If you have ever searched for the best omega-6-to-omega-3 ratio for ALA conversion, you have probably encountered a lot of vague advice.
Eat more omega-3s. Reduce excess omega-6. Choose plant foods rich in ALA. Balance your fats.
But what does the research actually show?
One particularly specific laboratory study tested that question directly. Researchers exposed human liver-derived cells to different combinations of linoleic acid, or LA, the main dietary omega-6 fatty acid, and alpha-linolenic acid, or ALA, the essential plant-based omega-3 fatty acid. Instead of relying on estimates, the researchers used isotope-labeled fatty acids so they could track what happened to the ALA after the cells took it up.
The standout finding was strikingly specific: among the mixed LA-and-ALA conditions tested, the 1:1 ratio produced the highest measured formation of longer-chain omega-3 products. In that 1:1 condition, about 17 percent of the recovered labeled ALA was converted to EPA, while about 0.7 percent was converted to DHA.
That is the data point behind the phrase “1:1 ratio maximum ALA conversion study.”
There is an important qualification, though. This was a controlled cell experiment, not a feeding trial in people. The result does not mean that every person should try to consume exactly equal amounts of omega-6 and omega-3 fatty acids. It does mean that the ratio of LA to ALA can influence how cells process ALA through the biochemical pathway involved in making EPA and DHA.
That distinction matters.
It turns a broad nutrition slogan into a much more useful question: what actually happened in the experiment, why might a 1:1 ratio have mattered, and what can a person realistically take from it?
What Did the 1:1 Ratio Maximum ALA Conversion Study Actually Find?
The study examined how changing the relative amounts of linoleic acid and ALA affected the cellular conversion of ALA into longer-chain omega-3 fatty acids.
The researchers tested several LA-to-ALA conditions rather than looking at only one ratio. The experimental conditions included:
| LA ratio | General meaning |
|---|---|
| 0:1 | ALA without added LA |
| 1:1 | Equal amounts of LA and ALA |
| 4:1 | Four parts LA to one part ALA |
| 9:1 | Nine parts LA to one part ALA |
| 1:0 | LA without added ALA |
The fatty acids were isotope-labeled, which gave the researchers a way to follow the ALA as it was taken up and metabolized by the cells.
The most important result was found at the 1:1 ratio.
At that ratio, approximately 17 percent of the recovered labeled ALA was converted to EPA, and approximately 0.7 percent was converted to DHA.
The study described the 1:1 condition as the point at which maximum conversion was observed and reported that the formation of EPA and DHA was highest at an administered LA-to-ALA ratio of 1:1.
That is considerably more precise than the usual statement that “omega-6 may interfere with omega-3 conversion.”
The experiment gives us an actual tested ratio and actual measured conversion percentages.
Does 1:1 Mean 17% of All ALA Became EPA?
No. This is one of the most important details to understand.
The reported 17 percent refers to the proportion of recovered labeled ALA that was converted into EPA under the experimental conditions. It does not mean that 17 percent of every gram of ALA a person eats automatically becomes EPA.
That distinction is easy to miss when research numbers are repeated in nutrition articles.
The experiment took place in a controlled cellular environment. Researchers knew the amount and ratio of the labeled fatty acids supplied to the cells, could track their recovery, and could measure the labeled products that were generated.
Human digestion and metabolism are much more complicated.
When you eat a food containing ALA, the fatty acid must first become available to the body, then enter metabolic pathways, compete with other fatty acids, and ultimately be used, stored, transformed, or incorporated into cellular structures.
So the useful interpretation is not:
“17 percent of dietary ALA always becomes EPA.”
The more accurate interpretation is:
“In this controlled cell experiment, a 1:1 LA-to-ALA mixture produced a measured conversion of about 17 percent of recovered labeled ALA into EPA.”
That is still a fascinating finding.
It is simply a different claim.
Why Was the 1:1 Ratio So Interesting?
The reason the 1:1 result attracts attention is that LA and ALA are not completely independent pathways.
Both are polyunsaturated fatty acids that enter related metabolic networks. Some of the enzymes involved in processing them are shared or function within the same broader sequence of desaturation and elongation reactions.
ALA can be converted through a series of steps toward EPA and, to a much smaller degree, DHA. The pathway involves enzymes including delta-6 desaturase and delta-5 desaturase along with elongation steps.
