Cancer Care Engineering Colorectal Cancer Gabriela Chiorean, M.D.
description
Transcript of Cancer Care Engineering Colorectal Cancer Gabriela Chiorean, M.D.
Cancer Care Cancer Care Engineering Colorectal Engineering Colorectal CancerCancer
Gabriela Chiorean, Gabriela Chiorean, M.D.M.D.
June 26, 2009June 26, 2009
Rationale in colorectal Rationale in colorectal cancercancer PerformPerform OMICs of healthy, polyps, cancer OMICs of healthy, polyps, cancer
Compare OMICs between cancer, polyps and Compare OMICs between cancer, polyps and healthy: develop new healthy: develop new screeningscreening and and riskrisk assessment toolsassessment tools
Analyse changes in OMICs with treatment and Analyse changes in OMICs with treatment and correlate with response/toxicity: correlate with response/toxicity: predictive predictive markersmarkers
Mathematical modeling and Mathematical modeling and bio-mappingbio-mapping
Cancer Cancer care deliverycare delivery
Rationale: CCE nowRationale: CCE now
METABOLOMICS
GLYCO-PROTEOMICS LIPIDOMICS
BIOMAP
CRC
GENOMICS
Mathematicalmodeling
Schema IUCRO-0221Schema IUCRO-0221CCE in CRC CCE in CRC active April 2009active April 2009
SAMPLES
Blood (Serum)7 mL red topMetab, vit D
Blood (Plasma)21 mL purple top
Genomics, lipidomics, glycoproteomics
N=270
Stratification:
-Healthy (n=90)
-Polyps (n=90)
-Cancer (n=90)
stg 1/2
stg 3
stg 4 metastatic
Tissue10 mg polyp or50 mg cancer /
50 mg normal tissue
SHIP
DRY
ICE
8-hr fasting
Samples CollectionSamples Collection Healthy ControlsHealthy Controls
Screening Colonoscopy – GI Clinic
Sign ICS (RN)
Label specimensHealthy
if no polyps/tumor
Collect by RN/processing CRS Blood 1x 7 mL glass red top 3 x 7 mL plastic lavender
Questionnaires diet/environmental exposures
N= 5
Samples CollectionSamples Collection Adenomatous PolypsAdenomatous Polyps
Screening Colonoscopy – GI Clinic
Sign ICS (RN)
Label specimensPolyp
Polyps identified
Tissue procurement/Research specialist -Polyp cut in ½
-Place in tube with no preservative-Freeze at -70oC
Collect by RN/processing CRS Blood 1x 7 mL glass red top 3 x 7 mL plastic lavender
Questionnaires diet/environmental exposures
N= 3
Samples CollectionSamples Collection CancerCancer
Surgery
Sign ICS (RN)
Call tissue procurement -Tumor tissue ~ 50 mg
-Normal mucosa ~ 50 mg-Place in tube with no preservative
-Freeze at -70oC
Collect by RN/processing tissue procurementBlood: 1 x 7 mL red top glass tube 3 x 7 mL lavender plastic tubes
Questionnaires: diet/environmental exposures
Chemotherapy Follow-up
Every 3 months Up to 24 months
N= 8
CCE Blood Acquisition Protocols
Glass Red Top Tube (1)Volume = 7mL
Glass Purple Top Tubes (EDTA) (3)Volume = 7mL /tube
0.2 mL (2) Whole Blood into freezing tubes containingcomet assay solution, mix, place on dry ice, FREEZE (-80oC)
Centrifuge: 1750g, RT, 15 min
Plasma (~ 6mL), place on wet ice
SILICONIZED EPPENDORF TUBES0.2 mL (2) FREEZE (-80 oC) Lipidomics
1.5 mL (1) LONG TERM STORAGE (LIQUID N2); Regular Eppendorf Tubes0.2 mL (12) LONG TERM STORAGE (LIQUID N2); Siliconized Eppendorf Tubes
Centrifuge: 1500g, RT, 15 min
Serum ( ~ 3mL), place on wet ice
REGULAR EPPENDORF TUBES0.3 mL (2) FREEZE (-80 oC) Metabolomics NMR0.2 mL (2) FREEZE (-80 oC) Metabolomics MS0.5 mL (2) FREEZE (-80 oC) Vitamin D Analysis
0.5 mL (2) LONG TERM STORAGE (LIQUID N2)
Page: Amber Allen (page #) for transport to laboratory (RT) and processing
Maximum time at RT from draw to centrifugation: 45-60 min.
Maximum time at RT from draw to centrifuge: 30 min.
Remaining whole blood
Following blood draw, patients and care givers administered diet and life style questionnaire
Maximum time at RT from draw to Whole Blood Removal: 20 min.
Pellets (2); resuspend (1), combine with second pellet, re-centrifuge 1750g RT 5 min, decant, place
on dry ice: FREEZE (-80 oC) SNP
REGULAR EPPENDORF TUBES
1.5 mL (1) FREEZE (-80 oC)Glycoproteomics0.2 mL (1) FREEZE (-80 oC) Proteomics
MetabolomicsMetabolomics
Typical 2D GCxGC/MS data from a colon cancer patient serum sample. After derivitization, approximately 800 metabolites are observed (many of the lower intensity peaks are not evident in this figure). Dan Raftery-Purdue
MetabolomicsMetabolomics
Combination of the GC PCA data with NMR PCA data improves the classification to 95%. In the figure, 2 PCs from the GCxGC/TOF dataset are combined with 1 PC from the NMR data. Oblong shapes are used to indicate 95% confidence limits.
Schema IUCRO-0198Schema IUCRO-0198Metabolomics in CRCMetabolomics in CRC
SAMPLES
Blood (Serum)7 mL red top
Urine10 mL
N=150
Stratification:
-Healthy (n=30)
-Polyps (n=30)
-Cancer (n=90)
stg 1/2
stg 3
stg 4 metastatic
Tissue10 mg polyp or50 mg cancer /
50 mg normal tissue
SHIP
DRY
ICE
8-hr fasting
Principle Component Analysis of Metabolites in serum in IUCRO-0198
Dan Raftery, Lingyan Liu - Purdue
Investigators:Investigators:
Indiana UniversityIndiana UniversityGabriela Chiorean - Gabriela Chiorean -
OncologyOncologyPat Loehrer – OncologyPat Loehrer – OncologyStephen Williams - Stephen Williams -
OncologyOncologyYan Xu - LipidomicsYan Xu - LipidomicsJim Klaunig - GenomicsJim Klaunig - GenomicsBruce Robb - SurgeryBruce Robb - SurgeryEric Wiebke - SurgeryEric Wiebke - SurgeryDoug Rex - GIDoug Rex - GIMike Chiorean - GIMike Chiorean - GICharles Kahi - GICharles Kahi - GIPeter Johnstone – Rad OncPeter Johnstone – Rad OncOscar Cummings - Oscar Cummings -
PathologyPathology
Purdue UniversityPurdue UniversityMarietta Harrison - ChemistryMarietta Harrison - ChemistryDaniel Raftery – MetabolomicsDaniel Raftery – MetabolomicsFred Regnier – ProteomicsFred Regnier – Proteomics - Glycoproteomics- GlycoproteomicsDorothy Teegarden – Vitamin Dorothy Teegarden – Vitamin
DDMin Zhang – Statistical Min Zhang – Statistical
ModelingModelingJake Chen – Biological Jake Chen – Biological
Modeling Modeling