Common Food Additives – Should you avoid them?

Maltodextrin An Additive In Baby Formula & Common Foods

Laudisi et al.’s Study: This research explored the effects of maltodextrin consumption on the mucosa-associated microbiota. While their findings did not show significant alterations in the overall composition of microbes, the study raises the possibility of more subtle impacts. These could be on the metabolic pathways of the microbes, suggesting that even if the microbial population doesn’t change drastically, the way they function might be affected. This indicates a need for further detailed studies to understand these potential subtle changes and their implications fully.
Maltodextrin’s Role in Crohn’s Disease: Other research has pointed out that maltodextrin might play a role in promoting bacteria associated with Crohn’s disease and could facilitate microbiota encroachment in the mouse distal colon. This is particularly significant as it suggests that maltodextrin consumption could contribute to an environment conducive to intestinal inflammation. The mechanism proposed involves maltodextrin’s impact on the protective mucus layer of the intestines, potentially depleting it and thus promoting inflammation.
Impact of Splenda (Containing Maltodextrin): Another study indicated that Splenda, which contains maltodextrin, might adversely affect intestinal microbiota. This could promote a Crohn’s-like disease in individuals who are genetically susceptible. This finding is crucial as it connects a commonly used artificial sweetener to potential gut health issues, especially in vulnerable populations.

What About Artificial Sweeteners?

Here’s An Elaboration On The Studies Involved With Artificial Sweeteners And Its Implications:

Study Design and Participants: The study was conducted on healthy individuals who normally did not consume non-nutritive sweeteners. By dividing participants into different groups, each consuming a specific sweetener or a control substance, the researchers could isolate the effects of each sweetener on the body’s glycemic response.
Glycemic Response Findings: The continuous glucose monitoring and glucose tolerance tests conducted during the study revealed that participants who consumed saccharin and sucralose showed a heightened glycemic response. This is particularly noteworthy because it suggests that even short-term consumption of these sweeteners, in doses lower than the recommended daily intake, can impact the body’s ability to manage glucose levels.
Impact on Gut Microbiome: The researchers also analyzed the stool microbiome samples of the participants before and after the consumption of low-calorie sweeteners. They found that all groups tested with low-calorie artificial sweeteners exhibited changes in gut bacteria and the molecules they secrete. This was also observed in the oral microbiome. These findings did not occur in the control groups, indicating a direct link between the consumption of NNSs and alterations in the microbiome.
Implications for Human Health: These results challenge the previously held belief that non-nutritive sweeteners are biologically inert. The fact that these sweeteners can induce changes in the gut microbiome and affect glycemic responses raises concerns about their long-term effects on human health. This is particularly relevant given their common use, including among vulnerable populations like children and pregnant women.
Quote by Dr. Michael Goran: Dr. Goran’s statement underscores a crucial point: non-nutritive sweeteners may not satisfy the craving for sweetness and could potentially lead to increased overall calorie and sugar intake. This contradicts the common perception that artificial sweeteners are a healthier alternative to sugar.
Future Research Directions: As more studies are conducted, we can expect a deeper and more nuanced understanding of how sugar substitutes interact with the gut microbiome and affect metabolism. This research will be vital in guiding dietary recommendations and understanding the broader health implications of these widely used substances.

Sources:

1. Laudisi F., Di Fusco D., Dinallo V., Stolfi C., Di Grazia A., Marafini I., Colantoni A., Ortenzi A., Alteri C., Guerrieri F., Mavilio M., Ceccherini-Silberstein F., Federici M., MacDonald T.T., Monteleone I., Monteleone G. The food additive maltodextrin promotes endoplasmic reticulum stress–driven mucus depletion and exacerbates intestinal inflammation. Cell Mol Gastroenterol Hepatol. 2019;7:457–473
2. Bian X, Tu P, Chi L, Gao B, Ru H, Lu K. Saccharin induced liver inflammation in mice by altering the gut microbiota and its metabolic functions. Food Chem Toxicol 2017;107:530–9.