Matairesinol

Lignan (lactone)

Function

Matairesinol is a lignan phytochemical found in flaxseeds, sesame seeds, whole grains, berries, cruciferous vegetables, and additional plant-derived foods. It belongs to the lignan family and contributes to the polyphenolic chemistry of seed-rich foods.

Matairesinol functions mainly as a polyphenolic antioxidant involved in oxidative stress modulation, microbiome-associated metabolism, estrogen receptor-related signaling interactions, and cellular redox balance. Research has explored its effects on antioxidant systems, inflammatory mediators, mitochondrial responses, and endocrine-associated pathways.

Within plants, lignans contribute to structural support, defense chemistry, and oxidative protection against environmental stress.

Production

Plants synthesize matairesinol through phenylpropanoid biosynthesis pathways derived from aromatic amino acid metabolism. Flaxseeds and sesame seeds are important dietary contributors.

After ingestion, intestinal microbiota convert matairesinol into mammalian lignans including enterolactone. These metabolites undergo absorption, conjugation, and circulation through metabolic pathways.

Environmental conditions, storage, processing, and microbiome composition strongly influence biological exposure and metabolite formation.

Regulation

Matairesinol activity is regulated by microbiome metabolism, intestinal absorption, hepatic conjugation, food matrix interactions, and oxidative environment. Individual gut microbial composition strongly influences downstream metabolism.

Research suggests matairesinol and derived metabolites may interact with oxidative stress pathways, estrogen receptor-associated systems, inflammatory mediators, and mitochondrial signaling networks. Biological effects depend on concentration, metabolism, and tissue localization.

Consumption from seeds, whole grains, berries, and vegetables provides matairesinol together with fiber, minerals, and additional lignans that collectively contribute to antioxidant and microbiome-associated signaling diversity.

Chemical Identity

Molecular Formula: C20H22O6
Molar Mass: 358.390 g/mol
PubChem CID: 119205

Key Biological Functions

  • Antioxidant; supports inflammatory balance (diet context).

Key Foods / Plant Sources

Top Foods
  • Sesame; rye; flax; whole grains
Additional Sources
  • Seeds and whole grains

Bioavailability & Inhibitors

Inhibitor / Factor Effect on Activity / Absorption
Food matrix and microbiome strongly influence exposure.
Note: Factors relate to activation and cellular signaling context. Educational only.

Cellular Pathways Involved

  • Nrf2/ARE; microbiome conversion to enterolactone.

Low Intake / Context

  • Not a classical deficiency.

Linked Cancers

  • Hormone-related wellness patterns

Linked Ailments / Conditions

  • Inflammatory tone

SUMMARY OF EFFECTS ON THE BODY

  • Immune: network
  • Cardio: endothelial
  • Digestive: conversion
  • Skin: epithelium
  • Cellular: defense

Research

PubChem confirms formula and mass.