Gut microbiota – Biblioteca de Conhecimento

25 de agosto de 202625 de agosto de 2026

The Low-FODMAP Diet: Clinical Tool or Misunderstood Trend?

In recent years, the term “FODMAP diet” has taken over social media, clinical offices, and even the menus of health-conscious restaurants. Anyone struggling with bloating, gas, or intestinal discomfort is frequently advised—by friends, influencers, or even healthcare professionals—to cut foods from the list. The problem is that, in the rush to find a quick fix, what originated as a carefully structured clinical tool has been turned into a permanent, generalized diet. And this may do more harm than good.

To understand why, we must return to the beginning: what, exactly, is a FODMAP?

What Are FODMAPs?

The acronym FODMAP stands for Fermentable Oligosaccharides, Disaccharides, Monosaccharides, and Polyols. These are short-chain carbohydrates that are incompletely or poorly absorbed in the small intestine. When they reach the colon, resident gut bacteria rapidly ferment them, producing gas and increasing luminal water volume—which leads to bloating, abdominal cramps, diarrhea, and flatulence in sensitive individuals (Bertin et al., 2024).

The concept was developed at Monash University in Australia by researchers Sue Shepherd and Peter Gibson, who published the foundational papers on the topic in 2005. Since then, the low-FODMAP diet—especially for managing irritable bowel syndrome (IBS)—has accumulated consistent scientific evidence and gained endorsement from international clinical guidelines.

What most people do not realize is that the original protocol was designed in three distinct phases: elimination, reintroduction, and personalization. Remaining indefinitely in the first phase—simply cutting foods—is like taking only half of a prescribed treatment.

An “Unconditioned” Microbiota

Before discussing the dietary phases, we must understand a central player in this process: the gut microbiota. The human intestine houses trillions of microorganisms that are not mere passengers. They actively participate in digestion, modulate the immune system, synthesize vitamins, and condition the gut to tolerate—or react against—specific foods.

When this microbial community becomes unbalanced—a state known as dysbiosis—the gut can develop hypersensitivity to foods that, under normal physiological conditions, would be tolerated seamlessly. In many cases, the food itself is not the primary issue; rather, the intestinal environment is unequipped to process it properly.

Two major studies published in 2022 highlighted this relationship:

Vervier et al. (2022), published in Gut, identified two distinct microbiota subtypes in IBS patients, each displaying a different clinical response to the low-FODMAP diet—reinforcing that dietary response is highly individualized and mediated by baseline microbial composition.
In the same year, a systematic review and meta-analysis by So, Loughman, and Staudacher (2022) in the American Journal of Clinical Nutrition demonstrated that FODMAP restriction consistently reduces the abundance of Bifidobacteria, a genus widely recognized for supporting gut health.

In other words: prolonged FODMAP exclusion may quiet symptoms in the short term, but simultaneously depletes the very intestinal ecosystem that needs rehabilitation.

Is FODMAP Inherently a “Bad” Diet?

Chronic, unguided FODMAP restriction constitutes a nutritional and microbiological concern. FODMAP-rich foods include garlic, onions, wheat, legumes, fruits like apples and mangoes, and dairy products—representing a substantial portion of a nutrient-dense, diverse diet. Furthermore, many of these foods act as prebiotics, serving as the primary fuel for beneficial gut commensals.

Chu et al. (2025), in a systematic review and meta-analysis published in the Journal of Food Science, evaluated ten randomized controlled trials and confirmed that a low-FODMAP diet leads to reductions in beneficial microbiota, displaying a profile opposite to that achieved with prebiotic supplementation. Prolonged restriction, therefore, exerts an essentially anti-prebiotic effect.

This does not mean the FODMAP protocol is flawed—it simply means it was never designed to be permanent.

The Three Phases: What Trends Overlook

The original Monash University protocol outlines a three-step methodology that is often omitted in popular discourse.

