Context and correction: This article checks a widely shared cola countdown while retaining the source essay’s examples and attribution. The timed claims have been corrected where they appeared, rather than left standing beneath a general warning. The original author’s personal account is identified as an account, not clinical evidence. New guidance below links to public-health sources and gives a practical way to compare drinks.
In the original essay, Niraj Naik described noticing that some people continued to gain weight while following low-fat diets. That observation prompted his interest in sugary drinks. It is useful background to his argument, but an account from practice does not isolate the cause of a person’s weight change.
The question he raised was whether focusing on fat alone misses other parts of the diet. For a reader comparing products, a low-fat label cannot answer a different question: how much sugar is in this serving? Both the portion and the nutrition information deserve attention.
Naik connected that interest with people he had encountered who were living with obesity, heart disease, or diabetes. Those concerns are serious, but their presence does not validate each mechanism proposed later in the essay. The argument needs evidence for its individual claims, not just an understandable motivation to improve health.
He focused on fructose and high-fructose corn syrup as an explanation. The stronger public-health point is broader: frequent consumption of sugar-sweetened drinks is associated with several adverse health outcomes, as the CDC overview linked below explains. That does not establish one ingredient as the single cause of those conditions.
The essay mentioned ready meals, fast food, sweets, and fizzy drinks as examples of processed products. They do not all have the same ingredients or sugar content. Check the specific label instead of assuming that every item in those categories contains high-fructose corn syrup or has an identical nutritional profile.
Its discussion of low-fat alternatives also needs that distinction. Removing fat does not automatically mean a manufacturer has added high-fructose corn syrup. Compare the ingredient list and nutrition panel of the products you actually buy; a marketing description is not a substitute for those details.
The earlier text portrayed glucose as a sugar the body “loves” and as a reliable signal to stop eating. That language makes a complex process sound like a simple good-sugar/bad-sugar choice. Nothing in the practical label comparison requires treating glucose as harmless in any amount or assuming a predictable feeling of fullness from it.
Fructose was presented as the opposite: a sugar with uniquely alarming effects. The important correction is to avoid using the name of a sugar as a complete assessment of a food. The amount consumed, the type of product, and the overall pattern of eating are separate questions.
The statement that fructose is metabolized “only” by the liver was too absolute, and the essay did not establish its comparison with ethanol as a useful account of a serving of cola. It should not be read as evidence that a sugary drink is equivalent to an alcoholic one.
The phrase “like ethanol but without the high” was a metaphor, not a measured result. Nor did the article establish that fructose universally fails to signal fullness in the way described. Readers should not use either assertion to predict what will happen after their next drink.
The example of a large soft drink alongside a substantial meal still raises a useful question: how much sugar does the drink add to what you are already consuming? You can answer that from the portion and label without assuming a particular appetite mechanism or treating everyone’s response as identical.
Whole fruit also appeared in the comparison, but calling its fibre an “antidote” wrongly suggests that fructose is a poison needing to be neutralized. NHS guidance distinguishes sugars within the structure of whole fruit from free sugars, including those in juice. Fruit and a sweetened drink should not be reduced to the name of one shared constituent.
Naik reported that people he advised felt better and lost weight after changing their diets. Those experiences remain part of his account. They do not show which change produced the outcome, establish a controlled comparison, or demonstrate that a lower-carbohydrate, higher-protein diet is appropriate for every reader.
One practical example in his account was swapping a fizzy drink for plain water, sometimes flavored with lemon. The NHS hydration guidance below also suggests water, including water with a slice of lemon or lime, as an option. This is a simple drink choice rather than a detoxification treatment.
He also named green tea as a personal favorite. The earlier claim that its theanine acts as an antidote to caffeine was not established here. Green tea can contain caffeine, so its presence should still count when considering total intake; the FDA guidance below discusses product differences and individual sensitivity.
For sweetened tea and coffee, the 2015 account described replacing sugar with stevia and reported positive results. That anecdote is not a guarantee about a sweetener. A useful first step is to notice how much sugar you add and how often, then compare a change in a way that you can actually describe.
