Supplementary Online Content

Similar documents
Corporate Medical Policy

Joachim Aerts Erasmus MC Rotterdam, Netherlands. Drawing the map: molecular characterization of NSCLC

K-Ras signalling in NSCLC

Changing demographics of smoking and its effects during therapy

Lung Cancer Genetics: Common Mutations and How to Treat Them David J. Kwiatkowski, MD, PhD. Mount Carrigain 2/4/17

7/6/2015. Cancer Related Deaths: United States. Management of NSCLC TODAY. Emerging mutations as predictive biomarkers in lung cancer: Overview

KEY FINDINGS 1. Potential Clinical Benefit in Non-Small Cell Lung Cancer with Gefitinib, Erlotinib, Afatinib due to EGFR E746_A750del. 2. Potential Cl

Molecular Targets in Lung Cancer

Molecular Analysis for Targeted Therapy for Non- Small-Cell Lung Cancer Section 2.0 Medicine Subsection 2.04 Pathology/Laboratory

Management Guidelines and Targeted Therapies in Metastatic Non-Small Cell Lung Cancer: An Oncologist s Perspective

Page: 1 of 27. Molecular Analysis for Targeted Therapy of Non-Small-Cell Lung Cancer

Role of race in oncogenic driver prevalence and outcomes in lung adenocarcinoma: Results from the Lung Cancer Mutation Consortium

PIK3CA mutations are found in approximately 7% of

Personalized Healthcare Update

OTRAS TERAPIAS BIOLÓGICAS EN CPNM: Selección y Secuencia Óptima del Tratamiento

Role of Race in Oncogenic Driver Prevalence and Outcomes in Lung Adenocarcinoma: Results From the Lung Cancer Mutation Consortium

Targeted Therapies for Advanced NSCLC

GENETIC TESTING FOR TARGETED THERAPY FOR NON-SMALL CELL LUNG CANCER (NSCLC)

D Ross Camidge, MD, PhD

Medical Policy An independent licensee of the Blue Cross Blue Shield Association

NCCN Non-Small Cell Lung Cancer V Meeting June 15, 2018

Inhibidores de EGFR Noemi Reguart, MD, PhD Hospital Clínic Barcelona IDIPAPS

continuing education Non-small cell lung cancer: Molecular targets and emerging options for care Daniel Morgensztern, MD

Case Presentation. Case, continued. Case, continued. Case, continued. Lung Cancer in 2014: The New Paradigm

Molecular Analysis for Targeted Therapy of Non-Small-Cell Lung Cancer

MET skipping mutation, EGFR

Biomarkers of Response to EGFR-TKIs EORTC-NCI-ASCO Meeting on Molecular Markers in Cancer November 17, 2007

Next Generation Sequencing in Clinical Practice: Impact on Therapeutic Decision Making

The oncologist s point of view: the promise and challenges of increasing options for targeted therapies in NSCLC

Molecular Testing in Lung Cancer

The discovery of targetable driver mutations in a subset of

National Medical Policy

Targeted therapy in NSCLC: do we progress? Prof. Dr. V. Surmont. Masterclass 27 september 2018

PROGNOSTIC AND PREDICTIVE BIOMARKERS IN NSCLC. Federico Cappuzzo Istituto Toscano Tumori Ospedale Civile-Livorno Italy

Management Strategies for Lung Cancer Sensitive or Resistant to EGRF Inhibitors

Medical Policy. MP Molecular Analysis for Targeted Therapy of Non-Small-Cell Lung Cancer

Lihong Ma 1 *, Zhengbo Song 2 *, Yong Song 1, Yiping Zhang 2. Original Article

Improving outcomes for NSCLC patients with brain metastases

Personalized Medicine: Lung Biopsy and Tumor

Corporate Medical Policy

Disclosures Genomic testing in lung cancer

Supplementary Online Content

2 nd line Therapy and Beyond NSCLC. Alan Sandler, M.D. Oregon Health & Science University

Targeted therapies for advanced non-small cell lung cancer. Tom Stinchcombe Duke Cancer Insitute

