|
Chet Moritz, Aiva Ievins |
A Brain-Machine-Spinal Interface (BMSI) to reanimate & rehabilitate the injured nervous system |
Thrust 3: Control & Adaptation |
|
Polina Anikeeva |
A novel approach for polymer-based neural interfaces |
Thrust 1: Communication & Interface |
|
Joshua Smith, Vamsi Talla, Brian Otis |
Adaptive wireless power for chronic electrocorticography |
Thrust 2: Reverse & Forward Engineering |
|
Yusuf Ozturk, Kee Moon |
An Active Connected Knee Rehabilitation Device |
Thrust 3: Control & Adaptation |
|
Ashkan Ashrafi |
Bio-inspired Real-Time Signal Processing for Neural Interface |
Thrust 1: Communication & Interface |
|
Matt Bryan, Rajesh Rao |
Brain-computer interface (BCI) control of a robot or wheelchair system |
Thrust 3: Control & Adaptation |
|
Horacio de la Iglesia, Howard Jay Chizeck |
Circadian Modulation of Neuromotor Control |
Thrust 2: Reverse & Forward Engineering |
|
Benjamin Smarr, Horacio de la Iglesia, Howard Jay Chizeck |
Circadian Modulation of Neuromotor Control (Seed grant) |
Thrust 2: Reverse & Forward Engineering |
|
Alik Widge, Chet Moritz |
Closed Loop Neurostimulation for Psychiatric Disorders |
Thrust 3: Control & Adaptation |
|
Jeff Ojemann, Rajesh Rao |
Computational Analysis of Electrocorticographic Data during Dexterous Manipulation |
Thrust 2: Reverse & Forward Engineering |
|
Emo Todorov, Zoran Popovic |
Contact-aware Optimal Control for Dexterous Hand Manipulation |
Thrust 2: Reverse & Forward Engineering |
|
Rajesh Rao, Michael Shadlen, Chet Moritz |
Decision Making and Action Selection in Vertebrate Brain |
Thrust 3: Control & Adaptation |
|
Joshua Smith |
Development of the NFC-WISP |
Thrust 1: Communication & Interface |
|
Kee Moon, Sam Kassegne, Mahasweta Sarkar, Ashkan Ashrafi |
Dual Mode Ultrasonic Wireless Data/Power Transmission for Implantable Interface Devices |
Thrust 1: Communication & Interface |
|
Theresa Garcia |
Education (MSP & MEP: Outreach and Retention) |
Thrust 2: Reverse & Forward Engineering |
|
Karen May-Newman |
ERC Curriculum Development Plan at SDSU |
Thrust 2: Reverse & Forward Engineering |
|
Michael Dickinson |
High-throughput Quantification of the Complex Wing Motion |
Thrust 2: Reverse & Forward Engineering |
|
Eric Rombokas, Yoky Matsuoka |
Instrumented Task Board with Adjustable Dynamics |
Thrust 3: Control & Adaptation |
|
Mahasweta Sarkar, Kee Moon |
Investigating the Feasibility of Using Ultra-Wideband (UWB) Radio Transmission Technology in Wearable Biomedical Devices |
Thrust 3: Control & Adaptation |
|
Sam Kassegne, Kee Moon, Khaled Morsi |
Investigation of Carbon-MEMS Based Multi-Site Electrode Array Fabric for Neural Sensing and Stimulations |
Thrust 1: Communication & Interface |
|
Khaled Morsi, Kee Moon, Sam Kassegne |
Investigations on the Processing of 3D Micro-scale Responsive Interfaces For Neural Engineering Applications |
Thrust 1: Communication & Interface |
|
Jeremiah Wander, Jeff Ojemann |
Learning of Novel Brain-Computer Interface Based Tasks Using a Handheld Interface |
Thrust 2: Reverse & Forward Engineering |
|
Brian Otis, Chris Rudell |
Low Power Wireless Stimulation Chips for BCIs |
Thrust 1: Communication & Interface |
|
Dana Weinstein |
Low-power transceivers for implanted electronics |
Thrust 1: Communication & Interface |
|
Jeff Lang |
Microfabricated active skins for interface to the peripheral nervous system |
Thrust 1: Communication & Interface |
|
Joel Voldman |
Microfabricated microelectrode interfaces to the mammalian nervous systems |
Thrust 1: Communication & Interface |
|
Les Atlas, Adrian KC Lee |
Modern High-Bandwidth Communications Theory Can Revolutionize Neural Engineering |
Thrust 1: Communication & Interface |
|
Felix Darvas, Rajesh Rao, Melissa Smith, Ashkan Ashrafi |
MRI-assisted non-invasive BCIs for stroke rehabilitation and assistive device control |
Thrust 2: Reverse & Forward Engineering |
|
Melissa Smith, Rajesh Rao, Felix Darvas, Ashkan Ashrafi |
MRI-assisted non-invasive BCIs for stroke rehabilitation and assistive device control (Seed grant) |
Thrust 2: Reverse & Forward Engineering |
|
Michael Dickinson, Benjamin Smarr, Sweta Agrawal |
Neural Engineering Lesson Plans for Community and Teacher Workshops |
Thrust 3: Control & Adaptation |
|
Eric Larson, Adrian KC Lee |
Novel Auditory BCI Design |
Thrust 1: Communication & Interface |
|
Howard Jay Chizeck, Chet Moritz, Charlie Matlack |
Optimizing BMI Design for Brain Adaptation |
Thrust 3: Control & Adaptation |
|
Howard Jay Chizeck, Tamara Bonaci |
Privacy and Security by Design in Brain-Computer Interfaces |
Thrust 3: Control & Adaptation |
|
Russ Tedrake |
Provably safe control for active prosthetics |
Thrust 2: Reverse & Forward Engineering |
|
Thomas Grabowski, Jeff Ojemann, Felix Darvas, Rajesh Rao |
Real-time Multi-voxel fMRI Toward Closed-loop Human-machine Interfaces |
Thrust 2: Reverse & Forward Engineering |
|
Georgiy Presnyakov, Thomas Grabowski, Jeff Ojemann |
Real-time Multi-voxel fMRI Toward Closed-loop Human-machine Interfaces (Seed grant) |
Thrust 2: Reverse & Forward Engineering |
|
Eberhard Fetz, Brian Mogen |
Recurrent Brain-computer Interfaces for Prosthetic Corticospinal Connections |
Thrust 3: Control & Adaptation |
|
Joan Sanders, Brian Hafner |
Smartphone-Based Sensing Platform to Assist Sensorimotor Rehabilitation |
Thrust 3: Control & Adaptation |
|
Marina Meila, Jeff Ojemann, Lise Johnson, Felix Darvas |
Statistical Modeling the Functional Activity in the Primary Motor Cortex |
Thrust 1: Communication & Interface |
|
Michael Rudd, Adrienne Fairhall, Eric Shea-Brown |
The 2011 and 2012 Computational Neuroscience Connections |
Thrust 2: Reverse & Forward Engineering |
|
Sara Morgan, Brian Hafner, Valerie Kelly |
The Cognitive Load Associated with Walking in Persons With Transfemoral Amputation |
Thrust 3: Control & Adaptation |
|
Blake Hannaford, Joan Sanders |
Vibrotactile Feedback for Smart Prosthetics |
Thrust 1: Communication & Interface |