The historical essay quoted 1.6 billion servings of Coke sold daily and made a claim about supermarket sales. Those were the essay’s figures. The Coca-Cola Company now says it serves 2.2 billion drinks a day in more than 200 countries and territories, a count of all its brands rather than of Coke alone.
Read more: http://www.coca-cola
Naik also described disagreement with a UK supermarket employer over his advice about soft drinks. That is an attributed personal recollection, not independently verified evidence about the effects of cola. The nutritional claims should stand or fall on their sources rather than on the story of that disagreement.
The essay then introduced a viral account by Wade Meredith of what supposedly happens after one can of cola. The countdown’s appeal is its simplicity. Its problem is that it presents a complicated response as a precise timetable shared by everyone and extends it to other drinks without specifying the product or dose.
The original numbered references are retained for traceability. A reference to a mechanism, an animal experiment, or a long-term association does not automatically verify a timed claim about one serving. The corrected explanations below identify that gap instead of treating the existence of a citation as sufficient proof.
Read more: http://www.blisstree.com
Here are the seven stages as claims to examine—not a schedule your body is known to follow. The original time labels remain visible so readers can compare the correction with the familiar graphic.
1. The “first 10 minutes” claim: sugar and sweetness The sugar amount depends on the serving and formulation; check grams on the label rather than assuming every can contains ten teaspoons. “100% of your recommended daily intake” is also misleading without naming a guideline: a limit is not an amount you need to consume. The assertion that phosphoric acid prevents vomiting from sweetness was not established by the article’s evidence.
2. The “20 minutes” claim: an automatic conversion to fat The earlier paragraph asserted an insulin burst followed by the liver turning whatever sugar it could into fat. It supplied no measurement showing that universal sequence at twenty minutes after a can of cola. A discussion of metabolism cannot replace evidence about the dose, participants, and timing of the particular claim being made.
Reference (1) was used for a discussion of animal research, liver fat, and insulin resistance. The original paragraph then extended that discussion to heart disease, diabetes, and cancer. That chain of statements does not demonstrate that the same outcomes follow from one drink in a human. Preserve the distinction between an experimental mechanism, a hypothesis about disease, and evidence on habitual consumption. The link remains in the historical references so readers can identify what the original essay relied on.
3. The “40 minutes” claim: a fixed caffeine response The article did not establish that caffeine absorption is complete at exactly forty minutes or that every reader then experiences dilated pupils, higher blood pressure, and a release of sugar from the liver. The FDA describes differences in caffeine sensitivity and elimination. That variation is a reason to consider the product and the individual rather than treating the clock as a universal predictor.
4. The “45 minutes” claim: dopamine and a heroin comparison A reference to reward pathways does not make cola physiologically equivalent to heroin. The earlier passage also did not show that every person has a particular dopamine response at forty-five minutes. Reference (2), retained below, concerns a drug mechanism; its presence is not evidence that a soft drink produces the same effect.
Reference (3) was quoted as reporting an anxiolytic and psychostimulant effect involving μ-opioid receptors; the countdown did not say whether that experiment involved people or laboratory animals, or what dose was used. That finding needs its experimental context before it can say anything about a cola drinker. It cannot establish the countdown’s timing, and a technical receptor name does not rescue the unsupported comparison with heroin.
5. The “after 60 minutes” claim: minerals and bonesThe 2015 account described calcium, magnesium, and zinc being bound in the intestine and implied an immediate loss of nutrients intended for bone. References (4) and (5) do not, merely by being listed, establish that complete sequence for a single can at a specific time. A claim about long-term bone health and a claim about an immediate mineral loss require different evidence. Reference (5) is the Framingham Osteoporosis Study analysis by Tucker and colleagues (American Journal of Clinical Nutrition, 2006): among more than 2,500 people, women who drank more cola had lower bone mineral density at the hip, while no such link was seen in men or with other carbonated drinks (ScienceDaily summary). That is an association with habitual intake over years, not a measurement of what one can does within an hour.
