Lauren G. Brown

This paper validates the redesigned homeRNA platform's robustness to remote study stresses, showing it maintains RNA quality under varied conditions and storage times.

This study evaluates how print orientation affects surface texture and capillary-driven flow in laser SLA-printed microchannels, finding that surface tortuosity, not roughness, better predicts flow behavior.

This study compares the transcriptomic profiles of LPS-induced immune responses in homeRNA and venous blood samples, showing homeRNA captures comparable inflammatory responses.

The paper introduces STEAM, a microfluidic platform for creating suspended tissue constructs with spatial patterning and mechanical manipulation capabilities, demonstrating its use in engineered muscle tissue.

The paper introduces STOMP, a method to create multi-regional suspended tissues for studying complex tissue interfaces, and reports altered contractile dynamics in engineered heart tissues and bone-ligament constructs.

This study evaluates RNA degradation in homeRNA-stabilized blood under varying shipping times and temperatures, finding that samples remain suitable for RNA sequencing under typical shipping conditions.