Role of Resistant Starch in Improving Gut Health, Adiposity, and Insulin Resistance

The realization that low–glycemic index diets were formulated using resistant starch led to more than a decade of research on the health effects of resistant starch. Determination of the metabolizable energy of the resistant starch product allowed for the performance of isocaloric studies. Fermentat...

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Published inAdvances in food and nutrition research Vol. 6; no. 2; pp. 198 - 205
Main Authors Keenan, Michael J, Zhou, June, Hegsted, Maren, Pelkman, Christine, Durham, Holiday A, Coulon, Diana B, Martin, Roy J
Format Journal Article
LanguageEnglish
Published United States Elsevier Inc 01.03.2015
American Society for Nutrition
Subjects
Online AccessGet full text
ISSN2161-8313
2156-5376
1043-4526
2156-5376
DOI10.3945/an.114.007419

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Abstract The realization that low–glycemic index diets were formulated using resistant starch led to more than a decade of research on the health effects of resistant starch. Determination of the metabolizable energy of the resistant starch product allowed for the performance of isocaloric studies. Fermentation of resistant starch in rodent studies results in what appears to be a healthier gut, demonstrated by increased amounts of short-chain fatty acids, an apparent positive change in the microbiota, and increased gene expression for gene products involved in normal healthy proliferation and apoptosis of potential cancer cells. Additionally, consumption of resistant starch was associated with reduced abdominal fat and improved insulin sensitivity. Increased serum glucagon-like peptide 1 (GLP-1) likely plays a role in promoting these health benefits. One rodent study that did not use isocaloric diets demonstrated that the use of resistant starch at 8% of the weight of the diet reduced body fat. This appears to be approximately equivalent to the human fiber requirement. In human subjects, insulin sensitivity is increased with the feeding of resistant starch. However, only 1 of several studies reports an increase in serum GLP-1 associated with resistant starch added to the diet. This means that other mechanisms, such as increased intestinal gluconeogenesis or increased adiponectin, may be involved in the promotion of improved insulin sensitivity. Future research may confirm that there will be improved health if human individuals consume the requirement for dietary fiber and a large amount of the fiber is fermentable.
AbstractList The realization that low–glycemic index diets were formulated using resistant starch led to more than a decade of research on the health effects of resistant starch. Determination of the metabolizable energy of the resistant starch product allowed for the performance of isocaloric studies. Fermentation of resistant starch in rodent studies results in what appears to be a healthier gut, demonstrated by increased amounts of short-chain fatty acids, an apparent positive change in the microbiota, and increased gene expression for gene products involved in normal healthy proliferation and apoptosis of potential cancer cells. Additionally, consumption of resistant starch was associated with reduced abdominal fat and improved insulin sensitivity. Increased serum glucagon-like peptide 1 (GLP-1) likely plays a role in promoting these health benefits. One rodent study that did not use isocaloric diets demonstrated that the use of resistant starch at 8% of the weight of the diet reduced body fat. This appears to be approximately equivalent to the human fiber requirement. In human subjects, insulin sensitivity is increased with the feeding of resistant starch. However, only 1 of several studies reports an increase in serum GLP-1 associated with resistant starch added to the diet. This means that other mechanisms, such as increased intestinal gluconeogenesis or increased adiponectin, may be involved in the promotion of improved insulin sensitivity. Future research may confirm that there will be improved health if human individuals consume the requirement for dietary fiber and a large amount of the fiber is fermentable.
The realization that low-glycemic index diets were formulated using resistant starch led to more than a decade of research on the health effects of resistant starch. Determination of the metabolizable energy of the resistant starch product allowed for the performance of isocaloric studies. Fermentation of resistant starch in rodent studies results in what appears to be a healthier gut, demonstrated by increased amounts of short-chain fatty acids, an apparent positive change in the microbiota, and increased gene expression for gene products involved in normal healthy proliferation and apoptosis of potential cancer cells. Additionally, consumption of resistant starch was associated with reduced abdominal fat and improved insulin sensitivity. Increased serum glucagon-like peptide 1 (GLP-1) likely plays a role in promoting these health benefits. One rodent study that did not use isocaloric diets demonstrated that the use of resistant starch at 8% of the weight of the diet reduced body fat. This appears to be approximately equivalent to the human fiber requirement. In human subjects, insulin sensitivity is increased with the feeding of resistant starch. However, only 1 of several studies reports an increase in serum GLP-1 associated with resistant starch added to the diet. This means that other mechanisms, such as increased intestinal gluconeogenesis or increased adiponectin, may be involved in the promotion of improved insulin sensitivity. Future research may confirm that there will be improved health if human individuals consume the requirement for dietary fiber and a large amount of the fiber is fermentable.The realization that low-glycemic index diets were formulated using resistant starch led to more than a decade of research on the health effects of resistant starch. Determination of the metabolizable energy of the resistant starch product allowed for the performance of isocaloric