Daniel Ahmed

This paper introduces MicroDLP, a 3D microprinting platform that enables resolution-switchable microfabrication across multiple length scales.

This paper introduces NPCbots, magnetoelectric microrobots for spinal cord injury repair, showing improved neural regeneration and behavior in zebrafish models.

This paper develops a bio-inspired ultrasound-driven soft microgripper that enables ultrafast and precise manipulation of delicate objects.

This study identifies reprogrammed neutrophils with impaired transit mechanics as a driver of multi-organ capillary stalling after stroke, showing therapeutic potential through Fgr inhibition.

This paper introduces programmable artificial muscles using ultrasound-activated microbubbles, achieving high compactness, low weight, and fast response for applications in soft robotics and biomedical devices.

The paper investigates how ultrasound affects microparticle behavior in disturbed vascular vortices, showing microbubbles self-assemble and anchor to vessel walls, suggesting a new therapeutic strategy.

This paper introduces a sound-driven microrobot inspired by sperm cell geometry, demonstrating directional propulsion and rheotactic behavior in fluid environments.

This paper introduces a method for real-time visualization of microrobots using Color Flow Mapping ultrasound, enabling localization and activation of bubble-based microrobots.

This paper develops an AI-controlled ultrasound-driven microrobot using model-based reinforcement learning, achieving high success rates in navigation and real-time manipulation in complex environments.

This paper introduces a new microbubble design that enables controlled assembly and acoustic steering for biomedical applications.