LUNG CANCER TREATMENTS UPDATED MAY What you need to know about... targeted therapy

Plotting the course: optimizing treatment strategies in patients with advanced adenocarcinoma

TARGETED THERAPY FOR LUNG CANCER. Patient and Caregiver Guide

Targeting Acquired Resistance to EGFR Kinase Inhibitors: Beyond T790M Mutation

Molecular Diagnostics in Lung Cancer

Proteomic Testing for Targeted Therapy in Non-Small-Cell Lung Cancer

EGFR inhibitors in NSCLC

Circulating Tumor DNA for Management of Non-Small-Cell Lung Cancer (Liquid Biopsy)

Slide 1. Slide 2. Slide 3. Individualized Therapy in Lung Cancer : Where are we in 2011? Notable Advances in Cancer Research in the last 2 years

MP Circulating Tumor DNA Management of Non-Small-Cell Lung Cancer (Liquid Biopsy)

Optimum Sequencing of EGFR targeted therapy in NSCLC. Dr. Sema SEZGİN GÖKSU Akdeniz Univercity, Antalya, Turkey

HOW TO GET THE MOST INFORMATION FROM A TUMOR BIOPSY

Medical Policy An independent licensee of the Blue Cross Blue Shield Association

Osamu Tetsu, MD, PhD Associate Professor Department of Otolaryngology-Head and Neck Surgery School of Medicine, University of California, San

Targeted therapy in non-small cell lung cancer: a focus on epidermal growth factor receptor mutations

Personalized Genetics

NSCLC: Terapia medica nella fase avanzata. Paolo Bidoli S.C. Oncologia Medica H S. Gerardo Monza

Systemic therapy for Non-Small Cell Lung Cancer in 2013 (What you should know)

MICROSCOPY PREDICTIVE PROFILING

Adjuvant Therapies for Lung Cancers: New Directions

Medical Policy. MP Proteomic Testing for Targeted Systemic in Non-Small-Cell Lung Cancer

Frequency of EGFR Mutation and EML4-ALK fusion gene in Arab Patients with Adenocarcinoma of the Lung

Medical Policy An independent licensee of the Blue Cross Blue Shield Association

Medical Policy An independent licensee of the Blue Cross Blue Shield Association

Disclosure of Relevant Financial Relationships NON-SMALL CELL LUNG CANCER: 70% PRESENT IN ADVANCED STAGE

Leading the Way to Precision Care: Molecular Diagnostics and Therapeutics in Lung Cancers. Mark G Kris, MD Memorial Sloan Kettering New Amsterdam USA

EGFR TKI sequencing: does order matter?

LONDON CANCER NEW DRUGS GROUP RAPID REVIEW. Erlotinib for the third or fourth-line treatment of NSCLC January 2012

T he utility of epidermal growth factor receptor tyrosine kinase inhibitors (EGFR-TKIs) in metastatic nonsmall

Afatinib in patients with EGFR mutation-positive NSCLC harboring uncommon mutations: overview of clinical data

Beyond ALK and EGFR: Novel molecularly driven targeted therapies in NSCLC Federico Cappuzzo AUSL della Romagna, Ravenna, Italy

NGS in Cancer Pathology After the Microscope: From Nucleic Acid to Interpretation

Supplementary Online Content

Frequency(%) KRAS G12 KRAS G13 KRAS A146 KRAS Q61 KRAS K117N PIK3CA H1047 PIK3CA E545 PIK3CA E542K PIK3CA Q546. EGFR exon19 NFS-indel EGFR L858R

Molecular Analysis for Targeted Therapy of Non-Small Cell Lung Cancer (NSCLC)

Osimertinib as first-line treatment of EGFR mutant advanced nonsmall-cell

Other Driver Mutations: cmet, B-RAF, RET, NTRK

RESEARCH ARTICLE. Ryosuke Hirano 1, Junji Uchino 1 *, Miho Ueno 2, Masaki Fujita 1, Kentaro Watanabe 1. Abstract. Introduction

