Innate Pharma Sa Class A · EURONEXT:IPH

Innate Pharma Sa Class A — Investor Day (March 2018)

146 slides from Innate Pharma Sa Class A's investor day presentation, Mar 8, 2018

  1. Slide 1: The Innate Immunity Company – R&D Day 2018

    THE INNATE IMMUNITY COMPANY R&D DAY 2018 LONDON, MARCH 8

  2. Slide 2: Forward Looking Statement

    FORWARD LOOKING STATEMENT This document has been prepared by Innate Pharma S.A. (the The information contained herein has not been independently “Company”) solely for the purposes of a presentation to verified. No representation, warranty or undertaking, express or investors concerning the Company.

  3. Slide 3: Today's Speakers

    TODAY’S SPEAKERS Mondher Eric Pierre Julia Mohammed MAHJOUBI, MD, VIVIER, DVM, PhD DODION, MD, MBA, SCARISBRICK, MD, DAR, MD, Chief Executive Officer Chief Scientific Officer Chief Medical Officer Dermatologist & Lead, VP Clinical Development Innate Pharma Innate Pharma Innate Pharma Cutaneous Lymph

  4. Slide 4: Agenda

    AGENDA 1 STRATEGY INTRODUCTION – MONDHER MAHJOUBI 2 BUILDING AN INNOVATIVE AND DIFFERENTIATED PIPELINE – ERIC VIVIER 3 PROPRIETARY PIPELINE – PIERRE DODION > IPH5401 – POTENTIAL TO UNLOCK THE IMMUNE RESPONSE > IPH4102 – NEW THERAPEUTIC OPTION FOR T-CELL LYMPHOMA – JULIA SCARISBRICK 4 PARTNERED PIPEL

  5. Slide 5: Strategy Introduction

    STRATEGY INTRODUCTION MONDHER MAHJOUBI CHIEF EXECUTIVE OFFICER

  6. Slide 6: Key Messages

    KEY MESSAGES World-class science and technology platform Clinical read-outs ahead for monalizumab and IPH4102 programs Delivering on IPH5401 with clinical collaborations to accelerate development Potential to address large unmet medical needs in cancer Financial strength, enabling room for investmen

  7. Slide 7: Innate Pharma – Strategy

    INNATE PHARMA – STRATEGY SCIENCE DRIVEN ORGANIZATION AND PATIENT CENTRIC COMPANY Create diverse portfolio of first or best-in-class IO agents Strategic Partner with leading IO companies to unlock the value of assets Priorities with substantial market potential Retain more value in house and move tow

  8. Slide 8: Innate Pharma – Approach

    INNATE PHARMA – APPROACH SCIENTIFIC EXCELLENCE AROUND 3 KEY PILLARS 1 2 3 NK cells Tumor Tumor checkpoints targeting Microenvironment (NKCP) (TAg) (TME) 8

  9. Slide 9: Innate Pharma – Pipeline

    INNATE PHARMA – PIPELINE FIRST-IN-CLASS IMMUNO-ONCOLOGY (IO) ASSETS Target Drug Signal Preclinical Dose finding Pivotal Discovery Discovery detection IPH52 IPH5401 Monalizumab Anti-Siglec-9 ~20 targets or Anti-CD39 Anti-C5aR Anti-NKG2A concepts under exploration IPH53 Lirilumab SAN-NKCE-2 Anti-CD73

  10. Slide 10: Priorities and Key Catalysts

    INNATE PHARMA – PRIORITIES AND KEY CATALYSTS • Read-out of current clinical programs > Monalizumab w/ cetuximab in advanced SCCHN @AACR > Monalizumab w/ durvalumab in solid tumors > Cohort expansion data for IPH4102 Key Value • Preparing next stages of clinical studies Creation > IPH4102: lifting th

  11. Slide 11: FY2017 Results

    FY2017 RESULTS FINANCIAL STRENGTH, ENABLING INVESTMENTS IN FUTURE GROWTH Revenue*: €44m • Mainly from industrial partnerships • Increase in R&D expenses support clinical Op. expenses: €84m development of IPH4102 and monalizumab • 2017 cash burn €54m** Cash position: €177m • Strong cash position to i

