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Q&A: Harnessing the power of nature to address water and climate challenges

【能源与环境】 | Energy & Environment

By Tom Johnson,Stanford Water in the West Program,2022-08-18

Chinese

A Stanford water policy expert discusses how investments in nature could simultaneously help states bolster water supplies and achieve their climate goals.

A beaver chews on vegetation in a beaver pond. (Image credit: iStockPhoto/Rejean Bedard)

This has been a summer of extremes. As America wilts under unprecedented waves of heat, parts of the country have been inundated with flooding rains that climate scientists say should only happen on average once every 500 years. Meanwhile, reservoir levels across the West have bottomed out amidst a withering drought, imperiling water supplies from Denver to Los Angeles and threatening to dry up millions of acres of agricultural land in between.

Recent passage of funding for climate measures suggests that the federal government is ready to join states in addressing climate change. For years, policies in many states have incentivized electric vehicles, energy efficiency, and decarbonization. Below, Stanford’s Felicia Marcus discusses how states are also turning to nature in their efforts to combat climate change. Marcus, the William C. Landreth Visiting Fellow at Stanford’s Water in the West program, is an attorney and water policy expert who has worked on water-related management and policy issues at the federal, state, and local levels. She recently conducted a study of nature-based solutions, such as restoring beaver habitat to enhance water supplies, reduce the severity of forest fires, and sequester carbon, in Colorado River Basin states. Results of this study, which has not been peer-reviewed, have been released as a report and briefs published on Water in the West.

Marcus says that nature-based solutions represent a largely untapped opportunity for state climate policy leaders to achieve multiple benefits for people and ecosystems while fortifying the fight against climate change.

Why focus on nature-based solutions when thinking about climate and water?

Water and climate are two different sectors working more separately than they should be. We need to figure out how to work together across disciplines to achieve multiple benefits, because there isn’t enough money to do everything separately, and because we need every tool in the toolkit to meet the nightmare challenge that climate change presents.

How can nature-based solutions help meet our climate and water goals at the same time?

By strategically restoring forests, we can protect larger trees that sequester more carbon and prevent outsized catastrophic fires that release huge carbon plumes, and we can prevent downstream reservoirs and waters from accumulating mud and toxins. By restoring meadows and other water features, we can create natural firebreaks and sequester carbon while enhancing biodiversity, water quality, and water runoff.

Can nature-based solutions play a role in urban areas?

An urban example can be found in Los Angeles, where the county has embarked on a $300 million per year effort to divert water out of flood control channels and into green spaces. As the water soaks into the ground, it replenishes groundwater tables. The water that does run off is cleansed as it passes through the soil and plants before heading to the ocean. That much-needed green space provides more local water resilience and cleaner beaches while saving energy.

What are the most promising areas to align climate and water through nature-based solutions?

Meadow restoration is in some ways the most inspiring. We can restore meadows in ways that create natural firebreaks and increase biodiversity. Meadows slow the flow of water, which results in better timing of water delivery and greater aquifer recharge. Sediment is held back, rather than flowing downstream, which preserves water storage space and increases the lifespan of our reservoirs. In many places, beavers are also reintroduced to help replace those we’ve lost.

Forests are the most promising area in the short run. Forests are massive, and restoration projects have multiple benefits. Strategically clearing undergrowth enables more water to stay in the soil or flow down the watershed and helps prevent the unnaturally gigantic fires that come from overgrown forests. Instead of burning, large trees survive and grow larger, allowing them to absorb and store more carbon. Better forest management protects people and property while preventing the enormous plumes of carbon that fires release. There’s growing recognition worldwide that fires on our natural lands are greater emitters of carbon than fossil fuels.

Let’s talk about beavers. How can they help with climate and water-related challenges?

Beavers are nature’s little engineers. They build dams to create safe havens underwater, but those dams also slow and spread the flow of water. Dams create meadows and marshes and wetlands behind them that serve as fire breaks. They’re a natural antidote to these massive, outsized conflagrations we’re seeing.

Wet, marshy lands also do a great job of sequestering carbon, and they filter water as it passes through them. Impurities and sediments settle out, resulting in cleaner water. Because marshes slow flow, water also has time to infiltrate and replenish aquifers. The timing of flows downstream is delayed in a manner that mimics melting snowpack. Marshes are natural storage devices in and of themselves, which we desperately need at a time when climate change is causing decreases in snowpack. Beaver dams and the marshes that develop behind them are the next best thing.

Finally, beavers create habitat for a bunch of other species that are drawn to water. And beavers are very industrious. They do the work for you – because it’s what they do.

Felicia Marcus is the William C. Landreth Visiting Fellow at Stanford’s Water in the West Program. Prior to joining Stanford, Marcus served as chair of the California State Water Resources Control Board during a time of unprecedented drought and change. Marcus is working on identifying opportunities to use nature-based solutions to solve both climate and water issues in the Colorado River Basin.

State Climate Policy and Nature-based Solutions: A Match that Yields Benefits for Climate, Water, and More, a study conducted by Felicia Marcus, was funded by a grant from the Walton Family Foundation.

Reprinted from Stanford Report.
Ralated:

The Pfizer/BioNTech Vaccine Monopoly: The Backstory

【企业社会责任与可持续发展】| CSR & Sustainability

By Robert Kogon,2021.11.15

Chinese

The notion that vaccine mandates and related measures to compel vaccination are the product of the influence of “Big Pharma” on governments is a commonplace among the critics of such measures. Moreover, with the Pfizer vaccine going from one regulatory success to another and increasingly dominating the Covid-19 vaccine market in both the United States and continental Europe (not to mention Israel, whose vaccination campaign has consisted almost exclusively of Pfizer), it is clear that what is really meant today by “Big Pharma” must be Pfizer and Pfizer alone.

Following negative media coverage of adverse effects (in particular, thrombosis) and, in some cases, regulatory intervention on the part of national supervisory agencies, both of the other actual “Big Pharma” alternatives, AstraZeneca in the EU and Johnson & Johnson in the EU and the US, have been relegated to the status of bit players outside of the United Kingdom.

It would appear that in the West at least, we are moving toward a virtual Covid-19 vaccine monopoly for Pfizer. Even the Covid vaccine of Moderna – a company that famously had never brought a drug to market previously and hence that could hardly be described as “Big Pharma” – is increasingly coming under scrutiny for causing myocarditis in young males and its use is being restricted to people over 30 in a whole series of European countries.

Pfizer, by contrast, has remained untouched. This even though myocarditis is a widely-reported and officially acknowledged adverse effect of both mRNA vaccines, Moderna and Pfizer, even though recent statistical analysis by the CDC, at any rate, found no “significant difference” in reported myocarditis between the two vaccines for males 18-25, and even though there is evidence that Moderna provides longer-lasting protection (the effectiveness of the vaccine even being twice that of Pfizer six months on, according to this recent study [p. 11]).

What greater proof of the inordinate power of “Big Pharma” – i.e. Pfizer – could there be? But if Pfizer did not rule the world two years ago, how did it come to rule the world today?

Moreover, as many Americans will only have discovered when the FDA’s full approval of the “Pfizer” vaccine was given not to Pfizer, after all, but to BioNTech Manufacturing GmbH of Mainz, Germany, the actual developer of the so-called “Pfizer” vaccine is precisely Pfizer’s German partner BioNTech.

This is already evident indeed from the codename of the vaccine: BNT162b2. Needless to say, “BNT” does not stand for Pfizer. The partnership agreement between the two firms likewise makes abundantly clear that BNT162b2 is BioNTech’s vaccine. Thus, apart from its own direct proceeds from sales of the vaccine, BioNTech receives “up to double-digit tiered royalty payments” from Pfizer on the latter’s sales of the vaccine in Pfizer’s assigned territories.