Next-generation sequencing based clinical testing for lung cancer in Japan

Individualized Cancer Therapy: Chemotherapy Resistance Testing before Therapy

Personalized Therapies for Lung Cancer. Questions & Answers

Supplementary Online Content

Nature Medicine: doi: /nm.3559

Role of the pathologist in the diagnosis and mutational analysis of lung cancer Professor J R Gosney

Rationale for co-targeting IGF-1R and ALK in ALK fusion positive lung cancer

Treatment of EGFR mutant advanced NSCLC

J. C.-H. Yang 1, L.V. Sequist 2, S. L. Geater 3, C.-M. Tsai 4, T. Mok 5, M. H. Schuler 6, N. Yamamoto 7, D. Massey 8, V. Zazulina 8, Yi-Long Wu 9

biomarker testing What you need to know about... LUNG CANCER TREATMENTS

Tissue or Liquid Biopsy? ~For Diagnosis, Monitoring and Early detection of Resistance~

Frequency of Epidermal Growth Factor Mutation Status and Its Effect on Outcome of Patients with Adenocarcinoma of the Lung

EGFR ctdna Testing. Andrew Wallace 21/09/2015 Genomic Diagnostics Laboratory St. Mary s Hospital, Manchester

Original Article. Abstract

Do You Think Like the Experts? Refining the Management of Advanced NSCLC With ALK Rearrangement. Reference Slides Introduction

ALK Inhibition: From Biology to Approved Therapy for Advanced Non-Small Cell Lung Cancer

PROGRESSION AFTER THIRD GENERATION TKI

Personalized Medicine in Oncology and the Implication for Clinical Development

Transcription:

Supplementary Online Content Kris MG, Johnson BE, Berry LD, et al. Using Multiplexed Assays of Oncogenic Drivers in Lung Cancers to Select Targeted Drugs. JAMA. doi:10.1001/jama.2014.3741 etable 1. Trials of targeted therapies available within the Lung Cancer Mutation Consortium etable 2. Numbers of patients enrolled for each oncogenic driver and specific agents used etable 3. Enrollment and genotyping frequencies by study site etable 4. Frequency of oncogenic drivers in all specimens in which a driver in a single gene was identified etable 5. Specific genetic aberrations in tumors with drivers in more than one gene Any Genotyping group etable 6. Oncogenic drivers identified by cigarette smoking status: Never, Current, Former efigure 1. Status of All 1537 Patients Enrolled efigure 2. Frequency of Oncogenic Drivers Detected in the 733 Patients Tested for All 10 Drivers efigure 3. Survival by Oncogenic Driver for the 7 Drivers Identified in at Least 10 Patients efigure 4. Survival by Driver-Treatment Status in Patients With Full Genotyping (10 genes) efigure 5. Survival in Patients With Metastatic Cancer Diagnosed Within 6 Months Prior to Study Initiation efigure 6. Survival in Patients With Oncogenic Drivers Other Than EGFR or ALK

This supplementary material has been provided by the authors to give readers additional information about their work

