from image to analysis the tissomics (bd... · cell sample functional fluorescence staining flow...
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From Image to Analysis:Current State of Quantitative
Glenn Yang. TEL:8862-27855860 CELL:0953062485Cell-B
io 尚博生物科技有限公司尚博生物科技有限公司尚博生物科技有限公司尚博生物科技有限公司
www.cell-bio.com.tw
Tissomics
Life Science Research Scale
GenomicGenomic ProteomicProteomic CytomicCytomic
SuspensionSuspensionCell SampleCell Sample
AdherenceAdherenceCell SampleCell Sample
FunctionalFunctionalFluorescenceFluorescence
StainingStaining
Flow BasedCytometry
Image BasedCytometry
Quantitative Tool from Cell to Organic
Slide Based Cytometry
OrganismOrganism??
CellCytomic
TissueTissomics
Slide base cytometry (SBC)Tissomics is • Slide base cytometry• High throughput• High content• Easy to re-analysis• Fully automatic• Quantitative• Toward to 3D
Requirement of Tissomics• Digitalized slide image• Analyzed slide image• Quantified Slide image • Export visualized data
Quantitative Tissue Cytometry :Tissomics
Check your data Check your data even out of officeeven out of office
Recheck your data Recheck your data again, again again, again
and againand again
Preserve your data Preserve your data forever and freshforever and fresh
Share your data toShare your data toall over the world all over the world
Virtual Virtual SlideSlide
1.Digitalized your Slide
Quantitative Tissue Cytometry :Tissomics
2.Analyze your Slide
DAPI Alexa488 Cy3 APC
Segment cell in Immunoflu orescence slide
1.Using filter system and monochrome CCD to capture single dye image
2.Segment cell and organelle for each fluorescence channel
Quantitative Tissue Cytometry :Tissomics
Segment cell in Immuno chem istry slide
1.Separate color image into single grey value display(Software or Hardware base)
2.Segment cell and organelle for each grey channel
Visible SpectrumSoftware based color separationSoftware based color separation Hardware based color separationHardware based color separation
2.Analyze your Slide
Quantitative Tissue Cytometry :Tissomics
3.Quantity your Slide and export to visualize data
Quantitative Tissue Cytometry :Tissomics
Stitching, in this context, means assembling any number of small detail images to create one large image. The main purpose of TissueStitching is to create large overviews of tissue specimens without losing accuracy in detail.Comparedto tradi t ional microscopy, this technology blends a magnification factor of 1:400 for detailed resolution with a magnification factor of 1:25 or 1:50 for broad overview.
Background
Fluorescence SeparationFilter system to separate florescence channel.
We can offer 10 filter block in our system!
IHC Color SeparationIn order to ease analysis IHC sample HistoQuest® performs a color separation.
1. Pickup markers Color from original image
2. Color adjustment by manipulating the gain, the color space and blur.
3. Separate into gray scale Image
Blue shade of Nuclei
Brown shade of Nuclei
Brown shade of Cytopla
Nuclear SegmentationAutomatic nuclear segmentation is achieved via HistoQuest patented set of algorithm
Nuclear segmentation in HistoQuest®is completely automatic after the input of a few starting values:
•Average nuclear size
•Discrimination by area
(Exclusion of smaller nuclear sections)
•Discrimination by gray value
(Exclusion of weakly stained nuclei)
•Background threshold
(Default setting is automatic)
Single cell identificationHistoQuest® provides two algorithm sets for the identification of the cell cytoplasm .
•The first one creates a statistical ring mask which measures marker intensity between an interior and an exterior radius, measured from the border of identified nuclei.
•The second algorithm created on this mask identifies cell cytoplasm by effectuating simultaneous and incremental growth phases on marker intensity from the cell border.
Ring Mask around nuclear Growing Mask for cytoplasm Single cell cytoplasm mas k
List mode file for parameters of cellHistoQuest® provides List mode data and presentation just like FACS. (dot=cell)
3
1
1
0
58
P2
0.7121
6.822
4.005
3.204
2.1343
sizeP1ROI
8 5.221N
List mode data
100%43839.230Overall
59.13%25959.334Right
40.87%17910.140Left
PercentCountM1-MeanQuadrant
4.880
1.347
0.972
92.266
0.000
Cyclin A
0.00%00.000UL
3.90%4296124.815UR
100%110.281115.104Overall
95.88%105.604114.104LR
0.24%27142.249LL
PercentCountHamalinQuadrant
Data presentation and statisticHistoQuest® provides plot and statistic simultaneously just like FACS.
Histogram and Statistic Dot plot and Statistic
Hamaluan intensityC
yclin
A N
ucle
ar In
tens
ityCyclin A Intensity
Negative Cell
Dim positive Cell
Strong positive Cell
R1
G1=R1Gating with Strong positive Cell
Region, gating and overlay comparisonMeasurement data from different ROI’sand/or analysis selections
CyclinA Nuc.Int. CyclinA Cyt.Int. CyclinA Nuc.Int. VS cyt.int.
CyclinA Nuc.Int. CyclinA Cyt.Int. CyclinA Nuc.Int. VS cyt.int.
