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Busting common myths about organic food

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Thursday, January 2, 2025

If you spend any time on the internet in spaces where people talk about food, nutrition and the environment, you’ve probably seen some hot takes about organic food — that it’s not worth the price tag, that it’s all a scam or that it’s somehow worse than nonorganic. Regardless of who’s presenting them, the same few arguments tend to pop up. We take a look at those here. Some of these claims start with a grain of truth, but often distort that to make organic look like a racket, an excuse for charging higher prices while being no better than conventional agriculture. In the broader context of organic’s philosophy, however, most of these facts don’t end up undermining the program’s standards or its integrity. It’s also worth remembering that many of the people who start arguments on the internet are making money by doing so, whether they’re getting engagement-based money from platforms or being paid by organizations who stand to profit from eroding public trust in organic. Myth 1: Organic uses just as many pesticides as conventional agriculture. FACT: ORGANIC DOES ALLOW NATURAL PESTICIDES (AND A FEW SYNTHETICS) — BUT THEIR USE IS VERY LIMITED AND NOWHERE NEAR THAT OF CONVENTIONAL AGRICULTURE. It’s a common claim among people trying to discredit organic, and it certainly does fly in the face of the first thing most people think about the label: no chemicals. So is it true? Under the USDA’s organic rules, synthetic substances are banned, while natural products are allowed, with a few specific exemptions in both directions. That’s simple in theory, but cleanly delineating what’s synthetic and what’s natural isn’t so easy. Intuitively, synthetic would refer to anything man-made, and that scoops up most fertilizers and pesticides that are produced in a lab from chemical ingredients. But some chemicals used in agriculture are originally extracted from natural materials. If, after extraction, they’re altered in a way that changes their chemical composition, they’re considered synthetic; if they’re left unchanged, they can still be considered natural. For example, calcium compounds are often used to make soil less acidic, and those can be natural or synthetic. If that calcium comes straight from crushed limestone, it’s considered natural, but if it’s isolated from crushed stone and then treated with heat to become more concentrated quicklime, it qualifies as synthetic. Of course, natural doesn’t necessarily equate to safe: Natural products can be dangerous, and many of these (like arsenic and certain mineral salts) are banned in organic. There are some situations where natural products don’t cut it, and that’s why there’s also a short list of synthetic substances that are allowed under the organic rules. But a quick perusal shows that most of these are simple, familiar chemicals that are allowed for very specific reasons, like hydrogen peroxide and rubbing alcohol as disinfectants for equipment. Some chemical compounds, like copper sulfate, are allowed to help control plant diseases, but need to be used in a way that minimizes their accumulation on soil and avoids leaving residues on crops. Synthetic materials that are essential for animal health — such as vaccines, simple pain medication and topical ointments — are allowed, although using medications that leave residues in milk or meat, like hormones or antibiotics, can disqualify an animal or its products from being sold as organic. There are also some natural substances that are used as pesticides in organic agriculture, often isolated hormones or chemicals from plant tissues that are used as insecticides. These naturally occurring biopesticides are often the launching point for scientists who develop synthetic derivatives, but organic growers can use the naturally occurring chemicals (again provided they aren’t modified once they’re extracted). These biopesticides may be chemically similar to their synthetic descendents, but they’re generally weaker, target fewer species and don’t linger in the environment. That makes their use much more limited in scope than the pesticides that conventional growers spray on entire fields. This difference in how the chemicals are used is, in fact, more important than where the chemicals come from. Biopesticides and other natural products are often less effective than synthetics, so it’s hard to use them the same way. But in the organic growing philosophy, that’s not necessarily a problem: Crop and livestock health should be rooted in an on-farm ecosystem that suppresses weeds, pests and disease without resorting to chemical quick fixes in the first place. Conventional agriculture, meanwhile, is wholly dependent on preemptive pesticide use, dousing entire fields of crops in herbicides like glyphosate and accelerating the evolution of superweeds in the process. Suggesting that organic’s limited use of chemicals is equivalent to that of conventional growers — who apply 280 million pounds of glyphosate alone on nearly 300 million acres of U.S. cropland annually — is a deliberate distortion of the facts. Myth 2: Organic is actually worse for the environment. FACT: ORGANIC AGRICULTURE HAS A LARGER LAND FOOTPRINT THAN CONVENTIONAL, BUT IT IS MUCH BETTER ON ALMOST EVERY OTHER ENVIRONMENTAL METRIC. Agriculture’s environmental footprint can be hard to evaluate in simple terms like better or worse because there are so many factors involved: soil health, land and water use, emissions and more. Farming involves a lot of tradeoffs, and a few of these are often leveraged to make organic look worse. Conventional agriculture uses large quantities of synthetic fertilizers and pesticides to grow a lot of food on a relatively small area of land. Without those chemicals, it’s true that organic farming often gets smaller yields, and therefore has to use more land to grow the same amount of food. That larger land footprint is usually the basis for the claim that organic is worse for the environment: If all food on earth were organic, we’d need a lot more farmland than we have today, accelerating deforestation and other problems. There are a few issues with this analysis. Conventional agriculture may be more space-efficient when it comes to farmland, but its efficiency is contingent on importing nutrients the land doesn’t have in the first place, and that it can’t hold onto for very long either. What’s more, those synthetic fertilizers take a lot of fossil fuels to manufacture, and the leftovers run off into waterways, ultimately causing problems like algal blooms that deplete and kill aquatic life far afield. Factoring in the harm pesticides cause to non-target species, especially pollinators, it becomes apparent that conventional ag’s footprint stretches well beyond the land it technically occupies. Organic farmers can import nutrients in the form of compost and manure, but these have to come from living things and usually aren’t applied at the same rates as synthetic fertilizers. This doesn’t mean that organic farms are exempt from environmental problems. Having to avoid pesticides and herbicides often makes organic farms more reliant on tilling soil to keep crops weed-free, for example, so many must be more proactive about soil health. But eschewing chemical fertilizers and pesticides as the default means that organic farms don’t have as deep a footprint as their conventional counterparts, even when they take up more space. Myth 3: There are no health advantages to choosing organic. FACT: PERSONAL HEALTH ASIDE, CHOOSING ORGANIC PROTECTS THE HEALTH OF FARMWORKERS AND MITIGATES SOME SERIOUS PUBLIC HEALTH RISKS. Much of the marketing around organic products seems to play up their wholesome nature. As you’d expect, organic food does have far fewer pesticide residues than conventional food. But it’s also true that, for most people, pesticide residues from grain and produce have not conclusively been determined to be a major health risk. While experts might disagree on how tolerances for some substances are established, most limits for pesticide residues are set in a way that’s designed to protect people who might be most vulnerable to consuming them, like infants. Ultimately, scientific studies have shown that organic food is mostly free from pesticide residues (with the little that does show up coming primarily from shared processing equipment). There’s also evidence that some organic produce has higher levels of certain vitamins and beneficial antioxidants than its conventional counterparts. What hasn’t been proven is whether eating mostly organic foods actually makes people any healthier. It’s hard to perform this kind of research in the first place, and what evidence we do have doesn’t show that choosing organic leads to consistently better health outcomes for eaters. But this perspective only looks at the personal health angle to the food system, and that’s where it falls short. The impact of our food choices goes well beyond our own bodies, and organic does offer tangible benefits to public health. The biggest exposure risk for pesticides isn’t in consuming residues, it’s in applying pesticides and working in pesticide-treated fields. While there are some safety standards designed to protect workers, they’re not always followed, and farmworkers suffer from both acute poisonings and pesticide-linked chronic health problems. They’re also less likely to get adequate medical care, especially when they are undocumented immigrants. It isn’t just workers, either: Some pesticides are dangerous enough to threaten whole agricultural communities. Children who live and go to school near farm fields where pesticides like chlorpyrifos are used show blood levels well above normal, and have higher rates of neurological problems as a result. Beyond pesticides, organic agriculture addresses another public health concern: While antibiotics are allowed for treating sick animals on organic farms, they’re used at far lower rates than on conventional farms, where they’re used to prevent diseases that proliferate easily in the crowded and unsanitary conditions. This overuse of antibiotics — including many that are used in human medicine, too — speeds the development of antibiotic-resistant bacteria. Antibiotic-resistant infections already kill more than 35,000 people in the U.S. annually, and factory farms are some of the most fruitful breeding grounds for new ones. This translates directly to the consumer as well: One study found that organically produced meat was 56 percent less likely to contain bacteria strains that were resistant to antibiotics. Myth 4: Organic is just an excuse to charge more. FACT: UNLIKE MANY MARKETING CLAIMS MADE ABOUT FOOD, USDA ORGANIC HAS SPECIFIC RULES AND A STRINGENT VERIFICATION PROCESS. It’s easy to understand where skepticism about food labels comes from. With so many claims being made about everything we buy, it’s hard to keep track of what they’re even supposed to mean, let alone whether they’re accurate. This is where organic has a unique advantage. While the USDA does have to approve most food labels, it doesn’t actually set its own requirements for what those claims mean, nor does it enforce them, leaving room for companies to set their own definitions for “sustainably grown,” and other terms. But organic is different: The U.S. National Organic Program was established as part of the 1990 Farm Bill, and has set the standards for food labeled as organic since then. Organic farms have to follow stringent rules about chemical use and livestock health, implement soil and water protection measures, and avoid genetically modified crops and livestock. These claims must be verified by an accredited, independent auditor in order for a farm or food company to use the organic label. The official “USDA Organic” seal means that the product meets all of the organic production standards, which includes higher benchmarks for sustainability and health from the farm all the way to the grocery store. USDA organic labeling can be applied to foods in a variety of ways depending on which criteria the product meets. USDA Organic: Made with at least 95% organic products; the rest must come from an allowed list of common ingredients. USDA 100% Organic: Made exclusively with organic ingredients. Made with organic ingredients: Must contain at least 70% organic ingredients by weight. Cannot use the official USDA seal. Anything that carries the “USDA Organic” seal must be made with at least 95 percent organic products, with the remaining 5 percent coming only from an allowed list of common ingredients, such as baking soda, that can’t be produced organically. Products carrying the “100% Organic” label must be made exclusively with organic ingredients. Finally, foods that carry a label stating “Made with Organic Ingredients” must contain at least 70 percent organic ingredients by weight — but they cannot use the official seal. These stringent rules make organic one of the most trustworthy labels on the market today, especially for domestically produced foods. There have been some concerns about organic fraud, especially in grain, where there have been instances of traders reselling conventionally raised grain as organic and taking a high profit. There have also been a few notable instances of organic fraud in imported foods: Foreign farms can also be USDA organic certified, but the USDA’s reliance on third party auditors has led to a few fraud and corruption cases. In recent years, the agency has introduced new, even more stringent verification rules to help organic maintain its status as a reliable standard for products made in the U.S. and abroad.