A randomized, blinded trial published in Gastroenterology (Colomier et al., 2024) investigated the reintroduction phase under controlled conditions. The findings revealed that food intolerance is highly individualized: on average, each patient reacted to only 2.5 FODMAP subgroups as true triggers. This indicates that the vast majority of restricted foods can—and should—be safely reintroduced after the initial elimination phase.

The review by Bertin et al. (2024) in Nutrients reinforces this imperative: while the low-FODMAP diet is an effective therapeutic strategy for IBS, its implementation must be time-limited, clinically supervised, and followed by systematic reintroduction and personalization.

Intestinal Rehabilitation: The Gut Can Learn Again

A critical and frequently overlooked concept is intestinal rehabilitation. In many patients, food intolerances are not immutable. Once the gut environment is re-equilibrated, mucosal integrity is supported, and careful reintroduction is applied, many individuals regain the ability to digest foods that previously triggered symptoms.

Staudacher et al. (2022) followed IBS patients for 12 months on a personalized low-FODMAP diet in Neurogastroenterology & Motility. Two-thirds maintained adequate symptom relief over time while preserving luminal Bifidobacteria levels—in sharp contrast to the microbial depletion seen with unguided, chronic restriction.
Ankersen et al. (2021) demonstrated in a randomized crossover trial (JMIR) that responders who completed the structured reintroduction phase successfully reintroduced a median of 14.5 high-FODMAP foods back into their regular routine.

A fitting clinical analogy is that of an underutilized muscle: a gut subjected to prolonged dietary monotony may lose its functional capacity to handle food diversity—yet with progressive, patient re-training, this digestive capacity can be rebuilt.

Who Truly Benefits from the Low-FODMAP Protocol?

Current clinical evidence supports the low-FODMAP framework in two well-defined scenarios:

Short-Term Relief of Severe Symptoms: For patients with active IBS or severe functional bowel disorders, the elimination phase provides a period of physiological “gut rest” that serves as the baseline for recovery.
Identification of Specific Food Triggers: The structured reintroduction phase remains one of the most reliable diagnostic tools to isolate which carbohydrate subgroups trigger symptoms, enabling a diverse, sustainable diet long term.

It should never be implemented as an indefinite self-treatment devoid of clinical supervision, reintroduction protocols, or an exploration of underlying etiologies.

The Risk of Permanent Exclusion as a Diagnostic Shortcut

Adopting a strict low-FODMAP diet without professional guidance carries a significant clinical risk: it can mask underlying pathologies that require targeted diagnosis and therapy, such as celiac disease, inflammatory bowel disease (IBD), small intestinal bacterial overgrowth (SIBO), or primary lactase deficiency.

To mitigate these risks, O’Brien et al. (2024) proposed a five-phase framework in JGH Open, incorporating formal baseline clinical workups and longitudinal follow-ups to prevent unguided dietary restriction.

Clinical Tool, Not a Lifestyle Trend

The low-FODMAP diet is a specialized clinical protocol. When utilized with precise indications, defined timeframes, and systematic reintroduction, it substantially improves quality of life in patients with visceral hypersensitivity. Misapplied as a permanent lifestyle diet, it risks depleting beneficial microbiota, causing unnecessary nutritional deficits, and stalling true intestinal recovery.

The clinical objective is not long-term restriction, but achieving dietary diversity, supporting a resilient microbiome, and fostering a progressively tolerant digestive tract.