etable 1. Trials of targeted therapies available within the Lung Cancer Mutation Consortium Gene target Trial title (identifier) Patient eligibility Crizotinib (Xalkori ) Versus Standard Of Care In Patients With Advanced Non-Small Cell Lung Cancer (NSCLC) With A Specific Gene Profile Involving The Anaplastic Lymphoma Kinase (ALK) (NCT00932893) ALK PIK3CA BRAF V600E BRAF (non V600E) KRAS NRAS MEK KRAS EGFR HER2 MET Crizotinib (Xalkori ) In Patients With Advanced Non- Small Cell Lung Cancer With A Specific Gene Profile Involving The Anaplastic Lymphoma Kinase (ALK) Gene (NCT00932451) Safety and Efficacy of BKM120 in Patients With Metastatic Non-small Cell Lung Cancer (NCT01297491) A Phase II Study of the Selective BRAF Kinase Inhibitor GSK2118436 in Subjects With Advanced Non-small Cell Lung Cancer and BRAF Mutations (NCT01336634) An Open-label Study of GSK1120212 Compared With Docetaxel in Stage IV KRAS-mutant Non-small Cell Lung Cancer (NCT01362296) Erlotinib Plus ARQ 197 Versus Single Agent Chemotherapy in Locally Advanced or Metastatic Non- Small Cell Lung Cancer (NCT01395758) A Study of MM-121 Combination Therapy in Patients With Advanced Non-Small Cell Lung Cancer (NCT00994123) Study of Erlotinib (Tarceva ) in Combination With OSI- 906 in Patients With Advanced Non-small Cell Lung Cancer (NSCLC) With Activating Mutations of the Epidermal Growth Factor Receptor (EGFR) Gene (NCT01221077) PF-00299804 As A Single Oral Agent In Selected Patients With Adenocarcinoma Of The Lung (NCT00818441) A Study Of Oral PF-02341066 (crizotinib), A c- Met/Hepatocyte Growth Factor Tyrosine Kinase Inhibitor, In Patients With Advanced Cancer (NCT00585195) Patients with NSCLC who have previously been treated with chemotherapy, including at least one platinum agent (for example, carboplatin, cisplatin), and have the EML4- ALK gene rearrangement Patients from study NCT00932893 whose disease progressed while receiving standard of care chemotherapy Patients with non-small cell lung cancer who have been previously treated with one or more therapies, and have a PIK3CA mutation Patients with non-small cell lung cancer who have been previously treated with one or more therapies, and have the V600E BRAF mutation Patients with NSCLC who have previously been treated with chemotherapy, including at least one platinum agent (for example, carboplatin, cisplatin), and have a mutation in the KRAS, NRAS, MEK, or BRAF (non-v600e) gene Patients with non-small cell lung cancer who have been previously treated with one or more therapies, and have a mutation in the KRAS gene Patients with metastatic NSCLC and (1) EGFR mutationpositive NSCLC, with no prior EGFR-directed treatment; (2) EGFR mutation-negative NSCLC, with no prior EGFRdirected treatment; or (3) EGFR mutation-positive NSCLC with acquired resistance to prior EGFR-directed treatment Patients with stage IIIB or IV NSCLC who have a mutation in the EGFR gene and have not received chemotherapy for advanced cancer; Patients who received chemotherapy before or after surgery, but had their disease progress anyway Patients with locally advanced or metastatic adenocarcinoma with or without prior treatment who have a tumor with a mutation in or amplification of the HER2 gene Patients with locally advanced or metastatic lung cancer and a verified amplification of or mutation in the MET gene

etable 2. Numbers of patients enrolled for each oncogenic driver and specific agents used Gene target (n=patients with testing) Patients with mutation identified Patients on targeted therapy Distribution of targeted therapy AKT1 (n=941) 0 0 N/A BRAF V600E (n=949) BRAF non- V600E (n=950) EGFR (sensitizing) (n=987) EGFR (other) (n=984) 14 2 AZD6244 (2) 4 1 AZD6244 (1) 175 146 Afatinib (1) Erlotinib (130) Erlotinib/OSI-906 (2) Dacomitinib (2) Erlotinib/HCQ (2) Gefitinib (1) Afatinib/Cetuximab (1) Erlotinib/MM-121 (1) Multiple lines* (6) 35 23 AUY922 (1) Erlotinib (14) Neratinib/Temsirolimus (2) Dacomitinib (1) Erlotinib/HCQ (1) Multiple lines* (2) Erlotinib/MM-121 (1) Erlotinib/OSI906 (1) HER2 (n=920) 23 11 Dacomitinib (5) Neratinib/Temsirolimus (2) Lapatinib/Trastuzumab/ STA-9090 (1) Bevacizumab (1) Trastuzumab (2) KRAS (n=981) 245 22 AUY922 (1) Erlotinib/Tivantinib (3) LY2835219 (2) AZD6244 (2) Everolimus (2) Ridaforalimus (1) Docetaxel/AZD6244 GDC0941/GDC0973 STA-9090 (3) (1) (3) Erlotinib/AZD6244 (2) Imetelstat (1) MEK inhibitor (1) MEK1 (n=939) 2 0 N/A NRAS (n=940) 5 0 N/A PIK3CA (n=945) 7 0 N/A ALK (n=926) 80 52 Crizotinib (51) Crizotinib/LDK378 (1) MET (n=833) 6 3 Crizotinib (3) Doubletons 27 15 ALK:Crizotinib (PF-02341066) (3) EGFR:Erlotinib (Tarceva) (10) MET/HER2:Crizotinib/Daconitinib (1) PIK3CA:GSK2141795 (1) ***Multiple lines of therapy include erlotinib, dacomitinib, erlotinib/bms-936558.