This is in addition to “$120 million in upfront, equity and near-term research payments and up to an additional $305 million in potential development, regulatory and commercial milestone payments”. (See BioNTech press release here.) BioNTech, incidentally, has a similar agreement with Fosun Pharma for commercializing its vaccine in China.

Now, far from being “Big Pharma,” prior to the outbreak of the Covid-19 pandemic, BioNTech was still, in effect, a small, struggling start-up, which, like Moderna, had yet to bring a product to market. BioNTech’s own 2019 annual report filing to the SEC describes the company as follows: “We are a clinical-stage biopharmaceutical company with no pharmaceutical products approved for commercial sale.”

The filing continues frankly, “We have incurred significant losses since our inception and we anticipate that we will continue to incur significant losses for the foreseeable future….” Thus, in the 2nd quarter of 2020, BioNTech had only 41.8 million euros in (non-product) revenues and losses of more than twice that amount (88.3 million euros). Thanks to its Covid-19 vaccine, however, one year later, in the 2nd quarter of 2021, its revenues had rocketed to 5.31 billion euros – a more than 100-fold increase! – of which over three-quarters (4 billion euros) is profit.

As the economist Carsten Brzeski of the Dutch bank ING put it to Reuters, BioNTech had gone “from 0 to 100 in just a year.” BioNTech’s recently announced 3rd quarter results show estimated revenues of over 6 billion euros and gross profits of nearly 4.7 billion euros.

The story of how BioNTech went from zero to hero is a pure story of government interventionism and subsidies. Indeed, the German government supported the very founding of BioNTech. It was thus in fact the German government that identified biotechnology as an important, potential growth sector and, in 2005, launched a funding program whose explicit aim was to promote biotech start-ups based on academic research: the Gründungsoffensive Biotechnologie – roughly, the “Biotechnology Start-Up Offensive” – or “Go-Bio” for short.

The idea, as explained here (link in German), is to provide up to two rounds of support: a first grant to a research team with a commercially promising project and then, supposing the research team succeeds in founding a company based on its research, a second grant to the start-up.

BioNTech was one of the firms to be brought into existence under the aegis of the Go-Bio program. In 2007, Go-Bio first provided a 1.2 million euro “Phase I” grant of 1.2 million euros to support BioNTech founder Ugur Sahin’s research at the University of Mainz on developing mRNA-based cancer treatments, and it then followed that up with a nearly 3 million euro “Go-Bio Phase II” grant to the newly-founded BioNTech RNA Pharmaceuticals GmbH in 2010. (For the details, in German, see here.)

In the years to come, BioNTech would continue to enjoy public support: both from the state government of Rhineland-Palatinate, of which Mainz is the capital, and as leading member of a so-called “cluster” of companies and research establishments in the Mainz region that from 2012 to 2017 received 40 million euros in support (link in German) from the German Federal Ministry of Education and Research. The cluster is named the Cluster for Individualized Immune Intervention or “Ci3”. The chairs of Ci3 are Sahin’s wife and BioNTech Chief Medical Officer, Özlem Türeci, and BioNTech co-founder Christoph Huber.

But the flow of public manna to BioNTech then increased massively last year, when the outbreak of the Covid pandemic provided the company the opportunity to pivot from its hitherto unsuccessful efforts to develop mRNA-based cancer treatments to developing an mRNA-based vaccine against Covid-19.

Per this timeline published by the German public broadcaster SWR, BioNTech had already contacted German’s public regulatory agency for vaccines, the Paul Ehrlich Institute, about its plans to develop a Covid-19 vaccine in February 2020 – at a time when scattered reports about local Covid-19 infections were first emerging in Europe and before the WHO had even declared there to be a pandemic!

By April, clinical trials were already underway! (See the EU Clinical Trial Register here.) On September 15, the German government announced that it was providing BioNTech 375 million euros in subsidies (link in German) to support its Covid-19 vaccine. The European Bank for Investment had already pitched in 100 million euros in debt financing. The German funding does not have to be repaid.

But with an overall average corporate tax rate of around 30% in Germany and an effective federal rate of almost 16%, the German government figures to get a healthy return on its investment. According to the company’s current projections, BioNTech is expected to have 16-17 billion euros in Covid-19 vaccine revenues for 2021.

Already after the announcement of BioNTech’s 2nd quarter results, the German economist Sebastian Dullien calculated that BioNTech revenues alone will represent about 0.5% of German GDP and thus account for 0.5% growth in German GDP – i.e. since BioNTech contributed essentially nothing to German GDP previously! BioNTech alone would thus account for about 1/8 of Germany’s expected GDP growth for 2021.

These calculations were based, however, on a slightly lower revenue forecast and significantly higher expected GDP growth. Based on the current forecast of 2.4% German growth, BioNTech alone would account for more than 1/5 of German growth. According to its most recently released financials, moreover, the company’s 2021 tax bill to date comes to over 3 billion euros.

European Commission President Ursula von der Leyen presents the Atlantic Council Distinguished Business Leadership Award to Pfizer Chair and CEO Albert Bourla on November 10, 2021.

For all the talk of the power of Big Pharma, the Covid-19 vaccine that is currently becoming the standard throughout the Western world has a far more powerful state sponsor and the state sponsor is Germany. This raises particularly obvious and thorny issues for the European Union, where the vaccine contracts for all 27 member states were negotiated by a European Commission that is headed by former German Minister of Defense Ursula von der Leyen.

(The Commission was assisted by a “Joint Negotiation Team” representing seven member states including Germany [see under “Vaccine negotiations” here]; which is to say that Germany was, in effect, participating in negotiations with its own protégé. Perhaps not surprisingly, the largest volume of doses was ordered from none other than BioNTech/Pfizer [see under “What were the results…” here.)

But with Germany able to amplify its power and project it on a global scale precisely via the European Union, German sponsorship of the BioNTech/“Pfizer” vaccine also raises issues for the world as a whole.

Author

is a pen name for a widely-published financial journalist, a translator, and researcher working in Europe. He writes at edv1694.substack.com.
Reprinted from Brownstone Institute .
Ralated:

Stanford engineers point the way to more affordable, sustainable urban neighborhoods

【企业社会责任与可持续发展】| CSR & Sustainability

A Stanford University analysis(link is external) could help policymakers across the U.S. spend billions of dollars in new federal infrastructure funding more wisely. The study, published March 31 in Frontiers in Sustainable Cities, presents a first-of-its-kind framework to design the most efficient building mix for an urban district along with systems that supply wastewater treatment, cooling, heating and electricity. The approach optimizes hourly demand and supply of power and water with integrated neighborhood-based power and water plants, significantly reducing costs and pollution compared to traditional systems that serve larger areas. This, in turn, could lead to more walkable, livable and affordable cities.

“Instead of building blindly, we can use this framework to look at the longer-term, forecast development effects and put numbers behind plans,” said study lead author Pouya Rezazadeh Kalehbasti(link is external), a graduate student in civil and environmental engineering at Stanford’s School of Engineering at the time of the research.

Aerial view of Songdo, Korea |Michael Lepech

a city collaboratively designed by architects and urban planners as a model for sustainable, high-tech urban living.

Cities as problem and solution
Urban areas account for more than two-thirds of global energy consumption and carbon dioxide emissions, according to UN estimates. Their water sources are increasingly stressed by global warming and burgeoning populations. A solution lies in coordinating the design of systems that supply power, water and wastewater treatment. Unlike traditionally large, centralized plants with segregated functions, this local, integrated arrangement can make it possible to achieve a variety of efficiencies, such as directing unused electricity or heat from a power system to running a wastewater system or using wastewater to cool a power generating system.