References

ANKERSEN, D. V. et al. Long-Term Effects of a Web-Based Low-FODMAP Diet Versus Probiotic Treatment for Irritable Bowel Syndrome, Including Shotgun Analyses of Microbiota: Randomized, Double-Crossover Clinical Trial. Journal of Medical Internet Research, v. 23, n. 12, p. e30291, 2021. DOI: 10.2196/30291.
BERTIN, L. et al. The Role of the FODMAP Diet in IBS. Nutrients, v. 16, n. 3, p. 370, 2024. DOI: 10.3390/nu16030370.
CHU, P. et al. The effects of low FODMAP diet on gut microbiota regulation: a systematic review and meta-analysis. Journal of Food Science, v. 90, p. e70072, 2025. DOI: 10.1111/1750-3841.70072.
COLOMIER, E. et al. Efficacy and Findings of a Blinded Randomized Reintroduction Phase for the Low FODMAP Diet in Irritable Bowel Syndrome. Gastroenterology, 2024. DOI: 10.1053/j.gastro.2024.01.032.
GIBSON, P. R.; SHEPHERD, S. J. Personal view: food for thought — western lifestyle and susceptibility to Crohn’s disease. The FODMAP hypothesis. Alimentary Pharmacology & Therapeutics, v. 21, n. 12, p. 1399–1409, 2005. DOI: 10.1111/j.1365-2036.2005.02506.x.
O’BRIEN, L. et al. Evolution, adaptation, and new applications of the FODMAP diet. JGH Open, v. 8, n. 5, p. e13066, 2024. DOI: 10.1002/jgh3.13066.
SO, D.; LOUGHMAN, A.; STAUDACHER, H. M. Effects of a low FODMAP diet on the colonic microbiome in irritable bowel syndrome: a systematic review with meta-analysis. American Journal of Clinical Nutrition, v. 116, n. 4, p. 943–952, 2022. DOI: 10.1093/ajcn/nqac176.
STAUDACHER, H. M. et al. Long-term personalized low FODMAP diet improves symptoms and maintains luminal Bifidobacteria abundance in irritable bowel syndrome. Neurogastroenterology & Motility, v. 34, n. 4, p. e14241, 2022. DOI: 10.1111/nmo.14241.
VERVIER, K. et al. Two microbiota subtypes identified in irritable bowel syndrome with distinct responses to the low FODMAP diet. Gut, v. 71, n. 9, p. 1821–1830, 2022. DOI: 10.1136/gutjnl-2021-325177.

Key Expressions and Keywords

Low-FODMAP diet, Irritable bowel syndrome, Gut microbiota, Elimination phase, Reintroduction phase, Personalization phase, Luminal Bifidobacteria, Prebiotic effect, Fermentable carbohydrates, Intestinal rehabilitation

25 de agosto de 202625 de agosto de 2026

The Modern Mayr Method and Gut Health: From Clinical Observation to Microbiome Science

In recent years, medicine and nutrition have definitively turned their attention to the digestive system. Phrases such as “the gut is our second brain” have become commonplace, yet more than a century ago, an Austrian physician was already championing this exact premise based on direct clinical observation. Dr. Franz Xaver Mayr (1875–1965) was a visionary who coined the maxim that health and disease begin in the gut.

Although Dr. Mayr was not aware of the detailed composition of the gut microbiota in his era—a concept that now dominates medical literature—he clearly understood the systemic impact of incomplete digestion, chronic fermentation, and intestinal autointoxication. Today, Modern Mayr Medicine (Moderne Mayr-Medizin) unites the brilliant empirical insight of its founder with the latest findings in gastroenterology, aiming primarily to restore eubiosis and gut microbiome equilibrium (Milz & Rauch, 2012).

In Brazil, the leading center for the dissemination and authentic clinical practice of this method is Lapinha (Clinic and SPA), which stands out as the only Brazilian facility officially certified by the International Society of Mayr Physicians (Internationale Gesellschaft der Mayr-Ärzte), based in Austria.

Who Was Dr. F. X. Mayr? Historical Background

Born in Austria, Dr. Franz Xaver Mayr dedicated his clinical career to studying the human gastrointestinal tract. He recognized that the majority of his patients suffered from silent digestive disorders driven by inadequate mastication, hurried eating habits, and the excessive intake of heavy foods late in the evening.