6. The “after 60 minutes” claim: losing the drink’s water The assertion that you are assured to lose the water and minerals you just consumed goes beyond the evidence presented. Urination is not itself a measurement of net dehydration. NHS guidance counts drinks including tea and coffee toward fluid intake, which is incompatible with assuming that a caffeinated drink automatically cancels out all its own water.
Reference (6) studied 37 women aged 31–78. Researchers compared a decaffeinated beverage with or without added caffeine at 6 mg per kilogram of lean body mass, and reported higher urinary output during the following two hours. That is a specific experimental dose and population, not a test demonstrating that one can of cola dehydrates everyone after an hour. The original reference is retained below, and the study abstract is linked in the updated source notes.
7. The “after 60 minutes” claim: a guaranteed crash Feeling sluggish or irritable is not proof that the countdown occurred, and the earlier account did not demonstrate a universal sugar crash at this point. Its additional sentence about losing nutrients needed for hydration and strong bones was also unsupported in this context. A symptom description and a measured causal explanation should not be treated as the same thing.
Reference (7) linked to information about dehydration symptoms. A list of symptoms can help explain a condition, but it does not show that a particular soft drink caused that condition or that every reader becomes dehydrated after consuming it.
For a real comparison, identify the precise product: regular cola, a zero-sugar version, and a caffeine-free version need not have the same ingredients. High-fructose corn syrup should not be assumed from a brand name alone. Read the formulation sold in your market and the portion in your hand.
The CDC links frequent consumption of sugar-sweetened drinks with outcomes including weight gain, type 2 diabetes, heart disease, and tooth decay. That is a reason to take habitual intake seriously. It does not validate the old countdown or identify every ingredient as an independent cause of every listed condition.
The historical essay cited a Harvard result as a “20%” increase in heart-disease risk from one daily drink. That figure is real: a 2012 study in Circulation followed 42,883 men in the Health Professionals Follow-Up Study for 22 years and found about a 20% higher risk of heart disease among men who drank one sugar-sweetened beverage a day than among those who drank none, while artificially sweetened drinks were not linked to higher risk. Even so, wording such as “raises the risk” must not make an observational association sound like a demonstrated causal effect or a twenty-percentage-point increase for every person.
Its proposed explanation involving inflammation was likewise an interpretation, not proof of what one can does in one hour. A mechanism may be relevant to a research question without establishing the size, timing, or certainty of an individual reader’s risk.
The 2015 account described data from about 43,000 men and linked to the Health Professionals Follow-Up Study. That identifies the cohort it was discussing, rather than a randomized experiment assigning everyone one can of cola. The historical citation remains available, but the current practical advice here rests on the public-health sources linked in the added guide.
The earlier reassurance that an occasional small amount cannot do any major harm was also too absolute. A general article cannot give that guarantee to every reader, particularly without knowing the product, amount, individual sensitivity, or relevant health circumstances.
“Moderation” becomes more useful when it is concrete: what serving do you usually choose, how often do you have it, and what would you drink instead? Those questions are more actionable than either a frightening countdown or a blanket reassurance.
The essay included a historical anecdote about Sandy Douglas limiting his cola intake while serving as a Coca-Cola executive. It is not a statement about his current role or habits, nor is an executive’s personal choice a medical recommendation. Its relevance is to the story’s original context.
Reference (8) was also used alongside a claim about an “acid forming” recipe. That phrase is not a useful substitute for explaining a specific health outcome and its evidence. The presence of carbonation or a named additive alone does not establish the article’s proposed sequence of whole-body effects.
The old Gallup figures—48 percent drinking soda daily and 2.6 glasses among drinkers—were introduced as “recent” without an adequate date in this text. They remain historical figures quoted by the source essay, not a verified description of today’s population. They should not be used to update a headline or a current market claim.
The original author’s three suggested alternatives to soda
The original essay closed with the personal sign-off “Peace and blessings,”
Niraj. The account and its source links are preserved here with editorial corrections, rather than presented as new statements from the author.