Using advanced technologies, integrated power and water plants can be relatively compact – about the size of two or three low-rise buildings – highly efficient and capable of recycling wastewater into potable water. They emit no odors, can run on renewable power sources, such as solar energy, and emit low or no emissions. Each plant can serve between 100 and 1,000 buildings, depending on the buildings’ sizes and resident populations. More than 4,000 integrated power and water systems already exist in the U.S., China and other countries, especially Europe and Canada. Private corporations and universities, such as Stanford, have seen significant energy efficiency gains after adopting some form of the approach.

Optimizing systems

With an eye toward optimizing the approach, the researchers modeled two scenarios over 20 years of simulated operation. The first scenario was a building mix and energy system designed together along a conventional central wastewater treatment plant powered by the grid. The second scenario integrated advanced wastewater treatment systems – forward osmosis-reverse osmosis and forward osmosis-membrane distillation – into the building and energy design.

The analysis found that fully integrating power and water systems with building mixes resulted in a 75% reduction in social, environmental and economic damage from carbon emissions, and a 20% reduction in lifecycle equipment costs compared to traditional segregated systems. The reductions were due primarily to the reuse of wasted heat and electricity in treating wastewater, and powering the wastewater treatment system with a low- to zero-emission local energy system, rather than the regional electric grid.

The approach proposed in this study is expected to inform urban planners and infrastructure designers of a range of optimal configurations for designing a neighborhood. This way, they could coordinate design of integrated power and water plants with zoning rules, such as imposing limits on industrial buildings, to lead to more environmentally and economically sustainable urban neighborhoods.

“It is exciting to see that by integrating existing infrastructure with new urban technologies, and optimizing their performance in unison, we can discover new, substantial pathways toward global carbon reduction,” said study co-author Michael Lepech, a professor of civil & environmental engineering.

The researchers hope that urban planners will someday use an expanded version of the framework to design a range of other systems, including garbage removal and traffic control. As technologies advance, the framework could also incorporate new efficiencies, such as using power plant heat to dry wastewater biosolids, thereby reducing disposal needs and creating a source of renewable biofuels.

Craig Criddle, a professor of civil & environmental engineering, also coauthored the study. Lepech is also faculty director of the Stanford Center at the Incheon Global Campus, a research center in Korea focused on smart, sustainable cities and urban communities. Lepech and Criddle are also senior fellows at the Stanford Woods Institute for the Environment. Criddle is director of the William and Cloy Codiga Resource Recovery Center, a facility on Stanford’s campus for testing and accelerating the commercialization of promising technologies for the recovery of clean water and energy from wastewater.

This research was funded by the Leavell Fellowship on Sustainable Built Environment from Stanford’s Department of Civil and Environmental Engineering and AP Thailand.

Ralated:

Cleaning up the World, One Building at a Time

When you’re disrupting your industry with an entirely new solution, you have to be passionate about the cause.
—Leia de Guzman

It was in 2013 when Leia de Guzman — then an undergraduate working on a campus project to build a solar-powered house — learned that buildings generate about 40% of the world’s carbon emissions. As someone who was already, as she puts it, “passionate about the notion of battling climate change,” de Guzman suddenly saw a vast opportunity to do this through the built environment.

The other epiphany came when she and her team were looking into energy efficiency technologies that could be applied to buildings, which generate emissions through everything from lighting, heating, and cooling to appliances and elevators. “The real discovery was that a lot of these technologies already exist,” says de Guzman, who was pursuing a joint bachelor’s degree in environmental science and commerce at Canada’s Queen’s University.

Fast-forward to today, and de Guzman, a recipient of Stanford GSB’s Climate Solutions Prize, plans to decarbonize the world’s buildings through an artificial intelligence startup called Cambio. She and her co-founder, Stephanie Grayson, also MBA ’22, are developing a software platform that will give commercial real estate owners and occupiers the data-driven insights needed to put their buildings on a path to net-zero emissions.

To achieve maximum impact, the team’s focus is on older buildings, rather than new or recent construction, since older structures generate 75% of the sector’s emissions, of which commercial real estate portfolios are a large piece. Second, as a former investor who has deployed $7 billion in capital across Canada, Europe, and Asia, de Guzman observed that most of the world’s real estate lies in very few hands: institutional investors, commercial landlords, and large corporate tenants.

The question, then, became how to encourage these groups to decarbonize. De Guzman identified a clear answer to this: “You build software to target that cohort,” she says. “And that’s what we’ve set out to do.”

The Problem

Transforming the world’s stock of older buildings into low-carbon, sustainable buildings is a daunting task. First, while new buildings can easily incorporate the latest technologies, materials, and systems during construction, existing buildings require retrofitting of structures that may have been standing for decades, or even centuries.

Moreover, the real estate sector lags others in digital transformation — something de Guzman saw while at Oxford Properties Group. “I experienced first-hand how undigitized the commercial real estate industry is,” she says. “If we can apply AI-based recommendations to consumer retail or transportation logistics, why can’t we apply it to buildings?”

Pressure to decarbonize buildings is growing. Governments are pushing the real estate sector to disclose more sustainability information. Some even require buildings to display energy certificates publicly, providing a “name-and-shame” incentive to those with low ratings. Meanwhile, corporate tenants, property owners, and investors are setting ambitious net-zero goals. “For the first time in real estate history, all stakeholders are asking for the same thing,” says de Guzman.

However, retrofitting large commercial portfolios is currently cumbersome. “It’s manual, expensive, and spreadsheet-led, and it results in decisions made in silos,” says de Guzman. “So institutional landlords and corporate tenants are not optimizing for deployment of their time and capital.”

She also points out that current analytics providers tend to focus on individual buildings and most offer no recommendations for steps to take based on the data. “Commercial real estate managers currently have a fragmented user journey,” she says. “And it’s hard to apply a lot of the insights.”

The Novel Idea

What Cambio offers, de Guzman says, is a portfolio overview showing which buildings are high performers on energy efficiency and resource consumption, and which need upgrades. This provides a data-driven view of where to focus across a real estate portfolio.

“But after seeing the 40,000-foot view, Cambio enables you to double-click down to the building level to see exactly you need to do in each building, whether it’s upgrading the lighting or replacing the HVAC,” she says. “Buildings are complex pieces of equipment that have multiple levers you can pull to make them more efficient and sustainable — that’s where the opportunity lies.”

Using technologies such as natural language processing and computer vision (which extracts information from visual records such as digital images), Cambio captures data from everything from utility bills and building permits to construction and renovation records.

In addition to showing clients where to prioritize their investments, Cambio also identifies any available green loans, tax rebates and other financial incentives. “Here’s where we really differentiate ourselves,” she says. “We overlay ROI [return-on-investment] and regulatory impacts across our recommendation system.”

De Guzman also knows that driving change at scale through the building sector means creating a process that is simple and streamlined. “We want to provide a single application that is a one-stop shop for your retrofitting journey.”

The Innovator

After completing her undergraduate studies, de Guzman knew exactly what she wanted to do — tackle climate change — and where she wanted to work: Oxford Properties Group.

Owned by Canada’s Ontario Municipal Employees Retirement System pension fund, Oxford Properties has ambitious carbon reduction goals. “They were one of the first real estate companies in North America to release a sustainability report,” says de Guzman. “It was exciting to me that they were leaving a sustainable mark on the world through their investments. So they were top of my list.”

With no contacts in the industry, de Guzman took to the phone, emailing and cold calling about 70 real estate executives in Toronto and took a three-hour bus trip to the city to meet whomever she could for a few minutes. “That’s how I landed my dream job,” she says.

Some of this determination can be put down to her roots. Born in a fishing village in the Philippines, de Guzman’s family moved to Canada when she was young. “Growing up in a family with an immigrant mentality, I worked very hard at school,” she says. She earned a full academic scholarship to Queen’s University.

