Sucralose’s (Splenda) Harms Vastly Underestimated: Baking Releases
Dioxin
By Sayer Ji
A new, in-depth review on the synthetic sweetener sucralose (marketed as Splenda), published in the journal of Toxicology and Environmental Health, is destined to overturn widely held misconceptions about the purported safety of this ubiquitous artificial sweetener.
But the tide may be turning…
Already this year, the
Center for the Public Interest in Science downgraded Splenda from
“safe” to “caution,” citing their need to evaluate a forthcoming Italian
study linking the artificial sweetener to leukemia in mice as a basis
for their decision.
Another recent human study linked Splenda to diabetes-associated changes,
calling into question its value as a non-calorie sweetener for those
suffering with, or wishing to prevent, blood sugar disorders.
The new study, however, may be the most concerning yet to surface in the peer-reviewed literature. Titled, “Sucralose, a synthetic organochlorine sweetener: overview of biological issues,” it reveals an extensive array of hitherto underreported safety concerns, not the least of which is the formation of highly toxic chlorinated compounds, including dioxins,
when Splenda is used in baking, an application which its manufacturer,
McNeil Nutritionals (a subsidiary of Johnson & Johnson), actively
encourages it to be used for.
A Dizzying Array of Splenda (Sucralose) Safety Concerns That Have Never Been Adequately Tested
The study argues that, despite its widespread
approval and use, further scientific safety research is warranted due
the following significant findings:
- “Sucralose alters metabolic parameters and its chronic effects on body weight are unknown”: both animal and human research indicates sucralose may raise blood sugar and insulin levels, indicating it may have diabetogenic properties.
- “Sucralose alters P-gp and CYP expression”: While classified as a food additive, sucralose’s organochlorine structure indicates it interferes with a wide range of organochlorine class drugs, and activates detoxification pathways and enzymes, in a manner similar to these xenobiotic chemicals.
- “The metabolic fate and health profile of sucralose metabolites are currently unknown”: Contrary to statements in the research literature that sucralose passes through the body in the feces ‘unchanged,’ metabolites have been detected in the urine and feces of both animals and humans, the nature and health consequence of which have never been studied
- “Sucralose alters indigenous bacterial balancein the GIT”: Sucralose (delivered as Splenda) has been found to reduce the number of beneficial bacteria in the gastrointesintal tract (e.g., lactobacilli, bifidobacteria), while increasing the more detrimental bacteria (e.g., enterobacteria). One study found the adverse effects on flora did not return to normal (baseline) after a 3-month recovery period. Sucralose also altered the pH of the gastrointestinal tract.
Finally, and perhaps most importantly:
- “Numerous toxicological issues regarding long-term exposure to sucralose are unresolved”: 1) DNA damage (genotoxicity), and possible adverse epigenetic alterations. 2) The generation of toxic compounds during baking, including chloropropanols, 1,6-DCF and dioxins. 3) The bioaccumulation of sucralose and/or its metabolites 4) The interaction between sucralose and/or its metabolites with drugs have not yet been studied or evaluated
Cancer-Causing Dioxins and Dioxin-Like Compounds Formed When Splenda (Sucralose) Is Cooked
As the reader can plainly see, the picture is
a complex one, and there are more unresolved questions than answers.
But perhaps the most concerning issue addressed in the report is the
‘Safety of Sucralose That Has Been Heated.’ According to the paper,
historically, sucralose was reported to be heat stable at temperatures
used in cooking. But they cite a number of reports from independent
laboratories showing that sucralose undergoes thermal degradation when
heated. One study showed that the stability of sucralose decreased as
the temperature and pH increased, with the breakdown process commencing
at 119 degrees Celsius and temperatures of 180 degrees Celsius causing
its complete degradation at all pH levels with the release of chloride
ions. Additionally, they refer to research showing that sucralose can
break down into the following concerning compounds when heated:
- Chloropopanols are generated when sucralose was heated in the presence of glycerol. Chloropopanols are a group of contaminants that include known genotoxic, carcinogenic and tumorigenic compounds.
- Other chlorinated compounds formed when sucralose is heated in the presence of food include dibenzo-p-dioxins, dibenzofurans, dioxin-like polychlorinated bisphenyls and polychlorinated naphthalenes.
The Acceptable Daily Intake of Splenda (Sucralose) May Have Been Set 100′s of Times Too High To Ensure Safety
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