Reversing Diabetes With Chlorine Dioxide
Since producing The Universal Antidote Documentary just over six years ago, I have continued to compiled thousands of testimonials (here and more here) from people safely using chlorine dioxide to help recover their health.
From infections to cancer to mitochondrial dysfunction and beyond, chlorine dioxide has had a significant beneficial impact when used appropriately. One of my primary objectives in studying and researching chlorine dioxide is to understand and explain how it produces such remarkable results across such a broad range of conditions. I have written a number of articles exploring the mechanisms of action of chlorine dioxide, and this article adds another to that series. Here is the archive link to the articles that I’ve written on The Mechanisms of Action of Chlorine Dioxide.
Diabetes affects millions of people, and most treatments only manage blood sugar without fixing what is actually broken inside the body. A growing body of research suggests that chlorine dioxide, and its precursor sodium chlorite, might address several root causes of diabetes at once.
This article breaks down that research in plain language provides, anecdotal testimonials, general protocols, and points curious readers who need more toward the full technical paper on this subject which is to be released Saturday July 24, 2026.
What Is Really Wrong in Diabetes
Diabetes is often described simply as “too much sugar in the blood.” But scientists now understand it as something deeper. It involves chronic inflammation, poor mitochondrial function (the tiny engines inside cells that make energy), and in Type 1 diabetes, an immune attack on the pancreas cells that make insulin. Standard diabetes drugs control blood sugar numbers, but they do not fix these underlying problems, which is part of why diabetes tends to get worse over time even with treatment.
This article looks at chlorine dioxide and sodium chlorite, two closely related compounds, and asks a bold question: could they help reverse the disease and mitigate the actual damage behind diabetes, not just mask the symptoms?
To answer this, we will look at real clinical drug trials, the biology of cells under mild stress, and a related therapy called ozone that has already been tested in diabetic patients. After this we will review some the testimonials that I have received over the last 6+ years and then review protocol basics.
Two Real Drugs Built From Chlorine Dioxide Precursor, Sodium Chlorite
Before diving into theory, it helps to know that chlorite-based drugs already exist and have been tested in patients.
WF10: Tested Directly in Diabetic Patients
WF10, also sold as Immunokine, is a chlorite solution given through an IV drip. It is approved in Thailand to help treat diabetic foot ulcers, a serious complication of diabetes. [1] Several published studies have tested WF10 directly in people with diabetes, and the results are striking.
In one study of twelve patients with severe diabetic foot problems, five days of WF10 infusions dropped average HbA1c (a key long-term blood sugar marker) from a risky 9.1 percent down to a much safer 6.2 percent within eight weeks. [2] That improvement lasted for two to three months after treatment stopped. Wounds healed in eleven of the twelve patients, and doctors were able to avoid amputating the leg in every case in the study group. [2]
A larger follow-up study of 40 patients confirmed these findings. HbA1c fell from 10.48 percent to 8.06 percent, wound scores improved dramatically, and markers of inflammation dropped as well. [3] Two more clinical trials, including a placebo-controlled study, backed up these wound-healing results. [4, 5]
So how does WF10 pull off this trick? Researchers believe high blood sugar damages red blood cells over time, making them stiff and prone to bursting open, a process called hemolysis [2]. When these cells burst, they release toxic byproducts that block a helpful molecule called nitric oxide, which normally keeps blood vessels open and healthy [2].
WF10 seems to neutralize these toxic byproducts, clear out the damaged cells, and encourage the body to build fresh, healthy red blood cells instead. Researchers have called this a “blood rejuvenation” effect [3]. With better blood flow and healthier red cells, tissues can use glucose more effectively, and blood sugar readings improve.
NP001: A Second Angle on Inflammation
NP001 is another purified chlorite drug, originally developed for a very different disease, ALS (a nerve disease). [6] In long-term follow-up research, patients on the right dose of NP001 lived nearly five months longer on average, and younger patients saw an even bigger benefit. [7]
Why mention an ALS drug in an article about diabetes? Because NP001 works by calming down overactive immune cells called macrophages, shifting them from an aggressive, inflammation-causing mode into a calmer, healing mode. [8] This matters enormously for diabetes.
Scientists now know that angry, inflamed macrophages inside body fat are a major reason cells become resistant to insulin, and that inflammatory signals from these same cells can damage the insulin-producing cells in the pancreas. [9, 10] If a chlorite-based drug can calm these cells down in ALS patients, the same mechanism could plausibly help calm the inflammation driving diabetes.
The Bigger Idea: Mild Stress Can Make Cells Stronger
Beyond these two drugs, there is a broader theory worth understanding, and it starts with the mitochondria, the energy factories inside every cell.
Broken Energy Factories
In diabetes, mitochondria often stop working properly. This is especially damaging in the pancreas, where insulin-producing beta cells rely heavily on healthy mitochondria to sense sugar and release insulin correctly. [11] Muscle cells in diabetic patients also show weaker mitochondrial activity, which makes it harder for the body to burn sugar and fat for fuel. [12] When the natural process of clearing out and rebuilding worn-out mitochondria breaks down, energy problems pile up throughout the body. [11]
A Little Stress, In the Right Dose, Helps
Here is a concept that might sound backwards at first: a small, brief dose of oxidative stress, the same kind of stress you get from exercise or short-term fasting, actually makes cells healthier and more resilient over time. Scientists call this mitohormesis. It differs completely from the damage caused by constant, high levels of stress.