However, in addition to her work ethic, de Guzman also has a sense of purpose that she knows is essential when taking on the challenges of being a founder. “It’s absolutely critical, especially when you’re venturing out to do the daring thing,” she says. “When you’re disrupting your industry with an entirely new solution, you have to be passionate about the cause.”

Luck has also played its part. Through a chance introduction before embarking on her MBA at Stanford GSB, she ended up as roommate of Grayson, who became her cofounder and was one of only two other real estate investment students in her class. “A lot of the little pushes that got us to where we are now seem to have been fate,” de Guzman says. “It feels meant to be.”

Reprinted from Stanford Business.

Ralated:

Historical Retrospective: From Leaded Gasoline to Teflon (II)

【企业社会责任与可持续发展】| CSR & Sustainability

For Sale

By Give, Jointing.Media, in Shanghai, 2022-08-28

From “Miracle” Material to Stealth Threat for Environment and Health

In the annals of 20th-century scientific inventions, Teflon undoubtedly occupies a prominent place. This polymer material, accidentally discovered in 1938 by DuPont chemist Roy Plunkett, quickly became an industrial and domestic darling due to its exceptional heat resistance, chemical inertness, and remarkably low friction coefficient. Yet as time passed, the shadow behind Teflon’s brilliance emerged, with its potential harm to human health and the environment sparking global concern and debate.

Initially hailed as the dawn of a chemical revolution, Teflon—scientifically known as polytetrafluoroethylene (PTFE)—exhibits near-total resistance to chemical reactions and maintains stability under extreme temperatures. In 1954, Colette Grégoire, wife of French engineer Marc Grégoire, proposed using Teflon for cookware. This inspired the founding of Tefal and the world’s first non-stick frying pan. By the 1960s, Teflon-coated cookware had taken households by storm, becoming a kitchen staple worldwide. Simultaneously, its applications expanded dramatically across aerospace, electronics, and medical industries.
However, the production of Teflon involved the use of perfluorooctanoic acid (PFOA), a persistent organic pollutant with significant bioaccumulative potential and toxicity. Research indicates that PFOA is virtually non-degradable in the environment and can accumulate through the food chain, ultimately posing serious threats to human health. As early as 1961, an internal DuPont study revealed liver damage in laboratory rats exposed to PFOA, yet these findings were never publicly disclosed.

During the 1970s-1980s, DuPont discovered widespread presence of PFOA in employees’ bloodstreams, correlating with health issues such as elevated cholesterol levels and increased liver enzymes. Despite these findings, the company failed to implement effective measures to reduce worker exposure or disclose the risks to the public.

The turning point came in 1998 when West Virginia farmer Wilbur Tennant accused DuPont of contaminating his property, leading to livestock deaths. Tennant uncovered that DuPont had been dumping waste from its Teflon production into nearby landfills, polluting local water sources. This incident triggered an investigation by the U.S. Environmental Protection Agency (EPA). Attorney Robert Bilott, representing Tennant and affected residents, discovered during litigation that DuPont had known about PFOA’s hazards for decades while systematically concealing the evidence.

In 2004, DuPont reached a settlement with the EPA, agreeing to pay a record $16.5 million fine – one of the largest ever imposed for chemical pollution – while pledging to phase out PFOA use. Subsequent research confirmed severe health impacts: A 2005 epidemiological study by West Virginia University and DuPont found significantly higher rates of kidney and testicular cancers among communities with long-term PFOA exposure. The study showed a 20-30% increased kidney cancer risk for residents with elevated PFOA blood levels. The International Agency for Research on Cancer (IARC) subsequently classified PFOA as a Group 2B carcinogen (“possibly carcinogenic to humans”).

The EPA initiated PFOA risk assessments in 2006, listing it as a “likely carcinogen.” That same year, DuPont committed to eliminating PFOA by 2015. However, environmental and human contamination persists, while replacement compounds like GenX exhibit similarly concerning persistence and toxicity – demonstrating a troubling pattern of regrettable substitutions in industrial chemistry.

The health hazards posed by Teflon extend far beyond PFOA. When Teflon-coated products like non-stick cookware are used at high temperatures, the coating may decompose and release toxic gases such as hydrogen fluoride and perfluoroisobutylene. These gases not only harm the respiratory system but can also cause “polymer fume fever,” a flu-like condition. While manufacturers claim Teflon is safe under normal use, consumer concerns about its safety have never been fully alleviated.

Environmentally, Teflon’s production and disposal have created severe ecological problems. The PFAS compounds used in Teflon manufacturing are extremely persistent and resist natural degradation. A U.S. Geological Survey (USGS) study detected high concentrations of PFAS in surface and groundwater across multiple American states, particularly near Teflon production facilities. For instance, in Parkersburg, West Virginia – where DuPont operated Teflon plants – PFOA levels in local drinking water sources far exceeded safety standards, exposing tens of thousands of residents to chronic contamination.

The widespread distribution of PFOA and other perfluoroalkyl substances (PFAS) in water, soil and atmosphere has profoundly impacted global ecosystems through bioaccumulation. These chemicals have not only contaminated drinking water sources but also threatened wildlife survival. Research published in Environmental Science & Technology found high PFAS concentrations in Arctic marine mammals (like seals and polar bears), demonstrating these pollutants have reached Earth’s most remote ecosystems via atmospheric and oceanic currents. Furthermore, PFAS have been commonly detected in fish and other aquatic organisms, significantly increasing human exposure risks through the food chain.

PFAS compounds contaminate not only water sources but also accumulate in soil, affecting crop growth. An Australian study found significantly elevated PFAS levels in crops irrigated with contaminated water, demonstrating that humans may be exposed to these chemicals through the food chain even without direct contact with Teflon products.

Growing environmental awareness and stricter regulations are gradually restricting the use of Teflon and related compounds worldwide:

In 2016, the U.S. EPA lowered the health advisory limit for PFOA and PFOS (another PFAS compound) in drinking water from 400 ppt to 70 ppt.

In 2020, the EU listed PFOA under the Stockholm Convention on Persistent Organic Pollutants (POPs), banning its production and sale.

China has also tightened PFAS regulations, restricting their use in certain industries.

However, fully resolving this issue requires global cooperation—from developing safer alternatives to strengthening environmental monitoring and pollution control—a long and challenging road ahead.

If new inventions and products are deployed widely without thorough safety assessments or independent oversight, all of humanity—and Earth’s ecosystems—become unwitting test subjects in a massive experiment. According to Oxford University’s Our World in Data, as of August 11, 2022, 12.44 billion doses of COVID-19 vaccines had been administered globally, with a 67.4% vaccination rate. Are those vaccinated individuals also part of an uncontrolled trial? Only time will tell—just as it did with leaded gasoline and Teflon.

EDITOR’S NOTE:

The success of leaded gasoline emboldened Midgley to invent chlorofluorocarbons (CFCs). By the early 1930s, CFCs entered mass production and proved astonishingly versatile—finding applications in over a thousand products ranging from car air conditioners to deodorant sprays. Only half a century later did humanity discover that these compounds were devouring stratospheric ozone—a protective layer that uniformly absorbs dangerous ultraviolet radiation.

CFCs constituted merely one part per billion of the atmosphere. Yet one kilogram of CFCs could capture and destroy 70,000 kilograms of ozone. These persistent chemicals linger for approximately a century, inflicting continuous damage. Alarmingly, a single CFC molecule traps heat 10,000 times more effectively than a carbon dioxide molecule, significantly amplifying the greenhouse effect.

Time ultimately reveals all truths. But history repeats its tragedies, with each correction requiring centuries while costing millions of lives and inflicting irreversible environmental devastation.