Dr. Mayr developed an innovative diagnostic system based on body posture, skin turgor, and abdominal tone, correlating abdominal contours with distinct stages of intestinal overload. His original therapeutic framework rested upon three fundamental pillars, known in the classical German literature as the three “S’s”:

Schonung (Rest / Gastrointestinal Protection)
Säuberung (Cleansing / Depuration)
Schulung (Training / Patient Education)

Modern clinical medicine subsequently integrated a fourth pillar:

Substitution (Targeted replacement of essential micronutrients)

How the Modern Mayr Method Works

Contrary to popular belief, the core purpose of the Mayr Method is not short-term weight loss; rather, it serves as a therapeutic catalyst empowering individuals to permanently transition toward a sustainable, healthy lifestyle (Stoss, 2018). The clinical protocol is structured into distinct, carefully managed phases:

Preparation (Pre-Mayr Phase)

Transitioning into the protocol requires the gradual weaning of inflammatory substances and central nervous system stimulants to minimize biological stress. Days prior to arriving at the retreat, the patient must completely eliminate:

Coffee and caffeinated beverages (energy drinks, black/green tea);
Alcohol and tobacco;
Ultra-processed foods, refined sugars, and excessive animal protein.

Dietary Therapy and Cleansing (Säuberung)

During the active treatment period, the dietary regimen is minimalist, easily digestible, and hypocaloric, tailored individually by the Mayr physician. While traditional protocols historically employed a regimen of milk and stale rolls (to strictly enforce prolonged mastication), Modern Mayr Medicine has evolved toward gut-protective diets featuring alkalizing vegetable broths, steamed vegetables, and high-digestibility foods.

A central component of Säuberung (cleansing) is the supervised daily morning administration of magnesium sulfate solutions (Epsom salts). Magnesium acts as an osmotic cathartic agent, promoting the physiological emptying of the small and large intestines, clearing stagnant metabolic debris, and stimulating biliary clearance—thereby directly assisting hepatic detoxification pathways.

Post-Mayr Phase (Kostaufbau)

Returning to daily routines represents the most critical phase. A rested gut and a recovering microbiome require a slow, stepwise food reintroduction (Kostaufbau). It is during this stage that the Schulung (education) pillar is consolidated: patients learn to chew thoroughly, recognize genuine physiological satiety signals, avoid large fluid volumes during meals, and adopt regular eating schedules that prevent dysbiosis.

The “Healing Crisis” and the Biology of Toxin Clearance

During the initial days of the Mayr protocol, patients frequently experience what classical medical literature describes as the Heilkrise (healing or detox crisis). Manifestations include severe tension headaches, arthralgias, profound fatigue, irritability, and transient dermatological reactions.

Historically, this response was generically attributed to “caffeine withdrawal” or vague “toxin elimination.” Today, microbiology provides a robust pathophysiological explanation based on the die-off of dysbiotic, pathogenic gram-negative bacteria following the sudden deprivation of their preferred metabolic substrates (refined carbohydrates and ultra-processed foods).

When these gram-negative bacteria lyse within the intestinal lumen, they release substantial quantities of structural cell wall components, including lipopolysaccharides (LPS / endotoxins) and flagellin (Wiest et al., 2014). This creates a transient inflammatory load across the gut barrier before epithelial restoration is completed. The translocation of these bacterial fragments into the portal circulation triggers the innate immune system, mimicking a low-grade systemic inflammatory response, which accounts for the transient headaches, malaise, and joint discomfort reported in the first few days.

Clinical Conditions Requiring Careful Consideration

Contemporary Mayr Medicine is significantly more flexible and individualized than its original historical iterations. Today, its foundational tenets are tailored to the clinical profile of each patient, accounting for age, nutritional status, comorbidities, and baseline functional capacity.

Nonetheless, intensive dietary modifications, caloric deficits, fasting periods, and the administration of osmotic cathartics like magnesium sulfate mandate rigorous medical oversight. Geriatric patients (particularly frail individuals), individuals with low body mass index (BMI), active malnutrition, recent post-operative status, acute illnesses, end-organ dysfunction, polypharmacy, or complex multisystem pathologies require extensive protocol adaptations or, in select circumstances, deferral of the intervention until clinical stability is achieved (Volkert et al., 2019).

