Aldo Scarpa
ARC-
NETCentre for Applied Research on Cancer and Department of Pathology
University of Verona, Italy
La prospettive del molecular profiling
nella prevenzione diagnosi e cura dei tumori
Disclosures
• Advisory Boards / Honoraria / Speakers’ fee / Consultant for:
Astra-Zeneca, Celgene, Novartis, Roche
• Research Support / Grants from:
European Union FP7 grant no 602783 Ministry of University
and Research (FIRB RBAP10AHJB);
5X1000 grant n. 12182
Ministry of Health FIMP, J33G13000210001
Biobanche
Next-generation molecular technologies
4 hours - 1 hour Hands On
Sanger sequencing
Sequence reaction
PCR Primer design
350 bp per PCR (1 gene fragment) Product
Clean up
Scarpa
single gene fragment for one patient
4
Next generation sequencing
6 hours - 1 hour Hands On
Up to 1Mb per multiplex PCR (~500 genes)
Adaptors ligation Multiplex
PCR
Adapter clean-up
Primers Removal
Scarpa
Primer design
multiple genes amplified simultaneously
5
Starting DNA Clonal amplification of thousands copies Emulsion PCR amplification
- one DNA molecule per bead
Starting DNA Clonal amplification
of thousands copies Solid phase bridge PCR
- one DNA molecule per cluster
6
Next generation sequencing
0 10 20 30 40 50 60 70 80 90 100
CTNNB1 FGFR3 APC PIK3CA
V ar iant fre qu enc y
SPT27 SPT30
Allelic silent SNP Allelic silent
SNP Mutation
◼ Each cell has two alleles
◼ ß catenin mutation is heterozygous (one allele)
◼ We should find 40% of alleles mutated
Mutation
Scarpa
◼ 80% neoplastic cells
◼ ß catenin mutation
Solid pseudopapillary tumour
NGS data are quantitative
CTNNB1
CTNNB1 + PIK3CA Normal
20%
40%
40%
Scarpa
NGS data are quantitative and reveal
clonal composition
Adaptors ligation Multiplex
PCR Primer design
Up to 1Mb per multiplex PCR
(~500 genes) Primers
Removal
Barcode = identifies the patient DNA
9
NGS permits the simultaneous analysis of multiple
genes
Colorectal cancer
190 PCR in one tube 46 genes, 930 mutations
20µl
Scarpa
KRAS BRAF EGFR TP53 PIK3CA CSF1R JAK2
NRAS PTPN11 ERBB2 SRC FGFR3 NPM1 CDKN2A
RET HNF1A SMAD4 GNAS PDGFRA MPL ABL1
PTEN FLT3 STK11 SMARCB1 KIT MET NOTCH1
FGFR2 RB1 JAK3 VHL KDR SMO
HRAS AKT1 ALK MLH1 FBXW7 ERBB4
ATM CDH1 IDH1 CTNNB1 APC FGFR1
10
NGS permits the simultaneous analysis of multiple
genes
Adaptors ligation Multiplex
PCR Primers Removal
Different Barcodes = multiple patients
Scarpa
Primer design
FFPE BLOOD
Genomic DNA
A B C D
A BC
D
11
NGS permits the simultaneous analysis of multiple
patients
Sample CRC1 CRC2 CRC3 CRC4 CRC5 CRC6 CRC7 CRC8 CRC9 Neoplastic
cells 90% 80% 85% 60% 40% 85% 55% 70% 50%
Subtype MSS MSS MSS MSS MSS MSS MSS MSS MSS
Variant type (frequency)
KRAS 61Q/H
(23%)
12G/D (23%)
TP53 271E/K (20%) 245G/R (73%) R209del (46%) 278P/S (35%) 175R/H (22%)
KDR 482C/R
(50%)
SMAD4 361R/H
(24%)
ATM 410V/A
(50%)
604P/S (64%)
ERBB2 777V/L
(43%)
776G/V (39%)
CTNNB1 45S/F
(43%)
FBXW7 452E/Q
(56%)
FGFR3 384F/L (61%)
MET 375N/S
(59%)