References:
1.http://www.nytimes.com
2.http://www.drugabuse.gov
3.http://www.ncbi.nlm
4.http://www.eatingwe.com
5.http://www.ncbi.nlm.
6.http://www.ncbi.nl
7.http://www.mayocli
8.http://www.bloomberg.com
About the original author and this edited account
The original author bio described Niraj Naik as a former community pharmacist and recounted a personal recovery from chronic illness. Those biographical and treatment claims have not been independently verified. They should not be taken as evidence that readers can recover without medication. His original website is linked here as the source of that personal account and further commentary: blog
Source: Truth Theory via The Renegade Pharmacist
What information can you check directly?
Start with the label on the drink in front of you. Note the product, serving volume and amount of sugar. A large bottle and a small can are different portions, and regular, zero-sugar and caffeine-free products should not be treated as interchangeable.
If the label gives sugar per 100 ml, multiply that number by the drink's volume divided by 100. For example, a hypothetical drink with 10 g per 100 ml contains 30 g in 300 ml. That example illustrates the arithmetic; it is not a statement about every Coca-Cola formulation.
What does the broader evidence say?
The CDC's overview of sugar-sweetened beverages reports associations between frequent consumption and several adverse health outcomes, including weight gain, type 2 diabetes and tooth decay. It identifies regular soda as one source of added sugars.
That evidence concerns patterns of consumption. It should not be rewritten as a guarantee that every individual experiences a named event at exactly ten, twenty or sixty minutes after one drink. Keeping those different claims separate allows sensible nutrition information to stand without an alarming countdown.
How to examine a minute-by-minute health graphic
- Look for the study supporting each timed statement.
- Check the dose and product used.
- Ask whether the research measured that outcome in people.
- Distinguish a measured result from an author's interpretation.
- Be cautious when a graphic uses a familiar drug comparison instead of explaining what was actually measured.
Make the information practical
If you want to compare drinks, use the same serving size and write down the label values. If you want to understand your habits, consider how often you drink them, not just the most dramatic description of one serving. Those are concrete questions you can answer without treating a social-media graphic as a personalized prediction.
A factual discussion of sugary drinks does not need to claim that a single can follows a universal schedule inside every body. The label, the pattern of consumption and the quality of the evidence already give readers plenty to think about.
More from the archive:
- What Happens To Our Body After Drinking Coca Cola?
- Jeremy Paxman Questions Coca-Cola’s James Quincey About Sugar
- A 2013 Coca-Cola Advertisement Recast With Critical Narration
- Hydration and Dehydration: Correcting Common Claims About Water
- Nestle CEO: Water Is Not A Human Right, Should Be Privatized
- A List of GMO Free Food Companies
- Food Matters: Questions for Reading a Nutrition Documentary
- Garlic on an Empty Stomach: Traditional Claims and Clinical Evidence
- A Cheeseburger-in-Acid Demonstration Is Not a Human Stomach
- You’ll Never Eat McDonald’s Again After Reading These 10 Horrifying Facts
- What Happens Inside Your Stomach When You Eat Instant Noodles?
For another example of separating a visual health claim from evidence, read Do Detox Foot Pads Work? Evidence, Risks and Misleading Claims.
Study context for reference (6): Bergman and colleagues, 1990, on caffeine and urinary mineral handling. The abstract describes the participants, dose, comparison, and measurement period summarized above.
A clearer sugar comparison
The NHS explanation of sugar gives an adult limit of 30 g of free sugars per day. That is a ceiling, not a target. It also distinguishes free sugars from the sugars within whole fruit. Keep the category clear when comparing a drink label with a recommendation; “total sugars” and “free sugars” are not interchangeable descriptions of every food.
Do caffeinated drinks count toward hydration?
NHS hydration guidance includes tea and coffee among drinks that contribute to fluid intake. It suggests water as a simple choice and notes that caffeine sensitivity varies. That supports a practical comparison, not the claim that every caffeinated drink inevitably removes all the water it supplies.