studies. Fermentation of resistant starch in rodent studies results in what appears to be a healthier gut, demonstrated by increased amounts of short-chain fatty acids, an apparent positive change in the microbiota, and increased gene expression for gene products involved in normal healthy proliferation and apoptosis of potential cancer cells. Additionally, consumption of resistant starch was associated with reduced abdominal fat and improved insulin sensitivity. Increased serum glucagon-like peptide 1 (GLP-1) likely plays a role in promoting these health benefits. One rodent study that did not use isocaloric diets demonstrated that the use of resistant starch at 8% of the weight of the diet reduced body fat. This appears to be approximately equivalent to the human fiber requirement. In human subjects, insulin sensitivity is increased with the feeding of resistant starch. However, only 1 of several studies reports an increase in serum GLP-1 associated with resistant starch added to the diet. This means that other mechanisms, such as increased intestinal gluconeogenesis or increased adiponectin, may be involved in the promotion of improved insulin sensitivity. Future research may confirm that there will be improved health if human individuals consume the requirement for dietary fiber and a large amount of the fiber is fermentable.
Author Keenan, Michael J
Coulon, Diana B
Hegsted, Maren
Pelkman, Christine
Martin, Roy J
Durham, Holiday A
Zhou, June
Author_xml – sequence: 1
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– sequence: 2
  givenname: June
  surname: Zhou
  fullname: Zhou, June
  organization: Geriatric Endocrinology and Metabolism Laboratory, Veterans Affairs Medical Center, Washington, DC
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  fullname: Hegsted, Maren
  organization: Department of Food and Nutrition, University of Wisconsin–Stout, Menomonie, WI
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  surname: Pelkman
  fullname: Pelkman, Christine
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  givenname: Holiday A
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  fullname: Durham, Holiday A
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  givenname: Roy J
  surname: Martin
  fullname: Martin, Roy J
  organization: Western USDA Human Research Center, Davis, CA
BackLink https://www.ncbi.nlm.nih.gov/pubmed/25770258$$D View this record in MEDLINE/PubMed
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ID FETCH-LOGICAL-c580t-c1d12f0c05c1a305ad5b612741e1ae5a59604138b3cc30c46cb5336f24de8e0e3
ISSN 2161-8313
2156-5376
1043-4526
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Thu Jul 10 22:01:44 EDT 2025
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IsDoiOpenAccess true
IsOpenAccess true
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Issue 2
Keywords WG
functional foods
PYY
RS
intestinal health
GLP-1
resistant starch
HAMRS2
nurtigenomics
ZDF
obesity
Language English
License This article is made available under the Elsevier license.
2015 American Society for Nutrition.
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content type line 23
Author disclosures: C Pelkman is an employee of Ingredion, and MJ Keenan, J Zhou, M Hegsted, HA Durham, DB Coulon, and RJ Martin received funding from Ingredion.
Supported by Ingredion, the Louisiana State University Agricultural Center, and National Institute of Diabetes and Digestive and Kidney Diseases grant R21 DK-073403-01A1. HAD was supported by NIH/National Institute of General Medical Sciences grant 1 U54 GM104940, which funds the Louisiana Clinical and Translational Science Center.
This article is a summary of the symposium “Dietary Whole Grain–Microbiota Interactions: Insights into Mechanisms for Human Health” held 28 April 2014 at the ASN Scientific Sessions and Annual Meeting at Experimental Biology 2014 in San Diego, CA. The symposium was sponsored by the American Society for Nutrition (ASN) and an educational grant from Ingredion.
A summary of the symposium “Dietary Whole Grain–Microbiota Interactions: Insights into Mechanisms for Human Health” was published in the September 2014 issue of Advances in Nutrition.
OpenAccessLink https://www.clinicalkey.com/#!/content/1-s2.0-S216183132200641X
PMID 25770258
PQID 1663898798
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PublicationTitle Advances in food and nutrition research
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Snippet The realization that low–glycemic index diets were formulated using resistant starch led to more than a decade of research on the health effects of resistant...
The realization that low-glycemic index diets were formulated using resistant starch led to more than a decade of research on the health effects of resistant...
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SubjectTerms Abdominal Fat
adiponectin
Adiposity
Animals
apoptosis
blood serum
Diet
dietary fiber
Dietary Fiber - metabolism
Dietary Fiber - pharmacology
Dietary Fiber - therapeutic use
digestive system
Fatty Acids, Volatile - metabolism
Fermentation
functional foods
Gastrointestinal Microbiome
Gastrointestinal Tract - drug effects
Gastrointestinal Tract - microbiology
gene expression
genes
glucagon-like peptide 1
Glucagon-Like Peptide 1 - blood
gluconeogenesis
Humans
Insulin Resistance
intestinal health
metabolizable energy
microorganisms
neoplasm cells
neoplasms
nurtigenomics
obesity
Obesity, Abdominal - complications
Obesity, Abdominal - metabolism
Obesity, Abdominal - prevention & control
resistant starch
Reviews from ASN EB 2014 Symposia
rodents
short chain fatty acids
Starch - metabolism
Starch - pharmacology
Starch - therapeutic use
Title Role of Resistant Starch in Improving Gut Health, Adiposity, and Insulin Resistance
URI https://www.clinicalkey.com/#!/content/1-s2.0-S216183132200641X
https://dx.doi.org/10.3945/an.114.007419
https://www.ncbi.nlm.nih.gov/pubmed/25770258
https://www.proquest.com/docview/1663898798
https://www.proquest.com/docview/2053873839
https://pubmed.ncbi.nlm.nih.gov/PMC4352178
Volume 6
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