  12. Slide 12: Building an Innovative and Differentiated Pipeline

    BUILDING AN INNOVATIVE AND DIFFERENTIATED PIPELINE ERIC VIVIER CHIEF SCIENTIFIC OFFICER

  13. Slide 13: Experience

    EXPERIENCE 30 YEARS IN ACADEMIC RESEARCH - IMMUNOLOGY • D.V.M, PhD (Paris XI) • Harvard Medical School • Centre d’Immunologie de Marseille-Luminy • Scripps, Rockefeller, WEHI • European Research Council Laureate – Highly cited researcher

  14. Slide 14: Why Innate Pharma?

    EXPERIENCE 30 YEARS IN ACADEMIC RESEARCH - IMMUNOLOGY WHY INNATE MISSION MEANS PHARMA? • Translating science • Expertise • World-class biotech into survival • Technology company • Finding new targets, • Academic & industrial • 4 first-in-class new formats network molecules in 15 years • Identifying

  15. Slide 15: Cancer: A Global Challenge

    CANCER: A GLOBAL CHALLENGE AACR Cancer Progress Report, 2017

  16. Slide 16: The Immune System

    THE IMMUNE SYSTEM CHALLENGES • Microbial infections • Tumors NK Innate lymphoid Dendritic cells Neutrophils Monocytes Mastocytes cells Eosinophils Macrophages Groups 1, 2, 3 Basophils INNATE IMMUNITY EFFECTOR RESPONSE • Hours • Whole body Naïve B&T • Days cells • From lymphoid organs ADAPTATIVE IMMU

  17. Slide 17: A Brief History of Anti-Tumor Immunosurveillance

    A BRIEF HISTORY OF ANTI-TUMOR IMMUNOSURVEILLANCE 2001 1891 Saint Louis, USA New York City, USA 1967 1980 Robert D. Schreiber William Coley Villejuif, France Bruxelles, Belgique Tumor editing ‘Coley toxine’ Georges Mathé Thierry Boon BCG Tumor antigens 1975 1996 2002 1957 Bethesda, USA, Berkeley, USA

  18. Slide 18: The Immuno-Oncology Revolution

    THE IMMUNO-ONCOLOGY REVOLUTION DIRECT TARGETING OF TUMOR CELLS: INDIRECT TARGETING OF TUMOR CELLS: i.e. via tumor antigens i.e. via immune checkpoints Tumor Immune Tumor cell effector cell • Surgery + • Radiotherapy _ • Chemotherapy Immune Checkpoint Inhibitors 18

  19. Slide 19: The mAb Revolution in Cancer Immunotherapy

    THE MAB REVOLUTION IN CANCER IMMUNOTHERAPY Resistant to chemo Anti-PD1 mAbs Baseline 12 weeks 24 weeks 52 weeks C. Robert, IGR 19

  20. Slide 20: What's Next in Immuno-Oncology?

    WHAT’S NEXT IN IMMUNO-ONCOLOGY? Immune Checkpoint Inhibitors • anti-CTLA-4 > Ipilimumab (YERVOY, BMS) Proportion alive > Tremelimumab (MEDIMMUNE-ASTRAZENECA) ? • anti-PD-1 Immunotherapy (combination) > Nivolumab (OPDIVO, BMS/ONO) LT survival > Pembrolizumab (KEYTRUDA, MERCK) Immunotherapy (monothera

  21. Slide 21: What's Next in Immuno-Oncology?

    WHAT’S NEXT IN IMMUNO-ONCOLOGY? • Understand the resistance to Immune Checkpoint Inhibitors • Increase the fraction of patients sensitive to IO treatments • Decrease toxicity • Identify new targets (cells and molecules) • Identify biomarkers 21

  22. Slide 22: What's Next in Immuno-Oncology?

    WHAT’S NEXT IN IMMUNO-ONCOLOGY? • Understand the resistance to Immune Checkpoint Inhibitors • Increase the fraction of patients sensitive to IO treatments • Decrease toxicity • Identify new targets (cells and molecules) • Identify biomarkers 22