375N/S (45%)
CDH1 72D/N
(13%)
Scarpa
NGS permits the simultaneous analysis of multiple
genes in multiple patients
Emerging Molecular Taxonomy
Prevalence of Phenotypes
Molecular Heterogeneity
of cancers
Emerging Molecular Taxonomy
Prevalence of Phenotypes
Cowley MJ et al. J Hepatobiliary Pancreat Sci 2013 [Epub ahead of print] Copyright (2013) by permission of Wiley
Molecular Heterogeneity
of cancers
Reprinted by permission from Macmillan Publishers Ltd: Pao W & Hutchinson KE. Nat Med 2012;18(3):349-351 © (2012)
Same morphology, different cancers
Lung adenocarcinoma
15
Cancer Genome Atlas Research Network. Nature 2014;511(7511):543-550 © (2014) Creative Commons license
mutually exclusive molecular types
Lung adenocarcinoma
16
SMAD4 TGFBR2 ACVR2A TGFBR1
TGFb pathway: (40%)
KRAS
MAPK pathway: (95%)
Germline mutation ATM
BRCA2 BRCA1 PALB2 REV1L ZZZZ AAAA
Missense
Nonsense, Indel Homozygous deletion
DNA damage repair: (20%)
Scarpa, unpublished
Significantly mutated pathways in pancreas adenocarcinomas
17
RTK=90%
MAPK=60%
PI3K-mTOR=37%
DNA
repair=63%
Reprinted by permission from Macmillan Publishers Ltd: Ding L et al. Nature 2008;455(7216):1069-1075 © (2008)
Significantly mutated pathways in
lung adenocarcinoma
Cancer Genome Atlas Research Network. Nature 2013;489(7417):519-525 © (2013) Creative Commons license
RTK=53%
PI3K-mTOR=67%
Significantly mutated pathways in
lung squamous cell carcinomas
Colorectal cancer
The Cancer Genome Atlas Network. Nature 2012;487(7407):330-337 © (2012) Creative Commons license
20
Aldo Scarpa
ARC-
NETCentre for Applied Research on Cancer and Department of Pathology
University of Verona, Italy
La prospettive del molecular profiling
nella prevenzione diagnosi e cura dei tumori
17 candidate genes with bi-allelic inactivation
protein truncating variants (PTV) plus LOH of normal allele
FAN1 NEK1
RHNO1
Ductal
adenocarcinoma Acinar cell
carcinoma
Neuroendocrine tumours
Intraductal papillary mucinous neoplasm
Serous cystic neoplasms
The Spectrum of Pancreatic Tumors
Mucinous cystic neoplasms
Solid pseudopapillary neoplasms
Review Article 2014
Pancreatic Adenocarcinoma
N Engl J Med 371(11):1039-1049 September 11, 2014
www.arc-net.it
Sequenziamento del genoma di tumori del pancreas
Il Centro di Ricerca ARC-NET è
capofila dell’iniziativa Italiana
Stable
(<50 events)
Focal
(50-200, 50% on 1 Chr)
Unstable
(>200 widespread)
Scattered
(50 – 200 widespread)
30% 14%
20% 36%
Waddell N, et al – Nature 2015
There are 4 PDAC subtypes
Anatomy Whole genome sequence
of 100 PDAC
HR gene mutations are associated with BRCA signature and response to platinum
Waddell N, et al – Nature 2015
14%
Ductal
adenocarcinoma
3/11 cases
Acinar cell
carcinoma
2/7; 28.6%
Intraductal papillary mucinous neoplasm
8/37; 21.6%
Ductal
adenocarcinoma
33
Scarpa et al. 2017, Nature
Neuroendocrine
tumours
The mutational landscape of pancreatic cancer
35
Which is important?
