Presentation is loading. Please wait.

Presentation is loading. Please wait.

HMRS integrated with a microfluidic system for multiple analyses

Published byDjaja Hardja Modified over 5 years ago

Similar presentations

Presentation on theme: "HMRS integrated with a microfluidic system for multiple analyses"— Presentation transcript:

1 Fig. 6 HMRS integrated with a microfluidic system for multiple analyses.
HMRS integrated with a microfluidic system for multiple analyses. (A) Schematic of the integrated HMRS platform. (B) Assay schematic. (C) Sequential spectra of hyperpolarized pyruvate collected from multiple analyses. (D) Quantification and comparison of NMR signals from 12 analyses. NMR signal in each analysis (I) was normalized by the first signal of the same analysis (I0). All data sets were fitted to a single model of decay of hyperpolarized spin states. The 12 analyses yielded an R2 of 99.5 ± 0.4% and an RMSE of 3.07 ± 1.05%. (E) Multiple analyses of glycolytic flux from a single dissolution of hyperpolarized pyruvate. Each analysis consists of five NMR acquisitions (15 s in total), followed by a 15-s interval to stabilize the sample after movement. The overall glycolytic flux metric ξ was (pmol/s) per 105 cells, which was well matched to the ξ of K562 (33.24 ± 2.51) presented in Fig. 3B. The measurements were performed in triplicate. Error bars show the SD. Sangmoo Jeong et al. Sci Adv 2017;3:e Copyright © 2017, The Authors

Download ppt "HMRS integrated with a microfluidic system for multiple analyses"

Similar presentations

Cytotoxicity of MSP samples to normal and cancer cell lines.

Cytotoxicity of MSP samples to normal and cancer cell lines.
Characterization of the light-responsive transdermal MNs.

Characterization of the light-responsive transdermal MNs.
Fig. 5 In vivo MIP imaging of lipid and protein in C. elegans.

Fig. 5 In vivo MIP imaging of lipid and protein in C. elegans.
Fig. 1 Upward emission functions used to compute the maps.

Fig. 1 Upward emission functions used to compute the maps.
Fig. 1 Characterization of decellularized zECM.

Fig. 1 Characterization of decellularized zECM.
Fig. 2 Rydberg-EIT spectra without control pulse.

Fig. 2 Rydberg-EIT spectra without control pulse.
Fig. 1 DMS concentration in plastic debris headspace.

Fig. 1 DMS concentration in plastic debris headspace.
Fig. 5 Metafluorophores with different photostability.

Fig. 5 Metafluorophores with different photostability.
Fig. 3 The electrical contact of direct-printed and reconfigured liquid metals. The electrical contact of direct-printed and reconfigured liquid metals.

Fig. 3 The electrical contact of direct-printed and reconfigured liquid metals. The electrical contact of direct-printed and reconfigured liquid metals.
Fig. 4 INS spectra of different human bones from the Roman period [humerus, ulna, femur, and fibula from the same skeleton, Guidonia-Montecelio, Italy.

Fig. 4 INS spectra of different human bones from the Roman period [humerus, ulna, femur, and fibula from the same skeleton, Guidonia-Montecelio, Italy.
Fig. 3 Vibrational spectra of human bones from the Copper Age (Scoglietto cave, Italy). Vibrational spectra of human bones from the Copper Age (Scoglietto.

Fig. 3 Vibrational spectra of human bones from the Copper Age (Scoglietto cave, Italy). Vibrational spectra of human bones from the Copper Age (Scoglietto.
Vibrational spectra of medieval human bones (Leopoli-Cencelle, Italy)

Vibrational spectra of medieval human bones (Leopoli-Cencelle, Italy)
Fig. 1 Demographic shifts in knowledge producers.

Fig. 1 Demographic shifts in knowledge producers.
Fig. 2 Solid-state NMR spectra of ceria in contact with water.

Fig. 2 Solid-state NMR spectra of ceria in contact with water.
Order parameter θ as a function of time for the five events analyzed

Order parameter θ as a function of time for the five events analyzed
Fig. 4 Demonstration of optogenetic and microfluidic capabilities of the wireless, battery-free optofluidic nerve cuff system. Demonstration of optogenetic.

Fig. 4 Demonstration of optogenetic and microfluidic capabilities of the wireless, battery-free optofluidic nerve cuff system. Demonstration of optogenetic.
Fig. 2 Fluence-dependent emission characteristics of CH3NH3PbI3 recorded at 15 and 300 K. Fluence-dependent emission characteristics of CH3NH3PbI3 recorded.

Fig. 2 Fluence-dependent emission characteristics of CH3NH3PbI3 recorded at 15 and 300 K. Fluence-dependent emission characteristics of CH3NH3PbI3 recorded.
Fig. 1 CFHT photometry converted into spectral reflectivity obtained on UT (Universal Time) 22 and 25 October 2014, is shown in comparison to the VLT reflectivity.

Fig. 1 CFHT photometry converted into spectral reflectivity obtained on UT (Universal Time) 22 and 25 October 2014, is shown in comparison to the VLT reflectivity.
FTIR-ATR spectra of Neolithic faunal bones (Mora Cavorso cave, Italy)

FTIR-ATR spectra of Neolithic faunal bones (Mora Cavorso cave, Italy)
Fig. 1 Device structure, typical output performance, and cytocompatibility of BD-TENG. Device structure, typical output performance, and cytocompatibility.

Fig. 1 Device structure, typical output performance, and cytocompatibility of BD-TENG. Device structure, typical output performance, and cytocompatibility.

Similar presentations

Ads by Google