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MELLOW: Tracking Hormone Fluctuations in ME/CFS and Long COVID

The image shows a female scientist working inside a lab. She is wearing a white lab coat, blue gloves, and a surgical mask. The scientist is using a pipette to transfer a liquid into a container.

The study aims to investigate how hormone fluctuations in individuals with ME/CFS and Long COVID, compared to healthy controls, impact metabolism and immune pathways by measuring hormones, metabolites, and inflammation markers in biofluid samples.

Blood Flow and Exercise in ME/CFS and Orthostatic Intolerance

The image is a visual representation of blood flow, depicting a stream of elements against a gradient background that suggests movement and fluidity.

The study aims to investigate the effects of supine vs upright exercise on cerebral blood flow, blood pressure, heart rate, and the presence of autoimmune antibodies in ME/CFS patients with orthostatic intolerance, compared to controls, to understand the underlying mechanisms and differences in symptom severity and post-exertional malaise.

Crash-Course: Studying PEM/flares in ME/CFS, PTLDS, Long COVID

a close-up of a finger with a drop of blood on it, against a white background.

The study aims to compare biological markers during mild symptoms and flare/PEM events in individuals with ME/CFS, alongside PTLDS and Long COVID patients, using finger-prick blood samples and continuous data from wearable sensors to understand symptom variability.

AusME Biobank Biomarker Project

a close-up of a gloved hand holding a test tube containing a blood sample. The test tube is labeled with barcode for identification and tracking purposes.

The study aims to utilize the Australian ME/CFS biobank for metabolomics analyses and other assays to identify potential biomarkers for Myalgic Encephalomyelitis/Chronic Fatigue Syndrome, contributing to a comprehensive dataset for large-scale analysis.

Temporally Resolved Omics Tracking of ME/CFS

Woman researcher doing a blood test

This study seeks to understand the biological mechanisms driving the symptomatology of Myalgic Encephalomyelitis/Chronic Fatigue Syndrome (ME/CFS) using metabolomic and lipidomic high-throughput analysis and high-frequency blood sampling over a 6.5 to 7.5 hour period conducted at two separate sites (Melbourne and Uppsala).

Itaconate Trap Study

This project aims to look at metabolic traps in central carbon metabolism that lead to observed altered energy production pathways in ME/CFS.

BOSS-ME: Biological Outlier and Subtyping Software for ME/CFS

This project will develop a software tool to rapidly look for metabolism anomalies in an individual which might be explained by their genes. It will also look for potentially damaging genes in individuals and it will attempt to group ME/CFS patients based on their genetic and metabolic profiles.