climate,” the authors said.
But the Democrats will continue to dump billions into the costly energy source anyway. It makes them feel good.
Can you imagine the polluted, destroyed world we would have if the left had their way with green energy?
Environazis, like all progressives, care about two things: other people’s money and the power entailed in imposing their ideology. Prominent among the many things they do not care about is the environment, as demonstrated by a monstrosity planned for Loch Ness:
A giant 67 turbine wind farm planned for the mountains overlooking Loch Ness will be an environmental disaster thanks to the sheer quantity of stone which will need to be quarried to construct it, according to the John Muir Trust. In addition, the Trust has warned that the turbines spell ecological disaster for the wet blanket peat-land which covers the area and acts as a huge carbon sink, the Sunday Times has reported.
According to global warming dogma, carbon sinks are crucial in preventing human activity from causing climatic doom.
The planet isn’t the only victim of this ideologically driven enterprise:
Around one million people visit the picturesque Loch Ness, nestled in the highlands of Scotland each year, bringing about £25 million in revenue with them. Most are on the lookout for the infamous monster, but if Scottish and Southern Energy (SSE) get their way the tourists will have something else to look at: the Stronelairg wind farm – 67 turbines, each 443ft high, peppered across the Monadhlaith mountains overlooking the Loch.
Is “green” energy, particularly wind and solar energy, the solution to our climate and energy problems? Or should we be relying on things like natural gas, nuclear energy, and even coal for our energy needs and environmental obligations? Alex Epstein of the Center for Industrial Progress explains.
NEW INFORMATION on the low frequency noise made by wind farms shows a direct connection to the health of ones heart.
Interviewed in Allgemeine-Zeitung, Vahl said that the Low Frequency Noise generated by wind turbines can weaken the heart muscle and change the blood flow.
Prof. Wahl became interested in infrasound and its impact on health after a friend who lived near a wind park had complained of feeling continuously sick. It is known that all around the world people living near wind parks often experience health issues – some being severe.
The group led by Prof. Vahl conducted an experiment to find out if infrasound has an effect on heart muscle strength. Under the measurement conditions, the force developed by isolated heart muscle was up to 20 percent less.
The strength of the heart muscle is important in the event the aortic valve becomes caked up and thus more narrow. According to Dr. Vahl: “This changes the blood flow and the flow noise.”
Now researchers are discussing whether these changes can pose an additional risk to the function of the heart, the Allgemeine Zeitung reported.
Citing the results, Prof. Vahl said: “The fundamental question of whether infrasound can affect the heart muscle has been answered.”
The researchers conclude: “We are at the very beginning, but we can imagine that long-term impact of infrasound causes health problems. The silent noise of infrasound acts like a heart jammer.”
There has long been anecdotal evidence that wind turbines are injurious to human health. I first heard these stories myself on a visit to Australia in 2012 when I met several people who had experienced serious health problems from the effects of wind turbine infrasound – and had been forced to abandon their homes. Subsequently, I also spoke to people in the UK who were also victims of Wind Turbine Syndrome.
You can read the first report I wrote on the subject here.
The wind industry is a massive class action suit waiting to happen. [Especially now that the World Health Organisation has confirmed the health risks – which, of course, just like Big Tobacco, Big Wind has been covering up for years] Indeed, of all the scandals to emerge from the great global warming scam, the wind industry is in my view the worst….
GOOGLE
This realization has hit Google scientists squarely in the common sense thinking center. Google (and Apple) had grand dreams of going 100%-powered by alternative means. They have all but given up:
“Even if one were to electrify all of transport, industry, heating and so on, so much renewable generation and balancing/storage equipment would be needed to power it that astronomical new requirements for steel, concrete, copper, glass, carbon fibre, neodymium, shipping and haulage etc etc would appear. All these things are made using mammoth amounts of energy: far from achieving massive energy savings, which most plans for a renewables future rely on implicitly, we would wind up needing far more energy, which would mean even more vast renewables farms – and even more materials and energy to make and maintain them and so on. The scale of the building would be like nothing ever attempted by the human race.”
I must say I’m personally surprised at the conclusion of this study. I genuinely thought that we were maybe a few solar innovations and battery technology breakthroughs away from truly viable solar power. But if this study is to be believed, solar and other renewables will never in the foreseeable future deliver meaningful amounts of energy.
