Restoration Wellness of Idaho LLC

When Politics Gets Into Our Food, Chemistry Still Has the Final Say

Apparently, Americans have reached the point where even a food pyramid needs political representation. We have spent decades arguing about carbohydrates, cholesterol, saturated fats, animal protein, vegetable oils, and whether eggs are nutritional powerhouses or tiny cardiovascular criminals. Now we have two competing nutritional frameworks making headlines, and the conversation has become as much about political identity as it is about what Americans should actually eat. In January 2026, the Trump administration introduced a redesigned American food pyramid emphasizing real food, protein, dairy, vegetables, fruits, and whole grains [1]. Nine months later, an international group of nutrition researchers published a different framework emphasizing plant-forward dietary patterns, carbohydrate quality, and environmental sustainability [2]. By October 29, news coverage was presenting that international research as a challenge to the administration’s dietary recommendations [3]. Somewhere between the scientific literature and the political headlines, the purpose of nutritional guidance appears to have become another casualty of America’s inability to discuss anything without choosing teams.

As a public health educator and certified holistic health practitioner, I find the scientific differences between these recommendations worth examining, but the political framing raises questions of its own. Dietary guidelines influence federal nutrition programs, school meals, institutional food purchasing, healthcare education, and the nutritional information families receive. Their recommendations should therefore be grounded in credible evidence and communicated in ways that encourage understanding rather than political allegiance. Yet the public is now being presented with competing pyramids that emphasize different nutritional priorities while claiming to promote healthier eating. The important questions concern what those differences actually mean, how the evidence supports them, and whether the recommendations reflect nutritional science or additional policy objectives. Before deciding which pyramid deserves a place on our refrigerator, perhaps we should examine what each one is actually telling us.

The 2025–2030 Dietary Guidelines for Americans arrived in January 2026 with a redesigned food pyramid and a renewed emphasis on eating real food [1]. The recommendations prioritize nutrient-dense protein sources, dairy, vegetables, fruits, healthy fats, and whole grains while encouraging Americans to reduce highly processed products and refined carbohydrates. They also recommend approximately 1.2–1.6 grams of protein per kilogram of body weight daily, depending on individual circumstances. Animal proteins receive prominent attention, although beans, lentils, nuts, seeds, and other plant proteins remain among the recommended choices. Full-fat dairy is presented more favorably than in some earlier dietary messaging, and the guidance encourages consumers to obtain nutrients from recognizable foods rather than relying heavily on manufactured convenience products. For Americans accustomed to decades of changing recommendations about meat, dairy, grains, and dietary fat, the visual redesign certainly provides plenty to discuss.

The return to real food is a message I can appreciate because nutritional quality matters, and our food environment has changed dramatically over the past several decades. However, the official presentation also incorporates language associated with the administration’s broader health agenda, creating an obvious connection between nutritional recommendations and political messaging. That does not automatically invalidate the scientific evidence behind the guidelines, but it does raise questions about how public health information is presented. Americans should be able to evaluate dietary recommendations without first determining whether they support the president responsible for releasing them. Scientific findings do not become more reliable because a preferred administration endorses them, nor do they become less reliable because an unpopular administration does the same. When political identity begins influencing which nutritional information people are willing to consider, public health communication has developed a problem that no amount of rearranging food groups will solve.

The timing of the American redesign also matters because the familiar food pyramid has never been a permanent representation of nutritional science. The United States introduced its widely recognized Food Guide Pyramid in 1992, replaced it with MyPyramid in 2005, and adopted MyPlate in 2011 before returning to a pyramid format in 2026 [4]. Each revision reflected changing priorities in nutritional research, public communication, and federal dietary policy. Some changes were intended to incorporate scientific developments, while others addressed how effectively Americans understood and followed earlier recommendations. The illustrations themselves were communication tools rather than biological models of how the body processes food. That history makes the current debate particularly interesting because the visual presentation has become almost as controversial as the nutritional recommendations it represents.