LA uses related machinery as it moves toward longer-chain omega-6 fatty acids.
That creates the possibility of competition.
In simple terms, changing the amount of one fatty acid can change how the cellular system handles another.
But the 1:1 ratio conversion peak study also shows why “omega-6 blocks omega-3” is too simplistic.
If higher LA automatically shut down ALA conversion, you would expect the lowest amount of LA to consistently produce the highest conversion under every measure.
That is not what this experiment found.
Instead, the cellular response was more complicated. The 1:1 mixture produced the strongest overall formation of EPA and DHA among the mixed-ratio conditions tested.
This is a useful reminder that biological systems often respond to ratios, concentrations, and competing substrates in ways that are not perfectly linear.
The 17% EPA Finding in Plain English
Here is the simplest way to understand the headline result:
At a 1:1 LA-to-ALA ratio, the experiment measured approximately 17% conversion of recovered labeled ALA into EPA.
That is the specific research data point people are usually looking for when they search for a “1:1 ratio maximum ALA conversion study.”
The same 1:1 condition produced about 0.7 percent conversion of recovered labeled ALA into DHA.
EPA formation was therefore much greater than DHA formation in this experiment.
That distinction is important because people sometimes talk about “ALA conversion” as though ALA becomes EPA and DHA at equal rates.
It does not.
The pathway is generally more efficient toward EPA than DHA, and the study's measured numbers make that difference very visible.
What Was the Experimental Setup?
The study used human liver-derived cells cultured under controlled laboratory conditions.
Researchers supplied the cells with isotope-labeled versions of linoleic acid and alpha-linolenic acid. The isotope label allowed them to distinguish the administered fatty acids and track their downstream products.
This is especially useful in fatty-acid research because simply measuring the amount of EPA inside cells does not necessarily tell you where that EPA came from.
With labeled ALA, the researchers could follow the ALA-derived carbon into products such as EPA and DHA.
The cells were exposed to the fatty-acid mixtures for approximately 24 hours.
The tested LA-to-ALA ratios included 0:1, 1:1, 4:1, 9:1, and 1:0.
The researchers then evaluated the labeled fatty acids recovered from the cells and culture medium, as well as the labeled EPA and DHA that had been produced.
They also examined changes in the expression of several genes and signaling-related factors involved in fatty-acid metabolism.
This makes the experiment more informative than a simple before-and-after fatty-acid measurement.
It was not just asking, “How much EPA is present?”
It was asking, “What happens to ALA when the surrounding LA-to-ALA ratio changes?”
Why Use Isotope-Labeled Fatty Acids?
An isotope-labeled fatty acid study can answer a question that ordinary nutrition measurements often cannot.
Suppose researchers find more EPA inside a cell after adding ALA.
That sounds like evidence of ALA conversion, but there is a problem: the cell may have received EPA from another source, or the measured EPA may reflect several overlapping metabolic processes.
By labeling the ALA itself, researchers can track its fate much more directly.
That is why the specific conversion percentage documented in this study is so interesting.
The approximately 17 percent figure is not simply an estimate based on dietary patterns. It came from following labeled ALA through a controlled metabolic experiment.
For readers interested in precise research data on ALA conversion, that distinction is worth remembering.
Did 1:1 Beat Every Other Condition by 17 Percentage Points?
No.
This is another place where the study is easy to oversimplify.
The 17 percent figure is the percentage of recovered labeled ALA converted to EPA under the 1:1 condition. It should not be interpreted as meaning that the next-best ratio produced zero conversion or that 1:1 was 17 percentage points better than all other conditions.
In fact, an important nuance from the experiment is that cells exposed to ALA alone also showed about 17 percent of recovered labeled ALA appearing as EPA.
So why is the 1:1 ratio considered significant?
Because the study's broader finding was that the formation of EPA and DHA was highest at the administered 1:1 LA-to-ALA ratio, and the 1:1 mixture produced especially strong overall conversion among the mixed conditions.
The takeaway is therefore about the relationship between LA and ALA, not a simplistic claim that adding LA makes ALA more potent in every situation.
That is a much more defensible interpretation of the research.
What Does ALA Actually Convert Into?
ALA is the essential plant-based omega-3 fatty acid.
Your body cannot synthesize ALA from scratch, so it must come from food.
Once ALA is available, cells can use it in several ways. One pathway can convert it into longer-chain fatty acids, including EPA and DHA.