  23. Slide 23: Natural-killer cells sound the alarm against cancer

    Natural-killer cells sound the alarm against cancer nature.com innate phe

  24. Slide 24: Broad and Differentiated Portfolio of IO Assets

    BROAD AND DIFFERENTIATED PORTFOLIO OF IO ASSETS Target Drug Signal Preclinical Dose finding Pivotal Discovery Discovery detection IPH52 IPH5401 Monalizumab Anti-Siglec-9 ~20 targets or Anti-CD39 Anti-C5aR Anti-NKG2A concepts under exploration IPH53 Lirilumab SAN-NKCE-2 Anti-CD73 Anti-KIR2DL1,2,3 Oth

  25. Slide 25: Building an Innovative and Differentiated Pipeline

    BUILDING AN INNOVATIVE AND DIFFERENTIATED PIPELINE Human surfaceome 20,000+ genes 35,000+ proteins 7,000+ proteins that can be expressed at the cell surface Largely unexplored Expression: Single cell genome-wide analysis Inhibitory Inhibitory receptor ligand - Function: Cell-based assays + Tumor Ag

  26. Slide 26: Next Generation IO

    NEXT GENERATION IO 3 STRATEGIC KEY PILLARS TO HARNESS THE POTENTIAL OF IMMUNITY 1 2 3 NK cells Tumor Tumor checkpoints targeting Microenvironment (NKCP) (TAg) (TME) 26

  27. Slide 27: Next Generation IO – Our Strategy

    NEXT GENERATION IO OUR STRATEGY UNIQUE FIRST-IN-CLASS DIVERSIFIED POSITIONNING BEST-IN-CLASS APPROACH 27

  28. Slide 28: Pipeline: Targeting Different Status of the Immune Response

    INNATE PHARMA – PIPELINE TARGETING DIFFERENT STATUS OF THE IMMUNE RESPONSE No effective Anti-tumor immunity Sub-optimal or exhausted anti-tumor immunity suppressed by TME anti-tumor immunity Noninflamed Inflamed NK Bispecific IPH5401 Lirilumab Engagers Anti-C5aR Anti-KIR2DL1,2,3 Antibody Drug IPH53

  29. Slide 29: Next Generation IO – NK Cell Checkpoints

    NEXT GENERATION IO 3 STRATEGIC KEY PILLARS 1 2 3 NK cells Tumor Tumor checkpoints targeting Microenvironment (NKCP) (TAg) (TME) NKG2A NK cell checkpoints 29

  30. Slide 30: Anti-NKG2A Is a Novel Immune Checkpoint Inhibitor in Cancer

    ANTI-NKG2A IS A NOVEL IMMUNE CHECKPOINT INHIBITOR IN CANCER • Monalizumab (IPH2201) is a first-in-class anti-NKG2A humanized blocking antibody Anti-NKG2A _ NKG2A HLA-E - + Activating Activating + receptor ligand HLA-E MHC NKG2A _ TCR + + NK cell and T cell inhibition by NKG2A + Activation by NKG2A b

  31. Slide 31: NKG2A/HLA-E Pathway Is Upregulated in Tumors

    NKG2A / HLA-E PATHWAY IS UPREGULATED IN TUMORS HLA-E on tumor cells NKG2A on TILs 100 P e r c e n ta g e o f p a tie n ts 75 50 25 0 0) 0) 0) 0) 6) *) 7) 7) =2 =4 =4 =4 =1 ) ( =4 =4 (n (n ) (n ) (n (n = 1 5 ) (n ) (n l ) l N ry or a ma a l (n a ma H& va or a) or O m s tro m s tro a tu ( t u mro m a

  32. Slide 32: NKG2A/Qa-1b Control Tumor Growth

    NKG2A/QA-1b CONTROL TUMOR GROWTH b A 20 A 2 0 Q a -1 K O 2000 2000 TF: 0% TF: 20% ) ) 3 C R :0 % 3 C R :5 0 % T u m o r v o lu m e (m m T u m o r v o lu m e (m m 1500 1500 1000 1000 500 500 0 0 0 5 10 15 20 25 30 0 5 10 15 20 25 30 D ays D ays Individual A20 and A20 Qa-1b KO and A20 PD-L1 KO tumor g

  33. Slide 33: PD-1high CD8+ TILs Co-express NKG2A

    PD-1HIGH CD8+ TILS CO-EXPRESS NKG2A CD8+ TILs PD-1 NKG2A Expression of NKG2A and PD-1 on isolated CD8+ TILs (day 20) A20 B cell lymphoma into BALB/C mice André et al. unpublished NK cell checkpoints 33

