Menopause-Associated differences in Transporter Complex HDL’s composition and function (MATCH) -study

In the MATCH project, we study the potential menopause-associated changes in the composition and function of high-density lipoprotein particles (HDL). The HDL particle is composed of fats and proteins, and it also carries RNA molecules that can act as signaling molecules or regulatory factors between tissues and cells. The study utilizes data from the ERMA and EsmiRs research projects and employs molecular biological and whole-genome approaches combined with exercise and health science research. MATCH is a four-year project funded by the Academy of Finland.

Table of contents

Project duration
-
Core fields of research
Physical activity, health and wellbeing
Research areas
Physical activity through life span
Molecular mechanisms of exercise and health
Active aging
Co-operation
ERMA, EsmiRs
Faculty
Faculty of Sport and Health Sciences
Funding
Research Council of Finland

Project description

The MATCH study focuses on generating new information about the relationship between the high-density lipoprotein (HDL) particle and menopause. Each individual has a diverse array of HDL particles of varying sizes and slightly different structures in their bloodstream. The HDL particles consist of fats and proteins, and they carry RNA molecules that can act as signalling molecules or regulatory factors between tissues and cells. In the MATCH study, we are interested in the proteomic, lipidomic, and RNA composition of the HDL particle and potential changes related to menopause or female sex hormone levels.

The HDL particle is intriguing because its function or dysfunction can impact health by regulating, for example, inflammatory responses or the efficiency of removing excess cholesterol from blood vessels. The role of HDL as a carrier of regulatory RNA molecules can influence cellular metabolism. These small, non-protein-coding RNA molecules also circulate in the bloodstream attached to extracellular vesicles and other protein complexes. Different carriers are likely to collide with each other in the bloodstream and can exchange RNA, protein, or lipid components among themselves.

All cell types in the body can release regulatory RNA molecules into the bloodstream and, conversely, uptake such molecules. When taken into a cell, regulatory RNAs can alter cellular function.

The MATCH study is based on data from the ERMA and EsmiRs research projects. The research is conducted at the Gerontology Research Center within the Faculty of Sport and Health Sciences at the Ä¢¹½Ö±²¥.