The pathway can be simplified like this:
ALA → stearidonic acid → longer-chain intermediates → EPA → further downstream products including DHA
The exact biochemical sequence is more detailed than this simplified diagram suggests, but the important point is that EPA and DHA are not made from ALA in a single step.
Several enzymatic reactions are involved.
Every additional step creates another opportunity for regulation.
This is one reason the body’s conversion of ALA can vary substantially depending on the biological setting.
It also explains why simply knowing the amount of ALA in a food does not tell you exactly how much EPA or DHA will eventually be produced.
Why Is ALA-to-EPA Conversion Usually Discussed More Than ALA-to-DHA?
Because the conversion pathway generally favors EPA more strongly than DHA.
The 1:1 laboratory experiment illustrates this clearly.
At the 1:1 ratio, approximately 17 percent of recovered labeled ALA was converted to EPA, compared with approximately 0.7 percent converted to DHA.
Those numbers are dramatically different.
That does not mean DHA formation is irrelevant. It means that moving from ALA toward DHA involves additional metabolic steps and is subject to additional regulation.
For practical nutrition discussions, this is one reason it is useful to distinguish between:
- consuming ALA
- converting ALA to EPA
- converting ALA to DHA
These are related but distinct questions.
A food can be an excellent source of ALA without providing preformed EPA or DHA.
Likewise, a person's ALA intake can be high without producing a predictable amount of downstream omega-3 fatty acids.
Does This Study Prove Everyone Should Eat a 1:1 Omega-6-to-Omega-3 Ratio?
No.
That conclusion would go beyond the evidence.
The study was a controlled cell experiment, not a long-term human dietary trial.
Cells grown in a laboratory are not the same thing as a whole human being eating a varied diet, digesting food, absorbing nutrients, and regulating metabolism over weeks, months, and years.
A lab ratio therefore should not automatically become a meal-planning prescription.
What the study does provide is a mechanistic clue.
It shows that changing the relative amount of LA and ALA can alter how cells handle ALA and its downstream products.
That is valuable information.
It gives researchers a reason to keep studying dietary fat composition, fatty-acid competition, and the factors that affect ALA conversion.
For consumers, the practical message is more modest: if your goal is to support omega-3 intake from plant foods, it makes sense to pay attention not only to how much ALA you eat, but also to the overall balance of fatty acids in your diet.
Why the 1:1 Result Does Not Mean Omega-6 Fat Is “Bad”
Omega-6 fatty acids are not inherently harmful.
Linoleic acid is an essential fatty acid, which means the body needs it from food.
The problem with simplistic nutrition messaging is that it can turn a question about relative intake into a good-food-versus-bad-food argument.
That is not what this study demonstrated.
The experiment did not show that LA should be eliminated.
It showed that different LA-to-ALA ratios changed the way the cells processed these fatty acids.
That is a much narrower finding.
A better practical approach is to think about food patterns rather than demonizing one fatty acid.
Instead of asking, “How do I get rid of omega-6?”
A more useful question is:
“How can I reliably get enough ALA-rich plant foods while keeping my overall fat intake varied and balanced?”
That question is much easier to apply to a real diet.
Foods That Provide ALA
For someone eating a plant-based diet, several familiar foods can make ALA intake straightforward.
Flaxseed
Ground flaxseed is one of the most concentrated everyday plant sources of ALA.
It is easy to add to oatmeal, smoothies, yogurt alternatives, grain bowls, or baked recipes.
Because whole flaxseed can pass through the digestive tract with some of its nutrients less accessible, ground flax is often the more practical option for increasing ALA intake.
Chia Seeds
Chia seeds are another convenient ALA-rich food.
They can be mixed into overnight oats, chia pudding, smoothies, or sprinkled over breakfast bowls.
They are useful because you do not need a large recipe overhaul to include them.
Walnuts
Walnuts provide ALA along with other fats and plant compounds.
They work well as a snack or as an addition to salads, oatmeal, grain dishes, and plant-based meals.
Hemp Seeds
Hemp seeds contain ALA as well as other fatty acids and are easy to incorporate into savory or sweet foods.
They can be added to grain bowls, salads, smoothies, and sauces.
Soy Foods
Soybeans and foods made from them can contribute ALA to the overall diet, although the exact fatty-acid composition varies by food.