Substantial dietary alterations drive rapid shifts in the gut microbiota. Clinical evidence confirms that the taxonomic composition and metabolic output of intestinal bacteria can change within days of an acute dietary shift (David et al., 2014). During this adaptive phase, transient symptoms such as headaches, lethargy, bowel pattern shifts, mild abdominal distension, dizziness, or sleep disturbances may emerge. These are generally mild, self-limiting adaptations reflecting combined metabolic, hormonal, fluid-electrolyte, and microbial adjustments rather than a single pathological process.

In clinically stable patients, these symptoms typically resolve spontaneously within a few days. However, in patients with decompensated chronic disease, reduced physiological reserve, or clinical frailty, abrupt nutritional or electrolyte shifts could precipitate clinical instability. Consequently, trained Mayr physicians must calibrate intervention intensity, personalize clinical pathways, and, when indicated, temporarily contraindicate or postpone residential immersion until it can be conducted safely.

The Role of Relative Rest and Energy Conservation

A common misconception among participants is attempting to maintain intense physical exercise during the program. Mayr Medicine explicitly advises against strenuous physical exertion during this phase (Stoss, 2018).

Because the body redirects metabolic energy toward cellular autophagy, tissue repair, and the clearance of metabolites, patients naturally experience transient episodes of lethargy early in the protocol. Deep physiological cleansing demands relative rest. Physical activity is deliberately limited to gentle walks, stretching, outdoor breathwork, and practices that stimulate parasympathetic tone—allowing the gut-liver axis to function without competing for blood flow demanded by strenuous skeletal muscle exertion.

Conclusion

The Modern Mayr Method has endured because its clinical framework, empirically established by Dr. F. X. Mayr, is directly corroborated by contemporary research into the gut barrier and the human microbiome. Far from serving as a simple “weight-loss spa,” certified centers such as Lapinha implement the protocol as an intensive medical and educational intervention. By retraining the digestive tract through rest, cleansing, and education, patients not only re-establish gut barrier integrity, but also acquire the behavioral tools essential for sustaining long-term metabolic health.

References

DAVID, L. A. et al. Diet rapidly and reproducibly alters the human gut microbiome. Nature, London, v. 505, n. 7484, p. 559–563, 2014.
MILZ, B.; RAUCH, P. Lehrbuch Moderne Mayr-Medizin: Diagnostik und Therapie nach F.X. Mayr für die Arztpraxis. 2nd ed. Stuttgart: Haug Verlag, 2012.
STOSS, H. J. F.X. Mayr-Medizin como pilar de mudança de estilo de vida: prevenção e terapia de doenças crônicas não transmissíveis. Wiener Medizinische Wochenschrift, v. 168, n. 5, p. 122–131, 2018.
VOLKERT, D. et al. ESPEN guideline on clinical nutrition and hydration in geriatrics. Clinical Nutrition, Edinburgh, v. 38, n. 1, p. 10–47, 2019.
WIEST, R. et al. Bacterial translocation in the gut-liver axis: Pathophysiological mechanisms and clinical significance regarding endotoxemia and systemic inflammation. Gut, v. 63, n. 2, p. 297–310, 2014.

21 de agosto de 2026

Eating Every Three Hours or Intermittent Fasting?

Eating Every Three Hours: Physiological Necessity or a Habit Turned Dogma?

For decades, one guideline was repeated almost as an immutable law of nutrition: “Eat every three hours to keep your metabolism revved up.”

The premise seems intuitive. If eating increases the energy expenditure of digestion, perhaps eating multiple times a day would keep the metabolism permanently “fired up.” The problem is that human physiology does not corroborate this assumption.

Today, the best available evidence does not demonstrate that eating five or six meals a day is metabolically superior to eating three or even fewer meals. More importantly: there is no scientific proof that eating every three hours “speeds up” the metabolism.

