bookmark_borderThe Cost of Climate Change: USD 178 trillion

“Time is no longer running out to act on climate change; it’s up,” reports Deloitte. Unchecked climate change could cost the global economy USD 178 trillion over the next 50 years. “The human costs would be far greater: a lack of food and water, a loss of jobs, worsening health and well-being, reduced standard of living.”

Time is no longer running out to act on climate change; it’s up. Download the report.

Time to act—accelerating to zero

With global emissions continuing to rise over the last two decades, we have squandered the chance to decarbonize at our leisure. The global economy needs to execute a rapid, coordinated, sequenced energy and industrial transition that will play out in distinct phases.

* Bold climate plays: Coordination and collaboration set the stage for decarbonization by formulating policies and frameworks for a low-carbon future.
* Accelerating to net zero: Deep investment across systems instigates structural economic adjustments. The decline of emissions-intensive industries would create growing pains for some economies.
* Turning point: Investment in structural economic adjustment is almost complete. Economies would realize the dividend of the transformation and experience net positive growth.
* Low-emission future: Interconnected, low-carbon systems underpin a clean economy that would grow at an increasingly faster rate than its carbon-intensive alternative.

The Human Induced Climate Change Experiment

bookmark_borderChina Drought: Shortage of Hydropower

Al Jazeera reports, Chinese factories close as drought hits hydropower. “Factories in China’s southwest have shut down after reservoirs used to generate hydropower ran low in a worsening drought.” Unfortunately, the factory shutdowns include most of the global solar panel production, as well as Tesla electric vehicles.

Leave power for the people,” said an order from the provincial government.

Barron’s reports, “One of the suppliers with capacity in the region is the largest EV battery maker in the world — Contemporary Amperex Technology Co Ltd (300750.China), better known as CATL. That company has idled some production in Sichuan, according to reports. GM and SAIC have a joint venture that produces a lot of small electric vehicles in China.”

“A reduction in the supply of parts would affect nearly all auto makers. The industry has dealt with a lot in recent years, including Covid-19 and a semiconductor shortage. Drought is just another issue in a long line of recent problems, and it isn’t the first act of God to hit the sector. Back in March 2021, a fire at a chip plant in Japan worsened the semiconductor shortage.”

The Human Induced Climate Change Experiment

bookmark_borderColorado River: Catastrophic Collapse

Water wars… coming to a state near you:
“A 23-year drought has been drying up the Colorado River and the effects of climate change, both in terms of extreme heat and low precipitation, are making that more severe.”
“For the second year in a row, the federal government said Arizona, Nevada and Mexico will have to reduce their water consumption.”

90% of the U.S. lettuce is produced in Arizona using water from the Colorado River. In 2021, Arizona had to drastically reduce water consumption. In 2022, Arizona is reducing water consumption from the Colorado by another 21%.

CNBC reports, Feds call for water cutbacks ‘to avoid a catastrophic collapse’ of Colorado River.
“For the second year in a row, the federal government said Arizona, Nevada and Mexico will have to reduce their water consumption.
A 23-year drought has been drying up the Colorado River and the effects of climate change, both in terms of extreme heat and low precipitation, are making that more severe.”

“Every sector in every state has a responsibility to ensure that water is used with maximum efficiency. In order to avoid a catastrophic collapse of the Colorado River System and a future of uncertainty and conflict, water use in the Basin must be reduced,” said Tanya Trujillo, assistant secretary for water and science at the Department of Interio.

The Human Induced Climate Change Experiment

bookmark_borderClimate Change: A Hard Rain Is Falling

by Daniel Brouse and Sidd Mukherjee

In a vacuum, everything falling to earth accelerates at 9.8 m/s^2 (32ft/s^2) [the downward speed increases at 9.8 m/s (32 ft/s) every second.]