Tofu, tempeh, edamame, and other minimally processed soy foods can fit naturally into a varied plant-based eating pattern.
Canola Oil
Canola oil is another dietary source of ALA.
Using a moderate amount of an ALA-containing oil can be an easy way to increase plant-based omega-3 intake while cooking.
Does More ALA Automatically Mean More EPA?
Not necessarily.
This is one of the most common misconceptions in discussions about plant-based omega-3 intake.
Increasing ALA intake gives the body more substrate for the pathway, but conversion is regulated.
Some ALA may be incorporated into cell membranes.
Some may be oxidized for energy.
Some may remain in storage pools.
Some can enter the conversion pathway toward longer-chain fatty acids.
And the percentage directed into those different pathways is not fixed.
That means doubling your ALA intake does not guarantee that your EPA production will double.
The 1:1 ratio conversion peak study reinforces that point. The surrounding fatty-acid environment mattered.
In other words, ALA conversion is not simply an input-output equation.
What Role Does Linoleic Acid Play?
Linoleic acid, or LA, is the primary omega-6 polyunsaturated fatty acid in the diet.
It is found in many plant foods and oils.
Because LA and ALA are both unsaturated fatty acids that interact with related metabolic pathways, researchers have long been interested in whether changes in one affect the metabolism of the other.
The study at the center of this article is particularly useful because it isolates that relationship in a controlled setting.
Instead of comparing completely different diets, the researchers changed the LA-to-ALA ratio.
That lets us ask a cleaner question:
Does the relative proportion of omega-6 and omega-3 precursor fatty acids change ALA conversion?
The answer from this experiment was yes.
The exact response was not simply “less LA equals more conversion.” The highest overall formation of the measured longer-chain products among the mixed conditions occurred at the 1:1 ratio.
That is what makes the finding unusual.
Why Modern Nutrition Advice Often Gets This Topic Wrong
Search for “omega-6 blocks omega-3 conversion” and you will often find highly confident claims.
The actual science is more nuanced.
The relationship between LA and ALA depends on the amount of each fatty acid, the cellular environment, enzyme activity, nutritional status, and the biological system being studied.
The 1:1 study did not identify a universal human dietary ratio that guarantees maximum EPA production.
It identified a ratio that produced a particular response in a controlled cellular experiment.
This distinction is not nitpicking.
It is the difference between reporting scientific evidence and turning one experiment into a universal nutrition rule.
The best nutrition writing should preserve that difference.
Is a 1:1 Ratio Practical in a Real Diet?
Usually, the better question is not whether you can calculate your daily fat intake down to an exact 1:1 ratio.
For most people, that would be unnecessarily complicated.
A practical plant-forward strategy is to make sure ALA-rich foods appear regularly in the diet rather than assuming that occasional omega-3 foods will compensate for everything else.
For example, a simple day might look like this:
Breakfast could include oatmeal with ground flaxseed and walnuts.
Lunch could include a grain bowl with beans, greens, vegetables, and a moderate amount of dressing.
A snack might include chia pudding or a handful of walnuts.
Dinner could include tofu or tempeh with vegetables and whole grains.
The point is not to hit an exact mathematical ratio at every meal.
The point is to build a dietary pattern in which ALA is a dependable part of the food supply.
Should You Try to Eliminate High-LA Foods?
No.
Trying to eliminate every food that contains linoleic acid would be unrealistic and unnecessary.
A better strategy is to reduce the tendency for one category of fat to dominate your diet while increasing dietary variety.
Look at the entire pattern.
Are you eating a broad range of minimally processed plant foods?
Are ALA-rich foods showing up regularly?
Are most of your meals built around whole or minimally processed ingredients?
Are you getting a mixture of nuts, seeds, legumes, grains, vegetables, fruits, and other plant foods?
Those questions are generally more useful than trying to achieve a perfect numerical ratio from a single meal.
How to Improve ALA Conversion From Plant Foods
If the goal is to support the body's use of ALA, focus on consistency rather than chasing a laboratory ratio.
Start by making one or two ALA-rich foods part of your normal routine.
For example, add ground flaxseed to breakfast every day.
Keep chia seeds in the pantry.
Use walnuts as a regular snack.
Rotate tofu, tempeh, beans, and other plant proteins through meals.
Use an ALA-containing cooking oil where it fits your cooking preferences.