etable 3. Enrollment and genotyping frequencies by study site Site Enrollment Total number with any or full genotyping Any Genotyping number (%) Full Genotyping number (%) University of California, Los Angeles 104 50 8(16%) 42(84%) University of Colorado, Denver 264 188 48(25%) 140(75%) H. Lee Moffit Cancer Center 77 63 11(17%) 52(83%) Emory University 71 42 4(10%) 38(90%) Massachusetts General Hospital 118 85 25(29%) 60(70%) Dana Farber Cancer Institute 322 184 25(14%) 159(86%) Johns Hopkins Medical Institute 87 49 12(24%) 37(76%) National Cancer Institute 16 13 13(100%) 0(0%) Memorial Sloan Kettering Cancer Center 190 173 48(28%) 125(72%) Pittsburgh Cancer Institute 20 9 1(11%) 8(88%) Medical University of South Carolina 16 3 3(100%) 0(0%) Vanderbilt-Ingram Cancer Center 60 47 41(87%) 6(13%) University of Texas, Southwestern 53 40 11(27%) 29(73%) MD Anderson Cancer Center 139 61 24(39%) 37(27%) Totals 1537 1007 274 733 Median % 25% 73% Range 10%-100% 0%-90%

etable 4. Frequency of oncogenic drivers in all specimens in which a driver in a single gene was identified* *To reconcile counts presented here with Table 2, all occurrences of each mutation, alone and/or in combination with other mutations, Gene (n=cases tested) BRAF (n=951) EGFR (n=987) HER2 (n=920) Amino Acid Mutant Nucleotide Mutant Frequency G469A G469 BRAF_c.1406G.C 2 G469V G466 BRAF_c.1406G.T 1 V600E BRAF_c.1799T.A 14 n/a BRAF other 1 G719S EGFR_c.2155G.A 1 G719C plus S768I EGFR_c.2155G.T, EGFR_c.2303G.T 3 G719A EGFR_c.2156G.C 2 G719A plus L861Q EGFR_c.2156G.C,EGFR_c.2582T.A 1 G719A plus exon 19 del EGFR_c.2156G.C,EGFR_exon.19.del 1 T790M plus L858R p.l858r EGFR_c.2369C.T,EGFR_c.2573T.G 5 T790M plus exon 19 del EGFR_c.2369C.T,EGFR_exon.19.del 3 L858R EGFR_c.2573T.G 64 L861Q EGFR_c.2582T.A 4 exon 19 del EGFR_exon.19.del 102 exon 20 ins EGFR_exon.20.ins 22 n/a EGFR other 1 exon 20 ins ERBB2_ins.A775 23 must be considered. For example, EGFR exon19 deletions appears with a count of 102 alone, plus an additional occurrence in combination with G719A, for a total count of 103, as presented in Table 2; the instances of exon 19 deletion with T790M, as presented in this table, is accounted for among the EGFR other mutations in Table 2, as explained in the footnote to that table that describes the categorization of EGFR mutation types. MEK1 (n=939) PIK3CA (n=945) KRAS (n=981) NRAS (n=940) K57N MEK1_c.171G.T 2 E545K PIK3CA_c.1633G.A 5 H1047R PIK3CA_c.3140A.G 2 Q61R KRAS_c.182A.G 1 Q61L KRAS_c.182A.T 1 Q61H KRAS_c.183A.C 5 Q61H KRAS_c.183A.T 5 Q61H plus G13C KRAS_c.183A.T,KRAS_c.37G.T 1 G12S KRAS_c.34G.A 7 G12R KRAS_c.34G.C 5 G12C KRAS_c.34G.T 98 G12C plus G12V KRAS_c.34G.T,KRAS_c.35G.T 2 G12D KRAS_c.35G.A 54 G12D plus G13C KRAS_c.35G.A,KRAS_c.37G.T 1 G12A KRAS_c.35G.C 12 G12V KRAS_c.35G.T 37 G13C KRAS_c.37G.T 7 G13D KRAS_c.38G.A 7 G13V KRAS_c.38G.T 1 G 13R KRAS_c.37G.C 1 Q61K NRAS_c.181C.A 1 Q61R NRAS_c.182A.G 2 Q61L NRAS_c.182A.T 1 G12R NRAS_c.34G.C 1

