Synthesis of Reconfigurable Flow-Based Biochips for Scalable Single-Cell Screening

dc.contributor.author

Ibrahim, M

dc.contributor.author

Sridhar, A

dc.contributor.author

Chakrabarty, K

dc.contributor.author

Schlichtmann, U

dc.date.accessioned

2018-01-11T14:38:52Z

dc.date.available

2018-01-11T14:38:52Z

dc.date.issued

2018-01-11

dc.description.abstract

Single-cell screening is used to sort a stream of cells into clusters (or types) based on pre-specified biomarkers, thus supporting type-driven biochemical analysis. Reconfigurable flowbased microfluidic biochips (RFBs) can be utilized to screen hundreds of heterogeneous cells within a few minutes, but they are overburdened with the control of a large number of valves. To address this problem, we present a pin-constrained RFB design methodology for single-cell screening. The proposed design is analyzed using computational fluid dynamics simulations, mapped to an RC-lumped model, and combined with intervalve connectivity information to construct a high-level synthesis framework, referred to as Sortex. Simulation results show that Sortex significantly reduces the number of control pins and fulfills the timing requirements of single-cell screening.

dc.identifier.uri

https://hdl.handle.net/10161/15989

dc.language.iso

en_US

dc.publisher

Institute of Electrical and Electronics Engineers (IEEE)

dc.relation.ispartofseries

ECE;2017-03

dc.subject

Biochips, depth-first search, design automation, flowbased microfluidics, RC model, timing-aware synthesis

dc.title

Synthesis of Reconfigurable Flow-Based Biochips for Scalable Single-Cell Screening

dc.type

Report

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