Now in the third year of the global COVID-19 pandemic, a persistent minority continues to reject all COVID-19 vaccines. Recent negative reports about vaccines prompted me to watch Dark Waters—the film adaptation of the Teflon lawsuit against DuPont. Though current vaccine reports lack scientific substantiation, critical evidence won’t emerge spontaneously—it must be doggedly pursued, as Robert Bilott demonstrated through his 17-year crusade. What sustained Robert Bilott through 17 years of relentless litigation against DuPont? A singular commitment to public health and welfare.

In reality, despite financial and reputational damage, DuPont continues selling toxic products to countries beyond the reach of U.S. law. Such corporations persistently prioritize profit over planetary welfare, shielded by systemic impunity. This begs the crucial inquiry: Why must civilizational progress rely exclusively on solitary crusaders—like geochemist Clair Cameron Patterson who exposed lead’s toxicity or attorney Robert Bilott who spent 17 years battling DuPont—to force overdue corrections through sacrificial dedication?

(The End)

Edited by Jas, DeepL, DeepSeek and Youdao

中文原文

Ralated:

Historical Retrospective: From Leaded Gasoline to Teflon (I)

The Story of Sunflower: Acupuncture Became “good doctor” in Remote Areas

Great Love of the Great Doctor:Zhang Xingru’s Philosophy of Philanthropy

Sustainability Today Foreshadows Tomorrow

Historical Retrospective: From Leaded Gasoline to Teflon (I)

【企业社会责任与可持续发展】| CSR & Sustainability

For Sale

By Give, Jointing.Media, in Shanghai, 2022-08-28

As someone who rarely steps into the kitchen more than a few times a year, watching Dark Waters for the first time sent me immediately inspecting every pot and pan at home.  The film’s line — “We protect us.  We do.  Nobody else” — rings painfully true: safeguarding our health ultimately falls on ourselves.  Yet in our interconnected society, when systemic failures occur, few emerge unscathed.

Amid widespread speculation about potential COVID-19 vaccine side effects, examining the historical cases of Teflon and leaded gasoline provides valuable insights – offering both a window into systemic patterns and historical perspective on our current situation.

Beginning in the 1920s, tetraethyllead became a globally adopted gasoline additive for engine performance enhancement.  It took nearly a century before this leaded fuel was completely phased out worldwide.  Throughout this period, leaded gasoline contaminated air, soil, drinking water, and food crops – claiming millions of lives and leaving enduring lead pollution in urban soils from New Orleans to London that persists to this day.

In the 1950s, DuPont began using perfluorooctanoic acid (PFOA, also called C-8) to manufacture Teflon polymers.  Only after half a century was DuPont legally proven responsible for PFOA-related personal injuries, groundwater contamination, and other environmental damage.  While the U.S. government banned PFOA in 2015, the full extent of C-8’s environmental impact across America remains unassessed – let alone its consequences internationally.

Today, gasoline remains commercially available, now lead-free.  Nations are actively developing renewable energy alternatives to fossil fuels to meet “dual carbon” emission targets.

Similarly, Teflon cookware coatings remain on the market, manufactured without PFOA but using GenX – a purportedly non-toxic alternative whose safety requires further verification.

100 Years of Poisoned Fuel

Lead is a neurotoxin. Excessive levels of lead in the body can irreparably damage the brain and central nervous system. But lead is easy to refine and mine and extremely profitable to produce on a large scale. So, at the beginning of the 20th century, although everyone knew lead was dangerous, it was still present in consumer products in various forms. Canned foods were sealed with soldered lead, water was often stored in lead-skinned jars, lead arsenate was used as an insecticide sprayed on fruit, and lead was even a component of toothpaste tubes. Almost every product adds a little bit of lead to a consumer’s life. However, it is the lead added to gasoline that people are exposed to the most and for the longest period of time.

In the early 20th century, automobiles entered the lives of the general public, but they frequently experienced engine problems.

In 1921, a General Motors engineer discovered tetraethyllead (TEL) could prevent engine knocking.
Beginning in 1922, countries adopted TEL as a gasoline additive to improve engine performance.

In 1923, three major corporations in the United States—General Motors, DuPont and Standard Oil of New Jersey—established the Ethyl Gasoline Corporation (later renamed Ethyl Corporation) to add TEL to gasoline. The company’s name did not include “lead”.

TEL is a fruity, highly toxic, oily liquid that enters the body through respiration, ingestion and intact skin, and resists excretion. Frontline workers almost immediately showed symptoms like unsteady walking and cognitive impairment—the first signs of poisoning. Almost immediately, Ethyl Corporation adopted a strategy of plausible deniability that proved effective for decades. As noted in Prometheus in the Laboratory (a history of industrial chemistry), when employees developed incurable hallucinations, spokesmen would shamelessly claim: “These people probably went insane from overwork.”

In leaded gasoline’s early production, at least 15 workers died and countless workers fell ill, often with severe symptoms. The exact number is unknowable because the company systematically concealed these incidents, never revealing damaging disclosures about leaks, spills or poisonings. Within days in 1924, five workers died at one inadequately ventilated facility, with 35 permanently disabled.

When General Motors began selling leaded gasoline, public health experts protested. One study called lead a serious public health threat; another described concentrated TEL as a “malignant, slow-spreading” poison. After the factory poisonings, a surge of scientific scrutiny emerged: TEL’s toxicity was confirmed in 1925, and a 1928 study documented dramatically how lead poisoning cases had risen exponentially since 1923.

Amid growing safety concerns, inventor Thomas Midgley Jr. (creator of both leaded gasoline and Freon) staged a public demonstration for reporters to reassure the public. While touting his product’s safety, he poured leaded gasoline on his hands and inhaled its vapors from a beaker for 60 seconds, claiming he could do this daily without harm. In reality, Midgley was acutely aware of the dangers—he had suffered severe poisoning from overexposure months earlier.

A small group of compromised researchers colluded with industrialists, aided by unscrupulous media outlets, exploiting the public’s limited capacity for information verification. Together they drowned out scientific warnings, inflicting immense global harm. Over decades, leaded gasoline claimed tens of millions of lives while causing intellectual disabilities and physical impairments in countless children.

American geochemist Clair Cameron Patterson first encountered lead contamination in his samples during his 1940s graduate studies at the University of Chicago. His subsequent research into Earth’s age revealed the lead industry as the primary cause of skyrocketing lead levels in both the atmosphere and human bodies.

In 1965, Patterson published “Contaminated and Natural Lead Environments of Man“, attempting to alert the public to the environmental and food chain contamination caused by industrial lead use.

Defying Ethyl Corporation’s lobbying efforts, Patterson opposed Midgley’s chemical invention—a stance that pitted him against the entire lead additive industry. His criticism cost him professional collaborations, with even the ostensibly neutral U.S. Public Health Service blacklisting him. In 1971, the National Research Council barred him from its atmospheric lead pollution panel despite his unquestioned expertise.

Patterson’s persistent advocacy ultimately compelled the U.S. Environmental Protection Agency to mandate a 65% reduction in leaded gasoline by 1973, citing its incompatibility with catalytic converters and aggravation of air pollution.

By 1978, Patterson gained admission to the National Research Council’s relevant committee, where his proposals for stricter lead regulation were partially adopted—though deemed to require further study. His 78-page minority report called for immediate controls on lead in gasoline, food containers, paints, glazes, and water systems. Three decades later, most of his recommendations became standard practice across the U.S. and much of the world.

Despite this recognition, leaded gasoline continued poisoning hundreds of millions for another half-century. Its cost advantage ensured continued use in over 100 countries—primarily low-income nations—long after its dangers were established.
In 1996, the United States formally banned leaded gasoline sales on public health grounds.

Europe followed suit in the early 2000s, with developing countries implementing subsequent bans.

China’s State Council issued a 1998 directive mandating nationwide discontinuation of leaded gasoline by July 1, 2000, prohibiting both its sale at stations and use in vehicles.