"These stringent rules make organic one of the most trustworthy labels on the market today"

If you spend any time on the internet in spaces where people talk about food, nutrition and the environment, you’ve probably seen some hot takes about organic food — that it’s not worth the price tag, that it’s all a scam or that it’s somehow worse than nonorganic. Regardless of who’s presenting them, the same few arguments tend to pop up. We take a look at those here.

Some of these claims start with a grain of truth, but often distort that to make organic look like a racket, an excuse for charging higher prices while being no better than conventional agriculture. In the broader context of organic’s philosophy, however, most of these facts don’t end up undermining the program’s standards or its integrity.

It’s also worth remembering that many of the people who start arguments on the internet are making money by doing so, whether they’re getting engagement-based money from platforms or being paid by organizations who stand to profit from eroding public trust in organic.

Myth 1: Organic uses just as many pesticides as conventional agriculture.

FACT: ORGANIC DOES ALLOW NATURAL PESTICIDES (AND A FEW SYNTHETICS) — BUT THEIR USE IS VERY LIMITED AND NOWHERE NEAR THAT OF CONVENTIONAL AGRICULTURE.

It’s a common claim among people trying to discredit organic, and it certainly does fly in the face of the first thing most people think about the label: no chemicals. So is it true?

Under the USDA’s organic rules, synthetic substances are banned, while natural products are allowed, with a few specific exemptions in both directions. That’s simple in theory, but cleanly delineating what’s synthetic and what’s natural isn’t so easy. Intuitively, synthetic would refer to anything man-made, and that scoops up most fertilizers and pesticides that are produced in a lab from chemical ingredients. But some chemicals used in agriculture are originally extracted from natural materials. If, after extraction, they’re altered in a way that changes their chemical composition, they’re considered synthetic; if they’re left unchanged, they can still be considered natural. For example, calcium compounds are often used to make soil less acidic, and those can be natural or synthetic. If that calcium comes straight from crushed limestone, it’s considered natural, but if it’s isolated from crushed stone and then treated with heat to become more concentrated quicklime, it qualifies as synthetic.