Chlorine dioxide acts as a mild oxidant, gentler than many other treatments in this category. The theory is that, in small therapeutic amounts, it triggers the same healthy stress response that exercise triggers. This happens through three main pathways.
Building new mitochondria. Mild stress switches on a protein called PGC-1alpha, which tells cells to build fresh, more efficient mitochondria. People with Type 2 diabetes tend to have low levels of this protein in their muscles. [13] Studies show that boosting PGC-1alpha improves how well the body responds to insulin and helps muscle cells pull in more sugar. [14] Exercise studies in diabetic animals back this up, showing improved heart mitochondria and reduced inflammation when PGC-1alpha rises. [15]
Turning on the body’s antioxidant shield. Mild stress also activates a master switch called NRF2, which turns on a whole set of protective antioxidant genes. NRF2 activity is measurably lower in people with Type 2 diabetes. [16] When researchers activated NRF2 in lab studies, it protected insulin-producing beta cells from damage and restored their ability to release insulin properly. [17] NRF2 is also required for the pancreas to grow new beta cells when needed [18], and activating it has been shown to significantly reduce insulin resistance. [19, 20]
Cleaning out cellular junk. The third pathway is autophagy, the process cells use to break down and recycle damaged parts, including worn-out mitochondria. Mild oxidative signals are one of the main triggers that switch autophagy on. This process is essential for keeping beta cells healthy, and problems with autophagy show up in both Type 1 and Type 2 diabetes. [21] Autophagy also clears out a toxic, clumping protein that can build up in the pancreas and contribute to diabetes if left unchecked. [22] Other studies show that boosting this cleanup process protects insulin-producing cells from damage in Type 1 diabetes models. [23]
What Ozone Therapy Teaches Us
Because large clinical trials of chlorine dioxide for diabetes do not exist yet, researchers can look at a very similar therapy that has already been tested extensively: medical ozone. Ozone and chlorine dioxide are chemical cousins. Both are mild oxidants that work by sending small, controlled stress signals into the body rather than causing direct damage. [24, 25] Ozone is a slightly stronger oxidant, while chlorine dioxide is gentler, which may make it easier to tolerate for everyday use in therapeutic doses. [26]
Ozone Already Improves Blood Sugar in Real Patients
A well known study published in the European Journal of Pharmacology treated diabetic patients who had foot infections with ozone therapy. Their blood sugar control improved, oxidative stress markers normalized, and fewer patients needed amputations compared to those who did not receive ozone. [27, 28, 29]
Other studies found that ozone lowered HbA1c in an obese diabetic patient [29], and a larger review of multiple studies found that ozone therapy consistently improved diabetic foot ulcer healing, shortened hospital stays, and lowered blood glucose. [30, 31]
How Ozone Pulls This Off
One key mechanism involves a molecule called 2,3-DPG, found inside red blood cells. This molecule helps blood release oxygen more easily into tissues that need it. Ozone therapy increases 2,3-DPG levels, helping starved tissues like the feet and even the pancreas get more oxygen. [32, 33] This matters because diabetics often suffer from poor circulation, and better oxygen delivery to the pancreas could support healthier insulin release.
Ozone also flips the same NRF2 antioxidant switch discussed earlier, while simultaneously turning down a separate switch called NF-kappaB, which drives chronic inflammation. [26] A detailed 2025 review confirmed that low-dose ozone reduces the same inflammatory chemicals, TNF-alpha, IL-1beta, and IL-6, that are known to cause insulin resistance and damage beta cells. [34] NRF2 and PGC-1alpha also work together as a team, meaning that turning on one supports the other, doubling the benefit for mitochondria. [35]
Ozone additionally nudges immune macrophages toward their calmer, healing mode, the same shift seen with NP001, and suppresses a dangerous inflammatory alarm system called the NLRP3 inflammasome, which is now recognized as a direct cause of beta cell damage in both types of diabetes. [34, 36, 37, 38] On top of all this, ozone therapy has repeatedly been shown to speed up healing of diabetic foot wounds by boosting blood flow and collagen growth [39, 40, 41].
Putting the Pieces Together
When you line up all of this evidence, a clear pattern emerges. Chlorite-based compounds work on diabetes from several angles at the same time, rather than targeting just one broken piece.
- Calming inflammation: shifting immune cells away from the aggressive mode that drives insulin resistance and beta cell destruction [9, 10]
- Repairing energy production: triggering the cell’s natural rebuilding process for damaged mitochondria [11, 12, 35]
- Refreshing the blood: clearing out damaged red blood cells and encouraging healthier ones, which improves circulation [32, 33, 38]
- Protecting cells from the inside: switching on natural cleanup and antioxidant systems that guard beta cells from stress [17, 18, 19, 20, 21, 22, 23]
- Mirroring a proven therapy: matching many of the same biological effects already documented for ozone, a related and well-studied oxidative treatment [24, 25, 26, 32, 33, 34, 36, 37, 41]
This is very different from most diabetes medications, which usually work on just one target. A drug that lowers blood sugar in one way rarely also fixes inflammation, mitochondria, and blood cell health at the same time.
Note: This article is for educational and research purposes only. It is not medical advice. The hypotheses and observational evidence presented here are based on published scientific literature, established biochemical principles, and anecdotal reports. Rigorous clinical trials are needed to validate these theoretical mechanisms in diabetic populations.
source curioushumanproductions.substack.com