On September 23, 2026, an international group of nutrition researchers published Toward International Dietary Guidance: A Food Guide Pyramid for Human and Planetary Health in the peer-reviewed journal Advances in Nutrition [2]. Led by Karen A. Della Corte of Brigham Young University, the research team proposed a framework intended to be adaptable across countries and cultural dietary patterns. Their recommendations emphasize vegetables, fruits, legumes, whole grains, and traditional lower-glycemic-index carbohydrate foods. They also favor plant protein sources, nuts, seeds, and unsaturated fats while recommending more limited consumption of red and processed meats. Unlike a framework concerned primarily with human nutritional requirements, the international model explicitly incorporates environmental sustainability alongside health outcomes. This distinction matters because a recommendation intended to balance nutrition and environmental considerations may assign different priorities to certain foods than one focused more narrowly on nutritional adequacy.

The international framework does not eliminate animal foods, although the political discussion surrounding it could easily leave readers with that impression. Fish, poultry, eggs, and dairy remain part of the proposed dietary pattern, generally with less emphasis than vegetables, legumes, whole grains, and other plant foods. The researchers also distinguish carbohydrate quality from carbohydrate quantity, emphasizing fiber-rich foods and lower-glycemic-index choices rather than treating every carbohydrate source as nutritionally interchangeable. Their recommendations concerning dietary fats favor unsaturated sources, including olive and canola oils, over foods supplying substantial amounts of saturated fat. These priorities reflect the researchers’ interpretation of evidence concerning chronic disease prevention, cardiometabolic health, and environmental impacts. Whether someone agrees with every recommendation or not, the actual research deserves consideration before its conclusions are reduced to a political slogan.

One of the most interesting details in the international publication is that the researchers presented both upright and inverted versions of their pyramid [2]. The nutritional recommendations did not change simply because the illustration was turned upside down. Instead, the researchers demonstrated how the same dietary principles could be communicated through different visual arrangements. That raises an important question about how much authority consumers assign to the shape of a nutritional diagram. If the same recommendations can appear in either orientation, the direction of the pyramid is clearly not what determines their scientific validity. The supporting evidence matters considerably more than whether the vegetables appear near the top or bottom of the illustration.

On October 29, The Independent published an article presenting the international pyramid as a challenge to the Trump administration’s dietary guidance [3]. The differences between the frameworks are genuine, particularly regarding animal proteins, dietary fats, carbohydrate quality, and environmental priorities. However, the international research had been published more than a month earlier, and its stated purpose was broader than opposing an American political administration. The researchers sought to develop guidance applicable across different populations while incorporating both nutritional and environmental considerations. The newspaper’s political framing invited readers to interpret the study through a conflict that was not its sole scientific purpose. This is how a legitimate research discussion can become another ideological contest before much of the public has examined the evidence.

There is an important distinction between disagreeing about scientific findings and disagreeing about the objectives a dietary framework is designed to accomplish. A recommendation intended to reduce chronic disease risk may differ from one that also prioritizes reducing agricultural emissions or resource consumption. Likewise, recommendations emphasizing protein intake may produce a different visual arrangement from those emphasizing dietary fiber and plant diversity. These differences do not necessarily mean that one group of scientists is ignoring biology while another has discovered the only correct way to eat. They may reflect different interpretations of evidence, different populations, or different policy objectives. The public deserves to know which considerations influenced the recommendations rather than being asked to accept a simplified contest between competing political personalities.

The renewed emphasis on real food introduces a question that is considerably more complicated than it initially appears. A fresh potato, a bag of potato chips, and a powdered potato product may share an agricultural origin, but they do not necessarily provide the same nutritional experience. Processing can change a food’s structure, water content, added sodium, fat composition, fiber characteristics, and the availability of certain nutrients. Some processing methods improve food safety, preservation, digestibility, or nutrient accessibility, while others produce products that are easy to overconsume and relatively poor in essential nutrients. The distinction is not simply whether something has been processed, because nearly every food undergoes some form of preparation before consumption. What matters is how the processing changes the food and how the resulting product contributes to an individual’s overall dietary pattern.

The term real food is useful when it encourages consumers to examine ingredient quality, but it becomes less helpful when used as an undefined marketing label. Frozen vegetables, canned sardines, plain yogurt, and properly prepared canned beans can all contribute substantial nutrition despite undergoing processing or preservation. Conversely, a product advertised as natural may still contain ingredients that are unsuitable for someone with particular allergies, intolerances, or medical conditions. A short ingredient list does not automatically establish nutritional adequacy, just as a longer list does not automatically indicate danger. Consumers need to understand the ingredients, their functions, and the nutritional characteristics of the finished product. That requires more education than simply dividing everything in the grocery store into real food and fake food.