Dot plot Overlay
Histogram Overlay
Unt
reat
men
tT
reat
men
t
Forward connection: from image to scattergram
The „Forward Connection“ feature allows to double click on individual cells in any image in order to show its position inthe scattergrams, i.e.to show a cell‘s properties.
Backward connection: from scattergram to image
Basal Epithelial Cells
Sec
reto
ryE
pith
elia
lCel
ls
Comparison of HistoQuest Analysis and Manual Counts
The Reinheckel Group at the Institute of Molecular Medicine and Cell Research of the Albert-Ludwigs University Freiburg, Germany, conducted validation experiments with HistoQuest®. The aim was to quantify Ki67 expression in pulmonal metastasis of 14 month-old MMTV-PyMT mice with HistoQuest and do manual counts in comparison.
TissueFAXSThe Microscopic Equivalent to
Flow CytometryApplication Notes
Application Note 1:Identification of Prostatic GlandsAim:
Automated distinction of secretory and basal epithelial cells in prostatic glands in order to allow cell type-specific measurements of further molecular markers.
Courtesy Prof. G. Kramer, Dep. of Urology, Med. Univ. of Vienna, Austria
Blue: Nuclei (DAPI)Green: Cytokeratin 18+ secretory epithelial cells.Red: Cytokeratin 18+/Cytokeratin 8.12+ basal epithelial cells
Application Note 2:Measurement of Neuronal Markers
Courtesy Prof. M. Maurer, Inst. f. Pathophysiologie, Univ. of Heidelberg, Germany
Aim:
Measure the moleular expression levels of certain markers in neuronal cells in a rat model.
1,87%
Red: nuclei (Propidium Iodide)Green: neuronal marker
Application Note 3:Viability Testing in Cell Cultures
Courtesy Dr. Schenkel, Central Mouse Facility, DKFZ Heidelberg, Germany
AimAim ::
Quality control of sperm cells afterthawing. By applying a specific stainthat labels exclusively nuclei of live cells and a second stain thatexclusively labels nuclei of dead cellsan automated viability test can beestablished by using TissueFAXS™.
Please note: The single event in the upper right quadrant is a doublet of a living and a dead celltightly sticking together and can be easily gated out.
Steiner et al. 2000, Journal of Immunological Methods 237 (1-2);39-50
Cytotoxic T-cells
T-Helper cells
Application Note 4:Phenotype of Tissue Infiltrating Leukocytes
Aim:
Determine the immune status in samples of different renal cell carcinoma patientsby phenotypic characterization of tissue infiltrating leukocytes in situ.
CD45 was used to identify all leukocytes. Dot plots show the reactivity of anti-CD3 (x-axis) versus anti-CD8 (y-axis).
Blue: CD45 – all leukocytesRed: CD3 – T-lymphocytesGreen: CD8 – zytotoxic T-lymphocytes
Application Note 5:In-situ Quantification of Apoptosis
Aim:
Determine the apoptotic rate of dendritic cells in mouse skin-sheets after treatmentwith certain drugs
Normal ControlStrong Apoptotic
InducerWeak Apoptotic
Inducer
Hoetzenecker et al. 2004, Journal of Investigative Dermatology 122(3):673-84
Hoetzenecker et al. 2005, Journal of Allergy and Clinical Immunology, 115(6):1276-83
Green: Apoptotic cellsRed: Langerhans cells
Epidermal sheets are stained after Elidel treatment and the number of apoptotic cells was analyzed.
TUNEL+ : 0.64%
Application Note 6:Leukocyte Cytokine Expression in situ
Chang-Rodriguez et al.2004, Journal of Leukocyte Biology 76(3):657-66
Aim:
Quantify the expression of Interleukin-10 of dermal leukocytes in a knock-outmouse model. Different mice (adult, newborn and knock-out) were used to determine the IL-10 expression level in situ and thereby learn to understanddevelopmental changes throughout theontogeny of the mouse immune system.
It could be demonstrated that autocrineIL-10 partially prevents differentiation of neonatal dendritic epidermal leukocytesinto Langerhans cells
Negative Control Normal Skin UV-Irradiated Skin
Courtesy Prof. Dr. L. Kemeny, Dept. of Dermatology, University of Szeged, Hungary
Aim:
Quantify the effect of UV-radiation (or any other treatment) on human skin on themolecular basis.The expression level of target molecules (in green) is determined in skin biopsies of normal and UV-treated samples in correlation to isotype-matched negative control.
Application Note 7:Effect of Irradiation / Therapy
Blue: DAPI (nuclei)Green: Specific marker (upregulated upon UV-irradiation)
Application Note 8: Cellular Changes during Tumor Formation
Courtesy Prof. H. Klocker, Dep. of Urology, Med. Univ. of Innsbruck, Austria
Aim:
Provide an automatedand observerindependent data basisfor clinical diagnosis of prostate cancer basedon a specific tumormarker and changes in the composition of prostatic glandscharacterized bydifferent types of cytokeratin expressedby epithelial cells.
Application Note 9: Counting of Bacteria (Spirochaeta)
Courtesy Dr. M.J. Flaig, Dep. of Dermatology, LMU Munich, Germany
Aim:
Automatically countbacteria per mm² in infected skin.
Density: 2198 bac./mm²