Dataset Information

Microfluidic-Based Droplet and Cell Manipulations Using Artificial Bacterial Flagella.

ABSTRACT: Herein, we assess the functionality of magnetic helical microswimmers as basic tools for the manipulation of soft materials, including microdroplets and single cells. Their ability to perform a range of unit operations is evaluated and the operational challenges associated with their use are established. In addition, we also report on interactions observed between the head of such helical swimmers and the boundaries of droplets and cells and discuss the possibilities of assembling an artificial swimming microorganism or a motorized cell.

SUBMITTER: Ding Y

PROVIDER: S-EPMC6190376 | biostudies-literature | 2016 Feb

REPOSITORIES: biostudies-literature

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Microfluidic-Based Droplet and Cell Manipulations Using Artificial Bacterial Flagella.

Ding Yun Y Qiu Famin F Casadevall I Solvas Xavier X Chiu Flora Wing Yin FWY Nelson Bradley J BJ deMello Andrew A

Micromachines 20160208 2

Herein, we assess the functionality of magnetic helical microswimmers as basic tools for the manipulation of soft materials, including microdroplets and single cells. Their ability to perform a range of unit operations is evaluated and the operational challenges associated with their use are established. In addition, we also report on interactions observed between the head of such helical swimmers and the boundaries of droplets and cells and discuss the possibilities of assembling an artificial ...[more]

PMID: 30407399

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Project description:A computer numerical control (CNC) apparatus was used to perform droplet centrifugation, droplet DNA extraction, and rapid droplet thermocycling on a single superhydrophobic surface and a multi-chambered PCB heater. Droplets were manipulated using "wire-guided" method (a pipette tip was used in this study). This methodology can be easily adapted to existing commercial robotic pipetting system, while demonstrated added capabilities such as vibrational mixing, high-speed centrifuging of droplets, simple DNA extraction utilizing the hydrophobicity difference between the tip and the superhydrophobic surface, and rapid thermocycling with a moving droplet, all with wire-guided droplet manipulations on a superhydrophobic surface and a multi-chambered PCB heater (i.e., not on a 96-well plate). Serial dilutions were demonstrated for diluting sample matrix. Centrifuging was demonstrated by rotating a 10 ?L droplet at 2300 round per minute, concentrating E. coli by more than 3-fold within 3?min. DNA extraction was demonstrated from E. coli sample utilizing the disposable pipette tip to cleverly attract the extracted DNA from the droplet residing on a superhydrophobic surface, which took less than 10?min. Following extraction, the 1500?bp sequence of Peptidase D from E. coli was amplified using rapid droplet thermocycling, which took 10?min for 30?cycles. The total assay time was 23?min, including droplet centrifugation, droplet DNA extraction and rapid droplet thermocycling. Evaporation from of 10 ?L droplets was not significant during these procedures, since the longest time exposure to air and the vibrations was less than 5?min (during DNA extraction). The results of these sequentially executed processes were analyzed using gel electrophoresis. Thus, this work demonstrates the adaptability of the system to replace many common laboratory tasks on a single platform (through re-programmability), in rapid succession (using droplets), and with a high level of accuracy and automation.

Dataset Information

Microfluidic-Based Droplet and Cell Manipulations Using Artificial Bacterial Flagella.

Publications

Microfluidic-Based Droplet and Cell Manipulations Using Artificial Bacterial Flagella.

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