| Literature DB >> 32121172 |
Georgia D Kaprou1, Vasileios Papadopoulos1, Christos-Moritz Loukas1, George Kokkoris1, Angeliki Tserepi1.
Abstract
In recent years, printed circuit board (PCB)-based microfluidics have been explored as a means to achieve standardization, seamless integration, and large-scale manufacturing of microfluidics, thus paving the way for widespread commercialization of developed prototypes. In this work, static micro polymerase chain reaction (microPCR) devices comprising resistive microheaters integrated on PCBs are introduced as miniaturized thermocyclers for efficient DNA amplification. Their performance is compared to that of conventional thermocyclers, in terms of amplification efficiency, power consumption and duration. Exhibiting similar efficiency to conventional thermocyclers, PCB-based miniaturized thermocycling achieves faster DNA amplification, with significantly smaller power consumption. Simulations guide the design of such devices and propose means for further improvement of their performance.Entities:
Keywords: genomic Salmonella DNA; micro polymerase chain reaction (microPCR); microfluidics; multi-well PCR; printed circuit board (PCB); simulation; static
Year: 2020 PMID: 32121172 DOI: 10.3390/mi11030258
Source DB: PubMed Journal: Micromachines (Basel) ISSN: 2072-666X Impact factor: 2.891