Jan Kubanek

This paper develops ultrasound-activated microdroplets for targeted chemotherapy, showing high drug encapsulation and pressure-dependent release.

This study investigates focused ultrasound neuromodulation of the central lateral thalamus in a non-human primate model of disorders of consciousness, finding no significant changes in arousal but suggesting distributed network stimulation may be more effective.

This paper demonstrates that ultrasound-triggered chemotherapy improves survival in a glioblastoma model by enabling localized drug release at the tumor site.

This study shows that human perceptual decisions are influenced by motor and sensory system properties, with handedness and auditory asymmetries affecting choice biases.

This study develops a method to apply focused ultrasound neuromodulation in awake, head-fixed mice with temporal lobe epilepsy and evaluates its effects on seizure-like events.

This paper shows that the matching strategy efficiently maximizes reward across diverse decision environments with minimal evaluations.

This paper develops a method to improve the effectiveness and safety of transcranial focused ultrasound by compensating for skull and scalp attenuation and distortion.

This study shows that transcranial focused ultrasound can safely and sustainably modulate deep brain circuits in awake non-human primates, affecting behavior and neural activity.

The paper introduces Remus, a remote ultrasound system for precise deep brain interventions, validated in non-human primates.

This study develops a method to generate cortico-striatal organoids from single neural rosettes to model SHANK3 deficiency in autism and intellectual disability.

This study uses MR-guided TUS to modulate visual evoked potentials and cortical oscillations in a sheep model by targeting the lateral geniculate nucleus.

This study shows transcranial ultrasound can bias decision-making in non-human primates by modulating oculomotor circuits, with effects comparable to neuromodulatory drugs.

The paper shows ultrasound induces behavioral responses in C. elegans through mechanical effects on neurons and MEC-4 ion channels, not thermal effects.