Of course, natural doesn’t necessarily equate to safe: Natural products can be dangerous, and many of these (like arsenic and certain mineral salts) are banned in organic.

There are some situations where natural products don’t cut it, and that’s why there’s also a short list of synthetic substances that are allowed under the organic rules. But a quick perusal shows that most of these are simple, familiar chemicals that are allowed for very specific reasons, like hydrogen peroxide and rubbing alcohol as disinfectants for equipment. Some chemical compounds, like copper sulfate, are allowed to help control plant diseases, but need to be used in a way that minimizes their accumulation on soil and avoids leaving residues on crops. Synthetic materials that are essential for animal health — such as vaccines, simple pain medication and topical ointments — are allowed, although using medications that leave residues in milk or meat, like hormones or antibiotics, can disqualify an animal or its products from being sold as organic.

There are also some natural substances that are used as pesticides in organic agriculture, often isolated hormones or chemicals from plant tissues that are used as insecticides. These naturally occurring biopesticides are often the launching point for scientists who develop synthetic derivatives, but organic growers can use the naturally occurring chemicals (again provided they aren’t modified once they’re extracted). These biopesticides may be chemically similar to their synthetic descendents, but they’re generally weaker, target fewer species and don’t linger in the environment. That makes their use much more limited in scope than the pesticides that conventional growers spray on entire fields.

This difference in how the chemicals are used is, in fact, more important than where the chemicals come from. Biopesticides and other natural products are often less effective than synthetics, so it’s hard to use them the same way. But in the organic growing philosophy, that’s not necessarily a problem: Crop and livestock health should be rooted in an on-farm ecosystem that suppresses weeds, pests and disease without resorting to chemical quick fixes in the first place.

Conventional agriculture, meanwhile, is wholly dependent on preemptive pesticide use, dousing entire fields of crops in herbicides like glyphosate and accelerating the evolution of superweeds in the process. Suggesting that organic’s limited use of chemicals is equivalent to that of conventional growers — who apply 280 million pounds of glyphosate alone on nearly 300 million acres of U.S. cropland annually — is a deliberate distortion of the facts.

Myth 2: Organic is actually worse for the environment.

FACT: ORGANIC AGRICULTURE HAS A LARGER LAND FOOTPRINT THAN CONVENTIONAL, BUT IT IS MUCH BETTER ON ALMOST EVERY OTHER ENVIRONMENTAL METRIC.

Agriculture’s environmental footprint can be hard to evaluate in simple terms like better or worse because there are so many factors involved: soil health, land and water use, emissions and more. Farming involves a lot of tradeoffs, and a few of these are often leveraged to make organic look worse. Conventional agriculture uses large quantities of synthetic fertilizers and pesticides to grow a lot of food on a relatively small area of land. Without those chemicals, it’s true that organic farming often gets smaller yields, and therefore has to use more land to grow the same amount of food. That larger land footprint is usually the basis for the claim that organic is worse for the environment: If all food on earth were organic, we’d need a lot more farmland than we have today, accelerating deforestation and other problems.

There are a few issues with this analysis. Conventional agriculture may be more space-efficient when it comes to farmland, but its efficiency is contingent on importing nutrients the land doesn’t have in the first place, and that it can’t hold onto for very long either. What’s more, those synthetic fertilizers take a lot of fossil fuels to manufacture, and the leftovers run off into waterways, ultimately causing problems like algal blooms that deplete and kill aquatic life far afield. Factoring in the harm pesticides cause to non-target species, especially pollinators, it becomes apparent that conventional ag’s footprint stretches well beyond the land it technically occupies.

Organic farmers can import nutrients in the form of compost and manure, but these have to come from living things and usually aren’t applied at the same rates as synthetic fertilizers. This doesn’t mean that organic farms are exempt from environmental problems. Having to avoid pesticides and herbicides often makes organic farms more reliant on tilling soil to keep crops weed-free, for example, so many must be more proactive about soil health. But eschewing chemical fertilizers and pesticides as the default means that organic farms don’t have as deep a footprint as their conventional counterparts, even when they take up more space.

Myth 3: There are no health advantages to choosing organic.

FACT: PERSONAL HEALTH ASIDE, CHOOSING ORGANIC PROTECTS THE HEALTH OF FARMWORKERS AND MITIGATES SOME SERIOUS PUBLIC HEALTH RISKS.

Much of the marketing around organic products seems to play up their wholesome nature. As you’d expect, organic food does have far fewer pesticide residues than conventional food. But it’s also true that, for most people, pesticide residues from grain and produce have not conclusively been determined to be a major health risk. While experts might disagree on how tolerances for some substances are established, most limits for pesticide residues are set in a way that’s designed to protect people who might be most vulnerable to consuming them, like infants.

Ultimately, scientific studies have shown that organic food is mostly free from pesticide residues (with the little that does show up coming primarily from shared processing equipment). There’s also evidence that some organic produce has higher levels of certain vitamins and beneficial antioxidants than its conventional counterparts. What hasn’t been proven is whether eating mostly organic foods actually makes people any healthier. It’s hard to perform this kind of research in the first place, and what evidence we do have doesn’t show that choosing organic leads to consistently better health outcomes for eaters.

But this perspective only looks at the personal health angle to the food system, and that’s where it falls short. The impact of our food choices goes well beyond our own bodies, and organic does offer tangible benefits to public health. The biggest exposure risk for pesticides isn’t in consuming residues, it’s in applying pesticides and working in pesticide-treated fields. While there are some safety standards designed to protect workers, they’re not always followed, and farmworkers suffer from both acute poisonings and pesticide-linked chronic health problems. They’re also less likely to get adequate medical care, especially when they are undocumented immigrants. It isn’t just workers, either: Some pesticides are dangerous enough to threaten whole agricultural communities. Children who live and go to school near farm fields where pesticides like chlorpyrifos are used show blood levels well above normal, and have higher rates of neurological problems as a result.