The distinction becomes even more complicated when we examine the growing market for products designed to imitate conventional meat. Plant-based meat alternatives may contain soy, pea protein, wheat protein, oils, flavorings, and added nutrients arranged to reproduce the taste or texture of animal products. Cultivated meat is produced from animal cells grown under controlled manufacturing conditions, while three-dimensional food printing refers to a technique that arranges edible materials into predetermined structures. These technologies are not interchangeable, and their nutritional characteristics depend on the specific ingredients and manufacturing processes involved. The FDA has completed premarket consultations involving foods made with cultured animal cells, reflecting the growing regulatory attention surrounding this field [5]. Consumers deserve to understand how these products are manufactured and how their nutritional composition compares with conventional alternatives rather than relying exclusively on promotional claims.

Conventional meat also deserves a more precise discussion because fresh beef, cured bacon, smoked sausage, and packaged luncheon meat are not nutritionally identical. The World Health Organization’s International Agency for Research on Cancer classifies processed meat as carcinogenic to humans and red meat as probably carcinogenic based on the available evidence concerning cancer risk [6]. Those classifications describe the strength of evidence linking an exposure to cancer rather than establishing that every meat product carries an identical level of danger. Processing methods, preservatives, sodium content, cooking practices, portion sizes, and overall dietary patterns can all influence how meat consumption is evaluated. The nutritional contributions of animal foods should not be ignored, but neither should the evidence surrounding certain patterns of meat consumption. A serious discussion of food quality requires more precision than declaring all meat healthy or all meat harmful.

Food storage introduces another consideration that rarely receives the attention it deserves in discussions about nutritional quality. Temperature, light, oxygen, moisture, and storage duration can influence the stability of certain nutrients and ingredients. Some vitamins are sensitive to heat, while fats may undergo oxidation under unsuitable conditions. These effects vary according to the product, its packaging, and the environment in which it is stored, so it would be inaccurate to assume every item sold through a large retailer has deteriorated. Nevertheless, appropriate handling and storage are legitimate concerns when evaluating food quality and consumer safety. If we are going to encourage Americans to examine what they eat, we should consider what happens to food between production and consumption.

A nutrition label can identify how much of a nutrient a food contains, but it cannot fully explain how that nutrient will be processed by an individual human body. Nutrient density describes the concentration of beneficial nutrients relative to energy content, while bioavailability concerns the proportion that becomes available for biological use. A serving of beef, a serving of lentils, and a serving of broccoli can all contribute valuable nutrition without providing the same nutrients in identical quantities or chemical forms. Beef supplies complete protein, vitamin B12, zinc, and iron, while lentils provide plant protein, folate, fiber, and additional minerals. Broccoli contributes vitamin C, vitamin K, folate, and fiber, but it cannot replace the naturally occurring vitamin B12 supplied by animal-derived foods. Understanding these differences is considerably more useful than treating animal and plant foods as interchangeable competitors.

Vitamin B12 offers a clear example of why nutritional composition and absorption both matter. This essential vitamin participates in neurological function, red blood cell production, and DNA synthesis, with reliable natural dietary sources found primarily in animal-derived foods [7]. Individuals following vegan dietary patterns can meet their requirements through fortified foods or supplements, but doing so requires appropriate planning. The digestive system must also release food-bound B12 and facilitate its absorption through processes involving stomach function and intrinsic factor. Certain gastrointestinal disorders, surgical procedures, and medications can interfere with those processes. Consequently, consuming a food that contains B12 does not guarantee that every individual will absorb enough to meet their needs.

Iron provides another example because its chemical form influences how readily the body can absorb it. Heme iron, found in animal tissues, is generally absorbed more efficiently than nonheme iron, which occurs in plant foods and also contributes to the iron content of animal foods [8]. Vitamin C can improve nonheme iron absorption, while phytates and certain other dietary compounds can reduce it. This does not make lentils nutritionally inferior to beef, because lentils provide fiber and other nutrients that beef does not supply. It means that two meals containing similar total amounts of iron may not provide the same amount of absorbable iron. Nutritional adequacy depends on more than the numbers printed on a label.

