Why We Don't Use Sugar And What We Use Instead

Sugar-free | Natural sweeteners | Erythritol | Stevia | Glycaemic index | Blood sugar

You've probably noticed that our Caim Candyceuticals taste sweet. What you won't find in them is sugar not white sugar, not coconut sugar, not glucose syrup, not honey, not dates, not cane sugar nor jaggery. Not any of them and nothing that even acts like sugar when it's in your body. For example starches like Maltodextrin, that may not even be classified as a sugar, but act like sugar and do 3 times more harm than sugar does in the body.

This is a deliberate choice, and it comes down to one thing: all sugar, regardless of what it's called or where it comes from, does the same thing inside your body.

Here's what that means, and why it matters, more than you would realise.

Every carb you eat becomes the same molecule.

Whether you eat white rice, a spoonful of jaggery, a glass of orange juice, or a piece of bread, your body digests it down to a single molecule: Glucose (C₆H₁₂O₆). That molecule enters your bloodstream, triggers an insulin response, and your body has to deal with the surplus.

Glucose itself is actually not the problem. It powers every cell in the body, especially the brain and muscles. The problem is the chronic excess. Every food we eat in today's modern world has copious amounts of all forms of glucose.

And when glucose floods the bloodstream faster than the cells can absorb it, repeatedly over years, the damage is slow and cumulative. The cascade of biochemical damage spreads to every organ system over years and decades.

Sugar goes by many names

The food industry is creative with labelling. Before it becomes glucose in your blood, sugar hides behind at least a dozen names on ingredient lists. Train yourself to recognise these aliases:

Complex carbohydrates like bread, pasta, potato, white rice are simply long chains of glucose molecules. Your digestive enzymes break these chains rapidly, releasing glucose into the bloodstream in waves. The end result in your blood stream is biologically identical to eating plain sugar.

Here’s a thought, ‘Your body doesn't care whether the sugar came from a candy or a bowl of white rice. It sees the same molecule either way.’

Why ‘just moderation’ is not enough

The challenge is that our food environment revolves around sugar in some sort or form. Food manufacturers optimise products to hit a ‘bliss point’ which is a precise sugar level that bypasses satiety signals and drives overconsumption. And the brain's dopamine system responds to sugar similar to the way it does with other addictive substances like cocaine or morphine.

A "healthy" breakfast of orange juice, muesli, and low-fat yoghurt can deliver over 60 grams of sugar, equivalent to 15 teaspoons, and that's just before 9 am!

"Natural" Sugars Are Still Sugar

This is the part the wellness industry doesn't want you to dwell on.

The wellness industry has responded to sugar's bad reputation not by eliminating it, but by rebranding it. Coconut sugar, Jaggery, Agave syrup, Raw Honey, Dates, these are sold with a health halo, presented as natural alternatives. They are not. Every one of them is still predominantly sugar, still raises blood glucose, still triggers insulin, still adds to the calorific intake and still causes the same biochemical damage at scale.

THE TRUTH ABOUT "NATURAL" SUGARS
A glucose molecule from organic coconut sugar is biochemically identical to one from white table sugar. The source is irrelevant. The molecular structure and the damage it does is exactly the same.

Maltodextrin is the one most people miss. It hides in protein powders, flavoured yoghurts, meal replacements, and anything labelled "low sugar" because it technically isn't classified as a sugar on many labels even though its GI is higher than glucose itself. If your "health" supplement lists maltodextrin in the first three ingredients, it's worth a second look.

The low GI of agave is particularly deceptive. Because its sweetness comes mostly from fructose, it barely registers on the glycaemic index but fructose bypasses insulin regulation entirely and goes straight to the liver, where it converts to fat. Low GI does not mean safe.

What About Artificial Sweeteners?

They seem like the obvious answer. No sugar, no calories, no blood glucose spike. But synthetic sweeteners have a research trail of their own and it's getting harder to ignore. Aspartame, saccharin, sucralose, and acesulfame-K avoid the blood sugar problem but introduce different ones.

