Connor A. Stead

This study identifies protein-specific synthesis rate changes in human muscle under endurance and resistance training, revealing mode-specific adaptations in subcellular protein subsets.

This study uses dynamic proteome profiling to show that resistance exercise improves proteostasis in older human skeletal muscle by increasing mitochondrial protein turnover and restoring proteomic imbalances.

The paper compares fractional, mole, and absolute turnover rates of human muscle proteins, finding that mole and absolute rates better account for abundance differences in certain contexts.

This study quantifies skeletal muscle proteome changes over time in rats during resistance training, revealing distinct adaptation phases driven by ribosomal and mitochondrial protein dynamics.