  34. Slide 34: NKG2A and PD-L1 Blockades Are Complementary

    NKG2A AND PD-L1 BLOCKADES ARE COMPLEMENTARY Anti-NKG2A _ NKG2A HLA-E - + Activating Activating + receptor ligand HLA-E MHC PD-L1 NKG2A _ TCR Anti-PD-L1 + _ PD-1 + or PD-1 NK cell and T cell inhibition by NKG2A + Activation by NKG2A blockade NK cell checkpoints 34

  35. Slide 35: NKG2A Blockade Increases PD-L1 Anti-Tumoral Efficacy

    NKG2A BLOCKADE INCREASES PD-L1 ANTI-TUMORAL EFFICACY s u r v iv a l 100 c o n tro l P e r c e n t s u r v iv a l 80 a n ti-m N K G 2 A a n ti- m P D - L 1 *** 60 * a n ti-m N K G 2 A + a n ti-P D -L 1 40 20 0 0 10 20 30 days RMA-Rae1 into B6 mice P=0.03 (*), P=0.0006 (***), Grehan-Breslow-Wilcoxon t

  36. Slide 36: NKG2A Blockade Enhances ADCC in a HLA-E+ Context

    NKG2A BLOCKADE ENHANCES ADCC IN A HLA-E+ CONTEXT Anti-NKG2A _ NKG2A HLA-E - Tumoral + CD16 Activating Ag + receptor NK cell inhibition by NKG2A + ADCC enhancement by NKG2A blockade NK cell checkpoints 36

  37. Slide 37: NKG2A Blockade Enhances Cetuximab-Induced ADCC of H&N Tumor Cells

    NKG2A BLOCKADE ENHANCES CETUXIMAB-INDUCED ADCC OF H&N TUMOR CELLS NK cell checkpoints 37

  38. Slide 38: Next Generation IO – Tumor Targeting

    NEXT GENERATION IO 3 STRATEGIC KEY PILLARS 1 2 3 NK cells Tumor Tumor checkpoints targeting Microenvironment (NKCP) (TAg) (TME) KIR3DL2 MICA/B NKp46 NKCE Tumor targeting 38

  39. Slide 39: Next Generation IO – Tumor Targeting

    NEXT GENERATION IO 3 STRATEGIC KEY PILLARS 1 2 3 NK cells Tumor Tumor checkpoints targeting Microenvironment (NKCP) (TAg) (TME) KIR3DL2 MICA/B NKp46 NKCE Tumor targeting 39

  40. Slide 40: KIR3DL2 Is a Tumor Specific Antigen in CTCL

    KIR3DL2 IS A TUMOR SPECIFIC ANTIGEN IN CTCL • IPH4102 is a first-in-class anti-KIR3DL2 humanized cytotoxicity-inducing antibody Tumor targeting 40

  41. Slide 41: KIR3DL2 Targeting Induces Anti-Tumoral Efficacy

    KIR3DL2 TARGETING INDUCES ANTI-TUMORAL EFFICACY Control Anti-KIR3DL2 Marie-Cardine et al, Cancer Res 2014 Tumor targeting 41

  42. Slide 42: Next Generation IO – Tumor Targeting

    NEXT GENERATION IO 3 STRATEGIC KEY PILLARS 1 2 3 NK cells Tumor Tumor checkpoints targeting Microenvironment (NKCP) (TAg) (TME) KIR3DL2 MICA/B NKp46 NKCE Tumor targeting 42

  43. Slide 43: MICA/B Is Induced on Tumor Cells and Downregulates NKG2D

    MICA/B IS INDUCED ON TUMOR CELLS AND DOWNREGULATES NKG2D + Tumor targeting 43

  44. Slide 44: MICA/B Can Be Targeted by Naked Ab or ADC

    MICA/B CAN BE TARGETED BY NAKED AB OR ADC Anti-MICA naked Ab Anti-MICA-ADC TRAMP-MICB tumor model PDX (human breast) P D X (h u m a n b re a s t) 1500 C o n tro l-A D C T u m o r v o lu m e ( m m ) 3 a n ti M IC A -A D C 1000 B e v a c iz u m a b M ean  SEM 500 10/10 CR 0 0 10 20 30 40 50 60 70 80