Low-Tech Magazine notes that new “research shows, albeit unintentional, that generating electricity with solar panels can also be a very bad idea. In some cases, producing electricity by solar panels releases more greenhouse gases than producing electricity by gas or even coal.” Continuing, they point out that…
Producing electricity from solar cells reduces air pollutants and greenhouse gases by about 90 percent in comparison to using conventional fossil fuel technologies, claims a study called “Emissions from Photovoltaic Life Cycles”, to be published this month in “Environmental Science & Technology”. Good news, it seems, until one reads the report itself. The researchers come up with a solid set of figures. However, they interpret them in a rather optimistic way. Some recalculations (skip this article if you get annoyed by numbers) produce striking conclusions.
Solar panels don’t come falling out of the sky – they have to be manufactured. Similar to computer chips, this is a dirty and energy-intensive process. First, raw materials have to be mined: quartz sand for silicon cells, metal ore for thin film cells. Next, these materials have to be treated, following different steps (in the case of silicon cells these are purification, crystallization and wafering). Finally, these upgraded materials have to be manufactured into solar cells, and assembled into modules. All these processes produce air pollution and heavy metal emissions, and they consume energy – which brings about more air pollution, heavy metal emissions and also greenhouse gases.
So an electrical grid powered by alternative fuels or “renewable energy is really a pipe-dream. Take the projections of that giant bird killing plant on the California-Nevada border:
….A solar power plant in the Mojave Desert that’s attracted negative attention for its injuries to birds is producing a whole lot less power than it’s supposed to, according to Energy Department figures.
According to stats from the U.S. Energy Information Administration, a number-crunching branch of the U.S. Department of Energy, the Ivanpah Solar Electric Generating System in San Bernardino County has produced only about a quarter of the power it’s supposed to, with both less than optimal weather and apparent mechanical issues contributing to the shortfall.
[….]
As Danko points out, Ivanpah’s owners have recently sought extensions on the repayment schedule for the $1.6 billion in government-backed loans that paid for Ivanpah’s construction, hoping to delay writing checks until the firms can secure a government grant they hope to use to pay down the loan… .
In an excellent post linking to a German documentary (30-minutes) and study showing the devastation to Chili of lithium mining, we find the following:
German ZDF public television recently broadcast a reportshowing how electric cars are a far cry from being what they are all cracked up to be by green activists.
The report titled: “Batteries in twilight – The dark side of e-mobility” [now not available] shows how the mining of raw materials needed for producing the massive automobile batteries is highly destructive to the environment. For example, two thirds of the cobalt currently comes from the Congo, where the mining rights have been acquired by China. Other materials needed include manganese, lithium and graphite.
Every electric car battery needs about 20 – 30 kg of lithium.
The mining of the raw materials often takes place in third world countries where workers are forced to work under horrendous conditions and no regard is given to protecting the environment. When it comes to “going green”, it seems everything flies out the window….
The production of lithium through evaporation ponds uses a lot of water – around 21 million litres per day. Approximately 2.2 million litres of water is needed to produce one ton of lithium. (EURO NEWS)
AGAIN… here is a Facebookpost of the same thing regarding Lithium Fields:
This is a Lithium leach field.
This is what your Electric Car batteries are made of.
It is so neuro-toxic that a bird landing on this stuff dies in minutes.
Take a guess what it does to your nervous system?
Pat yourself on the back for saving the environment.
Chile, 2nd largest lithium producer, is having water-scarcity problems as this technology takes so much water to produce battery-grade lithium. 2000 tons: 1 ton.
And the current version of the “inflation reduction act” wants 100% of EV battery components produced in the US.
Lead, nickel, lithium, cadmium, alkaline, mercury and nickel metal hydride.
Batteries are a collection of things that are extremely deadly.
Alternative fuels/energy is a DIRTY BUSINESS… but the left who live in the seclusion of the New York Times and MSNBC would never know this. I can show a graph showing skyrocketing carbon emissions worldwide for the past decade and that the temperature has dropped during this time by a small amount, and it is like showing them instructions to build an IKEA bookcase with instructions written in Gaelic!
What about the impact and supply of the materials needed to produce batteries? TreeHugger has a good post that mentions some of these environmental pitfalls. These issues involve many devices we use daily (cell phones, lap-top computers, rechargeable batteries, etc.), but add to this burden a mandated or subsidized car industry:
…lithium batteries take a tremendous amount of copper and aluminum to work properly. These metals are needed for the production of the anode & the cathode, cables and battery management systems. Copper and aluminum have to be mined, processes and manufacturing which takes lots of energy, chemicals and water which add to their environmental burden.
[….]