10 pathways
Multigene panels for pathway analysis
Panel Name
PDAC periampullary
basic TGFB Pathway SWI/SNF Chromatin
Remodelling WNT non canonical -
Spliceosome DNA DAMAGE REPAIR
GENES
KRAS ACVR1A ARID2 ARHGAP4 BRCA1
BRAF ACVR1B ARID1B PRPF40A BRCA2
NRAS ACVR1C BAP1 PRPF40B PALB2
TP53 ACVR2A DPF1 RBM6 STK11
CDKN2A ACVR2B DPF2 RBM10 RPA1
PIK3CA TGFBR1 DPF3 RNF43 REV3L
APC TGFBR2 HLTF ROBO1 ATM
CTNNB1 SMAD1 KDM5C ROBO2
EGFR SMAD2 KDM6A ROBO3
ERBB2 SMAD3 KMT2C ROBO4
ERBB4 SMAD4 KMT2D SF1
FGFR3 SMAD5 MEF2C SF3A1
FLT3 SMAD9 PBRM1 SF3B1
GNAS SETD2 SLIT2
KDR/VEGFR2 SMARCA1 SRGAP1
FBXW7 SMARCA2 SRGAP2
CDH1 SMARCA4 SRGAP3
U2AF1 U2AF2
PDAC Periampullary
TGFß Pathway
SWI/SNF Chromatin
WNT
Spliceosome
DNA HR Repair
ATM BRCA1 BRCA2 PALB2 REV3L STK11 RPA1 BARD1 BRIP1 PTEN RAD51B RAD51C RAD51D MRE11A NBN CHEK1 CHEK2 FAM175A
Molecular Diagnosis
1
DNA RNA
Variable No %
Sex Male 104 52
Female 96 48
Age Mean 65
Median 67
Range 30 - 88
Overall Stage
IA 1 0.5
IB 2 1
IIA 26 13
IIB 159 80
III 2 1
IV 10 5
T stage
T1 1 0.5
T2 4 2
T3 193 97
T4 2 1
N stage
N0 31 16
N1 169 84
M stage
M0 189 95
M1 11 5
GRADE
1 12 6
2 117 59
3 68 34
X 3 1
Resection Margins
R0 121 60
R1 79 40
Tumour Site
Head 158 79
Body 18 9
Body-Tail 7 3
Tail 13 7
Istmus 2 1
Peri-ampullary 2 1
Cohort of 200 well annotated PDAC
WP3- Progress and results
Morphological revision of 200 resected PDAC
CANCER TYPE SUBTYPE
Ductal adenocaricnoma (PDAC)
Common type 173
Clear cell 3
Adenosquamous 3
Focal squamous 8
IPMN associated 5
Colloid 1
Periampullary 1
Acinar 2
Ampullary 1
Duodenal 2
Neuroendocrine (poor diff.) 1
TOTAL 200
Patient Cohort of 200 patients
III II
IV III
II
IV
A
Identification of Cancer Subtypes
B C
Genetic profile Patient
Xenografts Patient
cancer
Genetic profile
BIOBANK OF 175 PATIENT XENOGRAFTS (PDX)
to associate Morphology and Genetics
Cancer diagnostics tasks
4 Follow up Diagnosis 1
Prognosis 2
3 Predict drug efficacy
Multigene panels for pathway analysis
Panel Name
PDAC periampullary
basic TGFB Pathway SWI/SNF Chromatin
Remodelling WNT non canonical -
Spliceosome DNA DAMAGE REPAIR
GENES
KRAS ACVR1A ARID2 ARHGAP4 BRCA1
BRAF ACVR1B ARID1B PRPF40A BRCA2
NRAS ACVR1C BAP1 PRPF40B PALB2
TP53 ACVR2A DPF1 RBM6 STK11
CDKN2A ACVR2B DPF2 RBM10 RPA1
PIK3CA TGFBR1 DPF3 RNF43 REV3L
APC TGFBR2 HLTF ROBO1 ATM
CTNNB1 SMAD1 KDM5C ROBO2
EGFR SMAD2 KDM6A ROBO3
ERBB2 SMAD3 KMT2C ROBO4
ERBB4 SMAD4 KMT2D SF1
FGFR3 SMAD5 MEF2C SF3A1
FLT3 SMAD9 PBRM1 SF3B1
GNAS SETD2 SLIT2
KDR/VEGFR2 SMARCA1 SRGAP1
FBXW7 SMARCA2 SRGAP2
CDH1 SMARCA4 SRGAP3
U2AF1 U2AF2
PDAC Periampullary
TGFß Pathway
SWI/SNF Chromatin
WNT
Spliceosome
DNA HR Repair