Rain accelerates down to earth initially at 9.8 m/s^2, but air resistance slows the drops to a constant speed called the terminal velocity which depends on the size of the drop. “When all the parameters are considered the terminal velocity of a typical raindrop is calculated to be about 9 meters per second or 20 mph. A smaller raindrop of radius 0.15 cm has a terminal velocity of about 7 meters per second or 16 mph.” (1)

Velocity is only one factor in calculating the momentum of rain. The mass of rain also factors into the momentum.
p = mv
p = momentum
m = mass
v = velocity

“Climate change can affect the intensity and frequency of precipitation. Warmer oceans increase the amount of water that evaporates into the air. When more moisture-laden air moves over land or converges into a storm system, it can produce more intense precipitation — for example, heavier rain and snowstorms.” (2)

Part of the increasing momentum is transferred to the sides and upward increasing wind turbulence, as well as updrafts.

Most of the momentum is transferred upon impact. You may notice the rain bouncing higher off the streets and sidewalks. As rain becomes more massive, it will have greater momentum when it hits the ground. Ground without groundcover will be hit harder causing more damage. The groundcover will also be hit harder causing more damage.
* Concrete and asphalt will sustain more damage.
* Solar panels and roofs will sustain more damage.
* Trees and plants will sustain more damage.
* Food crops will sustain more damage.

1. “What is the speed of falling raindrops?” Kyle Hathcox, Glenn Marsch, David Ward (2001)
2. “Climate Change Indicators: Heavy Precipitation” EPA (2021)

The Human Induced Climate Change Experiment

bookmark_borderGreen Energy Storage: The Sand Battery

by Daniel Brouse

One of the main problems with solar and wind energy is storage. They are great for making electricity when the sun is out or the wind is blowing, but how can you store energy for dark windless nights in the cold of winter of the heat of summer? Neither lead acid nor lithium batteries offer the ability to store electricity on an industrial scale. For applications like the power grid, we need much better and environmentally friendly storage.

The most efficient alternative batteries are based on membrane technology. My favorite is the membrane based battery that can be 100% efficient and never losses it’s ability to hold a charge. There are quite a few other battery types that do not involve mining or exploitation of natural resources. These include underwater bladders that solar electricity pumps up when the sun is out. Then, air is let out to turn turbines when batteries are needed. Another method is buried rocks that are heated up by solar during the sunlight and geothermal energy is used for batteries.

The most practical alternative battery that is currently in use is the sand battery. The battery uses low-grade sand and is charged up with heat made from from solar or wind electricity. The sand stores the heat near 932 degrees Fahrenheit.

“Whenever there’s like this high surge of available green electricity, we want to be able to get it into the storage really quickly,” says Markku Ylönen, one of the founders of Polar Night Energy who have developed a sand battery.

Battery scientist and climate change expert Sidd Mukherjee says, “It’s a heat store… nice and simple. You can get better by using a phase change material like Glauber’s salt, but at the expense of more complexity. Sand is nice and simple. So is water.”

How a sand battery works.
How a sand battery works.

What about solar energy? Can’t we use solar for everything?

How to go net zero now. Free and easy. Save thousands. Save the planet.

The Human Induced Climate Change Experiment

bookmark_borderObtaining Net Zero: Can we use solar to electrify everything?

by Daniel Brouse
June 25, 2022

Q: What about solar energy? Can’t we use solar for everything?

A: Solar can provide all the energy we need for cars. Solar can provide around 50% of our overall electric needs. However, solar will not work for ships and jets… nor steel or cement. Solar could produce green hydrogen to do the job; however, it would be at the expense of providing electricity to the grid. (also green hydrogen is only a 40% efficient way to store solar power.) Some countries are using wind or nuclear to make the green hydrogen. Some countries are creating their green hydrogen in other countries (eg Germany > Australia) using solar, than importing their green hydrogen (hopefully, in green hydrogen powered ships.)

Q: Is hydrogen really “green” or is that green washing from fossil fuel companies? Essentially as I understand hydrogen is more of a form of energy storage- as the water. Also, I’m intrigued by mechanical batteries for long term terrestrial storage more than chemical batteries but exciting to see what chemistry we can come up with.