Metabolism Is Not a Campfire That Needs Constant Fueling

The human body does not function like a flame that progressively dies down whenever we spend a few hours without food.

Total energy expenditure depends primarily on basal metabolic rate, body composition, physical activity, the thermic effect of food, and other physiological determinants. Simply dividing the exact same amount of food across more meals does not generate any clinically meaningful additional energy expenditure.

A systematic review with network meta-analysis of 22 randomized clinical trials, published by Schwingshackl et al. (2020), compared different meal frequencies under isocaloric conditions. Interestingly, consuming two meals per day produced slightly more weight loss than three or six meals in certain comparisons. However, the authors remained cautious, concluding that robust evidence was still insufficient to claim that reducing meal frequency is inherently superior.

An even more recent review, published by Blazey et al. (2023), compared eating patterns of up to three meals per day against patterns of four or more meals. The conclusion was straightforward: no discernible advantage of high versus low meal frequency was identified regarding body weight or cardiometabolic health. The authors emphasized that there are no evidence-based dietary guidelines establishing an optimal meal frequency for healthy adults.

Practical Summary

There is no scientific evidence that eating every three hours accelerates metabolism. This is not the same as saying three meals a day is bad—it can be an excellent pattern. What it is not is a universal physiological requirement.

What Happens When We Allow Intervals Between Meals?

Here lies a lesser-known aspect of digestive physiology.

Between feeding periods, the so-called Migrating Motor Complex (MMC) takes place. This is a cyclic pattern of electromechanical motor activity occurring in the stomach and small intestine during fasting, which is promptly interrupted by food ingestion (Deloose et al., 2012).

In simplified terms, the MMC functions as a “housekeeping wave” for the gastrointestinal tract, propelling coordinated contractions through the stomach and small intestine during interprandial intervals.

Therefore, it is entirely biologically plausible that adequate intervals between meals form an integral part of normal gastrointestinal physiology.

However, one must avoid overstating the conclusion: the presence of the MMC does not mean we require prolonged fasts to “cleanse the bowel,” nor that eating frequently inherently causes digestive injury. What we do know is that food intake interrupts the MMC, while fasting allows it to re-emerge cyclically.

Practical Summary

The interval between meals is not a state of “dormant metabolism.” It is a period of active, restorative physiology.

What About the Gut Microbiota?

Here, too, we must move beyond oversimplified explanations. The gut microbiota does not depend solely on “how many times we eat,” but rather on the qualitative composition of our diet, the availability of fiber and fermentable substrates, eating rhythms, sleep patterns, physical activity, pharmacotherapy, and numerous other variables.

Current evidence remains insufficient to claim that simply having two or three meals yields a “superior” microbiota compared to five or six.

Nonetheless, there is a sound physiological rationale for studying the interplay between fed and fasted states: nutrient arrival profoundly shifts the intraluminal environment, gut motility, bacterial substrate availability, and host metabolic signaling.

Thus, the hypothesis is biologically compelling, but we must refrain from translating plausible mechanisms into unverified clinical claims.

Fewer Meals Can Be Helpful—Especially for Habitual Grazers

There is also a very straightforward behavioral advantage. Every eating occasion can easily become an opportunity for excess caloric intake:

Breakfast
Mid-morning snack
Lunch
Afternoon snack
“Just a quick coffee with a little bite”
Dinner
Late-night snack

When eating opportunities multiply, recognizing authentic physiological hunger becomes far more challenging. This explains why reducing meal frequency works effectively for many individuals: not because it “supercharges the metabolism,” but because it simplifies dietary routines and extends the window during which the body remains without incoming energy.

The meta-analysis by Liu et al. (2024), published in JAMA Network Open, synthesized 29 randomized clinical trials comprising 2,485 participants. Strategies incorporating time-restricted eating (TRE), lower meal frequency, and earlier caloric distribution were associated with modest additional weight reductions. The authors noted, however, that overall effect sizes were modest and the certainty of evidence was tempered by heterogeneity and risk of bias.