ATM BRCA1 BRCA2 PALB2 REV3L STK11 RPA1 BARD1 BRIP1 PTEN RAD51B RAD51C RAD51D MRE11A NBN CHEK1 CHEK2 FAM175A
Molecular Diagnosis
1
BRCA – Homologous Recombination Panel
Gene Mutations in 200 cases
Gene Variants Pathogenic Unknown SNP
ATM 40 3 7 12
BRCA1 24 2 2 11
BRCA2 25 15 3 8
PALB2 8 2 1 5
REV3L 15 3 9 5
STK11 4 2 3 -
RPA1 2 - - 2
BARD1 8 2 1 5
BRIP1 8 - 4 4
PTEN 2 - - 2
RAD51B 4 - - 4
RAD51C 3 - - 3
RAD51D 4 1 - 3
MRE11A 2 1 - 2
NBN 2 1 - 1
CHEK1 2 - 2
CHEK2 7 2 1 4
FAM175
A 1 -
1
163 34 34 95
3 Predict drug efficacy
34/200 (17%)
HR gene mutations are associated with BRCA signature and response to platinum
Waddell N, et al – Nature 2015
Multigene panels
for pathway based molecular diagnostics
Panel Name
PDAC periampullary
basic TGFB Pathway SWI/SNF Chromatin
Remodelling WNT non canonical -
Spliceosome DNA DAMAGE REPAIR
GENES
KRAS ACVR1A ARID2 ARHGAP4 BRCA1
BRAF ACVR1B ARID1B PRPF40A BRCA2
NRAS ACVR1C BAP1 PRPF40B PALB2
TP53 ACVR2A DPF1 RBM6 STK11
CDKN2A ACVR2B DPF2 RBM10 RPA1
PIK3CA TGFBR1 DPF3 RNF43 REV3L
APC TGFBR2 HLTF ROBO1 ATM
CTNNB1 SMAD1 KDM5C ROBO2
EGFR SMAD2 KDM6A ROBO3
ERBB2 SMAD3 KMT2C ROBO4
ERBB4 SMAD4 KMT2D SF1
FGFR3 SMAD5 MEF2C SF3A1
FLT3 SMAD9 PBRM1 SF3B1
GNAS SETD2 SLIT2
KDR/VEGFR2 SMARCA1 SRGAP1
FBXW7 SMARCA2 SRGAP2
CDH1 SMARCA4 SRGAP3
U2AF1 U2AF2
PDAC Periampullary
TGFß Pathway
SWI/SNF Chromatin
WNT
Spliceosome
DNA Damage Repair
ATM BRCA1 BRCA2 PALB2 REV3L STK11 RPA1 BARD1 BRIP1 PTEN RAD51B RAD51C RAD51D MRE11A NBN CHEK1 CHEK2 FAM175A
Molecular Diagnosis
1
PDAC – Periampullary Basic panel
Gene Mutations Proportion
KRAS 188 94%
TP53 123 61%
SMAD4 30 15%
CDKN2A/p16 24 12%
GNAS 4 2%
APC 3 1%
PIK3CA 4 2%
Gene Mutations in 200 Cases
4 Follow up
Personal markers
Multigene panels
for pathway based molecular diagnostics
Panel Name
PDAC periampullary
basic TGFB Pathway SWI/SNF Chromatin Remodelling
WNT non canonical - Spliceosome
DNA DAMAGE REPAIR
GENES
KRAS ACVR1A ARID2 ARHGAP4 BRCA1
BRAF ACVR1B ARID1B PRPF40A BRCA2
NRAS ACVR1C BAP1 PRPF40B PALB2
TP53 ACVR2A DPF1 RBM6 STK11
CDKN2A ACVR2B DPF2 RBM10 RPA1
PIK3CA TGFBR1 DPF3 RNF43 REV3L
APC TGFBR2 HLTF ROBO1 ATM
CTNNB1 SMAD1 KDM5C ROBO2
EGFR SMAD2 KDM6A ROBO3
ERBB2 SMAD3 KMT2C ROBO4
ERBB4 SMAD4 KMT2D SF1
FGFR3 SMAD5 MEF2C SF3A1
FLT3 SMAD9 PBRM1 SF3B1
GNAS SETD2 SLIT2
KDR/VEGFR2 SMARCA1 SRGAP1
FBXW7 SMARCA2 SRGAP2
CDH1 SMARCA4 SRGAP3
U2AF1 U2AF2
PDAC Periampullary
TGFß Pathway
SWI/SNF Chromatin
WNT
Spliceosome
DNA Damage Repair
ATM BRCA1 BRCA2 PALB2 REV3L STK11 RPA1 BARD1 BRIP1 PTEN RAD51B RAD51C RAD51D MRE11A NBN CHEK1 CHEK2 FAM175A
Molecular Diagnosis
1
Gene Mutations Pathogenic VUS SN P
ARID1A 12 7 5 -
ARID1B 9 3 3 3