First of all, this study emphasizes that there would be less Lithium available than previously estimated for the global electric car market. It also states the fact that some of the largest concentrations of Lithium in the world are found in some of the most beautiful and ecologically fragile places, such as The Salar de Uyuni in Bolivia. The authors note:
“It would be irresponsible to despoil these regions for a material which can only ever be produced in sufficient quantities to serve a niche market of luxury vehicles for the top end of the market. We live in an age of Environmental Responsibility where the folly of the last two hundred years of despoilment of the Earth’s resources are clear to see. We cannot have “Green Cars” that have been produced at the expense of some of the world’s last unspoiled and irreplaceable wilderness. We have a responsibility to rectify our errors and not fall into the same traps as in the past.”
[….]
The report estimates that there would be less Lithium available than previously estimated for the global electric car market, as demand is rising for competing markets, such as cellular telephones and other electronic devices. At the same time, due to a great concentration of Lithium found in Chile, Bolivia and Argentina (70% of the world’s deposits), the United States and other developed countries needing the material will be subject to geopolitical forces similar to those they have already encountered from the member countries of OPEC…
Click HERE to go to larger file (use mouse wheel to zoom in)
In an excellent article we see the projected demands on other metals involved in the battery and transit goals:
….Regarding the demand for the different minerals, in the case of aluminum, according to our results, the demand for minerals from the rest of the economy would stand out, with the requirement for batteries having little influence. Copper would have a high demand from the rest of the economy, but it would also have a significant demand from vehicles, infrastructure and batteries. Cobalt would be in high demand because of the manufacture of batteries with the exception of the LFP battery that does not have this mineral, in the case of its demand from the rest of the economy it can be stated that it would be important but less influential than the demand for batteries. Lithium would have very high requirements from all the batteries and with a reduced demand from the rest of the economy. Manganese would have an important but contained demand coming from LMO and NMC batteries, since the requirements for this mineral would stand out in the rest of the economy. Finally, nickel would have a high demand from NMC and NCA batteries, but its main demand would come from the rest of the economy.
The batteries that would require the least materials are the NCA and LFP batteries. The NMC battery has been surpassed in performance and mineral usage by the NCA. The LiMnO2 battery has a very poor performance, so it has been doomed to disuse in electric vehicles. In addition, the LFP battery, the only one that does not use critical materials in the cathode (other than lithium), also has poor performance, requiring very large batteries (in size and weight) to match the capacity and power of batteries using cobalt.
Charging infrastructure, rail and copper used in electrified vehicles could add up to more than 17% of the copper reserve requirement in the most unfavourable scenario (high EV) and 7% in the most favourable (degrowth), so these are elements that must be taken into account…..
Are Electric Vehicles really clean? | They run on dirty energy and blood of children as young as 6. | Electric cars drive human rights abuse and child labour. | China is one of the villains in this story. | Are electric carmakers equally guilty too? | Palki Sharma Upadhyay tells you.
…. lithium is also not the only battery ingredient with a dark side. Perhaps the darkest of all is cobalt, which is commonly used, alongside lithium, in the batteries of many electric vehicles.
Worse still, UNICEF estimates 40,000 of the workers in these mines are children under the age of 18, with some as young as 7 years old. Cobalt mining also comes with serious health risks. Chronic exposure to dust containing cobalt can cause the potentially fatal lung disease “hard metal lung disease.” Many fatal accidents have also been caused by mines not being constructed or managed safely.
Clearly then, in the face of such widespread environmental damage and human rights abuses, the ethics of electric vehicles is far more complicated than the expensive car adverts and glowing newspaper headlines would have us believe…..
This is pretty lame. I wonder how many people think this power just comes out of the ground? Perhaps these greentards think this is magic solar power that is leached from the sun and stored in invisible floating Tesla flywheels. Bet that went right over most heads. Anyway this is a real problem for shoppers at WalGREENS. Weather they are asked or not they are subsidizing this climate hoax and paying for the fuel that is getting these FARCE-CARS from point “a” to point “b.”
And there are a lot of tax-monies/incentives used even for the above charging stations. Wiki has some pretty good references in regards to this:
Plug-in conversion kits
The 2009 ARRA provided a tax credit for plug-in electric drive conversion kits. The credit is equal to 10% of the cost of converting a vehicle to a qualified plug-in electric vehicle and in service after February 17, 2009. The maximum amount of the credit is $4,000. The credit does not apply to conversions made after December 31, 2011.[142][149]
Charging equipment
There was (through 2010) a federal tax credit equal to 50% of the cost to buy and install a home-based charging station with a maximum credit of US$2,000 for each station. Businesses qualified for tax credits up to $50,000 for larger installations.[144][150] These credits expired on December 31, 2010, but were extended through 2013 with a reduced tax credit equal to 30% with a maximum credit of up to US$1,000 for each station for individuals and up to US$30,000 for commercial buyers.[][]
Another factor regarding optimal output and electric vehicles is hot and cold weather. I will let a wonderful WIRED MAGAZINE article explain:
…EV drivers have other factors to consider in winter weather: How far they can go, and how long it will take them to recharge.