After 2002, the United Nations Environment Programme (UNEP) launched a global campaign to eliminate leaded gasoline. In August 2021, UNEP announced the complete global phase-out as Algeria’s final July 2021 discontinuation. This achievement is estimated to prevent over 1.2 million premature deaths annually from lead exposure while saving approximately $2.44 trillion each year, contributing significantly to multiple Sustainable Development Goals.

However, unleaded gasoline remains environmentally impactful, emitting gases, particulates, and condensates during combustion. With an estimated 1.2 billion new fossil-fuel vehicles expected on roads in coming decades, UNEP urges nations to accelerate the transition to zero-emission vehicles to address persistent air pollution and climate challenges.

After a century of use claiming millions of lives, lead contamination persists in soils at former production sites. Beyond lead, what other toxins surround us? Can emerging technologies effectively remediate polluted soil, waterways and air? Who safeguards public health? And who can prevent history from repeating? The answers remain troublingly uncertain. This pattern becomes even clearer when examining Teflon cookware – leaded gasoline’s chemical successor introduced thirty years later.

(To be continued)

Edited by Jas, DeepL, DeepSeek and Youdao

中文原文

Ralated:

Historical Retrospective: From Leaded Gasoline to Teflon (II)

The Story of Sunflower: Acupuncture Became “good doctor” in Remote Areas

Great Love of the Great Doctor:Zhang Xingru’s Philosophy of Philanthropy

Sustainability Today Foreshadows Tomorrow

The Lucifer Effect in the Context of Epidemics: How Environment Affects Behavior

【观点】| Insight

For Sale

By Jiangnan Misty Rain, Jointing.Media,  in Shanghai, 2022-05-24

It has been heard on the grapevine that on the 22nd of this month, most of the residents of Huixianju in Shanghai’s Xuhui district gathered at the entrance of No.287 Wuyuan Road, where the Hunan Road Office is located, and after a night of protest, finally won the right to enter and leave the neighbourhood freely without restrictions on the number of people and the number of times they can enter and leave the neighbourhood (20220522). It is raining in Shanghai today and Huixianju has been resealed (20220524), with a police presence at the entrance.

The Stanford Prison Experiment of 52 years ago may be worth revisiting.

In 1971, the American psychologist Philip George Zimbardo, in order to examine the extent to which the social environment influences human behaviour and the ways in which social institutions can control individual behaviour and dominate individual personalities, values and beliefs, placed an advertisement in a newspaper: Looking for college students to participate in an experiment in prison life, reward $15 a day for two weeks.

After a series of psychological and medical tests, 24 physically and mentally healthy, emotionally stable and law-abiding young university students were selected.   They were randomly divided into three groups: nine guards, nine prisoners and six extras.

To make the situation more realistic, the basement of a Stanford University classroom building was transformed into a prison;   the guards were issued batons, handcuffs, police uniforms and sunglasses;   the inmates were arrested from their homes by real police officers, who were then asked to change into prison uniforms, were not allowed to use their own names but only numerical code numbers as their identities, were handcuffed, and were required to obey the prison administration.

Soon everyone is invested in their role in this simulated situation or atmosphere. The guards began to exercise their leadership by torturing and humiliating the inmates who dared to challenge their authority, and this punishment gradually escalated; while the inmates gradually showed reactions very similar to those of first-time inmates in real prisons, as they gradually became submissive and gradually identified with their status as inmates.

In this experiment, almost everyone was overly invested in their role in this atmosphere, and the simulated prison embodied situations that would only be found in a real prison. The experiment had to be stopped on the sixth day to prevent more serious problems.

Under the influence of certain situations and systems, people’s character, thinking, and behavior will show an incredible side, and the phenomenon of reflecting the evil side of human nature is known as The Lucifer Effect. Zimbardo described this experiment in detail in his book The Lucifer Effect:Understanding How Good People Turn Evil (2007), which became known as the Stanford Prison Experiment.

(Editor’s note:The core idea behind the Lucifer Effect is that situations and systems can shape human behavior in negative ways that lead good people to make unethical choices. Zimbardo argues that various social dynamics like obedience to authority, peer pressure, deindividuation and diffused responsibility can work to diminish moral sensibility and make cruelty seem acceptable. )

Everyone is unconsciously influenced by his environment and changes his behavior. Shanghai has passed 60 days after becoming a giant prison; Beijing is being Shanghaiized into separate districts; there are many other large cities and small counties that have passed, are being, or will be quietly managed; there are no cases, no need to seal off the town, but announce that the town requires residents to have a nucleic acid test every other day before leave homes;and in villages where farmers are required to wear protective clothing before they can go out into the fields with their spring planting permits. This dystopian drama unfolding in China is nothing less than a large-scale experiment in the Lucifer effect.

Those who are in it are forced to be prisoners or fugitives, those who are forced or actively choose to be guards, and others who sit behind cameras and numbers and monitor it all. These different identities reshape each person’s behaviour, and each act is a reinforcement of perception, which further changes the person’s thinking, which in turn then influences the repetition and intensification of behaviour.

Two years ago, people affectionately called the medical workers who wore white protective suits and bravely went against the grain to save lives Da Bai. So what are the people doing who blur the identity of the individual and hide their various roles under the white suits?  They may be the staff of a few neighbourhood committees, ruthlessly enforcing the so-called rules from above; they may be the law enforcers, breaking the law in the name of preventing epidemics; they may be the propagandists in the official media, doing superficial photo-shooting propaganda; and they may be the city administrators, changing their orders from one day to the next, all in the same white cover. Different behaviours have changed people’s perception of Da Bai. The word “Da Bai”, which once meant warmth and respect, has been stigmatised as something like the “Axe Gang”.

(Editor note: Chinese Da Bai comes from the character Baymax in the movie Big Hero 6)

The videos related to the recording of the Hui Xian Ju on the Internet have now been removed. The details of the incident, as told by those who experienced it, continue to be spread in the virtual world.This kind of “discordant” voice being “harmonized” often occurs.

After the spring equinox and the small abundance, Shanghai’s spring passed in the silence of the whole city. Even if people’s eyes are covered, their mouths gagged, and their online “rumors” deleted, their memories cannot be erased. What is imprinted in the minds of those who experienced it and those who watched it will reshape their perceptions, and the individual psychological changes will gradually show up in their behavior. More far-reaching changes in group behavior and the social problems that have been and will be caused have also become the secondary disasters of the city closure and anti-epidemic. The depth, breadth, and duration of this disaster may be beyond our imagination.

Lucifer, also known as Satan or the Devil, is derived from the Latin term lucem ferre, meaning light-bringer. According to Christian theology, Lucifer was once the archangel before the Fall. Due to his excessive pride and self-confidence, he wanted to be equal to God and led one-third of the angels to rebel, which is also known as the famous War in Heaven. He was defeated and imprisoned in the prison of fallen angels, and was subsequently banished and lost the glory he once held. Later, Lucifer re-established a new world in Hell, similar to Heaven, where he became Satan, the demon king, and the fallen angels who followed Lucifer became demons.

Originally good angels, in a variety of environmental factors become fallen angels, and even the so-called Satan. When some people become a cold number in the eyes of another part, when some people become a ruthless tool in the hands of another part, when the environment subtly shapes people, some people from good to evil.

The Stanford Prison Experiment is often compared to the Milgram Experiment, also known as the Obedience to Authority Study. The purpose of the experiment was to test how much refusal/obedience is humanly possible when subjected to an order from an authority figure that goes against one’s conscience. Such “experiments” are being conducted all over the world in the name of the COVID-19 epidemic, and people are watching.

Friedrich Hegel said:” The only thing we learn from history is that we learn nothing from history.”

We all repeat history.