A: Green hydrogen that is made from solar or wind is green hydrogen. Natural gas (methane) that is used to make hydrogen is blue hydrogen. There is yet another method for transitioning… that is a mix of 80% natural gas (methane) and 20% hydrogen. The importance of all the above is getting from here to then. Most of Europe and the UK (and much of the USA) heat their homes with natural gas. The 80/20 mix can start to be used with the existing infrastructure. Long-term we will need to upgrade the infrastructure to go with pure hydrogen. The reason being — hydrogen is the smallest atom… it can even leak between copper or steel atoms that make a pipe. As for batteries, I’ve been involved with batteries and fuel cells for a long, long time, too. The most efficient batteries are based on membrane technology. There are quite a few other battery types that do not involve mining or exploitation of natural resources. These include underwater bladders that solar pumps up when the sun is out… air is let out to turn turbines when batteries are needed. Another method is buried rocks that are heated up by solar during the sunlight and geothermal energy is used for batteries. My favorite is the membrane based battery that can be 100% efficient and never losses it’s ability to hold a charge.

Q: Things have evolved rapidly in the solar space. 90% reduction in costs in less than a decade. Now we can truly scale this exponentially and power everything relatively cheaply and abundantly, can’t we?

A: Yes, solar and battery are coming down in price quickly. But, the problem you seem to be missing is — we can not power everything with electricity. You can not make cement with electricity. You can not make steel with electricity. A blast furnace requires blast. You can’t fly passenger or cargo jets with electricity. You can’t power a cargo ship with electricity. The storage size exceeds the vessel. You can’t heat Europe, the UK, and the USA on electricity. Neither the grid, the solar resources, nor storage capacity are currently available. We need to think beyond our electricity needs when it comes to solar. That is not our biggest threat. Are largest threats are industry (providing mass consumption fashion and goods emitting that result in greenhouse gases) and land use (eg damage of building dams for hydro, taking down trees to put up solar panels, using bio-fuels that emit more pollution than fossil fuels, etc.) The roles of residential solar and EV transportation are already going good. I’m skeptical we can get people to stop their mass consumption (eg look around). I have more optimism that we can change our land and soil usage. Stop mining 100% Stop drilling 100%. This is obtainable now.

How to go net zero now. Free and easy. Save thousands. Save the planet.

The Human Induced Climate Change Experiment

bookmark_borderHow to Go Net-zero and Beyond

by Daniel Brouse and Sidd Mukherjee
June 22, 2022

Reaching “net zero” is easy, cheap, and saves you thousands of dollars, not to mention, you can help save the planet. Here are some things I’ve done to reach net zero without sacrificing my standard-of-living. In fact, I’ve gone beyond net zero in an attempt to eliminate all my pollution. The easiest way to get started is to conserve energy. Don’t use what you don’t need. Turn things off. Unplug things. Buy low energy use products.

1) Electricity and heat are the largest contributors to greenhouse gas emissions.
* choose an electric company that uses nuclear, solar, and/or wind generation
* insulate your house (Be careful not to over insulate. Indoor pollution is as large a health concern as outdoor pollution. An air-tight house needs an air exchange system with a rigorous filter maintenance program.)
* zone heat. In the winter, keep your main temperature at 50 degrees Fahrenheit and only keep the room you are occupying at a comfortable level (68 degrees). Wear warm clothes.
* an air to air heat exchanger and humidity exchanger (Note that humidity is as important as temperature.)
* plant shade trees and eliminate your need for central air
* plant windscreens, such as, evergreens

2) Food and land use is the second largest contributor to greenhouse gas emissions.
* eat less meat
* reduce transportation of food by buying local
* grow your own garden and windowsill gardens
* plant trees, and more importantly, maintain old growth
* reduce impervious surfaces

3) Transportation is the third largest contributor to greenhouse gas emissions.
* buy an EV or high MPG manual transmission (I get 50 MPG in a 4-wheel drive SUV with a 6 speed.)
* make fewer trips, take public transportation, avoid air travel

4) Invest in green technologies. Here are a few suggestions:
RYCEY — Rolls Royce / mini-nuclear plants
HDRO — Defiance Next Gen H2 ETF / green hydrogen
BE — Bloom Energy Corp / fuel cells, green hydrogen
BLDP — Ballard Power Systems Inc / proton exchange membrane fuel cell, green hydrogen
TOSYY — Toshiba Corp / mini-nuclear plants
BP — British energy / green hydrogen, solar, wind
BAESY — BAE Systems / mini-nuclear development
SIEGY — Siemens / wind, green hydrogen

Thank you. My life depends on it.