Cold temperatures can hurt both, especially when it gets as severe as Winter Storm Jaden, which has triggered states of emergency across the country and will subject more than 70 percent of the US population to subzero temperatures over the next few days. That’s because the lithium-ion batteries that power EVs (as well as cellphones and laptops) are very temperature sensitive.
“Batteries are like humans,” says Anna Stefanopoulou, director of the University of Michigan’s Energy Institute. They prefer the same sort of temperature range that people do. Anything below 40 or above 115 degrees Fahrenheit and they’re not going to deliver their peak performance. They like to be around 60 to 80 degrees. As the temperature drops, the electrolyte fluid inside the battery cells becomes more sluggish. “You don’t have as much power when you want to discharge,” says Stefanopoulou. “The situation is even more limited when you want to charge.”
Modern cars are designed to take that into account, with battery thermal management systems that warm or cool a battery. But while an internal combustion engine generates its own heat, which warms the engine and the car occupants, an EV has to find that warmth somewhere else, either scavenging the small amount of heat that motors and inverters make or running a heater. That takes energy, meaning there’s less power available to move the wheels.
Additionally, to protect the battery—the most expensive component of an EV—the onboard computer may limit how it’s used in extreme low temperatures. The Tesla Model S owners manual warns: “In cold weather, some of the stored energy in the Battery may not be available on your drive because the battery is too cold.”…
In a conversation between EV owners and others at WATTS UP WITH THAT, a comment that sums up the above but in a short paragraph, reads:
It’s not just bigger, it’s huge. Unlike an IC powered car, where cold weather won’t really affect it much, an electric car is severely disadvantaged. Drop outside temperatures down to -10 degrees F (not uncommon in Chicago) and that 300 mile range drops to 75 miles. Commute 20 miles to work on a frigid winter morning and 20 miles home in slooow traffic in a snowstorm with lights, wipers, and defroster on hi, and you just might not make it.
And another story of Minnessota doo gooders plans failiung them:
The Twin City buses were supposed to go 150 miles on a single charge, but the actual range was closer to 75 miles.
Minnesota cities worked to shift toward clean energy in public transit, but complications from acquired electric vehicles have prompted significant overhauls and additional expenditures to keep the buses operational.
In Duluth, Minn., technicians installed diesel-powered heaters on electric buses as the city’s electric fleet struggled to perform. In 2015, the city received a $6.3 million federal grant, according to MinnPost, for seven battery-electric buses from Proterra, which were delivered in 2018.
Proterra, which went bankrupt in August, sold 550 buses. The company enjoyed outspoken support from the Biden administration, but the buses have given transit districts across the country extensive problems. Many of the buses, which were purchased with sizable federal grants, have broken down, and repairs have been slow going as a result of a lack of parts.
The Proterra buses in Duluth struggled to make it up steep hills and to keep riders warm in winter. Proterra technicians installed diesel-powered heaters on the buses and increased the battery capacity so they could handle steep hills and subzero temperatures, which degrade the performance of electric vehicles.
In the Twin Cities, meanwhile, the transit department received another $1.7 million federal grant for eight more electric buses from Canada-based New Flyer. The Twin City buses were supposed to go 150 miles on a single charge, but the actual range was closer to 75 miles. The buses further failed to meet 20% of their scheduled operating miles because of needed battery replacements. In 2021, the buses were out of service for most of the year because of charging station issues at the garage…..
Reality is a Bitch!
THE DAILY MAIL notes that “[e]lectric cars have 40 per cent less range when the temperature dips below freezing, new research has revealed.” Wow. Canadians are well-aware of the issue — as are the people in the northern states.
IN~OTHER~WORDS, this “venture is a giant boondoggle and these charging-stations would never survive outside of transferring wealth from business owners and those that drive the economy to cover this failure of a “choice.”
