Quantitative phase microscopy of red blood cells during planar trapping and propulsion† †Electronic supplementary information (ESI) available. See DOI: 10.1039/c8lc00356d
暂无分享,去创建一个
Peter T. C. So | Balpreet Singh Ahluwalia | Deanna L. Wolfson | Dalip Singh Mehta | Vijay Raj Singh | Jean-Claude Tinguely | Azeem Ahmad | Vishesh Dubey | D. S. Mehta | Cristina Ionica Øie | P. So | Jean-Claude Tinguely | B. Ahluwalia | C. Øie | V. Singh | Azeem Ahmad | Vishesh K. Dubey | D. Wolfson | D. Mehta | V. Singh
[1] J. Cook. Nonsolvent Water in Human Erythrocytes , 1967, The Journal of general physiology.
[2] D. A. Dunnett. Classical Electrodynamics , 2020, Nature.
[3] A W Jay. Viscoelastic properties of the human red blood cell membrane. I. Deformation, volume loss, and rupture of red cells in micropipettes. , 1973, Biophysical journal.
[4] E. Evans. Bending elastic modulus of red blood cell membrane derived from buckling instability in micropipet aspiration tests. , 1983, Biophysical journal.
[5] P. J. Abatti,et al. Measurement of human red blood cell deformability using a single micropore on a thin Si/sub 3/N/sub 4/ film , 1991, IEEE Transactions on Biomedical Engineering.
[6] C. César,et al. MECHANICAL PROPERTIES OF STORED RED BLOOD CELLS USING OPTICAL TWEEZERS , 1998 .
[7] R. Gauthier,et al. Analysis of the behaviour of erythrocytes in an optical trapping system. , 2000, Optics express.
[8] J. Käs,et al. The optical stretcher: a novel laser tool to micromanipulate cells. , 2001, Biophysical journal.
[9] C. Lim,et al. Mechanics of the human red blood cell deformed by optical tweezers , 2003 .
[10] Daniel T Chiu,et al. A microfluidic model for single-cell capillary obstruction by Plasmodium falciparum-infected erythrocytes , 2003, Proceedings of the National Academy of Sciences of the United States of America.
[11] Gabriel Popescu,et al. Quantitative phase imaging using actively stabilized phase-shifting low-coherence interferometry. , 2004, Optics letters.
[12] Khyati Mohanty,et al. Dynamics of Interaction of RBC with optical tweezers. , 2005, Optics express.
[13] E. Cuche,et al. Digital holographic microscopy: a noninvasive contrast imaging technique allowing quantitative visualization of living cells with subwavelength axial accuracy. , 2005, Optics letters.
[14] J Fedeli,et al. Optical manipulation of microparticles and cells on silicon nitride waveguides. , 2005, Optics express.
[15] R. Dasari,et al. Diffraction phase microscopy for quantifying cell structure and dynamics. , 2006, Optics letters.
[16] Subra Suresh,et al. Cytoskeletal dynamics of human erythrocyte , 2007, Proceedings of the National Academy of Sciences.
[17] D. Deamer,et al. Planar optofluidic chip for single particle detection, manipulation, and analysis. , 2007, Lab on a chip.
[18] Gabriel Popescu,et al. Optical imaging of cell mass and growth dynamics. , 2008, American journal of physiology. Cell physiology.
[19] Kuo-Kang Liu,et al. Optical tweezers for single cells , 2008, Journal of The Royal Society Interface.
[20] D. Néel,et al. Optical transport of semiconductor nanowires on silicon nitride waveguides , 2009 .
[21] N. Sessions,et al. Fabrication of Submicrometer High Refractive Index Tantalum Pentoxide Waveguides for Optical Propulsion of Microparticles , 2009, IEEE Photonics Technology Letters.
[22] M. Lipson,et al. Optical manipulation of nanoparticles and biomolecules in sub-wavelength slot waveguides , 2009, Nature.
[23] Gabriel Popescu,et al. Live cell refractometry using Hilbert phase microscopy and confocal reflectance microscopy. , 2009, The journal of physical chemistry. A.
[24] Carlos Angulo Barrios,et al. Optical Slot-Waveguide Based Biochemical Sensors , 2009, Sensors.
[25] Victor Guallar,et al. Raman study of mechanically induced oxygenation state transition of red blood cells using optical tweezers. , 2009, Biophysical journal.