  45. Slide 45: Next Generation IO – Tumor Targeting

    NEXT GENERATION IO 3 STRATEGIC KEY PILLARS 1 2 3 NK cells Tumor Tumor checkpoints targeting Microenvironment (NKCP) (TAg) (TME) KIR3DL2 MICA/B NKp46 NKCE Tumor targeting 45

  46. Slide 46: NK Cell Engager (NKCE) Multispecific Antibody Technology

    NK CELL ENGAGER (NKCE) MULTISPECIFIC ANTIBODY TECHNOLOGY • NKp46-NKCE binds to > an antigen at the surface of tumor cells > NKp46 activating receptor on NK cells and CD16 (FcgRIII) CD16 NKCE • NKp46-NKCE may reduce the risk of TAg side-effects associated with T cell engagers • Library of proprietary

  47. Slide 47: Anti-CD20-NKp46-NKCE Induces Anti-Tumoral Efficacy

    ANTI-CD20-NKP46-NKCE INDUCES ANTI-TUMORAL EFFICACY In vitro In vivo 1 0 0 8 0 c o n tro l P e r c e n t s u r v iv a l A n t i- C D 2 0 - N K C E 8 0 % s p e c ific ly s is 6 0 IC -N K C E O b in u tu z u m a b 6 0 A n t i- C D 2 0 - N K C E 4 0 IC -Ig G 1 + 4 0 IC -N K C E O b in u tu z u m a b 2 0

  48. Slide 48: Next Generation IO – Tumor Microenvironment

    NEXT GENERATION IO 3 STRATEGIC KEY PILLARS 1 2 3 NK cells Tumor Tumor checkpoints targeting Microenvironment (NKCP) (TAg) (TME) Adenosine pathway MDSC Tumor microenvironment 48

  49. Slide 49: Next Generation IO – Tumor Microenvironment

    NEXT GENERATION IO 3 STRATEGIC KEY PILLARS 1 2 3 NK cells Tumor Tumor checkpoints targeting Microenvironment (NKCP) (TAg) (TME) Adenosine pathway MDSC Tumor microenvironment 49

  50. Slide 50: Adenosine Pathway Is Immunosuppressive in the TME

    ADENOSINE PATHWAY IS IMMUNOSUPPRESSIVE IN THE TME B cells, naïve Treg, B and CD8+ T cells myeloid cells Anti-CD73 Tumor spreading CD39 CD73 sCD73 NK cells AMP Adenosine AMP sCD39 ATP ATP A2A/2B receptors Immunosuppression CD8+ or P2X receptors CD4+ T cells Dendritic cell ATP : adenosine triphosphate

  51. Slide 51: CD39 Expression in Head and Neck Tumors

    CD39 EXPRESSION IN HEAD AND NECK TUMORS CD39 CD39 is expressed on TILs and vascular endothelial cells Tumor microenvironment 51

  52. Slide 52: CD39 Blockade Inhibits ATP Degradation and Adenosine Generation

    CD39 BLOCKADE INHIBITS BOTH ATP DEGRADATION AND ADENOSINE GENERATION B cells, naïve Treg, B and CD8+ T cells myeloid cells Tumor spreading Anti-CD73 CD39 CD73 sCD73 Anti-CD39 NK cells Anti-CD39 AMP Adenosine AMP sCD39 ATP ATP A2A/2B receptors Immunosuppression CD8+ or P2X receptors CD4+ T cells Dend

  53. Slide 53: Lead Anti-CD39 Ab Restores Immune Response in Presence of ATP

    LEAD ANTI-CD39 AB RESTORES IMMUNE RESPONSE IN THE PRESENCE OF ATP T cell proliferation assay DC activation C D 8 3 p o s itiv e c e lls (% ) C D 4 T c e lls C D 8 T c e lls P r o life ra tin g T C e lls (% ) P r o life ra tin g T C e lls (% ) 60 100 100 A ct 80 80 40 60 60 A ct + A TP 40 40 20 20 20

  54. Slide 54: CD39 and CD73 Expression in Head and Neck Tumors

    CD39 AND CD73 EXPRESSION IN HEAD AND NECK TUMORS CD39 CD73 CD39 is expressed on TILs and vascular CD73 is expressed on tumor cells, TILs and endothelial cells vascular endothelial cells Tumor microenvironment 54

