Genotyping on a Thermal Gradient DNA Chip

DNA computing on a chip.

Engineering On-Chip Thermal Effects

Temperature effects can be used to maliciously affect the behavior of digital crypto-circuits. For example, temperature effects can create covert communication channels, and they can affect the stability of physical unclonable functions (PUFs). This talk observes that these thermal effects can be engineered, and we describe two techniques. The first technique shows how to filter the information...

On-Chip Thermal Gradient Analysis Considering Interdependence between Leakage Power and Temperature

In this paper, we propose a methodology for calculating on-chip temperature gradient and leakage power distributions. It considers the interdependence between leakage power and local temperature using a general circuit simulator as a differential equation solver. The proposed methodology can be utilized in the early stages of the design cycle as well as in the final verification phase. Simulati...

Dna Analysis Systems on a Chip

This paper presents a review of microfabricated systems for genetic diagnostics. Genetic diagnostics are powerful technology drivers and excellent candidate applications for miniaturization technologies because the demand for inexpensive genetic information is essentially unlimited, and the cost and time for the diagnostic decreases with sample volume. Processing of DNA molecules in the microsc...

Analyzing DNA-protein interactions on a chip

Gene expression is regulated by multi-protein complexes binding to short non-coding regions of genomic DNA, called cisregulatory elements. A long-term goal of genomics is to identify and annotate all essential elements of the genome. Most coding elements of the genome have been identified and annotated; however, most regulatory elements have not. This chapter describes a method for the high thr...