This is fundamentally different from stating that “fewer meals are always better.” We cannot claim that. What we do know is far more crucial:

Human physiology does not mandate eating every three hours.

So, How Many Meals Should We Eat?

There is no universally prescriptive number. One individual may thrive on three square meals. Another may prefer two main meals and a small snack. A third may require higher frequency due to clinical conditions, medication regimens, athletic demands, or behavioral factors.

The defining factor is that the chosen frequency must ensure:

Nutritional adequacy;
Energy intake regulation;
Robust satiety;
Preservation of lean muscle mass;
Restorative sleep quality;
A healthy relationship with food;
Long-term sustainability.

For many individuals, longer interprandial intervals are entirely physiological and can substantially facilitate appetite control.

Where Does Intermittent Fasting Fit In?

Time-Restricted Eating (TRE), a prominent form of intermittent fasting, takes this concept one step further: food intake is consolidated within a specific daily window, leaving a more extended period free from caloric intake.

Recent clinical evidence is promising, though it offers no panaceas. The review by Liu et al. (2024) identified a slight advantage of TRE over control diets for weight loss, alongside favorable metabolic outcomes for strategies combining lower meal frequency with caloric front-loading earlier in the day.

This suggests that health outcomes depend not merely on the number of meals, but also on the spacing between them and the circadian timing of food intake. This is precisely where the field of chrononutrition becomes compelling.

Key Takeaways

Eating every three hours does not “speed up” the metabolism.
Frequent feeding holds no proven metabolic superiority for the general population. Meal frequency should be personalized, and longer interprandial intervals are fully aligned with human physiology.
The Migrating Motor Complex demonstrates that the digestive system features a physiologically active fasting phase, while recent trials indicate that reduced meal frequency and time-restricted eating can modestly support weight management.
The clinical takeaway is not to replace one dogma with another: we do not need to eat by the clock every three hours. We need to eat nutritious food appropriately—and grant our physiology the regular opportunity to spend several hours without eating.

Fewer grazing episodes, more mindful meals, adequate interprandial resting periods, and an organized eating window constitute a strategy far more coherent with human biology than eating compulsorily by the clock.

References

BLAZEY, P. et al. The effects of eating frequency on changes in body composition and cardiometabolic health in adults: a systematic review with meta-analysis of randomized trials. International Journal of Behavioral Nutrition and Physical Activity, v. 20, n. 133, 2023. DOI: 10.1186/s12966-023-01532-z.
DELOOSE, E. et al. The migrating motor complex: control mechanisms and its role in health and disease. Nature Reviews Gastroenterology & Hepatology, v. 9, p. 271–285, 2012.
LIU, H. Y. et al. Meal timing and anthropometric and metabolic outcomes: a systematic review and meta-analysis. JAMA Network Open, v. 7, n. 11, e2442163, 2024. DOI: 10.1001/jamanetworkopen.2024.42163.
POPP, C. J.; MANOOGIAN, E. N. C.; LAFERRÈRE, B. Meal timing interventions for weight loss and metabolic health—what does the evidence tell us so far? JAMA Network Open, v. 7, n. 11, e2442140, 2024. DOI: 10.1001/jamanetworkopen.2024.42140.
SCHWINGSCHACKL, L. et al. Impact of meal frequency on anthropometric outcomes: a systematic review and network meta-analysis of randomized controlled trials. Advances in Nutrition, v. 11, n. 5, p. 1108–1122, 2020. DOI: 10.1093/advances/nmaa056.

BIBLIOTECA DE CONHECIMENTO

Tag: Gut microbiota

The Low-FODMAP Diet: Clinical Tool or Misunderstood Trend?

The Modern Mayr Method and Gut Health: From Clinical Observation to Microbiome Science

Eating Every Three Hours or Intermittent Fasting?

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