The digestive system adds another layer of complexity because nutrients must undergo several processes before they can participate in metabolism. Proteins are broken into smaller peptides and amino acids, carbohydrates are processed into absorbable sugars, and dietary fats undergo digestion before their components can be absorbed. Stomach acid contributes to protein digestion and the release of food-bound vitamin B12, while pancreatic enzymes and the small intestine perform much of the remaining digestive and absorptive work. The intestinal lining, digestive secretions, hormones, and gastrointestinal microorganisms all participate in this process. Medical conditions affecting the digestive tract can interfere with nutrient handling even when a person’s diet appears nutritionally adequate. This is why understanding what happens after food is consumed can be just as important as understanding what was placed on the plate.

Once nutrients have been digested and absorbed, they enter metabolic pathways that support energy production, tissue maintenance, cellular signaling, and countless other physiological functions. Proteins provide amino acids needed for structural and functional purposes, carbohydrates supply glucose and other metabolic substrates, and fats contribute energy, essential fatty acids, and components used in cellular structures. Minerals participate in processes involving nerve signaling, muscle contraction, enzyme activity, and fluid regulation. These processes also produce metabolic byproducts that the body must manage or eliminate. The lungs, kidneys, liver, and gastrointestinal tract all participate in maintaining the internal conditions necessary for normal physiological function. Food therefore influences more than our immediate sense of fullness because its chemical components become part of the body’s ongoing metabolic activity.

This is where pH becomes particularly interesting in the discussion of nutrition. The pH scale describes hydrogen-ion activity in a solution, allowing us to distinguish acidic and alkaline conditions. Different biological environments maintain different pH ranges because their functions require different chemical conditions. The stomach operates under acidic conditions that support digestion, while the small intestine has different conditions suited to additional digestive and absorptive processes. Blood pH is maintained within a narrow range through physiological systems involving the lungs, kidneys, and chemical buffers. Urine pH is more variable because the kidneys help regulate acid-base balance by excreting acids and bases.

Dietary composition can influence urinary pH, making it one measurable example of the relationship between food and the body’s handling of metabolic acids and bases. Diets containing substantial amounts of animal protein may increase the acid load the kidneys must excrete, while many fruits and vegetables contribute compounds associated with a lower dietary acid load. The resulting urine pH also depends on kidney function, medications, certain medical conditions, and other physiological factors. The National Library of Medicine identifies a broad normal range for urine pH, commonly approximately 4.6 to 8.0 [9]. A change in urinary acidity does not establish that blood pH has changed in the same direction because systemic acid-base balance is tightly regulated. Understanding this distinction allows us to discuss the chemistry of nutrition without confusing the measurements of different biological environments.

My holistic health training introduced me to traditional nutritional-balancing approaches that examine urine and saliva pH patterns alongside questions about diet, digestion, mineral relationships, and lifestyle. These frameworks helped develop my interest in the chemistry of nutrition and the importance of examining individual circumstances rather than relying exclusively on generalized dietary recommendations. They also encouraged me to explore the history of Reams Biological Theory of Ionization and its approach to interpreting multiple measurements together. The traditional interpretations associated with these systems have not been clinically validated as methods for diagnosing nutritional deficiencies, digestive dysfunction, or disease. Nevertheless, their historical development provides an opportunity to examine how different approaches have attempted to understand relationships between nutrition and physiology. For me, responsible education means understanding both the traditional framework being discussed and the established biological processes that can be measured and explained.

National dietary guidelines are designed to improve nutritional patterns across populations, but populations are composed of individuals whose circumstances differ considerably. A healthy young adult, an older person experiencing appetite loss, and someone recovering from intestinal surgery may have very different nutritional needs. Medical conditions, medications, food allergies, digestive disorders, and altered gastrointestinal anatomy can influence which foods are appropriate or well tolerated. Someone experiencing malabsorption may require nutritional adjustments that differ substantially from the recommendations intended for a generally healthy population. These circumstances do not make population guidance useless, but they demonstrate why a standardized framework cannot answer every individual nutritional question. The challenge is understanding when general recommendations provide sufficient direction and when a person’s circumstances require more specific consideration.