ARID2 11 1 4 6
DPF1 1 - 1 -
DPF3 - - - -
HLTF 4 - 1 3
KDM5C 4 2 1 1
KDM6A 6 5 1 -
KMT2C (MLL3) 36 9 9 18
KMT2D (MLL2) 39 5 18 6
SETD2 9 1 5 3
SMARCA2 2 - 2 -
SMARCA4 12 2 7 3
PBRM1 7 3 4 -
BAP1 3
1 2155 39 63 53
Gene Mutations in 200 Cases
Histone Modifiers and Chromatin Remodelling
2 Prognosis
Sausen M et al. Nature Communications. 2015
39/200 (20%)
DNA RNA
Oncotarget. 2016 Jan 12;7:1076-83.
CE-IVD kit - CH
HR1 BRCA NGS kit
Amplifications
Single nucleotide variations
Translocations Deletions
Technology advancement
2GL
4GL
6GL
7GL
8GL
9GL
10GL
11GL
13GL
14GL
15GL
16GL 12G
L
TML: 216.61; MSH6: Glu1322Ter;
POLE: Arg742Cys
5G L
TML: 336.36; MSH2:
Val684Ter
3G L
TML: 888.35 1GL
TML: 616.59; MLH1: Ser193Leu
Next generation histopathological diagnosis
Next generation histopathological diagnosis
Next generation histopathological diagnosis glioblastomas
MSI-
N T
MSI+
N
T
MSI-
N T
MSI+
N
T
Next generation histopathological diagnosis glioblastomas
2 G L
4 G L 6 G L 7 G L 8 G L 9 G L
1 0 G L 1 1 G L 1 3 G L 1 4 G L1 5 G L1 6 G L 1
2 G L
TML: 216.61;
MSH6: Glu1322Ter;
POLE: Arg742Cys
5 G L
TML: 336.36;
MSH2:
Val684Ter 3 G L
TML: 888.35 1
G L
TML: 616.59;
MLH1: Ser193Leu
Next generation histopathological diagnosis
Campbell et al. Cell 2017
200 µm
A
B
C
POLE inactivation
ultramutator phenotype
Assay design: defining content
Commercial and LDT cancer panels show poor concordance in gene selection, likely due to lack of objective methodologies
Panel No. of genes
Ion AmpliSeq comprehensive 409
FoundationOne CDx 309
Caris Molecular Intellegence 593
Illumina TSO500 523
Tempus xT 594
Dana Farber OncoPanel V3 447
MSK-IMPACT 468 468
MD Anderson v1 409
n=1,084 genes
159
45 57
60
74
223 122 344
Panel genes overlap
All 8 panels 7 of 8
6 of 8 5 of 8 4 of 8 3 of 8 2 of 8 1 of 8
UNPUBLISHED DATA PLEASE DO NOT
DISTRIBUTE
The majority of clinically-informative data resides in structural variants (including CNAs)
The interpretable genomic space: variant type
Unpublished analysis of whole genome sequencing data with fusion gene prevalence form published literature 0%
20%
40%
60%
80%
100%
V aria n t class %
Mutation Structural variant Signature Fusion
UNPUBLISHED DATA PLEASE DO NOT
DISTRIBUTE
UNPUBLISHED DATA PLEASE DO NOT
DISTRIBUTE
The Clinical Cancer Genome assay reports on the vast majority of clinically-relevant genomic events
The Clinical Cancer Genome: reportable range
0%
20%
40%
60%
80%
100%
Variant %
Covered by the clinical cancer genome assay Under development (HRD signature)
Not amenable to DNA capture
UNPUBLISHED DATA
PLEASE DO NOT DISTRIBUTE
Unpublished analysis of whole genome sequencing data with fusion gene prevalence form published literature