Beyond pesticides, organic agriculture addresses another public health concern: While antibiotics are allowed for treating sick animals on organic farms, they’re used at far lower rates than on conventional farms, where they’re used to prevent diseases that proliferate easily in the crowded and unsanitary conditions. This overuse of antibiotics — including many that are used in human medicine, too — speeds the development of antibiotic-resistant bacteria. Antibiotic-resistant infections already kill more than 35,000 people in the U.S. annually, and factory farms are some of the most fruitful breeding grounds for new ones. This translates directly to the consumer as well: One study found that organically produced meat was 56 percent less likely to contain bacteria strains that were resistant to antibiotics.

Myth 4: Organic is just an excuse to charge more.

FACT: UNLIKE MANY MARKETING CLAIMS MADE ABOUT FOOD, USDA ORGANIC HAS SPECIFIC RULES AND A STRINGENT VERIFICATION PROCESS.

It’s easy to understand where skepticism about food labels comes from. With so many claims being made about everything we buy, it’s hard to keep track of what they’re even supposed to mean, let alone whether they’re accurate.

This is where organic has a unique advantage. While the USDA does have to approve most food labels, it doesn’t actually set its own requirements for what those claims mean, nor does it enforce them, leaving room for companies to set their own definitions for “sustainably grown,” and other terms. But organic is different: The U.S. National Organic Program was established as part of the 1990 Farm Bill, and has set the standards for food labeled as organic since then. Organic farms have to follow stringent rules about chemical use and livestock health, implement soil and water protection measures, and avoid genetically modified crops and livestock. These claims must be verified by an accredited, independent auditor in order for a farm or food company to use the organic label.

The official “USDA Organic” seal means that the product meets all of the organic production standards, which includes higher benchmarks for sustainability and health from the farm all the way to the grocery store. USDA organic labeling can be applied to foods in a variety of ways depending on which criteria the product meets.

USDA Organic: Made with at least 95% organic products; the rest must come from an allowed list of common ingredients.

USDA 100% Organic: Made exclusively with organic ingredients.

Made with organic ingredients: Must contain at least 70% organic ingredients by weight. Cannot use the official USDA seal.

Anything that carries the “USDA Organic” seal must be made with at least 95 percent organic products, with the remaining 5 percent coming only from an allowed list of common ingredients, such as baking soda, that can’t be produced organically. Products carrying the “100% Organic” label must be made exclusively with organic ingredients. Finally, foods that carry a label stating “Made with Organic Ingredients” must contain at least 70 percent organic ingredients by weight — but they cannot use the official seal.

These stringent rules make organic one of the most trustworthy labels on the market today, especially for domestically produced foods. There have been some concerns about organic fraud, especially in grain, where there have been instances of traders reselling conventionally raised grain as organic and taking a high profit. There have also been a few notable instances of organic fraud in imported foods: Foreign farms can also be USDA organic certified, but the USDA’s reliance on third party auditors has led to a few fraud and corruption cases. In recent years, the agency has introduced new, even more stringent verification rules to help organic maintain its status as a reliable standard for products made in the U.S. and abroad.

Read the full story here.
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Watchdog rules Red Tractor exaggerated its environmental standards

The Advertising Standards Authority agrees with River Action that the food safety body’s 2023 advert misled the publicThe UK’s advertising watchdog has upheld a complaint that Britain’s biggest farm assurance scheme misled the public in a TV ad about its environmental standards.The Red Tractor scheme, used by leading supermarkets including Tesco, Asda and Morrisons to assure customers their food meets high standards for welfare, environment, traceability and safety, is the biggest and perhaps best known assurance system in Britain. Continue reading...

The UK’s advertising watchdog has upheld a complaint that Britain’s biggest farm assurance scheme misled the public in a TV ad about its environmental standards.The Red Tractor scheme, used by leading supermarkets including Tesco, Asda and Morrisons to assure customers their food meets high standards for welfare, environment, traceability and safety, is the biggest and perhaps best known assurance system in Britain.About 45,000 of the UK’s farms are members of the scheme, and the advert promised that food carrying the logo had been “farmed with care”.But the Advertising Standards Authority (ASA) upheld a complaint from the clean water campaign group River Action that the scheme’s environmental standards were exaggerated in the advert, last aired in 2023.In its judgment, the ASA said the ad must not be shown again in its current form. It said in future Red Tractor should make clear exactly what standards it is referring to when it uses the phrases “farmed with care” and “all our standards are met”.River Action said it made the complaint because it was concerned environmental standards relating to pollution were not being met on Red Tractor farms, including the claim “When the Red Tractor’s there, your food’s farmed with care … from field to store all our standards are met.”The ASA considered evidence from an Environment Agency report into Red Tractor farms, which found that 62% of the most critical pollution incidents occurred on Red Tractor farms between 2014 and 2019.Charles Watson, chair and founder of River Action, said large food retailers such as Tesco and Asda should lay out credible plans as to how they would move away from what he termed a “busted flush” of a certification scheme and instead support farmers whose working practices were genuinely sustainable.“Red Tractor farms are polluting the UK’s rivers, and consumers trying to make environmentally responsible choices have been misled,” said Watson.“This ASA ruling confirms what we’ve long argued: Red Tractor’s claims aren’t just misleading – they provide cover for farms breaking the law.”Red Tractor said its standards did not cover all environmental legislation. Therefore, data on compliance with environmental regulation should not be confused with farms’ compliance with Red Tractor’s requirements.Jim Moseley, CEO of Red Tractor, said: “We believe the ASA’s final decision is fundamentally flawed and misinterprets the content of our advert.“If the advert was clearly misleading, it wouldn’t have taken so long to reach this conclusion. Accordingly, the ASA’s actions are minimal. They’ve confirmed that we can continue to use ‘farmed with care’ but simply need to provide more information on the specific standards being referred to.“The advert … made no environmental claim, and we completely disagree with the assumption that it would have been misinterpreted by consumers.”

