Hungry Tissues: Mechanical-metabolic coupling in tissue formation and tumour initiation

MRC · United Kingdom government procurement

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June 29, 2031
Response Due
Active
Status

Opportunity Overview

Cells are the building blocks of tissues, and their behaviours, such as growth, movement, and organisation, determine how tissues form, repair, and maintain function. Disruptions in these behaviours contribute to diseases including cancer, fibrosis, and degenerative disorders. Two key processes strongly influence cell behaviour: tissue mechanics, which governs how cells generate and respond to forces, and metabolism, which provides energy and the building blocks for growth. Although often studied separately, mechanics and metabolism are intimately linked. Forces influence energy production, while metabolic state affects how cells generate and transmit forces. This interplay, called mechanical–metabolic coupling, is poorly understood, limiting our ability to prevent or treat disease.
 
This fellowship aims to define the mechanisms and consequences of mechanical–metabolic coupling, using mammary epithelial cells as a model. Breast tissue undergoes repeated growth and remodelling, making it ideal to study how mechanical and metabolic signals interact. Breast cancer is a major cause of death in the UK, and any insights that prevent disease initiation would have important societal impact. High mammographic density, reflecting altered tissue mechanics, is a major risk factor, while metabolic reprogramming contributes to disease progression and influences treatment outcomes. Understanding how these signals cooperate or conflict will reveal early vulnerabilities that can be targeted for disease prevention, particularly in high-risk individuals.
 
The project has three main aims. First, I will identify molecular regulators that integrate mechanical and metabolic signals, focusing on proteins that connect the cell’s structural framework (cytoskeleton) and force generation to energy use. By systematically manipulating these regulators and measuring forces, metabolism, and cell behaviour, I will uncover how cells balance these inputs to maintain tissue function....

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Solicitation Details

Issuing agencyMRC
CountryUnited Kingdom
CategoryResearch Development
PublishedJune 29, 2026
Procurement stageActive solicitation
Response dueJune 29, 2031
StatusOpen — accepting responses
Official sourceView original notice
Last verifiedAugust 12, 2026

Source: UK Research and Innovation (UKRI) — Open Government Licence v3.0.

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