Lectures in course EE-519: Bioelectronics and biomedical microelectronics

Analog Circuits for Biochip: Wireless Power and Data Transmission

Explores wireless power and data transmission to implanted systems, emphasizing system architecture and functional modules.

Wireless Power Transfer Techniques

Explores wireless power transfer techniques for implantable bioelectronics and discusses selection criteria, frequency bands, and historical perspectives.

Wireless Power and Data Transmission

Explores wireless power and data transmission principles for implanted systems, focusing on inductive coupling and efficient circuit design.

Analog Circuits for Biochip: Wireless Power and Data Transmission

Covers wireless power and data transmission to implanted systems, exploring modulation techniques, pulse modulation, analog modulation, and digital modulation types.

Wireless Power and Data Transmission to Implanted Systems

Explores wireless power and data transmission to implanted systems using inductive links and bio-telemetry.

Wireless Power and Data Transmission to Implanted Systems

Explores wireless power and data transmission to implanted systems, covering inductive coupling, load modulation, and impedance matching.

Wireless Power and Data Transmission to Implanted Systems

Explores wireless power and data transmission to implanted systems using capacitive, magnetic, and acoustic coupling techniques.

Wireless Power and Data Transmission to Implanted Systems

Explores wireless power and data transmission to implanted systems, covering system architecture, coupling methods, and modulation techniques.

Wireless Biomedical Implants

Explores analog circuits for wireless biomedical implants, covering power and data transmission, receiver architectures, and design considerations.

Bioelectronics and Biomedical Microsystems

Covers bioelectricity, electrodes, microelectronics, signal processing, and implantable systems.

Implantable Microsystems: Bioelectronics & Biomedical Applications

Explores Brain Computer Interfaces, Retina and Cochlear implants, and microelectronic systems for biomedical applications.

Membrane Equilibrium Potential: Formulation and Models

Explores membrane equilibrium potential, circuit models, graded response, and nervous system organization.

Neural System Organization

Explores the organization and structure of the nervous system, including neurons, synapses, neurotransmitters, and brain functions.

Neuronal Signaling: Action Potentials and Conduction

Covers the terminology, generation, and conduction of action potentials in neuronal signaling, along with bioelectric signals and synaptic currents.

Biomedical Electrodes: Fundamentals and Impedance Modeling

Explores the fundamentals of bioelectrodes, challenges in biomedical electrodes, impedance modeling, and mass transport by diffusion.

Electrode Polarization and Tissue Damage

Explores electrode polarization, tissue damage causes, and avoidance methods, including biphasic pulses and interface modeling.

Neural Signal Recording: Electrode Types and Applications

Explores various electrode types for neural signal recording and their applications in in-vivo and in-vitro settings.

Flexible Microelectrodes: Polymers & Applications

Covers polymer-based flexible microelectrodes, cuff electrodes, ECOG arrays, and peripheral nerve interfaces, discussing materials, properties, processing, and applications.

Amplifiers: Characteristics and Models

Explores amplifier characteristics, models, feedback, stability, and frequency response, emphasizing the bandwidth-gain tradeoff and op-amp limitations.

MOS Amplifiers: Common-Source Stage

Explores MOSFETs as current sources, common-source stage, differential signals, and MOS differential pairs.