Can you really be addicted to food? Researchers uncover convincing similarities to drug addiction

Hundreds of studies have confirmed that certain foods affect the brain similarly to other addictive substances

People often joke that their favorite snack is “like crack” or call themselves “chocoholics” in jest. But can someone really be addicted to food in the same way they could be hooked on substances such as alcohol or nicotine? As an addiction psychiatrist and researcher with experience in treating eating disorders and obesity, I have been following the research in this field for the past few decades. I have written a textbook on food addiction, obesity and overeating disorders, and, more recently, a self-help book for people who have intense cravings and obsessions for some foods. While there is still some debate among psychologists and scientists, a consensus is emerging that food addiction is a real phenomenon. Hundreds of studies have confirmed that certain foods – often those that are high in sugar and ultraprocessed – affect the brains and behavior of certain people similarly to other addictive substances such as nicotine. Still, many questions remain about which foods are addictive, which people are most susceptible to this addiction and why. There are also questions as to how this condition compares to other substance addictions and whether the same treatments could work for patients struggling with any kind of addiction. How does addiction work? The neurobiological mechanisms of addiction have been mapped out through decades of laboratory-based research using neuroimaging and cognitive neuroscience approaches. Studies show that preexisting genetic and environmental factors set the stage for developing an addiction. Regularly consuming an addictive substance then causes a rewiring of several important brain systems, leading the person to crave more and more of it. This rewiring takes place in three key brain networks that correspond to key functional domains, often referred to as the reward system, the stress response system and the system in charge of executive control. First, using an addictive substance causes the release of a chemical messenger called dopamine in the reward network, which makes the user feel good. Dopamine release also facilitates a neurobiological process called conditioning, which is basically a neural learning process that gives rise to habit formation. As a result of the conditioning process, sensory cues associated with the substance start to have increasing influence over decision-making and behavior, often leading to a craving. For instance, because of conditioning, the sight of a needle can drive a person to set aside their commitment to quit using an injectable drug and return to it. Second, continued use of an addictive substance over time affects the brain’s emotional or stress response network. The user’s body and mind build up a tolerance, meaning they need increasing amounts of the substance to feel its effect. The neurochemicals involved in this process are different than those mediating habit formation and include a chemical messenger called noradrenaline and internally produced opioids such as endorphins. If they quit using the substance, they experience symptoms of withdrawal, which can range from irritability and nausea to paranoia and seizures. At that point, negative reinforcement kicks in. This is the process by which a person keeps going back to a substance because they’ve learned that using the substance doesn’t just feel good, but it also relieves negative emotions. During withdrawal from a substance, people feel profound emotional discomfort, including sadness and irritability. Negative reinforcement is why someone who is trying to quit smoking, for instance, will be at highest risk of relapse in the week just after stopping and during times of stress, because in the past they’d normally turn to cigarettes for relief. Third, overuse of most addictive substances progressively damages the brain’s executive control network, the prefrontal cortex, and other key parts of the brain involved in impulse control and self-regulation. Over time, the damage to these areas makes it more and more difficult for the user to control their behavior around these substances. This is why it is so hard for long-term users of many addictive substances to quit. Scientists have learned more about what’s happening in a person’s brain when they become addicted to a substance. What evidence is there that food is addictive? Many studies over the past 25 years have shown that high-sugar and other highly pleasurable foods – often foods that are ultraprocessed – act on these brain networks in ways that are similar to other addictive substances. The resulting changes in the brain fuel further craving for and overuse of the substance – in this case, highly rewarding food. Clinical studies have demonstrated that people with an addictive relationship to food demonstrate the hallmark signs of a substance use disorder. Studies also indicate that for some people, cravings for highly palatable foods go well beyond just a normal hankering for a snack and are, in fact, signs of addictive behavior. One study found that cues associated with highly pleasurable foods activate the reward centers in the brain, and the degree of activation predicts weight gain. In other words, the more power the food cue has to capture a person’s attention, the more likely they are to succumb to cravings for it. Multiple studies have also found that suddenly ending a diet that’s high in sugar can cause withdrawal, similar to when people quit opioids or nicotine. Excessive exposure to high-sugar foods has also been found to reduce cognitive function and cause damage to the prefrontal cortex and hippocampus, the parts of the brain that mediate executive control and memory. In another study, when obese people were exposed to food and told to resist their craving for it by ignoring it or thinking about something else, their prefrontal cortexes were more active compared with nonobese individuals. This indicates that it was more difficult for the obese group to fight their cravings. Researchers are still working out the best methods to help patients with food addictions develop a healthy relationship with food. Viktar Sarkisian/iStock via Getty Images Plus Finding safe treatments for patients struggling with food Addiction recovery is often centered on the idea that the fastest way to get well is to abstain from the problem substance. But unlike nicotine or narcotics, food is something that all people need to survive, so quitting cold turkey isn’t an option. In addition, eating disorders such as bulimia nervosa and binge-eating disorder often occur alongside addictive eating. Most psychologists and psychiatrists believe these illnesses have their root cause in excessive dietary restriction. For this reason, many eating disorder treatment professionals balk at the idea of labeling some foods as addictive. They are concerned that encouraging abstinence from particular foods could trigger binge eating and extreme dieting to compensate. A way forward But others argue that, with care, integrating food addiction approaches into eating disorders treatment is feasible and could be lifesaving for some. The emerging consensus around this link is moving researchers and those who treat eating disorders to consider food addiction in their treatment models. One such approach might look like the one described to me by addiction psychiatrist and eating disorders specialist Dr. Kim Dennis. In line with traditional eating disorder treatment, nutritionists at her residential clinic strongly discourage their patients from restricting calories. At the same time, in line with traditional addiction treatment, they help their patients to consider significantly reducing or completely abstaining from particular foods to which they have developed an addictive relationship. Additional clinical studies are already being carried out. But going forward, more studies are needed to help clinicians find the most effective treatments for people with an addictive relationship with food. Efforts are underway by groups of psychologists, psychiatrists, neuroscientists and mental health providers to get “ultraprocessed food use disorder,” also known as food addiction, into future editions of diagnostic manuals such as the Diagnostic and Statistical Manual of Mental Disorders and the World Health Organization’s International Classification of Diseases. Beyond acknowledging what those treating food addiction are already seeing in the field, this would help researchers get funding for additional studies of treating food addiction. With more information about what treatments will work best for whom, those who have these problems will no longer have to suffer in silence, and providers will be better equipped to help them.   Claire Wilcox, Adjunct Faculty in Psychiatry, University of New Mexico This article is republished from The Conversation under a Creative Commons license. Read the original article. The post Can you really be addicted to food? Researchers uncover convincing similarities to drug addiction appeared first on Salon.com.

Newsom signs first-in-nation law to ban ultraprocessed food in school lunches 

California health officials will now decide which ingredients, additives, dyes, and other forms of processing don’t belong in school meals and K-12 cafeterias.

