Research Labs - Applied Physics at the Hebrew University of Jerusalem

The Optoelectronics Computing Laboratory

The Optoelectronic Computing Laboratory at the Hebrew University of Jerusalem imports concepts and phenomena from the realm of fundamental physics, to the arena of optoelectronic engineering.
The laboratory research effort is aimed primarily at providing the integration methodology between digital computers, communication networks, and advanced sensing capabilities which will be the fundamental building blocks of the future cyberspace.

The Optical Power Grid
OPTIMOS: Electrooptics in Silicon
Electroholography in Waveguide Architectures
Striation Gratings
Electric Filed Multiplexing of Volume Holograms

The Imaging systems and Processes Laboratory

Imaging Systems and Processes
Atmospheric Optics
Remote Sensing

The Dielectric Spectroscopy Laboratory

Dielectric Properties of Materials
The Time Domain Dielectric Spectroscopy
The Dielectric Study of Complex Liquids
The Dielectric Properties of Complex Biological Systems
The Relaxation Phenomena in Disordered Systems

Nanophotonics, Quantum Optics, Biophyiscs and Medical Physics Laboratory

Near-field 2D/3D Optical Imaging
Nanochemical and Nanomanipulation Tools
SHG, Non-linear Optical Imaging of Membrane Potential in Neural Networks
Light Energy Transduction in Photoreceptors
Biomedical Instrumentation

The Microelectronics Laboratory

Microelectronics
Silicon Devices

Quantum Nano Engineering Lab

Nano-structures are likely to become primary components of future quantum electronic devices. Although practical realization of such devices faces a number of challenges, the benefits from their successful implementation can be enormous. In our work we aim at achieving quantum properties in standard devices by developing monolayered hybrid surfaces. The hybrid nano layers change the micro scale devices properties and add quantum features to them. This methodology leads to a generic technology for constructing nano-systems in which many devices are interconnected and operate in unison, without inhibiting their quantum nature. Nature in several cases uses quantum mechanics in order to achieve extraordinary properties. Our controlled nano tool box can mimic nature and open a new way for upgrading exciting devices to the quantum level of operation.

The Optoelectronics Computing Laboratory The Optoelectronic Computing Laboratory at the Hebrew University of Jerusalem imports concepts and phenomena from the realm of fundamental physics, to the arena of optoelectronic engineering. The laboratory research effort is aimed primarily at providing the integration methodology between digital computers, communication networks, and advanced sensing capabilities which will be the fundamental building blocks of the future cyberspace.	The Optical Power Grid OPTIMOS: Electrooptics in Silicon Electroholography in Waveguide Architectures Striation Gratings Electric Filed Multiplexing of Volume Holograms
The Imaging systems and Processes Laboratory	Imaging Systems and Processes Atmospheric Optics Remote Sensing
The Dielectric Spectroscopy Laboratory	Dielectric Properties of Materials The Time Domain Dielectric Spectroscopy The Dielectric Study of Complex Liquids The Dielectric Properties of Complex Biological Systems The Relaxation Phenomena in Disordered Systems
Nanophotonics, Quantum Optics, Biophyiscs and Medical Physics Laboratory	Near-field 2D/3D Optical Imaging Nanochemical and Nanomanipulation Tools SHG, Non-linear Optical Imaging of Membrane Potential in Neural Networks Light Energy Transduction in Photoreceptors Biomedical Instrumentation
The Microelectronics Laboratory	Microelectronics Silicon Devices
Quantum Nano Engineering Lab Nano-structures are likely to become primary components of future quantum electronic devices. Although practical realization of such devices faces a number of challenges, the benefits from their successful implementation can be enormous. In our work we aim at achieving quantum properties in standard devices by developing monolayered hybrid surfaces. The hybrid nano layers change the micro scale devices properties and add quantum features to them. This methodology leads to a generic technology for constructing nano-systems in which many devices are interconnected and operate in unison, without inhibiting their quantum nature. Nature in several cases uses quantum mechanics in order to achieve extraordinary properties. Our controlled nano tool box can mimic nature and open a new way for upgrading exciting devices to the quantum level of operation.

Reseach Labs