This approach makes omega-3 intake habitual rather than something you remember only when reading about nutrition.
It also avoids the trap of obsessively calculating every gram of LA and ALA.
Can You Tell From Symptoms Whether Your ALA Conversion Is Low?
Not reliably.
There is no simple everyday symptom that tells you, “Your ALA-to-EPA conversion is 17 percent,” or “Your omega-6-to-omega-3 ratio is too high.”
Questions about symptoms such as fatigue, dry skin, or general changes in well-being have many possible explanations.
They are not a substitute for understanding overall food intake or discussing a specific health concern with a qualified professional.
This is another reason the laboratory study is interesting but limited.
Researchers measured labeled fatty acids directly.
A person cannot look at a symptom and calculate ALA conversion from it.
What Does the Study Tell Us About Vegan Nutrition?
For people following a vegan or mostly plant-based diet, the study offers a useful reminder: ALA is a real dietary omega-3 source, but it is a precursor rather than preformed EPA or DHA.
That makes food variety especially useful.
Plant-based eating does not need to be complicated to include ALA.
Foods such as flax, chia, walnuts, hemp seeds, soy foods, and certain oils can provide meaningful amounts.
The broader lesson is that plant-based nutrition is not just about removing animal foods. It is about intentionally building a varied food pattern that supplies the nutrients and fatty acids you want to emphasize.
That idea fits naturally with the broader philosophy of The Dharma Store, where plant-based living, mindfulness, compassion, and ethical choices are part of a larger lifestyle. For readers who like their everyday clothing to reflect those values, The Dharma Store offers Vegan T-Shirts designed around plant-based and compassionate themes.
A Simple Way to Think About the 1:1 Finding
Here is a practical mental model.
Think of ALA as a starting material.
Think of EPA and DHA as downstream products.
Think of LA as another fatty acid entering a related metabolic system.
Now imagine changing the relative amount of those starting materials.
The cellular machinery does not necessarily respond in a simple straight line.
That is exactly why a 1:1 ratio can produce an interesting result.
The study suggests that the system may function differently when ALA is present alongside an equal amount of LA than when the ratio becomes heavily skewed toward LA.
That does not make 1:1 a magic number.
It makes 1:1 an experimentally observed ratio worth understanding.
The 1:1 Ratio Conversion Peak Study in One Table
| Question | What the study found |
|---|---|
| What was compared? | Different ratios of LA and ALA |
| What ratios were tested? | 0:1, 1:1, 4:1, 9:1, and 1:0 |
| What type of experiment? | Controlled cell experiment |
| How were fatty acids tracked? | Isotope-labeled LA and ALA |
| What was measured? | Recovery and conversion of labeled fatty acids |
| Where was the strongest mixed-ratio result seen? | 1:1 LA |
| EPA from recovered labeled ALA | About 17% |
| DHA from recovered labeled ALA | About 0.7% |
| Main lesson | Fatty-acid ratio can influence ALA conversion in cells |
| Main limitation | A cell experiment is not the same as a human feeding trial |
This table captures the central point without making the study say more than it actually showed.
Why the Number 17% Gets So Much Attention
Nutrition readers often remember a percentage more easily than a biochemical pathway.
“ALA can be converted to EPA” is useful but vague.
“About 17 percent of recovered labeled ALA appeared as EPA in this condition” is much more specific.
That specificity is what makes the study valuable for understanding the topic.
The number is not a guarantee.
It is a measured experimental outcome.
That difference matters whenever research findings are turned into consumer-facing nutrition content.
The strongest interpretation is therefore not “17 percent of your ALA becomes EPA.”
It is:
A controlled isotope-labeled fatty acid study found that, at a 1:1 LA-to-ALA ratio, approximately 17 percent of recovered labeled ALA was converted to EPA, with about 0.7 percent converted to DHA.
That is the precise research data point.
What the Study Did Not Measure
It is equally useful to understand what was outside the scope of the experiment.
The study did not measure how much EPA or DHA a typical person would produce from a bowl of oatmeal with flaxseed.
It did not establish the ideal ratio for every human diet.
It did not prove that lowering LA in food will always increase ALA conversion.
It did not show that everyone has the same conversion efficiency.
It did not establish that a person needs to measure omega-6 and omega-3 intake down to exact ratios.
Those questions require different kinds of research.
The experiment answered a narrower question—and it answered that question in a useful way.