In summary California health officials will now decide which ingredients, additives, dyes, and other forms of processing don’t belong in school meals and K-12 cafeterias. California is the first state in the country to ban ultraprocessed foods from school meals, aiming to transform how children eat on campus by 2035.  In the cafeteria of Belvedere Middle School in the Los Angeles neighborhood of Boyle Heights, Gov. Gavin Newsom signed a measure that requires K-12 schools to phase out foods with potentially harmful ultraprocessed ingredients over the next 10 years. The requirements go above and beyond existing state and federal school nutrition standards for things like fat and calorie content in school meals. California public schools serve nearly 1 billion meals to kids each year. “Our first priority is to protect kids in California schools, but we also came to realize that there is huge market power here,” said Assemblymember Jesse Gabriel, an Encino Democrat. “This bill could have impacts far beyond the classroom and far beyond the borders of our state.” The legislation builds on recent laws passed in California to eliminate synthetic food dyes from school meals and certain additives from all food sold in the state when they are associated with cancer, reproductive harm and behavioral problems in children. Dozens of other states have since replicated those laws.  The bipartisan measure also comes at a time when U.S. Health and Human Services Secretary Robert F. Kennedy, Jr.’s “Make America Healthy Again” movement has shone a spotlight on issues including chronic disease, childhood obesity and poor diet.  The term “ultra-processed food” appears more than three dozen times in the MAHA report on children’s health released in May. A subsequent MAHA strategy report tasks the federal government with defining ultraprocessed food. California’s new law beats them to the punch, outlining the first statutory definition of what makes a food ultraprocessed. It identifies ingredients that characterize ultraprocessed foods, including artificial flavors and colors, thickeners and emulsifiers, non-nutritive sweeteners, and high levels of saturated fat, sodium or sugar. Often fast food, candy and premade meals include these ingredients. Researchers say ultraprocessed foods tend to be high in calories and low in nutritional value. Studies have linked consumption of ultraprocessed foods with obesity. Today, one in five children is obese.  Ultraprocessed foods are also linked to increased cancer risk, cardiovascular disease and diabetes. Studies have found sweetened beverages and processed meats to be particularly harmful, said Tasha Stoiber, a senior scientist at the Environmental Work Group, which sponsored the legislation. Kids are particularly susceptible to the effects of ultraprocessed foods, she said. “Ultraprocessed foods are also marketed heavily to kids with bright colors, artificial flavors, hyperpalatability,” Stoiber said. “The hallmarks of ultraprocessed foods are a way to sell and market more product.” Gabriel said lawmakers and parents have become “much more aware of how what we feed our kids impacts their physical health, emotional health and overall well-being.” That has helped generate strong bipartisan support for the law, which all but one Republican in the state Legislature supported.  A coalition of business interests representing farmers, grocers, and food and beverage manufacturers opposed it. They argued the definition of ultraprocessed food was still too broad and ran the risk of stigmatizing harmless processed foods like canned fruits and vegetables that include preservatives. Vegetarian meat substitutes also generally contain things like processed soy protein and binders that may run afoul of the definition. Gabriel contends that the law bans not foods but rather harmful ingredients. The California Department of Public Health now must identify ultraprocessed ingredients that may be associated with poor health outcomes. Schools will no longer allow those ingredients in meals, and vendors could replace them with healthier options, Gabriel said. Supported by the California Health Care Foundation (CHCF), which works to ensure that people have access to the care they need, when they need it, at a price they can afford. Visit www.chcf.org to learn more.

Immune-informed brain aging research offers new treatment possibilities, speakers say

Speakers at MIT’s Aging Brain Initiative symposium described how immune system factors during aging contribute to Alzheimer’s, Parkinson’s and other conditions. The field is leveraging that knowledge to develop new therapies.