  55. Slide 55: CD39/CD73 Blockade Synergize to Reverse ATP-Mediated T Cell Suppression

    CD39/CD73 BLOCKADE SYNERGIZE TO REVERSE ATP-MEDIATED T CELL SUPPRESSION CD4+ T cells CD39+CD73 54.6% CD39 35.3% CD73 28.3% ATP 22.6% 52.2% CD3 + CD28 6.6% Control 0 20 40 60 P rProliferating o l i f e r a t i n gT Tcells c e l(%) ls (% ) Proliferating T cells (%) Tumor microenvironment 55

  56. Slide 56: CD39/CD73 Blockade Aims at Reversing Immunosuppression in the TME

    CD39/CD73 BLOCKADE AIMS AT REVERSING IMMUNOSUPPRESSION IN THE TME B cells, naïve Treg, B and CD8+ T cells myeloid cells Anti-CD73 Anti-CD73 Tumor depletion CD39 CD73 sCD73 Anti-CD39 NK cells Anti-CD39 AMP sCD39 ATP ATP Activation CD8+ or P2X receptors CD4+ T cells Dendritic cell ATP : adenosine trip

  57. Slide 57: Next Generation IO – Tumor Microenvironment

    NEXT GENERATION IO 3 STRATEGIC KEY PILLARS 1 2 3 NK cells Tumor Tumor checkpoints targeting Microenvironment (NKCP) (TAg) (TME) Adenosine pathway MDSC Tumor microenvironment 57

  58. Slide 58: C5aR Blockade Inhibits MDSC/Neutrophil Recruitment and Activation

    C5AR BLOCKADE INHIBITS MDSC/NEUTROPHIL RECRUITMENT AND ACTIVATION IN THE TME Anti-PD-1 + Tumor microenvironment 58

  59. Slide 59: C5aR/PD-1 Blockade Induces Tumor Growth Inhibition in PD-1 Resistant Model

    C5AR/PD-1 BLOCKADE INDUCES TUMOR GROWTH INHIBITION IN A PD-1 RESISTANT MODEL T u m o r G r o w th In h ib itio n (% ) 80 60 T G I (% ) 40 20 0 0 0 0 0 0 0 0 0 5 0 5 0 1 1 2 3 T u m o r v o lu m e (m m ) A n t i- P D - 1 A n t i- C 5 a R + r I g G 2 a A n ti- C 5 a R + A n ti- P D - 1 Fares et al. IC

  60. Slide 60: Broad and Differentiated Portfolio of IO Assets

    BROAD AND DIFFERENTIATED PORTFOLIO OF IO ASSETS Target Drug Signal Preclinical Dose finding Pivotal Discovery Discovery detection IPH52 IPH5401 Monalizumab Anti-Siglec-9 ~20 targets or Anti-CD39 Anti-C5aR Anti-NKG2A concepts under exploration IPH53 Lirilumab SAN-NKCE-2 Anti-CD73 Anti-KIR2DL1,2,3 Oth

  61. Slide 61: Think, Be Creative, Provide Solutions – Opening

    THINK BE CREATIVE PROVIDE SOLUTIONS OPENING 62

  62. Slide 62: Proprietary Portfolio

    PROPRIETARY PORTFOLIO PIERRE DODION CHIEF MEDICAL OFFICER

  63. Slide 63: Next Generation IO – IPH5401 (C5aR)

    NEXT GENERATION IO 3 STRATEGIC KEY PILLARS 1 2 3 NK cells Tumor Tumor checkpoints targeting Microenvironment (NKCP) (TAg) (TME) IPH5401 (target: C5aR) 64

  64. Slide 64: What Is IPH5401?

    WHAT IS IPH5401? • C5aR inhibitor: monoclonal antibody targeting the receptor (C5aR) to C5a • C5a results from the cleavage of C5 as part of the complement cascade • C5a stimulates the recruitment and functional activation of myeloid derived suppressor cells (MDSCs) and regulatory T-cells (Tregs) >

  65. Slide 65: Mechanism of Action IPH5401

    MECHANISM OF ACTION IPH5401 ADDING A C5AR INHIBITOR RESTORES THE EFFICACY OF PD1/PDL1 BLOCKERS C5a C5a MHC MHC TCR TCR Anti-PD-1 Anti-PD-1 or PD-L1 or PD-L1 Ìnhibition of IPH5401 migration & function C5aR receptor C5aR receptor MDSC/ + Neutrophils MDSC/ Combined treatment Neutrophils PD1/PDL1 blocke