UNPUBLISHED DATA PLEASE DO NOT
DISTRIBUTE
Anatomy
Physiology
Social Behavior
Cancer is a tissue
Pancreas Cancer
Stroma is composite and variable
Pancreas Cancer and its environment
Cancer cells
PDAC Subtypes – Microenvironment
RNAseq of 96 cases
• 4 classes based on transcription factors and downstream targets
• Enriched with specific histological features
Bailey et al, Nature 2016
Physiology : Identification of PDAC Subtypes
PDAC Subtypes – Expression Profiles
Quasi Mesenchimal Classical Exocrine-like
Collisson et. al., Nat Med 2011 Daemen, et al., PNAS 2015 Mofitt, et. al., Nat. Gen. 2015 Noll, et al., Nat. Med. 2016 Bailey et. al., Nature, 2016
Worst Bad
Mesenchymal/stem cell/stromal
Epithelial and ribosomal
Overall survival
Gene signatures
CharacteristicsBad
Acinar-specific genes
Response No response
Gemcitabine
Not known TherapyPrognosis
Squamous PP Immuno ADEX
Bailey Collison
Immunogenic Subtype
c a b
CD4+ve regulatory T cells
1 0 -1
GP6 GP7 GP8
1 0 -1
ADEX Immunogenic
Squamous Pancreatic Progenitor
APC co-stimulation APC co-inhibition Macrophages
T cell co-stim ulation
T cell co-inhibition B cells
CD8+ve T cells
Cytolytic activity
6.7 15.5 2.8 4.8 2.8 3.4 2.9 2.8 9.7 7.6 10.4 15.3 7.7 17.8 20.8 12 6.1 25.7 15.2 15.4 20.8 10 3 19.5 8.4 4.7
d
MACROPHAGE SIGNATUREe
T CELL CO-INHIBITION SIGNATURE SignatureScore
Correlation
●●●
● ●
●
●
●
●
GP6 GP7 GP8
Pval = 6.75E-11 Pval = 0.00625 Pval = 0.00945
-0.2 0 0.2 0.4
GP association (ME)
A I S P A I S P A I S P
REACTOME_PD1_SIGNALING BIOCARTA_CTLA4_PATHWAY P.value = 0.01
0 0.5
Signature Score -0.5
P.value = 0.00843
A I S P A I S P
Bailey et al, Nature 2016
Only 15% of patients is a surgery candidate
Pancreas Cancer
Diagnosis
1
Prognosis
2
Therapy
3
Surgical specimen
Cytology or Biopsy
matched
PDX Patient
Macrophage.Enrich Immune.Hot2.TAL1 Immune.Hot1.PDCD1 Immune.Dormant First Subtypes
global
- 3 0 3
Sample_C44_0003Sample_C44_0004Sample_C44_0011Sample_C44_0012Sample_C44_0014Sample_C44_0017Sample_B55_0011Sample_B55_0012X1102T_ATTACTCG.TATAGCCT_L001X1152T_ATTACTCG.CCTATCCT_L001X1335T_TCCGGAGA.TATAGCCT_L001X1771T_ATTACTCG.TAATCTTA_L002X1957T_GAGATTCC.TATAGCCT_L001X2069T_GAGATTCC.ATAGAGGC_L001X2145T_GAGATTCC.CCTATCCT_L001X2192T_ATTCAGAA.CCTATCCT_L001X2230T_GAATTCGT.TATAGCCT_L001X2342T_GAGATTCC.CAGGACGT_L002X2491T_ATTCAGAA.AGGCGAAG_L002X2632T_GAATTCGT.AGGCGAAG_L002X2651T_CTGAAGCT.ATAGAGGC_L003X2666T_CTGAAGCT.GGCTCTGA_L003X2967T_TAATGCGC.ATAGAGGC_L003X3188T_TAATGCGC.GGCTCTGA_L003Sample_C44_0001Sample_C44_0023Sample_C44_0024Sample_C44_0026Sample_C44_0028Sample_B55_0013X1349T_ATTACTCG.GGCTCTGA_L001X1392T_TCCGGAGA.CCTATCCT_L001X1464T_CGCTCATT.TATAGCCT_L001X1786T_TCCGGAGA.AGGCGAAG_L002X1846T_CGCTCATT.AGGCGAAG_L002X1060T_TAATGCGC.TAATCTTA_L004X2191T_ATTCAGAA.ATAGAGGC_L001X2322T_GAGATTCC.AGGCGAAG_L002X2496T_ATTCAGAA.TAATCTTA_L002X2515T_ATTCAGAA.CAGGACGT_L002X3283T_CTGAAGCT.AGGCGAAG_L004X3332T_CTGAAGCT.CAGGACGT_L004Sample_C44_0002Sample_C44_0006Sample_C44_0007Sample_C44_0008Sample_C44_0015Sample_C44_0018Sample_C44_0019Sample_C44_0021Sample_C44_0027Sample_B55_0014X1116T_ATTACTCG.ATAGAGGC_L001X1777T_ATTACTCG.CAGGACGT_L002X1778T_ATTACTCG.GTACTGAC_L002X1790T_TCCGGAGA.CAGGACGT_L002X1841T_TCCGGAGA.GTACTGAC_L002X2187T_ATTCAGAA.TATAGCCT_L001X2200T_ATTCAGAA.GGCTCTGA_L001X2323T_GAGATTCC.TAATCTTA_L002X2636T_GAATTCGT.CAGGACGT_L002X2661T_CTGAAGCT.CCTATCCT_L003X2816T_TAATGCGC.TATAGCCT_L003X3170T_TAATGCGC.CCTATCCT_L003X963T_CTGAAGCT.GTACTGAC_L004X980T_TAATGCGC.AGGCGAAG_L004Sample_C44_0005Sample_C44_0009Sample_C44_0010Sample_C44_0013Sample_C44_0016Sample_C44_0020Sample_C44_0022Sample_C44_0025Sample_C44_0029X1378T_TCCGGAGA.ATAGAGGC_L001X1462T_TCCGGAGA.GGCTCTGA_L001X1628T_CGCTCATT.CCTATCCT_L001X1762T_ATTACTCG.AGGCGAAG_L002X1855T_CGCTCATT.CAGGACGT_L002X2150T_GAGATTCC.GGCTCTGA_L001X2243T_GAATTCGT.CCTATCCT_L001X2453T_GAGATTCC.GTACTGAC_L002X2648T_CTGAAGCT.TATAGCCT_L003X3189T_CGGCTATG.TATAGCCT_L003
First Subtypes id
CCL13 COLEC12 CLEC5A CASP10 CXCL13 CSF3R SELE CCL19 CD1E FCER1A CCR5 CD2 CD3G ITK ICOS LY9 SLAMF1 GZMK KLRG1 HLA-DQA1 CD37 SPN TNFSF18 TAL1 LRRN3
Immune Microenviroment Specific Subtypes in 85 Patients
M a c r o p h a g e - E n r i c h I m m u n e - H o t 2 - T A L 1 I m m u n e - H o t 1 - P D C D 1 I m m u n e - D o r m a n t
Names
g l o b a l
- 1 0 1
Im mu ne -D orm an t Ma cro ph ag e-E nri ch Im mu ne -H ot1 -P DC D1 Im mu ne -H ot2 -T AL 1
Names i d
CLEC5A SELE
CXCL13 ICOS
C D 3 7
H L A - D Q A 1 FCER1A
SPN
CASP10 TAL1 CD1E CMA1 TNFSF18
RNAseq NanoString
A B C D
Immunassigner subtypes
Subtype genes 228 62
TUMOR
MICRODISSECTION DNA NNANOSTRING
QUALIFICATION
Transcriptome subtypes
FNAB and nanostring assay
1 marker 3 markers
Unpublished data
Pancreas cancer associated fibroblasts (CAF)
Gene expression profiling of lung atypical carcinoids and large cell neuroendocrine
carcinomas identifies three transcriptomic subtypes with specific genomic alterations
Gene expression profiling of lung atypical carcinoids and large cell neuroendocrine
carcinomas identifies three transcriptomic subtypes with specific genomic alterations
E.U. FP7 grant no 602783
5X1000 grant n. 12182
Ministry of Health FIMP, J33G13000210001
Ministry of University and Research (FIRB RBAP10AHJB);