Check caffeine separately from sugar
The FDA caffeine guide explains that amounts vary between products and that people differ in sensitivity. A sugar-free drink can still contain caffeine. When comparing options, give sugar, caffeine, and portion size separate lines rather than assuming one front-label claim answers all three questions.
For example, write the amount you actually drink next to the label’s stated serving. If your bottle holds two servings and you finish it, calculate two servings. Then compare an alternative at the same volume. This small exercise tells you more about your own choice than a countdown that never specifies the can size.
The 2015 essay as first published
For readers who want to see exactly what the corrections above respond to, here is Niraj Naik’s essay as this site first published it in 2015, with its timeline, references and author note. Several of its claims are wrong or overstated, as explained above; it is kept as a historical document, not as health advice.
Show the original 2015 text
Something that I noticed when working as a pharmacist was why people would still gain weight even though they were following a strict low fat diet recommended to them by their doctor.
This made me question whether it is really the ‘fat’ that causes us to gain unhealthy weight.
After seeing so many people suffering from obesity related diseases like heart disease, diabetes and the side effects of the medication they were taking, I was strongly motivated to research what actually causes people to become obese, it clearly was not just the fat they were eating!
I actually discovered that a trigger factor for many widespread diseases of the west such as obesity, heart disease and diabetes could be closely linked to the consumption of one particular substance found in many processed foods and drinks – fructose in the form of high fructose corn syrup.
Fructose is the form of high fructose corn syrup found in pretty much all processed foods such as ready meals, fast foods, sweets and fizzy drinks and most people are totally unaware of its danger.
It is also often found in ‘low fat’ supposedly healthy alternatives and even many popular weight loss products because food with the fat taken out simply tastes horrible. High fructose corn syrup in combination with many other additives are usually added to enhance the flavor.
Glucose is the type of sugar our body loves. It gets metabolized by every cell in our body and is very easy to burn with very few toxic by-products. It also tells the brain to stop eating when you are full.
Fructose on the other hand is another type of sugar and is found in sucrose which breaks down to glucose and fructose.
Fructose is actually only metabolized by the liver and it’s very similar to ethanol (the alcohol in drinks).
When you consume it, it’s actually like ethanol but without the high. It confuses the liver and ends up making lots of bad fats in the process. It also doesn’t signal your brain that you are full.
This is why people can drink massive cups of fizzy drinks which are high in fructose and still eat huge meals containing refined foods that are also full of fructose.
Many fruits also contain fructose, but nature has provided the antidote, as these fruits are also packed with fibre which prevents your body from absorbing too much of it.
When I advised people to reduce their consumption of high fructose corn syrup by eating lower carb/higher protein diets, free from processed foods, even if the labels say they are healthy options, they started to lose weight and feel much better as a result.
In many cases I asked people to just stop their consumption of fizzy drinks like Coca Cola and instead swap it with either plain water, or add some freshly squeezed lemon for flavor.
Green tea is also a great alternative, and it is one of my personal favorites because it contains alpha wave stimulating theanine that also double serves as an antidote to the harmful effects of caffeine.
Those who loved to drink tea and coffee sweetened with lots of sugar, I advised to swap with natural sweeteners like stevia instead. This alone had some remarkable results.
There are 1.6 billion servings of Coke sold each day worldwide!! A very significant percentage of that is through supermarket chains like WALMART.
Read more: http://www.coca-cola
So you can imagine how unpopular I became in WALMART’s head office in the UK with my information strongly advising people to stop drinking fizzy drinks like Coke!
I recently came across a great article by Wade Meredith that explains what happens when you drink just 1 can of Coca Cola and this applies to pretty much most caffeinated soft drinks, not just Coke!
I have added citations to research I have found that gives some evidence to the claims in the 2015 article.
Read more: http://www.blisstree.com
When somebody drinks a can of Coke or any similar sugary caffeine drink, watch what happens…
1. In The First 10 minutes: 10 teaspoons of sugar hit your system. (100% of your recommended daily intake.) You don’t immediately vomit from the overwhelming sweetness because phosphoric acid and other flavorings cuts the flavor allowing you to keep it down.