  66. Slide 66: IPH5401: Phase 1 Safety, PK and PD Data

    IPH5401: PHASE 1 SAFETY, PHARMACOKINETIC AND PHARMACODYNAMIC DATA Favorable safety profile in single & multi-dose, placebo controlled phase 1 trials in RA1 Single dose Multiple dose Dose range (mg/kg) 0.02-10 (iv) 0.2-4 (sc) 0.25-4 (sc) Nr of pts (IPH5401/placebo) 27 / 9 18 / 6 % pts with AE (IPH540

  67. Slide 67: Prioritized Indications Based on C5aR Expression

    PRIORITIZED INDICATIONS BASED ON C5AR EXPRESSION1 C5aR Tumor type 1 Impact on prognosis expression NSCLC 80% Poor prognosis UCC 73% Poor prognosis HCC 68% Not known CRC 60% Not known RCC 61% Not known Gastric cancer 30-35% Poor prognosis Prostate cancer 35% Poor prognosis Breast cancer 13% Poor prog

  68. Slide 68: C5aR Expression Negatively Impacts Long Term Outcome in NSCLC

    C5AR EXPRESSION NEGATIVELY IMPACTS LONG TERM OUTCOME IN NSCLC C5aR expression impact on long term outcome in 208 previously An increase in C5aR untreated NSCLC expression by neutrophils is seen in NSCLC • The 5-year OS was significantly lower in high expressors of C5aR than in low expressors (p = 0.

  69. Slide 69: Prioritized Indications Based on Medical Need

    PRIORITIZED INDICATIONS BASED ON MEDICAL NEED AND POTENTIALLY ACCELERATED PATH TO MARKET Tumor type Description of unmet medical need NSCLC • second line, post platinum: rate of long term failure as high as 80%: • first line: rate of long term failure of 30% HCC 272 pts with squamous histology, 2nd

  70. Slide 70: Prioritized Indications Based on Medical Need

    PRIORITIZED INDICATIONS BASED ON MEDICAL NEED AND POTENTIALLY ACCELERATED PATH TO MARKET Tumor type Description of unmet medical need NSCLC • second line, post platinum: rate of long term failure as high as 80%: • first line: rate of long term failure of 30% HCC • second line post sorafenib • Sorafe

  71. Slide 71: AstraZeneca Collaboration to Accelerate Proof-of-Concept

    ASTRAZENECA COLLABORATION TO ACCELERATE PROOF-OF-CONCEPT IN NSCLC AND HCC AstraZeneca/MedImmune Collaboration Type of collaboration Clinical agreement (access to drug, 50% trial cost sharing) Tumor type for expansion NSCLC 2ary resistance (IO pretreated) cohorts IO naive HCC = unmet medical needs PD

  72. Slide 72: Smart Development Program with Limited Dose-Escalating Part

    SMART DEVELOPMENT PROGRAM WITH LIMITED DOSE-ESCALATING PART • In combination with durvalumab • Very limited dose escalation part • Cohort expansion(s) at recommended phase 2 dose/schedule • Indications selection: NSCLC, HCC • Extensive PK/PD exploration (e.g. C5aR, C5a, MDSCs, CD8, PDL1, cytokines,

  73. Slide 73: Combination IPH5401 + Durvalumab Proposed Study Design

    COMBINATION IPH5401 + DURVALUMAB PROPOSED STUDY DESIGN Dose escalation part: 3+3 model Cohort expansion part: primary endpoint: safety, RP2D primary endpoint: ORR (Simon 2-stage) design IPH5401 DL3, schedule 2 + durvalumab NSCLC (secondary resistance to Stage 2 IPH5401 DL3, PD1/PDL1 blockers) schedu

  74. Slide 74: Phase 1 to Start 2H2018

    PHASE 1 TO START 2H2018 Phase 2, other Pivotal program IPH5401 in other indications indications Accelerated pivotal program IPH5401 in NSCLC and/or HCC Dose Expansion escalation cohort Pivotal program IPH5401 in NSCLC NSCLC and NSCLC and/or HCC and HCC HCC 2019 2020 2021 2022 2023 2024 2025 All elem