Understanding how interactions between the central nervous system and the immune system contribute to problems of aging, including Alzheimer’s disease, Parkinson’s disease, arthritis, and more, can generate new leads for therapeutic development, speakers said at MIT’s symposium “The Neuro-Immune Axis and the Aging Brain” on Sept 18.“The past decade has brought rapid progress in our understanding of how adaptive and innate immune systems impact the pathogenesis of neurodegenerative disorders,” said Picower Professor Li-Huei Tsai, director of The Picower Institute for Learning and Memory and MIT’s Aging Brain Initiative (ABI), in her introduction to the event, which more than 450 people registered to attend. “Together, today’s speakers will trace how the neuro-immune axis shapes brain health and disease … Their work converges on the promise of immunology-informed therapies to slow or prevent neurodegeneration and age-related cognitive decline.”For instance, keynote speaker Michal Schwartz of the Weizmann Institute in Israel described her decades of pioneering work to understand the neuro-immune “ecosystem.” Immune cells, she said, help the brain heal, and support many of its functions, including its “plasticity,” the ability it has to adapt to and incorporate new information. But Schwartz’s lab also found that an immune signaling cascade can arise with aging that undermines cognitive function. She has leveraged that insight to investigate and develop corrective immunotherapies that improve the brain’s immune response to Alzheimer’s both by rejuvenating the brain’s microglia immune cells and bringing in the help of peripheral immune cells called macrophages. Schwartz has brought the potential therapy to market as the chief science officer of ImmunoBrain, a company testing it in a clinical trial.In her presentation, Tsai noted recent work from her lab and that of computer science professor and fellow ABI member Manolis Kellis showing that many of the genes associated with Alzheimer’s disease are most strongly expressed in microglia, giving it an expression profile more similar to autoimmune disorders than to many psychiatric ones (where expression of disease-associated genes typically is highest in neurons). The study showed that microglia become “exhausted” over the course of disease progression, losing their cellular identity and becoming harmfully inflammatory.“Genetic risk, epigenomic instability, and microglia exhaustion really play a central role in Alzheimer’s disease,” Tsai said, adding that her lab is now also looking into how immune T cells, recruited by microglia, may also contribute to Alzheimer’s disease progression.The body and the brainThe neuro-immune “axis” connects not only the nervous and immune systems, but also extends between the whole body and the brain, with numerous implications for aging. Several speakers focused on the key conduit: the vagus nerve, which runs from the brain to the body’s major organs.For instance, Sara Prescott, an investigator in the Picower Institute and an MIT assistant professor of biology, presented evidence her lab is amassing that the brain’s communication via vagus nerve terminals in the body’s airways is crucial for managing the body’s defense of respiratory tissues. Given that we inhale about 20,000 times a day, our airways are exposed to many environmental challenges, Prescott noted, and her lab and others are finding that the nervous system interacts directly with immune pathways to mount physiological responses. But vagal reflexes decline in aging, she noted, increasing susceptibility to infection, and so her lab is now working in mouse models to study airway-to-brain neurons throughout the lifespan to better understand how they change with aging.In his talk, Caltech Professor Sarkis Mazmanian focused on work in his lab linking the gut microbiome to Parkinson’s disease (PD), for instance by promoting alpha-synuclein protein pathology and motor problems in mouse models. His lab hypothesizes that the microbiome can nucleate alpha-synuclein in the gut via a bacterial amyloid protein that may subsequently promote pathology in the brain, potentially via the vagus nerve. Based on its studies, the lab has developed two interventions. One is giving alpha-synuclein overexpressing mice a high-fiber diet to increase short-chain fatty acids in their gut, which actually modulates the activity of microglia in the brain. The high-fiber diet helps relieve motor dysfunction, corrects microglia activity, and reduces protein pathology, he showed. Another is a drug to disrupt the bacterial amyloid in the gut. It prevents alpha synuclein formation in the mouse brain and ameliorates PD-like symptoms. These results are pending publication.Meanwhile, Kevin Tracey, professor at Hofstra University and Northwell Health, took listeners on a journey up and down the vagus nerve to the spleen, describing how impulses in the nerve regulate immune system emissions of signaling molecules, or “cytokines.” Too great a surge can become harmful, for instance causing the autoimmune disorder rheumatoid arthritis. Tracey described how a newly U.S. Food and Drug Administration-approved pill-sized neck implant to stimulate the vagus nerve helps patients with severe forms of the disease without suppressing their immune system.The brain’s borderOther speakers discussed opportunities for understanding neuro-immune interactions in aging and disease at the “borders” where the brain’s and body’s immune system meet. These areas include the meninges that surround the brain, the choroid plexus (proximate to the ventricles, or open spaces, within the brain), and the interface between brain cells and the circulatory system.For instance, taking a cue from studies showing that circadian disruptions are a risk factor for Alzheimer’s disease, Harvard Medical School Professor Beth Stevens of Boston Children’s Hospital described new research in her lab that examined how brain immune cells may function differently around the day-night cycle. The project, led by newly minted PhD Helena Barr, found that “border-associated macrophages” — long-lived immune cells residing in the brain’s borders — exhibited circadian rhythms in gene expression and function. Stevens described how these cells are tuned by the circadian clock to “eat” more during the rest phase, a process that may help remove material draining from the brain, including Alzheimer’s disease-associated peptides such as amyloid-beta. So, Stevens hypothesizes, circadian disruptions, for example due to aging or night-shift work, may contribute to disease onset by disrupting the delicate balance in immune-mediated “clean-up” of the brain and its borders.Following Stevens at the podium, Washington University Professor Marco Colonna traced how various kinds of macrophages, including border macrophages and microglia, develop from the embryonic stage. He described the different gene-expression programs that guide their differentiation into one type or another. One gene he highlighted, for instance, is necessary for border macrophages along the brain’s vasculature to help regulate the waste-clearing cerebrospinal fluid (CSF) flow that Stevens also discussed. Knocking out the gene also impairs blood flow. Importantly, his lab has found that versions of the gene may be somewhat protective against Alzheimer’s, and that regulating expression of the gene could be a therapeutic strategy.Colonna’s WashU colleague Jonathan Kipnis (a former student of Schwartz) also discussed macrophages that are associated with the particular border between brain tissue and the plumbing alongside the vasculature that carries CSF. The macrophages, his lab showed in 2022, actively govern the flow of CSF. He showed that removing the macrophages let Alzheimer’s proteins accumulate in mice. His lab is continuing to investigate ways in which these specific border macrophages may play roles in disease. He’s also looking in separate studies of how the skull’s brain marrow contributes to the population of immune cells in the brain and may play a role in neurodegeneration.For all the talk of distant organs and the brain’s borders, neurons themselves were never far from the discussion. Harvard Medical School Professor Isaac Chiu gave them their direct due in a talk focusing on how they participate in their own immune defense, for instance by directly sensing pathogens and giving off inflammation signals upon cell death. He discussed a key molecule in that latter process, which is expressed among neurons all over the brain.Whether they were looking within the brain, at its border, or throughout the body, speakers showed that age-related nervous system diseases are not only better understood but also possibly better treated by accounting not only for the nerve cells, but their immune system partners. 

The hidden cost of ultra-processed foods on the environment: ‘The whole industry should pay’

Industrially made foods involve several ingredients and processes to put together, making it difficult to examine their true costIf you look at a package of M&Ms, one of the most popular candies in the US, you’ll see some familiar ingredients: sugar, skimmed milk powder, cocoa butter. But you’ll see many more that aren’t so recognizable: gum arabic, dextrin, carnauba wax, soya lecithin and E100.There are 34 ingredients in M&Ms, and, according to Mars, the company that produces the candy, at least 30 countries – from Ivory Coast to New Zealand – are involved in supplying them. Each has its own supply chain that transforms the raw materials into ingredients – cocoa into cocoa liquor, cane into sugar, petroleum into blue food dye. Continue reading...