AGAIN:
“A fundamental principle of information theory is that you can’t guarantee outcomes… in order for an experiment to yield knowledge, it has to be able to fail. If you have guaranteed experiments, you have zero knowledge” — George Gilder
Interview by Dennis Prager {Editors note: this is how the USSR ended up with warehouses FULL of “widgets” (things made that it could not use or people did not want) no one needed in the real world. This economic law enforcers George Gilder’s contention that when government supports a venture from failing, no information is gained in knowing if the program actually works. Only the free-market can do this. [See my post on Capitalism.]}
Are we heading toward an all-renewable energy future, spearheaded by wind and solar? Or are those energy sources wholly inadequate for the task? Mark Mills, Senior Fellow at the Manhattan Institute and author of The Cloud Revolution, compares the energy dream to the energy reality.
Armstrong and Getty discuss certain states push to outlaw gas cars. During the discussion talk about what it would take to accomplish such a feat makes one wonder just how much the Left hates our planet. In a previous post I note some of these issues as well (Marie Antoinette Democrats: Let Them Drive EVs). One of the guys references a RUSH song and is the reason for the video thumbnail.
Red Barchetta | RUSH
LYRICS
My uncle has a country place No one knows about He says it used to be a farm Before the Motor Law And on Sundays I elude the eyes And hop the turbine freight To far outside the wire Where my white-haired uncle waits
Jump to the ground As the turbo slows to cross the borderline Run like the wind As excitement shivers up and down my spine Down in his barn My uncle preserved for me an old machine For 50 odd years To keep it as new has been his dearest dream
I strip away the old debris That hides a shining car A brilliant red Barchetta From a better, vanished time We fire up the willing engine Responding with a roar Tires spitting gravel I commit my weekly crime
Wind in my hair Shifting and drifting Mechanical music Adrenaline surge
Well-weathered leather Hot metal and oil The scented country air Sunlight on chrome The blur of the landscape Every nerve aware
Suddenly ahead of me Across the mountainside A gleaming alloy air-car Shoots towards me, two lanes wide I spin around with shrieking tires To run the deadly race Go screaming through the valley As another joins the chase
Drive like the wind Straining the limits of machine and man Laughing out loud with fear and hope I’ve got a desperate plan At the one-lane bridge I leave the giants stranded at the riverside Race back to the farm To dream with my uncle at the fireside
This was floating around Facebook, But I wanted to get something a tiny bit more substantial than FB. To wit: THE VERMONT DAILY CHRONICLE:
Tesla said it best in referring to batteries as an Energy Storage System. They do NOT make electricity – they store electricity produced elsewhere, primarily by coal, uranium, natural gas-powered plants, or diesel-fueled generators. So, to say an electric vehicle (EV) is a zero-emission vehicle…not. Also, since forty percent of the electricity generated in the U.S. is from coal-fired plants, it follows that forty percent of the EVs on the road are in fact coal-powered…let that sink in.
Einstein’s formula, E=MC2, tells us it takes the same amount of energy to move a five-thousand-pound gasoline-driven automobile a mile as it does an electric one. The only question again is what produces the power? To reiterate, it does not come from the battery; the battery is only the storage device, like a gas tank in a car.
There are two orders of batteries, rechargeable, and single use. The most common single use batteries are A, AA, AAA, C, D. 9V, and lantern types. Those dry-cell species use zinc, manganese, lithium, silver oxide, or zinc and carbon to store electricity chemically. Please note they all contain toxic, heavy metals. Rechargeable batteries only differ in their internal materials, usually lithium-ion, nickel-metal oxide, and nickel-cadmium. The United States uses three billion of these two battery types a year, and most are not recycled; they end up in landfills. If you throw your small, used batteries in the trash, they will continue to leak like the ooze in a ruined flashlight. All batteries eventually rupture; it just takes rechargeable batteries longer to end up in the landfill.
In addition to dry cell batteries, there are also wet cell ones used in automobiles, boats, and motorcycles. The good thing about these is that ninety percent of them are recycled. Unfortunately, we do not yet know how to recycle single-use ones properly.
But that is not the half of it. For those excited about EV, a closer look at batteries along with windmills and solar panels is highly recommended. These three technologies share environmentally destructive embedded costs.
Everything manufactured has two costs associated with it: embedded costs and operating costs. Embedded costs are those that happen before point of sale such as fuel costs, equipment, labor, transportation, etc. For example, a typical EV battery weighs one thousand pounds, about the size of a travel trunk. It contains twenty-five pounds of lithium, sixty pounds of nickel, 44 pounds of manganese, 30 pounds cobalt, 200 pounds of copper, and 400 pounds of aluminum, steel, and plastic.
Inside are over 6,000 individual lithium-ion cells. This should concern you. All those toxic components come from mining. For instance, to manufacture each EV auto battery, you must process 25,000 pounds of brine for the lithium, 30,000 pounds of ore for the cobalt, 5,000 pounds of ore for the nickel, and 25,000 pounds of ore for copper.
