Lyshevski S.E. – Page 3 – TechConnect Briefs

Single Molecule Quantum-Effect Electronic Devices

Lyshevski S.E., Rochester Institute of Technology, US

This paper examines multi-terminal quantum-effect devices. These devices are envisioned to be utilized in emerging molecular gates (Mgates) and neuronal hypercells for expected molecular integrated circuits. In addition to molecular-centered processing and memories, MEdevices are [...]

Biomolecular, Organic and Inorganic Processing Fabrics: Design and Synthesis of Processing Cells and Primitives

Lyshevski S.E., Rochester Institute of Technology, US

This paper focuses on solving various processing, networking, aggregation and interfacing problems by synthesizing, designing and utilizing molecular fabrics. The molecular processing platforms are comprised from modules, units and devices. For example, a brain neuron [...]

Analysis of Graphene, Molecular Wires and Inorganic Materials for Nanoelectronics and Low Power Integrated Circuits

Lyshevski S.E., Rochester Institute of Technology, US

This paper studies some emerging and prospective materials and possible solutions for envisioned nanoscaled microelectronic devices. To assess and evaluate the performance of envisioned scaled microelectronic devices, one applies quantum mechanics and other advanced methods. [...]

Sensing Weak Magnetic Field By Leaving Biosystems and A Magnetoreseption Mechanism For Navigation

Lyshevski S.E., Rochester Institute of Technology, US

This paper examines and demonstrates a possible mechanism of sensing weak magnetic fields in biosystems.

Three-Dimensional-Topology Processing and Memory Cells For Molecular Electronics

Lyshevski M.A., Lyshevski S.E., Lyshevski M.A., Lyshevski S.E., Microsystems and Nanotechnologies, US

This paper researches an innovative molecular electronics solution for molecular processing platforms which utilize three-dimensional (3D) topology molecular electronic devices and 3D system organization. Departing form the conventional concepts, we use the polypeptides as a [...]

Benchmarking Performance and Physical Limits of Processing Electronic Device and Systems: Solid-State and Molecular Paradigms

Lyshevski S.E., Shmerko V., Yanushkevich S., Rochester Institute of Technology, US

We study physical limits and research performance estimates. The designer examines the device and system performance and capabilities using distinct performance measures, estimates, indexes and metrics. At the device level, we examine functionality, study characteristics [...]

Genomics and Proteomics: Information-Theoretic Analysis in Frequency Domain

Lyshevski S.E., Krueger F., Rochester Institute of Technology, US

We perform the frequency-domain analysis to examine large-scale genomic and proteomics data. This ensures qualitative and quantitative coherency.

Conformational Changes of Acetylcholine During Spontaneous Diffusion Through a Nano/Microporous Gel: Towards a Novel Approach to Biomolecular Hardware

Vaganova E., Yitzchaik S., Ovadia H., Lyshevski S.E., Khodorkovsky V., Pierola I.F., The Hebrew University, IL

This paper reports the results which intent to enhance the understanding of mechanisms and transitions taking place in biological systems. In order to mimic these low energy processes in natural systems, as well as to [...]

Fluidic Molecular Processing Devices

Lyshevski M.A., Lyshevski S.E., Lyshevski M.A., Lyshevski S.E., Microsystems and Nanotechnologies, US

We study fluidic molecular processing devices and modules to perform processing and related tasks. These developments are envisioned to be utilized in foreseen processing and memory systems. We consider various fluidic devices as modular primitives [...]

Novel Design of Molecular Integrated Circuits and Molecular Nanoarchitectronics

Lyshevski S.E., Rochester Institute of Technology, US

This paper reports the results in synthesis and design of novel three-dimensional (3D) nanoscale integrated circuits (nanoICs). These nanoICs can be implemented utilizing multi-terminal molecular devices that exhibit unique electronic characteristics. Aggregated molecules form molecular [...]