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    Journals >Chinese Journal of Lasers >Volume 45 >Issue 2 >Page 207009 > Article
    • Chinese Journal of Lasers
    • Vol. 45, Issue 2, 207009 (2018)
    Progress on Methods of Quantitative Phase Measurement and Retrieval for Biological Cells
    Zhang Lu1、*, Zhao Chunhui1, Kang Senbai1, Zhao Hong1, Zhang Chunwei1, and Yuan Li2
    Author Affiliations
  • 1[in Chinese]
  • 2[in Chinese]
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    DOI: 10.3788/CJL201845.0207009 Cite this Article Set citation alerts
    Zhang Lu, Zhao Chunhui, Kang Senbai, Zhao Hong, Zhang Chunwei, Yuan Li. Progress on Methods of Quantitative Phase Measurement and Retrieval for Biological Cells[J]. Chinese Journal of Lasers, 2018, 45(2): 207009 Copy Citation Text show less
    Experimental setup of simultaneous phase shift shear interference[3-4]
    Fig. 1. Experimental setup of simultaneous phase shift shear interference[3-4]
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    Schematic of off-axis digital holographic. (a) Ref. [10]; (b) Ref. [12]; (c) Ref. [13]; (d) Ref. [15]; (e) Ref. [16]
    Fig. 2. Schematic of off-axis digital holographic. (a) Ref. [10]; (b) Ref. [12]; (c) Ref. [13]; (d) Ref. [15]; (e) Ref. [16]
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    Experimental setup of optofluidic time-stretch quantitative phase microscope[44]
    Fig. 3. Experimental setup of optofluidic time-stretch quantitative phase microscope[44]
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    (a) Experimental setup of phase microscopy imaging based on common-path without micro-objective[48];(b) multi-wavelength lens-free video microscopy[49]; (c) schematic of the combined DHM and HOT workstation using holographic optical stretching and quantitative phase imaging of RBCs[50]
    Fig. 4. (a) Experimental setup of phase microscopy imaging based on common-path without micro-objective[48];(b) multi-wavelength lens-free video microscopy[49]; (c) schematic of the combined DHM and HOT workstation using holographic optical stretching and quantitative phase imaging of RBCs[50]
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    TechnologyYearSamplePhaseshiftDigitalholographicCharacteristicStatus of sampleandapplication
    Polarizing coupledinterferometers2015Acetate sheet;red cells√Dynamic
    Spatial light interferencemicroscopy2017Neuronal cells√3D dynamic
    Simultaneous phase-shiftinterference microscopy2015√Resolution:0.4868 μmDynamic
    Quantitative phasecytometryline-focusedbeam illumination2017Hela cells√Imaging speed:1000/13 min-1;classificationaccuracy: 96.5%Dynamic
    Holographicimaging cytometry2017Humanosteosarcoma cells√Duration: 2 dDynamic
    Low-coherenceoff-axis interferencephase microscopy2017Melanoma cells;normal cells√Classificationaccuracy: 81%-99%3D dynamic
    Digital holographicmicroscopy2017Hela cells√Duration: 2-3 d4D dynamic
    Michelson interference-based self-interferencephase microscopy2017Pancreatic√Imaging speed:1000/15 h-1;duration: 1.5 hDynamic; cellculture quality
    Digital holographicmicroscopy2017Jimt-1 cells;SK-MEL-5cells√Duration: 36 hDynamic; cell proliferation assays
    Optical diffractiontomography2017Sh-SY5Y cells√Dynamic; diagnosis forparkinson's disease
    Digital holographicmicroscopy apparatuswith pre-magnification2012Osteoblasts and bonecells, paramecia,red cells,cervical cancer cells√Duration: 8 hDynamic
    Laser scanningcytometer1999Cells√Imaging speed:several hundreds ofcells per secondDynamic
    Parallel microfluidicflow cytometer2011Cells√Dynamic; diagnosisfor protein-misfoldingdiseases
    Microfabricated multiplefield of view imagingflow cytometer2012Red blood cells,acute myeloidleukemia cells√Imaging speed:2000-20000 s-1Dynamic; cellsmorphology andcharacterized
    Serial time encodedamplified microscopy2012White bloodt-cells; coloncancer cells√Imaging speed:100000 s-1;classificationaccuracy: 95.5%Dynamic; earlydetection anddiagnosis forblood diseases
    Optofluidic timestretch microscopy2017Blood cells√Imaging speed:100000 s-1;classificationaccuracy: 96.6%Dynamic; therapeuticmonitoring forthrombotic
    Machine-learning optofluidictime-stretch quantitativephase microscopy2017Microalgae cells√Imaging speed: 10000 s-1;classification accuracy: 97%Dynamic
    Common-path withoutmicro-objectivephase microscopy2015Blood cells√Resolution: <4 μmDynamic
    Multiwavelength lens-freevideo microscopy2017Mesenchymal,endothelial,epithelial cells√Duration:several daysDynamic;dense cells
    Digital holographicmicroscopy2017Red cells√Dynamic; early detectionand diagnosis for blooddiseases
    Table 1. Phase measurement methods for dynamic biological cells
    TechnologyPhase shift stepsOne shotStatus of sample
    Coaxial interference phase shift≥3×Static
    Phase extraction in wavelength tuning interferometry≥3×Static
    Off-axis interference phase shift2√Static
    Fourier transform1√Static
    Hilbert transform1√Static
    Gram-Schmidt orthonormalization and improvedGram-Schmidt orthonormalization2√Dynamic
    Interference fringe differentiation1√Dynamic
    New image segmentation≥1√Dynamic
    Table 2. Characteristics of phase retrieval methods
    TechnologyYearCoaxialOff-axisSteps ofphase shiftDigitalholographicCharacteristicImagingdimension
    Fourier phasemicroscopy2004√4Sampling rate:4 frame·min-12D
    Fast-Fourier phasemicroscopy2007√4Lateral resolution:diffraction limit;vertical resolution: 2 nm;sampling rate≥10 frame·s-12D
    Space light interferencemicroscopy2011√4Resolution: the same asatomic force microscope;sampling rate≥10 frame·s-12D
    White light-Fourierphase microscopy2013√4Sampling rate: 12.5 frame·s-12D
    Parallel two-step phaseshift microscopy2010√22D
    Full-field opticaltomography technology2010√43D
    Fresnel diffractionnumerical representation2005√√Vertical resolution:sub-wavelength2D
    Diffraction phasemicroscopy2006√√2D
    White light-diffractionphase microscopy2013√√Sampling rate: ms2D
    Non-diffractionreconstruction2006√√Vertical resolution: 5 nm;sampling rate: ms2D
    Digital holographicmicroscopy based onMichelson interference2011√√Lateral resolution:sub-cellular2D
    Off-axis interferenceasynchronousdigital holography2007√2√Sampling rate: ms2D
    Dual channelinterference microscopy2009√2√Sampling rate: ms3D
    Table 3. Characteristics of phase measurement methods for static biological cells
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    Zhang Lu, Zhao Chunhui, Kang Senbai, Zhao Hong, Zhang Chunwei, Yuan Li. Progress on Methods of Quantitative Phase Measurement and Retrieval for Biological Cells[J]. Chinese Journal of Lasers, 2018, 45(2): 207009
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