The international researchers acknowledge that affordability, cultural traditions, and food environments influence whether people can follow dietary recommendations [2]. These considerations are particularly important because nutritional knowledge alone cannot eliminate barriers created by poverty, disability, geography, or limited access to appropriate foods. Someone living with chronic illness may understand the benefits of preparing fresh meals while lacking the physical energy required to prepare them consistently. A family experiencing food insecurity may recognize the nutritional value of certain ingredients without having the resources to purchase them regularly. Transportation, food storage, physical accessibility, and sensory or digestive limitations can further influence everyday choices. Public health education becomes more useful when it recognizes these realities rather than assuming that every person has identical resources and abilities.

Individualized wellness education provides an opportunity to examine nutritional habits within the context of someone’s actual life. That may involve discussing food quality, meal composition, hydration, digestive concerns, lifestyle patterns, and practical barriers to dietary changes. It can also help individuals recognize when symptoms or medical history suggest the need for professional medical evaluation or validated laboratory testing. The purpose should not be to replace evidence-based dietary recommendations with another rigid system that promises identical results for everyone. Instead, the goal is to help people understand how broad nutritional principles relate to their individual circumstances. A food pyramid can offer direction, but it cannot have a conversation with the person trying to follow it.

The political debate over food pyramids has created an opportunity to ask better questions about nutrition, particularly when we move beyond the visual arrangement of food groups. What we consume influences digestion, metabolism, nutrient availability, and the composition of substances our bodies produce and eliminate. Understanding those relationships requires more than counting calories or deciding whether a particular ingredient belongs near the top of a diagram. It involves considering food quality, dietary patterns, individual circumstances, and the biological processes that make nutrients available for use. Urine and saliva pH are measurable characteristics of different body fluids, and their interpretation requires understanding the factors that influence each measurement. For individuals interested in exploring these subjects, guided wellness education can provide a more structured starting point than another round of conflicting nutritional headlines.

At Restoration Wellness of Idaho, I currently offer individualized urine and saliva pH wellness consultations through virtual appointments, allowing clients outside Idaho to participate without traveling to my office. Before the scheduled appointment, clients receive written preparation instructions and the necessary pH testing paper, which I arrange to have delivered through Amazon. The cost of those supplies is included in the consultation fee, eliminating the need for a separate testing-kit purchase. During our virtual appointment, we review the measurements and discuss relevant dietary patterns, hydration, and lifestyle considerations. I explain what the readings represent, the factors that may influence them, and why they cannot independently establish nutritional deficiencies or diagnose medical conditions. The consultation is intended to help clients become more informed about nutrition and body chemistry through individualized wellness education.

I am also developing plans to expand Restoration Wellness of Idaho with a dedicated in-person Reams Biological Theory of Ionization laboratory service. RBTI is a traditional holistic assessment framework involving additional measurements beyond the basic urine and saliva pH readings used in my virtual consultations. Its broader interpretive system has not been established as a clinically validated method for diagnosing disease or determining nutritional status, making transparency about its intended use particularly important. The planned laboratory service is not yet operational, but I welcome inquiries from individuals interested in its development and future availability. The existing virtual consultation and future in-person laboratory service will remain distinct offerings so prospective clients can understand what is currently available. Both reflect my continuing interest in nutritional education, individual variation, and the study of biological chemistry.

The newest American food pyramid has reopened an important conversation about nutritional quality, and the international research provides another framework worth examining. Both contain recommendations that deserve consideration, but neither should be accepted or rejected solely because of the political associations surrounding its publication. The real questions concern the nutritional composition of our food, the evidence supporting dietary recommendations, and the biological processes involved in using the nutrients we consume. Those questions remain important regardless of which administration occupies the White House or which pyramid receives the most favorable headlines. Americans deserve nutritional education that encourages scientific understanding, informed decisions, and realistic consideration of individual needs. The government can redesign the food pyramid, but it cannot redesign the fundamental chemistry of human nutrition.

Ready to Look Beyond the Pyramid?

Explore individualized wellness education and virtual urine and saliva pH consultations through Restoration Wellness of Idaho.

Virtual consultations include preparation instructions and testing supplies in the appointment price. Interested individuals may also inquire about the planned in-person RBTI laboratory service and its future availability.

Restoration Wellness of Idaho
Author | Public Health Educator | Certified Holistic Health Practitioner

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