If you look at a package of M&Ms, one of the most popular candies in the US, you’ll see some familiar ingredients: sugar, skimmed milk powder, cocoa butter. But you’ll see many more that aren’t so recognizable: gum arabic, dextrin, carnauba wax, soya lecithin and E100.There are 34 ingredients in M&Ms, and, according to Mars, the company that produces the candy, at least 30 countries – from Ivory Coast to New Zealand – are involved in supplying them. Each has its own supply chain that transforms the raw materials into ingredients – cocoa into cocoa liquor, cane into sugar, petroleum into blue food dye.These ingredients then travel across the world to a central processing facility where they are combined and transformed into tiny blue, red, yellow and green chocolate gems.It’s becoming better understood that food systems are a major driver of the climate crisis. Scientists can examine deforestation for agriculture, or the methane emissions from livestock. But the environmental impact of ultra-processed foods – like M&Ms – is less clear and is only now starting to come into focus. One reason they have been so difficult to assess is the very nature of UPFs: these industrially made foods include a huge number of ingredients and processes to put them together, making it nearly impossible to track.But it doesn’t mean it’s not important. As UPFs take over US grocery store shelves and diets– they now comprise 70% of food sold in grocery stores, and more than half of calories consumed – experts say that understanding their environmental toll is critical to build a more climate-friendly food system.What we knowWhile scientists are only starting to examine the environmental impact of UPFs, what’s already known about them is worrisome.“The more processed foods are, the more deleterious they are to human health and the environment,” said Anthony Fardet, a senior researcher at the French National Institute for Agriculture, Food and the Environment. The main reason, he explains, is that the ingredients are so energy intensive. When combined, the toll balloons.Take M&Ms. The first step in creating the candies is farming for cocoa, sugar, dairy and palm.It has been well-documented that agriculture for ingredients like cocoa drives ever increasing rates of deforestation across the globe. Since 1850, agricultural expansion has driven almost 90% of global deforestation, which has been responsible for 30% of global greenhouse gas emissions. Mars corporation has been called out in the past for the cocoa farming practices in their supply chain, and have since created sustainability plans, but these fail to address that large-scale agricultural practices like cocoa farming are, at their core, unsustainable.Then there’s sugar, milk solids and palm fat – also major greenhouse gas emitters.On top of that are the industrially made ingredients like food dyes – perhaps the signature of ultra-processing – which M&Ms contain 13 different types of. Blue M&Ms are colored with dyes E132 and E133; these dyes are mostly made in food dye manufacturing hotspots India and China, via a chemical reaction of aromatic hydrocarbons (which are petroleum products) with diazonium salt, catalyzed by the metals copper and chromium.M&Ms for sale in Orlando, Florida, in 2019. Photograph: Jeff Greenberg/Universal Images Group via Getty ImagesCreating soya lecithin, an additive made from soybean oil that’s used to change the consistency of chocolate, requires steps like degumming in a hot reactor, chemically isolating phospholipids, decolorization using hydrogen peroxide and drying under vacuum pressure. And dextrose, a sweetener, starts off as corn that gets steeped in acid before being milled, separated and dried. From there, it’s broken down into smaller molecules using enzymes and acids, and then recrystallized.Mars declined to comment for this story.While ultra-processed chocolate products are some of the worst offenders, other kinds of UPFs are taxing on the environment as well. Take for instance Doritos, which have 39 ingredients. Corn is the main ingredient, and for every acre grown, 1,000kg of carbon dioxide is emitted to the atmosphere. Like Mars, Pepsico, which makes Doritos, has developed its own sustainability promises, but many of these promises are underpinned by practices that are considered greenwashing, like “regenerative agriculture”. In reality, these sustainability promises undercut the dire need to better understand how UPFs affect our global climate.As a result, some experts have started to calculate the environmental toll of UPFs.CarbonCloud, a Sweden-based software company that calculates the emissions of food products, analyzed carbon disclosures from Mars, and estimated that M&Ms generate at least 13.2kg of carbon equivalents per kilogram of M&Ms produced. Mars produces more than 664m kg of M&Ms in the US each year, which would mean that if CarbonCloud’s calculations are accurate, the candies emit at least 3.8m tons of carbon dioxide – making up 0.1% of annual emissions in the US. (Mars does not report emissions by product, but according to their 2024 emissions report, they emitted 29m tons of carbon dioxide across the company.)But this is only an estimate based on publicly available data; the true cost is probably much higher, experts say. There’s a “black box” when it comes to carbon accounting in the processed food industry, says Patrick Callery, a professor at the University of Vermont who researches how corporations engage with the climate crisis. “There is so much uncertainty as supply chains get complex.”What we don’t knowGetting an exact measure of the environmental toll of UPFs is nearly impossible, given that, definitionally, UPFs consist of many ingredients and a high volume of opaque processes. Ingredients aren’t just mixed together like one would do to make a stew at home. Instead, these ingredients are chemically modified, some parts stripped away, and flavors, dyes or textures added in – and it’s unclear what the cost of these processes are because so many suppliers and components are involved.Another reason is that all UPFs (again, definitionally) are the creations of food companies that have little incentive to disclose their environmental footprint and may not fully understand it to begin with.For instance, Mars itself doesn’t farm cocoa, but instead relies on hundreds of farms that don’t always have accurate carbon accounting measures in place. This means that emissions from big food corporations may be underreported. David Bryngelsson, co-founder of CarbonCloud, said that corporations “don’t have actual data, so they use emissions factors, which are guesses”.Callery says that corporations provide reports on simple things like transportation, which are easier to calculate, and often omit or convolute the agricultural emissions of their product. After all, reporting high emissions goes against the interests of large food corporations, so the complex calculations needed to determine the carbon footprint of large-scale agriculture and multi-step industrial chemical processes used to make UPF ingredients remain un-researched.“The main point of ultra-processed foods is money,” said Fardet, pointing out that they’re designed to be attractive, easy and pleasurable to eat.“Most of the people in the [food industry’s] value chain don’t care about climate change from an ideological point of view, but they do care about money,” said Bryngelsson. He explains that to shift those incentives, the value of foods and ingredients would need to incorporate their impact on our shared climate. But that would require government regulations and financial penalties based on the true environmental cost of UPFs, says Bryngelsson.Why it mattersAt just under $2, the price of M&Ms at the grocery store hardly reflects their true cost on the environment. But to address these problems with ultra-processed foods, more than just a few tweaks to the ingredient list are needed.“Reducing the salt, or sugar of just one product is just greenwashing,” said Fardet. “We need to change the whole picture.” To do that, he suggested consuming more locally sourced, whole foods, which often take much less energy and transit to produce, and therefore have a much smaller carbon footprint.Specialty goods that can’t be sourced locally, like chocolate, should make up a small fraction of our diet and come from traceable and ethical supply chains.That’s not easy for all Americans, given the rising cost of food and the prevalence of food deserts and mediocre food retailers across the US.That’s why it can’t just be up to individuals to make environmentally (and health) conscious choices, experts say. Instead, large food corporations need to be held responsible for the burden they place on society – particularly as it pertains to climate change. Sustainability practices, like the “Cocoa for Generations” plan outlined by Mars, or Pepsico’s “Pep+” initiatives are Band-Aids on broken bones. Large food corporations need to be phased out to make global food systems sustainable.But perhaps more important is to change our understanding of the hidden costs of ultra-processed foods, says Fardet, whether it’s at home, in schools or through the banning the marketing of UPFs to children. Our food systems, Fardet said, “are absolutely not normal. The whole industry should pay the hidden costs.”

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