Aspartame (E951) Avoid
Diet sodas · sugar-free gum · chewable vitamins

1. WHO classified as possibly carcinogenic (2023) — Group 2B, based on limited but present evidence of a link to liver cancer.
2. 62% faster cognitive decline — a 2025 study of 12,700+ people found high consumers showed memory decline equivalent to 1.5 years of extra brain ageing.
3. Neuroinflammation — triggers chronic activation of microglia (brain immune cells), degrading healthy neurons over time.
4. Effects may be heritable — memory deficits and anxiety-like behaviour transmitted to offspring via the paternal line (Florida State University, 2023)

Sucralose (E955) Avoid
Splenda · protein powders · "sugar-free" baked goods

1. Genotoxic byproduct — the body converts sucralose into sucralose-6-acetate, shown to break apart DNA (Journal of Toxicology, 2023)
2. Leaky gut — damages the intestinal lining, increasing permeability and allowing inflammatory compounds into the bloodstream.
3. Gut dysbiosis at ADI levels — six months at the acceptable daily intake disrupted microbiota and elevated liver inflammation markers in research models.
4. Weakens cancer immunity — disrupts T-cell function, reducing the effectiveness of cancer immunotherapy (Cancer Discovery, 2025)

Acesulfame-K (E950) Caution
Diet drinks · protein bars · chewing gum (almost always combined)

1. Antimicrobial by chemistry — belongs to the sulfonamide class, the same chemical family associated with antimicrobial activity, raising concerns about effects on beneficial gut flora.
2. Cardiovascular risk — a French cohort study of 103,000 people linked acesulfame-K and aspartame to increased rates of coronary heart disease and stroke.
3. Toxicity data inadequate — regulatory bodies have flagged that long-term safety data remains insufficient; potential genotoxicity has been raised by EFSA.
4. Rarely labelled alone — almost always paired with sucralose or aspartame in products, making individual contribution to harm difficult to track.

Saccharin (E954) Caution
Tabletop sweeteners · some diet drinks · toothpaste

1. Gut microbiome disruption — consistently reduces Lactobacillus and Bifidobacterium (beneficial bacteria) while increasing pro-inflammatory Proteobacteria.
2. Glucose intolerance — microbiome disruption from saccharin impairs blood sugar regulation, paradoxically worsening the metabolic outcome it was meant to help.
3. Inflammatory bowel risk — linked to increased intestinal permeability and associations with inflammatory bowel conditions in population studies.
4. The oldest on the list — in use since the 1800s, and the first to face cancer warnings (later overturned for humans). The long track record hasn't resolved the concerns.

Sources: WHO/IARC (2023) · Journal of Toxicology and Environmental Health (2023) · Neurology, Harvard / Rush University (2025) · Cancer Discovery, AACR (2025) · NutriNet-Santé cohort, BMJ (2022) · Florida State University College of Medicine (2023) · Frontiers in Nutrition (2022)

The problem with all four of these or their like, isn't just the individual risks. It's the shared mechanism. All four aspartame, sucralose, saccharin, and acesulfame-K disrupt the gut microbiota in ways that reduce short-chain fatty acid production, impair lipid and glucose metabolism, and elevate systemic inflammation, raising the risk of insulin resistance, metabolic syndrome, and cardiovascular disease.

They also trigger something called a cephalic insulin response: the brain detects sweetness, expects glucose, and releases insulin preemptively. No glucose arrives. Over time, this pattern is thought to increase insulin resistance and, paradoxically, sugar cravings.

Swapping sugar for synthetic chemistry isn't the answer. It's trading one set of problems for a different one with a longer and less visible lag time.

What We Use Instead and Why

Nature has several compounds that deliver sweetness without triggering insulin, without raising blood glucose, without feeding bad gut bacteria, and without the systemic damage of sugar. These are not compromises, they are genuinely better alternatives, and science supports them. These are the ones we formulate with.

Plant-based sweeteners: what actually works

The following are not synthetic chemicals or marketing gimmicks. They are naturally occurring compounds fermented from plant sources or extracted from plants that the human body handles fundamentally differently from glucose.