Whatever has happened before will happen again.

Whatever has been done before will be done again.

There is nothing new under the sun.

——Ecclesiastes

中文原文

References:

Edited by Wind and DeepL
Image from internet

Ralated:

Stanford Prison Experiment

The Lucifer Effect

More>>

The Story of Sunflower: Acupuncture Became “Good Doctor” in Remote Areas(II)

【专栏】| Conlumists >微公益 | MicroCharity

For Sale

By Yibai, Jointing.Media,  in Shanghai, 2018-11-08

Image 2: Assistant teacher Wu Wenwen is giving a class to the students of Tibet Medical School(July 2017)
Image 3,4: Students carefully practice Acupuncture(July 2017)
Image 5:  “Look, Taichong Point is here”   (July 2015)
Image 6: Yang Yongxiao in the class of Liuliguang Tibetan Medicine School of Ganzi  (July 2015)

Easy and attainable

As a layman, JM wondered why acupuncture was chosen for the Tibetan Medicine course. Dr. Yang explained that acupuncture is a means of treatment in TCM, the equipment is simple, it is easy to use millimeter needles and moxibustion to treat, it is inexpensive, and the effectiveness of treatment is clear.

After investigation, the Yingxiang learned that rheumatoid joint diseases, stomach diseases, etc. are very common in Tibetan highland areas. Acupuncture is the most economical treatment option. As a result, Sunflower’s week-long program not only provides students with an overview of the general framework of knowledge, but also teaches them how to use acupuncture to treat common ailments in the region. Considering that students also have a need for guidance in practice, Yang Yongxiao thought it might be time to build an online training platform that would be more effective than the current WeChat group they were using. If the teaching materials accumulated over a long period of time are digitized, the dissemination efficiency through the network can be improved, and more people who want to learn acupuncture can be helped in the future.

In fact, the road to Yingxiang Acupuncture and Moxibustion Public Education, which began in 2008, has had some twists and turns. The initial Introduction to Classical Acupuncture with Grandpa Jacques is a three-year course, and many people couldn’t stick with it. Together with Professor Zheng Weidong from the Shandong Medical College, Yang Yongxiao has tailored the curriculum specifically for the common and frequent-occurring disease in Tibetan areas, introduced holographic acupuncture, meridian acupuncture and other methods, and shortened the course to two years to adapt to China’s national conditions. Initially, Yingxiang sought trainees at the grassroots level, but found that many rural doctors either could not consistently use acupuncture because it is not as lucrative as Western medicine or were not interested in learning and using it.  It was not until Sunflower began working with the Zuoqin Tibetan Medical School that Sunflower Project was able to find a steady stream of students.

The Sunflower Project is synergistic with the main business of Yingxiang TCM, so it is easier for Yang Yongxiao’s public welfare practice to become part of his life. He believes that “it is not so important whether the activity is commercial or charitable, the ultimate goal is to save lives and improve people’s health. For this reason, he does not have a vision of what Sunflower will accomplish. It seems more in line with his character to do what he can and wants to do.

The Chinese TV drama Barefoot Doctor Xiang Yanghua (《赤脚医生向阳花》)tells the story of a barefoot doctor who practices grassroots medicine with a handful of grass and a needle, treating local people. Dr. Yang said that Sunflower Project also aims to train a group of village doctors, the lowest level of doctors.

The Sunflower Project has been going on for eight years. Ying Xiang is still upholding the original intention and pushing forward all the way.

(note:Xiang Yang Hua(向阳花 )means sunflower in Chinese.)

The circle goes on and on

Earlier this year, the General Office of the State Council issued the Opinions on Reforming and Improving the Incentive Mechanism for Training and Utilizing General Practitioners, which set the goal of having 2~3 qualified general practitioners for every 10,000 people in urban and rural areas by 2020; by 2030, there should be 5 qualified general practitioners for every 10,000 people in urban and rural areas. According to the National Health Planning Commission, by the end of 2016, there were 209,000 registered general practitioners in China, accounting for 6.6% of practicing (assistant) physicians, with 1.51 general practitioners per 10,000 people. This means that the shortage of general practitioners in China will reach 500,000 by 2030.

In 2010, the National Development and Reform Commission (NDRC), the Ministry of Health, the Ministry of Education, the Ministry of Finance, and the Ministry of Human Resources and Social Security jointly issued the Implementation Opinion on order model Free Education for Rural Order-oriented Medical Students.

For three consecutive years since 2010, China has provided free training for medical students in higher medical schools, focusing on the training of general medical personnel for township health centers and township-level health institutions.

Free medical students are recruited primarily from rural areas, with priority given to students from the county in which the unit is located. Before receiving a letter of enrollment, free medical students are required to sign a Targeted Employment Agreement with the training school and the local county-level health administration department, committing themselves to serve in the relevant primary health care institution for six years after graduation. And, according to the survey, less than half of the free orientation students agree with the work they are going to do, and less than one-tenth of them are willing to stay in the original unit after the service period.

It is not easy to get into medical school. It takes a long time to become a doctor. But after graduation, many medical students find it difficult to find a good work environment. Although the medical environment in big cities is much better than that in remote areas, medical resources are becoming scarcer every year.

If everyone can learn more about medicine, early prevention and treatment of pre-diseases, will the efficiency of social resources be improved a little, and will the overall health level of our country be improved a little?

Individuals are like cells and institutions are like organs, if society is like the human body. The non-core cells or organs have a limited impact on the whole body, but if each cell gives positive and valuable information to the body system, then the body system is more likely to be repaired.

Sunflower volunteers teach in remote areas to train future rural doctors. The power may be small, but the cycle can be endless.

(The end)

中文原文

Edited by Wind and DeepL
Image source: Yingxiang

Ralated:

The Story of “Sunflower”: Acupuncture became “good doctor” in Remote Areas(I)

Great Love of the Great Doctor: Zhang Xingru’s Philosophy of Philanthropy

JM Review | It is the sustainability of business philosophy, not just business

MicroCharity | Stories About Sacima

More>>

The Story of Sunflower: Acupuncture Became “Good Doctor” in Remote Areas(I)

【专栏】| Conlumists >微公益 | MicroCharity

For Sale

By Yibai, Jointing.Media,  in Shanghai, 2018-11-08

Image 1: Sunflower Team(July, 2015)Zhang Haizheng, Lu Fang, Zheng Weidong, Yang Yongxiao, Yang Yijian, Qin Liqiang, Li Zheng and Lin Tianjiao

Acupuncture has a long history. According to evidence, acupuncture therapy was born around the Neolithic era. The earliest record of acupuncture appeared in the book Yellow Emperor’s Classic of Internal Medicine. In the book, the shape of nine needles is described, the theory and techniques of acupuncture are described in detail.

When the ancient medicine meets the modern Chinese medicine practitioner, what kind of chemical reaction will happen?

Yang Yongxiao graduated from Zhejiang University of Traditional Chinese Medicine, majoring in Traditional Chinese Medicine(TCM). He founded Yingxiang(应象)School out of his love for TCM at the age of 40.

In 2007, Yingxiang School started teaching TCM to people who interested in TCM, with the vision of passing on the original TCM culture. The following year, Yingxiang and Jacques Pialoux, author of book Introduction to Classical Acupuncture, and Dr. Hu Siwei held the first acupuncture training for the public.

In March 2010, Shanghai Yingxiang TCM Clinic was established and equipped with its own Yingxiang Pharmacy. In the same year, Yingxiang’s public welfare project – Grassroots Doctors Acupuncture Training Program, named “Sunflower”,

was officially launched.

Over the past eight years, Drs. Yang Yongxiao, Xu Yarong, Hu Siwei, and Chen Cheng, along with dozens of volunteers, have traveled to more than 10 provinces and cities, including Sichuan, Yunnan, and Henan, to provide free public acupuncture training to nearly 1,000 grassroots doctors.