All told, it would take 500,000 pounds of the earth’s crust for just one battery. Sixty-eight percent of the world’s cobalt, a significant part of a battery, comes from the Congo. Their mines have no pollution controls, and they employ children who die from handling this toxic material.
Despite the fact California is the only state which requires batteries be recycled, they are building the largest battery in the world near San Francisco which they intend to power from solar panels and windmills. This construction project is creating an environmental disaster.
The main problem with solar arrays is the chemicals needed to process silicate into the silicon used in the panels. To make pure enough silicon requires processing it with hydrochloric acid, sulfuric acid, nitric acid, hydrogen fluoride, trichloroethane, and acetone. In addition, they also need gallium, arsenide, copper-indium-gallium-diselenide, and cadmium-telluride which are highly toxic. Also, silicone dust is a hazard to the workers, and the panels cannot be recycled.
Windmills are the ultimate in embedded costs and environmental destruction. Each weigh 1688 tons (the equivalent of 23 houses) and contains 1300 tons of concrete, 295 tons of steel, 48 tons of iron, 24 tons of fiberglass, and the hard to extract rare earths neodymium, praseodymium, and dysprosium. Each blade weighs 81,000 pounds and will last only 15 to 20 years. The used blades cannot be recycled. And sadly, both solar arrays and windmills kill birds, bats, sea life, and migratory insects.
There may be a place for these technologies, but looking beyond the myth of zero emissions, it is predicted EVs, solar panels and windmills will be abandoned once the embedded environmental costs of making and replacing them become more apparent.
This is always a favorite of mine… and remember, I have a rather large post detailing ARE ELECTRIC CARS “CLEAN”?.
A Previous Post
Vice President Joe Biden aims to be the most progressive president on the issue of climate change. The man who spent most of 2020 hiding in the basement believes the future of energy is renewable energy like wind and solar. Biden should go back to the basement, watch Michael Moore’s “Planet of the Humans,” and rethink his advocacy for renewable energy. Wind and solar are not the answer, and the idea of converting our fossil fuel-based economy into renewables could be a devastating take-down to society.
Remember when Google joined the common sense era?
We came to the conclusion that even if Google and others had led the way toward a wholesale adoption of renewable energy, that switch would not have resulted in significant reductions of carbon dioxide emissions. Trying to combat climate change exclusively with today’s renewable energy technologies simply won’t work; we need a fundamentally different approach.
[…..]
“Even if one were to electrify all of transport, industry, heating and so on, so much renewable generation and balancing/storage equipment would be needed to power it that astronomical new requirements for steel, concrete, copper, glass, carbon fibre, neodymium, shipping and haulage etc etc would appear. All these things are made using mammoth amounts of energy: far from achieving massive energy savings, which most plans for a renewables future rely on implicitly, we would wind up needing far more energy, which would mean even more vast renewables farms – and even more materials and energy to make and maintain them and so on. The scale of the building would be like nothing ever attempted by the human race.”
Google Joins the Common Sense Crew On Renewable Energies ~ Finally! (RPT)
What It Would Really Take to Reverse Climate Change: Today’s renewable energy technologies won’t save us. So what will? (SPETRUM)
Shocker: Top Google Engineers Say Renewable Energy ‘Simply won’t work’ (WATTS UP WITH THAT)
Polluting the Beauty and Cleanliness Of Our World With Renewable Energy (RPT)
Wind and Solar More Harmful To Environment Than Helpful (RPT)
…Do Electric Vehicles really give off zero emissions?
While electric vehicles (EVs) do not emit CO2 like traditional combustion engine cars, they actually do still have particulate emissions that pose a substantial threat to clean air.
Batteries required to power cars with no assistance from a traditional engine are quite heavy and place a much larger burden on tires than traditional cars.
As the EVs rack up miles, particulates from tires, brake dust, and re-agitated roadway pollutants are all mixed into the environment, creating potentially harmful air quality.
As the increased workload on braking systems of EVs became a known problem, however, some electric cars have developed regenerative braking systems to curb the increase of air pollutants.
Where does all that recharging power come from?
While there are public charging stations scattered all over the world that tout a variety of renewable energy sources, the majority of EV charging is done at home by the vehicle owner.
A single overnight charge for the car can equate to running a large appliance for over a month, depending on the size of the vehicle and the intended battery range.
While renewable energy sources have increased in recent years, solar power still accounts for less than 2% of the total U.S. energy production.