etable 5. Specific genetic aberrations in tumors with drivers in more than one gene Any Genotyping group Double oncogenic driver: PIK3CA and another mutation Double oncogenic driver: MET amplification and another mutation Double oncogenic driver: ALK rearrangement and another mutation Double oncogenic driver: ALK rearrangement and MET amplification Double oncogenic driver: Two genes other than PIK3CA Gene 1 Gene 2 Frequency PIK3CA E542K BRAF V600E 1 PIK3CA E545K BRAF V600E 1 PIK3CA E542K EGFR L858R 1 PIK3CA E542K EGFR exon 19 del 1 PIK3CA E542K EGFR other 1 PIK3CA H1047Y EGFR L858R 1 PIK3CA H1047R EGFR exon 19 del 3 PIK3CA H1047R EGFR exon 20 ins 1 PIK3CA H1047L EGFR exon 19 del 1 PIK3CA E545K KRAS G12D 1 PIK3CA H1047R MEK1 K57N 1 MET amplification EGFR L858R 1 MET amplification EGFR exon 19 del 1 MET amplification HER2 exon 20 ins 1 ERBB2_ins.A775 MET amplification KRAS G12C 2 MET amplification KRAS G12A 1 MET amplification KRAS G12V 1 ALK rearrangement BRAF V600E 1 ALK rearrangement EGFR L858R 1 ALK rearrangement EGFR L861Q 1 ALK rearrangement EGFR exon 19 del 1 MET amplification ALK rearrangement 2 AKT E17K EGFR exon 19 del 1

etable 6. Oncogenic drivers identified by cigarette smoking status*: Never, Current, Former Gene with mutational or structural change S I N G L E T O N S ** Current Smokers Driver in indicated gene (n=73) Count (%) Former Smokers Driver in indicated gene (n=589) Count (%) Never Smokers Driver in indicated gene (n=341) Count (%) Any gene(s) 45 (62%) 340 (58%) 238 (70%) KRAS 33 (45%) 198 (34%) 14 (4%) EGFR 4 (5%) 59 (10%) 114 (33%) (sensitizing)*** exon19 del 4 (5%) 29 (5%) 70 (21%) L858R 0 (0%) 24 (4% 40 (12%) G719X 0 (0%) 3 (1%) 2 (1%) L861Q 0 (0%) 3 (1%) 2 (1%) ALK (rearrangement) EGFR (other)**** 0 (0%) 14 (2%) 21(6%) HER2 1 (1%) 6 (1%) 16 (5%) BRAF 2 (3%) 13 (2%) 3 (1%) V600E 1 (1%) 10 (2%) 3 (1%) Non-V600E 1 (1%) 3 (1%) 0 (0%) PIK3CA 0 (0%) 4 (1%) 3 (1%) MET (amplification) 1 (1%) 4 (1%) 1 (0%) NRAS 0 (0%) 5 (1%) 0 (0%) MEK1 0 (0%) 2 (0%) 0 (0%) AKT1 0 (0%) 0 (0%) 0 (0%) 3 (4%) 26 (4%) 51 (15%) >1 gene 1 (1%) 11 (2%) 15 (4%) (doubletons) *Patient smoking status from Any Genotyping group; as not all cases in this group were tested for all genes, percentages therefore reflect rate of detection of mutation where non-detection is a combination of negative findings and no findings. **Per-gene count (percent) of patients with mutations occurring in a single gene (Singletons). Patients with oncogenic drivers in more than one gene (Doubletons) are included as their own category. For detailed information on mutations occurring within Doubletons, see etable 5. ***The sum of counts for the four categories of EGFR-sensitizing mutations differs from the patient-level count of total number of patients with EGFR-sensitizing mutations due to two patients with the co-occurrence of two different sensitizing mutations in the same specimen. ****Patients are counted in the EGFR (other) group based on a finding of any one or more mutations in EGFR other than exon 19 deletions, L858R, G719X, or L861Q, with or without co-occurrence in the same case of one of these sensitizing mutations. See etable 5 for detailed count of co-occurring EGFR mutations.