In 2015, Sunflower opened a public service training course on holographic acupuncture for Tibetan medical schools, which is now in its fourth year and has trained more than 200 medical students. Currently, more than 90% of the trainees are engaged in grassroots medical services in Tibetan areas.

From the beginning to the end, from the end to a new beginning

The backbone of Yingxiang is mostly middle-aged doctors in their forties. They came together out of a shared love for the culture of TCM. Today, it has grown from a small team of seven to a boutique TCM clinic with about 30 employees. In Yingxiang, they have flexible working hours and time for education, research, academic exchange and public welfare. Most of them have volunteered for public welfare projects initiated by Yingxiang. The practice of public welfare has long been integrated into the corporate culture.

Yang Yongxiao first became involved in philanthropy in 2006 when he was a full-time MBA student of Peking University. At the time, he was looking for a new owner for a batch of brand new IOLs (an artificial lens implanted in the eye to replace the natural lens – Editor’s note). He planned to donate them all to Peking University, but unexpectedly struck up a friendship with a fellow alumnus, Shanghai ophthalmologist Zhang Xingru, and together they started a charity brightness Project-Guangming Xing(GMX). This batch of IOLs was then taken to Zuoqin Township, Dege County, Highland, where Tibetans suffering from cataracts benefited from their free GXM clinic and regained their sight.

In 2015, AEGON-INDUSTRIAL, a fund management company, invited Yingxiang to teach an acupuncture class for the Tibetan medical School, where it sponsors meals for students. Coincidentally, this School happened to be located in Derge Zochen. Yang Yongxiao recalled that nine years ago, GMX met the Living Buddha Gega Rinpoche, who had expressed a wish to raise funds to build a hospital for Tibetans in Derge. Nine years later, Yang Yongxiao started a new public welfare project in the same place.

Dege is a small county surrounded by mountains, and the Zuoqin Liuliguang Tibetan Medicine Hospital is on the outskirts of a small town, with the prairie just outside its walls. There were seven volunteers, Yang Yongxiao and Professor Zheng Weidong, and five other volunteers who went to Zuoqin for the first time to teach in the Tibetan medicine class. With a large number of courses to complete in just one week of training, most of the “Sunflower” team suffered from altitude sickness, and all of them endured physical challenges.

Li Jing has worked at Zochen Liuliguang Hospital for more than ten years. She told JM: “Dege Zochen Liuliguang Tibetan Medicine School was founded on the basis of Liuliguang Hospital, which was established in 2005. At present, Liuliguang Hospital is a well-respected private hospital in Ganzi Prefecture, which charges patients a very low fee and is free for poor patients.”

It is understood that the food expenses and part of the daily operating expenses of the students of the Tibetan Medicine School covered by the Shanghai AEGON-INDUSTRIAL. The School recruit students from remote villages in Tibetan areas for a three-year program. Upon graduation, students receive a national high school diploma and are required to return to their villages to work for at least six years.

Editor note:

In 2005, Gekar Rinpoche founded the Zochen Glazed Light Charity Hospital. While the hospital practices medicine and saves lives, it has also taken on the important task of teaching Tibetan medicine.

(To be continued)

中文原文

Edited by Wind and DeepL

Image source: Yingxiang

Ralated:

The Story of Sunflower: Acupuncture Became “Good Doctor” in Remote Areas(II)

Great Love of the Great Doctor: Zhang Xingru’s Philosophy of Philanthropy

JM Review | It is the sustainability of business philosophy, not just business

MicroCharity | Stories About Sacima

More>>

Talk to the Founders of NGOCN (III)

【专栏】| Conlumists >超越平凡的生活

By Jasmine, Jointing.Media, in Hong Kong,  2011-11-20

Chinese

The joy of planting seeds of philanthropy

“After a few years of practice, I am reflecting on why international NGO poverty alleviation programmes are not effective,’ says SecondBee, sharing his insights on public service in his blog. Too many resources are invested in one or two villages, and the results are not obvious or replicable in a small pilot, making it difficult to scale up to government. If this is the case, why not change the strategy and make project results a secondary goal and prioritise talent development? The greatest strength of international NGOs is that they bring new ideas and ways of working to China. They should play to their strengths and use their projects as a means to an end – to develop leaders for the local public interest sector through their projects – in order to achieve geometric benefits.

Many donors who support international NGOs don’t readily accept this shift in goals. SecondBee says: ‘Traditionally, their orientation towards NGOs is still largely focused on charity, poverty alleviation and the like. It is particularly important to see some tangible results, such as a school being built, [so that] they see the money they donate as fruitful.

Commenting on the current rise of public welfare entrepreneurship among university students, He think that NGOs should not have too many concepts, otherwise it is easy to become a slogan. As it is difficult for students to find a job, they should first think about how to support themselves. After their livelihood is guaranteed, they should contact more points through the public welfare platform, and then see if there is a possibility of public welfare entrepreneurship. In any case, it is good that someone is willing to start a business. Only when more people start their own businesses, and there is an atmosphere of not being afraid of failure in business, will this society become more and more dynamic.

In his opinion, students’ social entrepreneurship has certain advantages, such as the low cost of failure; students are bold and fearless; new ideas, dare to break the conventional thinking. The disadvantage is that they have no experience. The Rural Volunteer Programme, which he was in charge of at the beginning, was also an opportunity to help students think about their own direction – whether to work in an NGO, start a business in an NGO, or return to business.

According to a scientific study, the 30-39 age group is the most creative period for most people. It was during this time that SecondBee met NotFish and devoted much of their spare time to setting up NGOCN, which has grown with NotFish from his early 20s to his 30s, the brightest years of his youth.

JM: Where does your passion for philanthropy come from?

SecondBee: A sense of existence, of self-worth.

JM: How do you feel about life?

SecondBee: To save more money and buy a big house, which is not fundamentally different from what most people think.

JM: What is your goal in doing charity work?

SecondBee: To find the right people and lead them to charity. At that time there were two phases of the Rural Volunteer Programme. Two of the three people who participated in the first programme are now working in NGOs and one is doing charity work in her spare time. In the second programme, the five people who participated in the field interviews have all participated in public welfare work and the result is good.

JM: How do you define the place and importance of pro bono in your lives?

SecondBee: Everyone’s situation is different, but most people can’t give up their old jobs to do pro bono work. So philanthropy is just a part of life, a complement to work. This is the only way to mainstream and normalise philanthropy. Of course, people are at different stages in their lives and their focus will be different. Some people can dedicate several years of their lives to public service and look back on it as a great experience. It’s also good to be able to bring that experience back into your work and life and influence people around you.

Talking to SecondBee from dusk until the restaurant closes, I sense that he values his friendship with NotFish. A common vision brought two people from different backgrounds together to practice public welfare through NGOCN. Although this friendship is not as magnificent as Yujian’s clothesline, not as poetic as Bo Ya Ziqi’s, and not as deep as Guan Bao’s friendship, it is still enviable.

Some people say that NGOCN reflects the growth of grassroots public welfare organisations in China; some say that NGOCN’s positioning has not been clear enough, so it has run into a bottleneck; some say that NGOCN has neglected to build relationships with local governments, which has slowed down its own development. ……

The development of any organisation cannot be separated from its environment and will inevitably be shaped by the times. Whether it is a commercial organisation or a charity, it reflects the present, but it is also the history of the future. Perhaps what we can do now is just an accumulation or an attempt in a certain direction for those who come after us.

The same goes for NGOCN. After all, they are the first mover.

(The End)

Translated by DeepL

Edited by Wind

Related:

Talk to the Founders of NGOCN (I)

Talk to the Founders of NGOCN(II)

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