Does Cooking or Food Preparation Affect the Story?
Food preparation can matter to the overall dietary pattern, but it does not change the central finding of the laboratory experiment.
The study did not test recipes, cooking methods, or individual foods. It tested defined fatty-acid mixtures under controlled conditions.
In real life, ALA comes packaged inside foods with fiber, protein, minerals, carbohydrates, other fatty acids, and many other compounds.
That means the metabolic experience of eating flaxseed is not identical to exposing cultured cells to a laboratory-prepared ALA solution.
This is another reason not to turn the 1:1 result into a rigid diet prescription.
Use the study as evidence about fatty-acid metabolism, not as a meal calculator.
The Most Useful Practical Takeaway
If you are looking for a practical response to this research, start with the simplest question:
Am I regularly eating foods that provide ALA?
For a plant-based eater, that is often a more actionable question than trying to force a precise omega-6-to-omega-3 ratio.
A second useful question is:
Does my overall diet include a wide variety of fat sources rather than relying heavily on one type?
That naturally leads to a more balanced food pattern.
You do not need to fear every source of omega-6.
You do not need to treat 1:1 as a magical target.
And you do not need to assume that eating a certain number of grams of ALA guarantees a specific amount of EPA.
Instead, use the study for what it is: evidence that the fatty-acid environment can influence ALA metabolism, and that the relationship is more interesting than the common “omega-6 blocks omega-3” slogan suggests.
1:1 Ratio Maximum ALA Conversion Study: The Bottom Line
The most specific answer to the search query is straightforward.
A controlled study using isotope-labeled linoleic acid and alpha-linolenic acid tested several LA-to-ALA ratios in human liver-derived cells. The researchers found the strongest overall formation of EPA and DHA at a 1:1 administered LA-to-ALA ratio.
At that 1:1 ratio, approximately 17 percent of the recovered labeled ALA was converted to EPA, while about 0.7 percent was converted to DHA.
That is the specific conversion percentage documented by the experiment.
The result is important because it demonstrates that the relative amounts of omega-6 and omega-3 precursor fatty acids can influence ALA metabolism.
But it should not be turned into a universal rule that every person needs an exact 1:1 dietary ratio.
The experiment happened in a controlled cellular environment. Human nutrition is more complicated.
For everyday eating, the most useful response is to include reliable ALA-rich plant foods such as flaxseed, chia seeds, walnuts, hemp seeds, soy foods, and suitable plant oils as part of a varied diet.
The bigger lesson is not that 1:1 is a magical number.
It is that the ratio matters, the pathway is regulated, and the research provides a surprisingly precise example of just how much the cellular environment can influence ALA conversion.
Frequently Asked Questions
What is the 1:1 ratio maximum ALA conversion study?
It is a controlled laboratory study that tested different ratios of linoleic acid and alpha-linolenic acid in human liver-derived cells. The study found that a 1:1 LA-to-ALA ratio produced the strongest overall formation of EPA and DHA among the mixed ratios tested.
Did the study find that 17% of ALA converted to EPA?
Approximately 17 percent of the recovered isotope-labeled ALA was found as EPA in the 1:1 condition. The same study also observed about 0.7 percent conversion to DHA at that ratio.
Does a 1:1 omega-6-to-omega-3 ratio mean people should eat equal amounts of LA and ALA?
Not necessarily. The 1:1 result came from a controlled cell experiment. It is evidence that the ratio affects cellular fatty-acid metabolism, not a universal human dietary prescription.
Why does LA matter for ALA conversion?
LA and ALA are processed through related metabolic pathways, so changing their relative amounts can affect how cells handle the available fatty acids. The study demonstrated that conversion changed when the LA-to-ALA ratio changed.
What foods are good sources of ALA?
Flaxseed, chia seeds, walnuts, hemp seeds, soy foods, and certain plant oils can provide ALA. Including several of these foods regularly is a practical way to build plant-based omega-3 intake into a varied diet.
Is 17% ALA-to-EPA conversion guaranteed for humans?
No. The 17 percent figure is a specific laboratory measurement from a controlled cell experiment. Human conversion varies with the broader biological and dietary environment, so the number should not be treated as a guaranteed percentage for an individual.
The information in this article is for educational purposes only and should not be considered medical advice. Always consult a qualified healthcare professional regarding dietary or health concerns.