efigure 1. Status of All 1537 Patients Enrolled Enrolled n=1,537 Eligible n=1,102 Adenocarcinoma Confirmed n=1,017 Any Genotyping n=1,007 Genotyping 8 genes n=905 Genotyping 8 genes + ALK n=834 Full Genotyping 8 genes + ALK + MET n=733 Patient flow from enrollment through screening, pathology review, and genotyping.

efigure 2. Frequency of Oncogenic Drivers Detected in the 733 Patients Tested for All 10 Drivers Frequency of oncogenic drivers detected in the 733 patients tested for all 10 drivers (Full Genotyping group)

efigure 3. Survival by Oncogenic Driver for the 7 Drivers Identified in at Least 10 Patients Comparison of survival among patients with an oncogenic driver detected, including all oncogenic driver genes with lesions detected in at least 10 patients. Median survival (95% CI): EGFR (sensitizing), 3.97 (3.21-4.64); EGFR (other), 2.70 (1.42-NA); ALK, 4.25 (2.92-NA); KRAS, 2.41 (1.87-3.21); doubletons, 2.03 (1.39-2.84); HER2, 1.63 (1.03-NA); BRAF, 4.59 (1.25-NA); p=0.001 (log-rank test). Vertical tick-marks indicate censoring events.

efigure 4. Survival by Driver-Treatment Status in Patients With Full Genotyping (10 genes) Among patients with Full Genotyping, comparison of those with a driver detected and treated with a targeted therapy, against those with a driver detected and not treated with a targeted therapy. Survival of patients with no oncogenic driver identified also included. Median survival (95% CI): driver, no targeted therapy, 2.53 (1.85-3.21); driver, targeted therapy, 3.49 (2.71-4.33); no oncogenic driver identified, 2.05 (1.70-2.46); p<0.001 (logrank test). Vertical tick-marks indicate censoring events.

efigure 5. Survival in Patients With Metastatic Cancer Diagnosed Within 6 Months Prior to Study Initiation Among patients with metastatic disease diagnosed <=6 months prior to study initiation (September 1, 2009), comparison of those with a driver detected and treated with a targeted therapy, against those with a driver detected and not treated with a targeted therapy. Median survival (95%CI): driver, no targeted therapy, 1.49 (1.33-1.79); driver, targeted therapy, 2.69 (2.29-3.06); p<0.001 (log-range test). Vertical tick-marks indicate censoring events.

efigure 6. Survival in Patients With Oncogenic Drivers Other Than EGFR or ALK Comparison of survival of patients with an oncogenic driver other than EGFR or ALK and treated with a targeted therapy, against those with an oncogenic driver and no targeted therapy. Survival of patients with no oncogenic driver identified also displayed. Median survival (95% CI): driver, no targeted therapy, 2.38 (1.81-2.93); driver, targeted therapy, 4.85 (2.00-NA); no oncogenic driver identified, 2.08 (1.84-2.46); p=0.14 (logrank test). Vertical tick-marks indicate censoring events.