Anchoring a cardiac septum guide before piercing sets a controlled path, countering perforation, dissection, and repeated punctures.
A non-metallic composite core allows precise medical device positioning under magnetic resonance imaging, reducing tissue injury and procedure duration.
Septal mounting enables a single leadless device to pace atrium and ventricle, resolving the complexity trade-off of traditional dual-chamber systems.
A cardiac net integrates pacing electrodes covering the ventricle circumference to deliver synchronous excitatory stimuli.
Segmented implantable leads attach to internal thoracic veins, reducing pulse generator size and energy requirements.
Two intracardiac housings linked by an electrical conductor enable synchronized atrial and ventricular pacing, reducing lead complexity.
An implantable cardioverter delivers simultaneous energy pulses to both atria using bipolar electrodes.
A subcutaneous implantable medical device positions parasternal and anterior electrodes to deliver antiarrhythmic shocks.
A leadless pacemaker uses a detachable housing interface to replace power and control components without disturbing the implanted electrode array.
A coiled wire guides tissue onto a recessed needle tip to pierce the pericardial sac.
Segmented docking members with helical fixation allow reliable pacemaker retrieval while minimizing tissue entanglement during extraction.