[26] J. McWhirter,et al. Flow-induced clustering and alignment of vesicles and red blood cells in microcapillaries , 2009, Proceedings of the National Academy of Sciences.
[27] T. Huser,et al. Optical trapping and propulsion of red blood cells on waveguide surfaces. , 2010, Optics express.
[28] G. Karniadakis,et al. Combined Simulation and Experimental Study of Large Deformation of Red Blood Cells in Microfluidic Systems , 2010, Annals of Biomedical Engineering.
[29] Subra Suresh,et al. Shape and Biomechanical Characteristics of Human Red Blood Cells in Health and Disease , 2010, MRS bulletin.
[30] Marc Thellier,et al. The sensing of poorly deformable red blood cells by the human spleen can be mimicked in vitro. , 2011, Blood.
[31] Valentina Preziosi,et al. Microfluidics analysis of red blood cell membrane viscoelasticity. , 2011, Lab on a chip.
[32] S. Jacques,et al. Measurement of single cell refractive index, dry mass, volume, and density using a transillumination microscope. , 2012, Physical review letters.
[33] Barry R. Masters,et al. Quantitative Phase Imaging of Cells and Tissues , 2012 .
[34] W. Marsden. I and J , 2012 .
[35] I. J. van der Klei,et al. The Impact of Peroxisomes on Cellular Aging and Death , 2012, Front. Oncol..
[36] Subra Suresh,et al. Optical measurement of biomechanical properties of individual erythrocytes from a sickle cell patient. , 2012, Acta biomaterialia.
[37] Mincheng Zhong,et al. Trapping red blood cells in living animals using optical tweezers , 2013, Nature Communications.
[38] Samarendra K. Mohanty,et al. Optical tweezers assisted quantitative phase imaging led to thickness mapping of red blood cells , 2013 .
[39] O. Hellesø,et al. Estimation of Propagation Losses for Narrow Strip and Rib Waveguides , 2014, IEEE Photonics Technology Letters.
[40] Gabriel Popescu,et al. Optical Assay of Erythrocyte Function in Banked Blood , 2014, Scientific Reports.
[41] Pierre Marquet,et al. Review of quantitative phase-digital holographic microscopy: promising novel imaging technique to resolve neuronal network activity and identify cellular biomarkers of psychiatric disorders , 2014, Neurophotonics.
[42] YongKeun Park,et al. Profiling individual human red blood cells using common-path diffraction optical tomography , 2014, Scientific Reports.
[43] Tsan-Wen Lu,et al. Trapping particles using waveguide-coupled gold bowtie plasmonic tweezers. , 2014, Lab on a chip.
[44] R Baets,et al. Glucose sensing by waveguide-based absorption spectroscopy on a silicon chip. , 2014, Biomedical optics express.
[45] Balpreet Singh Ahluwalia,et al. Squeezing red blood cells on an optical waveguide to monitor cell deformability during blood storage. , 2015, The Analyst.
[46] Dalip Singh Mehta,et al. Ultra-short longitudinal spatial coherence length of laser light with the combined effect of spatial, angular, and temporal diversity , 2015 .
[47] Sung-Hee Hong,et al. Characterizations of individual mouse red blood cells parasitized by Babesia microti using 3-D holographic microscopy , 2015, Scientific Reports.
[48] Adam Wax,et al. Influence of defocus on quantitative analysis of microscopic objects and individual cells with digital holography. , 2015, Biomedical optics express.
[49] M. Doble,et al. Characterization and sorting of cells based on stiffness contrast in a microfluidic channel , 2016 .
[50] Subra Suresh,et al. Biomechanics of red blood cells in human spleen and consequences for physiology and disease , 2016, Proceedings of the National Academy of Sciences.
[51] Ø. Helle,et al. Rib waveguides for trapping and transport of particles. , 2016, Optics express.
[52] Dalip Singh Mehta,et al. Quantitative phase imaging of biological cells using spatially low and temporally high coherent light source. , 2016, Optics letters.
[53] Zach DeVito,et al. Opt , 2017 .
[54] T. Huser,et al. Chip-based wide field-of-view nanoscopy , 2017, Nature Photonics.
[55] M. Doble,et al. A combined experimental and theoretical approach towards mechanophenotyping of biological cells using a constricted microchannel. , 2017, Lab on a chip.
[56] Tsuyoshi Murata,et al. {m , 1934, ACML.