Biological circuits are developed as biological parts within a cell to carry out logical functions resembling those studied in electronics circuits. These circuits can be performed as a method to vary cellular functions, to develop cellular responses to environmental conditions, or to regulate cellular developments. This research explored the possibility of synthetic biology based on the geneti...

Genetic regulatory networks play a crucial role in the control of most developmental and physiological processes. Extensive genetic sequencing now provides us with almost complete sets of genes, whereas genetic and functional genomic analyses progressively uncover the numerous cross-regulatory interactions occurring between these genes and their products. However, at present, these analyses lea...

Quantum circuits exhibit several features of large-scale distributed systems. They have a concise design formalism but behavior that is challenging to represent let alone predict. Issues of scalability—both in the yet-to-be-engineered quantum hardware and in classical simulators—are paramount. They require sparse representations for efficient modeling. Whereas simulators represent both the syst...

Two tasks are prevalent in most sketch recognition systems grouping and recognition. We describe a novel grouping algorithm which clusters pen strokes into symbols. This algorithm is unique because it allows a feedback loop which can improve the performance of other phases in recognition. In our experiments, we improve the percentage of perfectly grouped symbols from 76.7% to 94.2%. Additionall...

Biological circuits are developed as biological parts within a cell to carry out logical functions resembling those studied in electronics circuits. These circuits can be performed as a method to vary cellular functions, to develop cellular responses to environmental conditions, or to regulate cellular developments. This research explored the possibility of synthetic biology based on the geneti...

Theoretical results due to V. Malyugin on linearization of arithmetical models of logical functions are interpreted and refined from the viewpoint of modern techniques of logical design of integral circuits and nearest neighbor technologies.

Carbon nanotube (CNT) field-effect transistors (CNFETs), as one of the promising candidate emerging technologies, have distinctive device-level characteristics compared to conventional CMOS technology. Logical effort approach, which is an efficient approach for fast delay estimation in CMOS technology, however, is not universally applicable for CNFET-based circuits. In this work, we first ident...

Logic circuits and the ability to amplify electrical signals form the functional backbone of electronics along with the possibility to integrate multiple elements on the same chip. The miniaturization of electronic circuits is expected to reach fundamental limits in the near future. Two-dimensional materials such as single-layer MoS(2) represent the ultimate limit of miniaturization in the vert...