A song about The Human Induced Climate Change Experiment

bookmark_borderObserved Increases in Well-mixed Greenhouse Gases

2021 saw the largest emissions of greenhouse gases in human history.

The Intergovernmental Panel on Climate Change reported:
The Current State of the Climate

* It is unequivocal that human influence has warmed the atmosphere, ocean and land. Widespread and rapid changes in the atmosphere, ocean, cryosphere and biosphere have occurred.

* Observed increases in well-mixed greenhouse gas (GHG) concentrations since around 1750 are unequivocally caused by human activities. Since 2011 (measurements reported in AR5), concentrations have continued to increase in the atmosphere, reaching annual averages of 410 parts per million (ppm) for carbon dioxide (CO 2), 1866 parts per billion (ppb) for methane (CH 4), and 332 ppb for nitrous oxide (N 2O) in 2019.6 Land and ocean have taken up a near-constant proportion (globally about 56% per year) of CO2 emissions from human activities over the past six decades, with regional differences (high confidence).

* Each of the last four decades has been successively warmer than any decade that preceded it since 1850.

* Human influence is very likely the main driver of the global retreat of glaciers since the 1990s and the decrease in Arctic sea ice area between 1979–1988 and 2010–2019 (decreases of about 40% in September and about 10% in March).

* It is virtually certain that the global upper ocean (0–700 m) has warmed since the 1970s and extremely likely that human influence is the main driver. It is virtually certain that human-caused CO2 emissions are the main driver of current global acidifcation of the surface open ocean.

Anthropological Climate Change and Pollution

bookmark_borderClimate Change: Code Red for Humanity

The UN’s IPCC (Intergovernmental Panel on Climate Control) release their latest report that has been compiled and peer-reviewed over the last 8 years.

U.N. Secretary-General, António Guterres described the report as “a code red for humanity.”

“The alarm bells are deafening, and the evidence is irrefutable: greenhouse gas emissions from fossil fuel burning and deforestation are choking our planet and putting billions of people at immediate risk,” said Mr. Guterres.

Some of the changes already set in motion will be “irreversible” for centuries to come.

A press release from the IPCC states:

The report provides new estimates of the chances of crossing the global warming level of 1.5°C in the next decades, and finds that unless there are immediate, rapid and large-scale reductions in greenhouse gas emissions, limiting warming to close to 1.5°C or even 2°C will be beyond reach.

The report shows that emissions of greenhouse gases from human activities are responsible for approximately 1.1°C of warming since 1850-1900, and finds that averaged over the next 20 years, global temperature is expected to reach or exceed 1.5°C of warming. This assessment is based on improved observational datasets to assess historical warming, as well progress in scientific understanding of the response of the climate system to human-caused greenhouse gas emissions.

“This report is a reality check,” said IPCC Working Group I Co-Chair Valérie Masson-Delmotte. “We now have a much clearer picture of the past, present and future climate, which is essential for understanding where we are headed, what can be done, and how we can prepare.”

Every region facing increasing changes

Many characteristics of climate change directly depend on the level of global warming, but what people experience is often very different to the global average. For example, warming over land is larger than the global average, and it is more than twice as high in the Arctic.

“Climate change is already affecting every region on Earth, in multiple ways. The changes we experience will increase with additional warming,” said IPCC Working Group I Co-Chair Panmao Zhai.