Wind and hydropower account for about 14% of total energy output and nuclear power represents just under 20%.
But it is fossil fuels like coal and natural gas that power the majority of American homes and businesses with nearly 63% of all energy generation in the United States.
This means that the overnight charge for your environmentally friendly car is actually very likely dependent on fossil fuels, increasing emissions as the battery “fills up,” even though no fuel is going into a gas tank.
Producing and disposing of large, powerful batteries for EVs has a huge environmental impact
While the tailpipe emissions from EVs are non-existent, the effort to achieve the green-friendly ride requires a much heftier CO2 output than traditional cars.
In fact, a battery-only (nonhybrid) vehicle uses 8.8 CO2 tons on average to produce which is over 2 tons greater that of a traditional fuel or diesel-consuming vehicle.
Forty-six percent of all emissions generated by a battery-operated vehicle occurs at the time of production before the EV has even traveled to the dealership.
According to a report by Ricardo, this emissions-heavy production process poses a significant threat to the climate.
Batteries for EVs also have a limited life, which poses another set of problems for the future of clean energy cars.
For larger vehicles like vans and buses, batteries are estimated to need replacement every few years. Smaller cars may use their batteries for 7-10 years, depending on a variety of factors.
But disposing of old batteries is no simple task and is one that most countries are ill-prepared to deal with.
As they cannot be taken to landfills because of their toxic acid components, they must be recycled, which is an expensive, labor-intensive process.
Currently, regulations are being considered by the United States and the European Union for battery disposal. China places the burden of disposal on the car manufacturers….
I wanted to share two articles to exemplify and introduction to a HERITAGE FOUNDATION article about competition between states. The first is this article found over at HOT AIR, and it shows the damage that distortions to supply and demand for some sort of egalitarian or environmental concern can have on productive endeavors that increase the wealth of the common man. Wealth creation in other words:
If you know anything about New York in the modern era (both the state and the Big Apple), you’re likely aware that it’s not exactly a friendly landscape for the oil and gas industry. The “Keep it in the ground” crowd has a lot of influence with the Democrats who control the government. That[‘s] why, back in 2013, when the new Constitution Pipeline was proposed to carry natural gas from Pennsylvania’s rich shale oil fields to New York, activists were able to block the construction despite it already having been approved by federal regulators. Similarly, when National Grid (the local energy consortium) requested an extension to the Williams Co. Transco pipeline, they were also tied up because of the outcry from environmental activists.
Here comes the surprise that nobody could have possibly seen coming. The city and its surrounding downstate region are still expanding with new construction projects, but their energy suppliers have told them that they will not be able to supply natural gas to any new customers because they’re already at capacity. (NY Post)
Long Islanders were recently hit with bad news. National Grid, which provides natural gas for nearly 600,000 Long Island residents, announced it won’t be able to provide fuel for new customers if the proposed Williams Co. Transco pipeline expansion isn’t approved by May 15.
Earlier this year, energy company Con Ed imposed a similar moratorium on new natural-gas service in parts of Westchester County due to limited capacity on existing pipelines. These crises are completely avoidable…
For too long, politicians like Gov. Andrew Cuomo and their ill-considered energy policies have hampered the development of safe, efficient energy infrastructure, subjecting American consumers to unnecessarily high energy costs and unreliable service.
So you don’t want pipelines, eh? But you say you’d like to build more houses, apartments and office buildings? Well, you’d better figure out how to cook your food and heat your living spaces with solar panels pretty quickly because (to borrow a phrase from GoT) winter is coming. And so is lunchtime…..
The second article deals with on the one hand a Utopian [mis]understanding of alternative energy and it’s own “supply-and-demand” features built into the environmentalist hypothesis (that in the end do not fit reality). I have said for years that the supply of heavy metals and lithium which are the main ingredient to make power cells for cell phones and laptops (small/reasonable), to a whole swath of them in rows in electric cars (unreasonable).
Let me explain why I just said “unreasonable.” These ventures with Tesla and other manufacturers of electric vehicles are not a “supply-and-demand” by the free market. These ventures into wind, solar, and electric vehicles ONLY EXIST because our government has funded their “viability” in a world that if left to stand on their own would go out of business. The technology is old and never really worked, and the only people that buy Teslas, as an example, are the rich, and they are given a form of welfare to do so. (In other words, the rich are getting a form of bailout by environmentalists that say the rich are ruining the environment.)
