Stretch-mediated β₂-adrenergic signaling in cardiomyocytes depends on caveolae. Using the IonOptix CytoCypher MultiCell, researchers showed stretch increases contractility and cAMP via β₂AR—not β₁AR—and is lost when caveolae are disrupted. shorturl.at/AgbtN

Mechanical loading reveals hidden cardiomyocyte stiffness in cardiometabolic disease. Using IonOptix MyoStretcher and Calcium & Contractility systems, researchers found HFSD-fed mice had stiffer cells and slower Ca²⁺ decay—signs of diastolic dysfunction. shorturl.at/xDazR

Researchers modeled hypertrophic cardiomyopathy using human cardiac organoids derived from hiPSC-CMs carrying the MYBPC3 D389V variant. Using the IonOptix CytoCypher MultiCell System, they measured faster contractility and calcium kinetics. shorturl.at/rKqnN

Researchers used IonOptix cardiomyocyte systems to study GPR41 function. Butyrate reduced cell shortening and Ca²⁺ transients in WT but not GPR41−/− mice, implicating GPR41 in modulating inotropy via cAMP signaling and SERCA2a activity.
Read more: shorturl.at/9TEEr

Researchers used IonOptix cardiomyocyte systems to study GPR41 function. Butyrate reduced cell shortening and Ca²⁺ transients in WT but not GPR41−/− mice, implicating GPR41 in modulating inotropy via cAMP signaling and SERCA2a activity.
Read more: shorturl.at/9TEEr

Researchers used the IonOptix CytoCypher MultiCell to compare calcium handling and contractility in hiPSC-cardiomyocytes with or without sympathetic neurons. Coculture enhanced inotropy, chronotropy, and structure—supporting improved maturation. shorturl.at/fldct

Researchers feature IonOptix systems while highlighting the value of intact cardiomyocytes and tissue slices in HFpEF research. Preserving native environments yields more physiologically relevant insights than skinned preps.
Read more: shorturl.at/bK3pU