The report projects that in the coming decades climate changes will increase in all regions. For 1.5°C of global warming, there will be increasing heat waves, longer warm seasons and shorter cold seasons. At 2°C of global warming, heat extremes would more often reach critical tolerance thresholds for agriculture and health, the report shows.

But it is not just about temperature. Climate change is bringing multiple different changes in different regions – which will all increase with further warming. These include changes to wetness and dryness, to winds, snow and ice, coastal areas and oceans. For example:

* Climate change is intensifying the water cycle. This brings more intense rainfall and associated flooding, as well as more intense drought in many regions.
* Climate change is affecting rainfall patterns. In high latitudes, precipitation is likely to increase, while it is projected to decrease over large parts of the subtropics. Changes to monsoon precipitation are expected, which will vary by region.
* Coastal areas will see continued sea level rise throughout the 21st century, contributing to more frequent and severe coastal flooding in low-lying areas and coastal erosion. Extreme sea level events that previously occurred once in 100 years could happen every year by the end of this century.
* Further warming will amplify permafrost thawing, and the loss of seasonal snow cover, melting of glaciers and ice sheets, and loss of summer Arctic sea ice.
* Changes to the ocean, including warming, more frequent marine heatwaves, ocean acidification, and reduced oxygen levels have been clearly linked to human influence. These changes affect both ocean ecosystems and the people that rely on them, and they will continue throughout at least the rest of this century.
* For cities, some aspects of climate change may be amplified, including heat (since urban areas are usually warmer than their surroundings), flooding from heavy precipitation events and sea level rise in coastal cities.

For the first time, the Sixth Assessment Report provides a more detailed regional assessment of climate change, including a focus on useful information that can inform risk assessment, adaptation, and other decision-making, and a new framework that helps translate physical changes in the climate – heat, cold, rain, drought, snow, wind, coastal flooding and more – into what they mean for society and ecosystems.

This regional information can be explored in detail in the newly developed Interactive Atlas interactive-atlas.ipcc.ch as well as regional fact sheets, the technical summary, and underlying report.

Human influence on the past and future climate

“It has been clear for decades that the Earth’s climate is changing, and the role of human influence on the climate system is undisputed,” said Masson-Delmotte. Yet the new report also reflects major advances in the science of attribution – understanding the role of climate change in intensifying specific weather and climate events such as extreme heat waves and heavy rainfall events.

The report also shows that human actions still have the potential to determine the future course of climate. The evidence is clear that carbon dioxide (CO2) is the main driver of climate change, even as other greenhouse gases and air pollutants also affect the climate.

“Stabilizing the climate will require strong, rapid, and sustained reductions in greenhouse gas emissions, and reaching net zero CO2 emissions. Limiting other greenhouse gases and air pollutants, especially methane, could have benefits both for health and the climate,” said Zhai.

More on The Human Induced Climate Change Experiment

bookmark_borderDaniel Brouse: About the Author

Q: Any background on membrane .com?

A: In 1994, I started a publishing company with another scientist (low temperature physicist and co-builder of the Ohio States supercomputer). The name of the publishing company is The Philadelphia Spirit Experiment. As the name suggests, it is a scientific experiment in the publishing of arts and science. At the time, domain names were free and the world wide web was 6 months old. We wanted a name that both rhymed and made a good scientific pun — everything passes through the Membrane Domain. The KingArthur.com anti-IQ test launched in 1995.

We were the first record company, fine arts, science, technology, math, and engineering publisher on the web. As such, we were the first to analize web traffic. Our monthly audience is over 300 million. Innovations include: the clickable button on a webpage, MP3 distribution, pay-per-download, free streaming music, the web-based video… and interactive games to save the planet (including a $1,000,000 prize to solve the Anthropogenic Global Warming problem.

My areas of expertise include: musicology, geology, meteorology, anthropology, biology, health & wellness, sociology, security, climate change, physics, finance, economics, statistics, computer science, data science, chaos theory, political science, publishing, logic, and philosophy. In general, my aptitude is in science, technology, engineering, and math.

— Daniel Brouse