“Green” advocates aspire to power the entire U.S. electrical system with wind and solar energy. How are they going to do that, given that wind turbines produce electricity only around 40% of the time, and solar panels produce electricity, in most areas, less than 25% of the time? The truthful answer is that whenever utilities build (or contract with) a wind farm or a solar installation, they also build a natural gas plant to provide electricity during the majority of the time when the “green” resources are idle. This is why wind and solar energy, unlike nuclear power, actually lock us into fossil fuel use for the indefinite future.
Of course, green power advocates don’t admit that they plan on using natural gas forever. They hold out hope that electricity produced by wind and solar facilities will be stored in batteries–giant ones, I assume–so that it can be used when the wind doesn’t blow and the sun doesn’t shine. No such batteries exist, of course, which is why they are not already in use. And any existing or foreseeable battery technology would rely on vast amounts of lithium, which must be mined.
Recently, the Australia-based firm Battery Mineral Resources Ltd. asked the federal government for permission to drill four exploratory wells to see if the hot, salty brine beneath the valley floor contains economically viable concentrations of lithium. …
The drilling request has generated strong opposition from the Center for Biological Diversity, the Sierra Club and the Defenders of Wildlife, who say the drilling project would be an initial step toward the creation of a full-scale lithium mining operation.
That is the idea, I suppose.
[….]
Does it matter? There is great demand for lithium used in existing technologies–phones, laptops, electric vehicles, and so on. But the idea that batteries of any foreseeable design will combine with wind turbines and solar panels to satisfy America’s need for electricity is a fantasy. For one thing, batteries of the requisite capacity would be prohibitively expensive. It has been calculated that, using the most advanced battery technology on the market, Tesla’s 100 MW, 129 MWh battery in use in South Australia, it would cost $133 billion to store the electricity needs of my state, Minnesota, for 24 hours. That is more than one-third of the state’s annual GDP…..
AGAIN, the immutable law of supply-and-demand will come into play in rising prices of “alternative energy” and scarcity of availability… based on egalitarian environmental concerns.N O W, here is the intro to the HERITAGE FOUNDATION article noting the differences between blue-state policies and red-state policies… much of which is based on supply-and-demand regarding energy needs:
The competition among the states is becoming more intense as businesses become more mobile. Toyota and Boeing are two high-profile employers in America that have crossed state borders because of the policy advantages of one state over another. Toyota moved from high-income-tax California to no-income-tax Texas, and Boeing, based in Washington, a forced-union state, opened a new plant in South Carolina, which has a right-to-work (RTW) law. Texas Governor Rick Perry and California Governor Jerry Brown have openly sparred in recent years about which state is more pro-business. Interstate competition allows governors and legislators to learn from each other about which policies create wealth and which policies diminish wealth inside their borders.
In recent years, governors have generally divided into two competing camps, which we call the “red state model” and the “blue state model,” raising the stakes in this interstate competition. The conservative red state model is predicated on low tax rates, right-to-work laws, light regulation, and pro-energy development policies. This policy strategy is now common in most of the Southern states and the more rural and mountain states. Meanwhile, the liberal blue state model is predominantly found in the Northeast, California, Illinois, Minnesota, and, until recently, Michigan and Ohio. The blue states have doubled down on policies that include high levels of government spending, high income tax rates on the rich, generous welfare benefits, forced-union requirements, super-minimum-wage laws, and restrictions on oil and gas drilling.
In no area are the effects of these competing models more evident than in tax policy changes of recent years. California, Connecticut, Hawaii, Illinois, Minnesota, New York, and Oregon have raised their income tax rates on “the rich” since 2008.[1] In four of these states, the combined state and local income tax rate exceeds 10 percent, reaching 13.3 percent in California and 12.7 percent in New York.[2] Meanwhile, the “red states” of Arizona, Arkansas,[3] Kansas,[4] Missouri,[5] North Carolina, Oklahoma, and Idaho[6] have cut their tax rates. This has widened the income tax differential between blue states and red states for businesses and upper-income families.
Similarly, red states such as Oklahoma, Texas, and North Dakota have embraced the oil and gas drilling revolution in America. Blue states such as New York, Vermont, Illinois, and California have resisted it. Blue states have raised their minimum wages; red states generally have not.
The answer is that the states’ policy choices on taxes, regulation, energy policy, labor laws, educational choice, and so forth have a large and in most cases a statistically significant impact on the prosperity of states over each 10-year time frame examined on a rolling basis from 1970 to 2012. There are always exceptions to the rule, but in most cases the red state model is substantially outperforming the blue state model.
We find in particular that two policies matter most. Right-to-work states substantially outperform non–right-to-work states, and states with no or low income taxes have a much better economic record than high-income-tax states…..