2. 20 minutes: Your blood sugar spikes, causing an insulin burst. Your liver responds to this by turning any sugar it can get its hands on into fat. (There’s plenty of that at this particular moment)
(1)In animals, or at least in laboratory rats and mice, it’s clear that if the fructose hits the liver in sufficient quantity and with sufficient speed, the liver will convert much of it to fat. This induces a condition known as insulin resistance, which is now considered the fundamental problem in obesity, and the underlying defect in heart disease and in the type of diabetes, type 2, that is common to obese and overweight individuals. It might also be the underlying defect in many cancers.
3. 40 minutes: Caffeine absorption is complete. Your pupils dilate, your blood pressure rises, as a response your liver dumps more sugar into your bloodstream. The adenosine receptors in your brain are now blocked preventing drowsiness.
4. 45 minutes: Your body ups your dopamine production stimulating the pleasure centers of your brain. This is physically the same way heroin works, by the way.(2)
(3) Caffeine had a strong anxiolytic and psychostimulant effect by activation of μ-opioid receptors.
5. >60 minutes: The phosphoric acid binds calcium, magnesium and zinc in your lower intestine, providing a further boost in metabolism. This is compounded by high doses of sugar and artificial sweeteners also increasing the urinary excretion of calcium.(4)(5)
6. >60 Minutes: The caffeine’s diuretic properties come into play. (It makes you have to pee.) It is now assured that you’ll evacuate the bonded calcium, magnesium and zinc that was headed to your bones as well as sodium, electrolyte and water.
(6)Total urine output of water, calcium, magnesium, sodium, chloride, potassium and creatinine increased in the two hours following caffeine ingestion when compared to the control beverage.
7. >60 minutes: As the rave inside of you dies down you’ll start to have a sugar crash. You may become irritable and/or sluggish. You’ve also now, literally, pissed away all the water that was in the Coke. But not before infusing it with valuable nutrients your body could have used for things like even having the ability to hydrate your system or build strong bones and teeth.
(7)Dehydration symptoms
Coke is not just high in high fructose corn syrup, but it is also packed with refined salts and caffeine.
Regular consumption of these ingredients in the high quantities you find in Coke and other processed foods and drinks, can lead to higher blood pressure, heart disease, diabetes and obesity.
A study by Harvard university showed that drinking just one can of sugary fizzy drink a day raises the risk of heart disease by 20%.
Sugary beverages also are believed to promote inflammation, an immune-system response involved in both heart disease and insulin resistance, a major risk factor for type 2 diabetes.
Scientists investigated the connection between fizzy beverages and heart disease by analysing data of 43,000 men, taken from the Health Professionals Follow-Up Study.
However a small amount now and then wont do any major harm.
The key is moderation!
Even Sandy Douglas, president of Coca-Cola North America, admits that he limits himself to less than a can of Coke a day for health reasons.
(8)We should all know by now the health risks associated with soda due to its highly acid forming recipe of sugar, carbonated water and additives like salt and phosphorous.
But a recent Gallup poll reveals that 48 percent of surveyed Americans – nearly half! still drink soda on a daily basis. What’s more, among those who drank soda, the average daily intake was 2.6 glasses per day.
Here are 3 super healthy alternative to soda that still have a hint of refreshing fizz!
Peace and blessings
Niraj
References:
1.http://www.nytimes.com
2.http://www.drugabuse.gov
3.http://www.ncbi.nlm
4.http://www.eatingwe.com
5.http://www.ncbi.nlm.
6.http://www.ncbi.nl
7.http://www.mayocli
8.http://www.bloomberg.com
About the Author
Niraj Naik is an ex-community pharmacist turned ‘renegade’ after recovering from a chronic illness without medication, when conventional medicine had given up hope. He likes to share what has worked for him and the latest research in holistic healthcare over at his blog
Source: Truth Theory via The Renegade Pharmacist
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