  75. Slide 75: Abundant Life Cycle Opportunities

    ABUNDANT LIFE CYCLE OPPORTUNITIES A COHERENT VISION OF MULTIPLE INDICATIONS, LINES OF THERAPIES AND DEGREE OF RESISTANCE Tumor type Setting NSCLC Secondary resistance to PD1/PDL1 blockers, in combination with durvalumab HCC PD1 naïve, in combination with durvalumab IO untreated patients in combinati

  76. Slide 76: Summary

    SUMMARY Inhibition of C5aR signaling increases effector cell infiltration and function in the TME 1 Long-term failure rates of PD-1/L1 therapy create demand for combination strategies Prioritization of indications based on C5aR expression and medical need 2 Clinical collaborations enhance program va

  77. Slide 77: Next Generation IO – IPH4102 (KIR3DL2)

    NEXT GENERATION IO 3 STRATEGIC KEY PILLARS 1 2 3 NK cells Tumor Tumor checkpoints targeting Microenvironment (NKCP) (TAg) (TME) IPH4102 (target: KIR3DL2) IPH4102 78

  78. Slide 78: KIR3DL2 Is Widely Expressed on T Cell Lymphomas

    KIR3DL2 IS WIDELY EXPRESSED ON T CELL LYMPHOMAS • KIR3DL2 is specifically expressed on cutaneous and circulating cutaneous T-cell lymphomas (CTCL) cells (various grades and subtypes): SS pt, grade IIIB > Expressed by ~65% of all CTCL patients 87% KIR3DL2+ tumor cells1 > Expressed by up to 85% of CTC

  79. Slide 79: IPH4102: Mode of Action

    IPH4102: MODE OF ACTION PROMISING ACTIVITY IN SÉZARY SYNDROME • IPH4102 : first-in-class anti-KIR3DL2 humanized cytotoxicity-inducing antibody • Designed to selectively destroy KIR3DL2-expressing CTCL cancer cells: > upon binding to the receptor, the Fc domain of IPH4102 activates antibody dependent

  80. Slide 80: What Is CTCL?

    WHAT IS CTCL? • Non Hodgkin’s lymphoma, originating from T cells and with a tropism for the skin • 4% of Non Hodgkin’s Lymphoma > ~ 1 / 100,000 (6,000 new cases for the US + EU) > Rising annual incidence in US - ↑ by 2.9 per million per decade • Clinically: > Median age at diagnosis of 55-65 years >

  81. Slide 81: Epidemiology of CTCL (1)

    EPIDEMIOLOGY OF CTCL (1) Nr new 5-yr overall cases/yr survival 6,000 3,300-3,900 20-95% 150-300 < 15% 500-1000 76-96% 150-300 ~ 10% 600 < 20% LPD: lymphoproliferative disorder. ALCL: anaplastic large cell lymphoma ATL: Adult T cell lymphoma Agar et al, JCO 2010; Kempf et al, Blood 2011; Willemze, Bl

  82. Slide 82: Epidemiology of CTCL (2)

    EPIDEMIOLOGY OF CTCL (2) • Besides the histological subtypes, prognosis and survival of CTCL are strongly linked to clinical stage • Other poor prognostic factors: age >60 years, large cell transformation (LCT) in skin, increased Lactate Dehydrogenase (LDH) and extracutaneous involvement Agar et al,

  83. Slide 83: Treatment of CTCL

    TREATMENT OF CTCL OVERVIEW Initial diagnosis Early stage disease Advanced stage disease ~ 65% of the patients ~ 35% of the patients Skin directed therapy Systemic therapy Disease control Progression ~ 75% ~ 25% IPH4102 84

  84. Slide 84: Standards of Care in CTCL

    STANDARDS OF CARE IN CTCL LIMITED TO MYCOSIS FUNGOIDES (AFTER FAILURE OF LOCAL THERAPIES)1 Preferred therapies 1st line Bexarotene, bexarotene-based combinations 2nd line Interferon, methotrexate, gemcitabine, liposomal-doxorubicin 3rd line Methotrexate, CHOP, palatrexate 4th line Romidepsin Lines a

  85. Slide 85: Treatment of CTCL: New Agents – Brentuximab

    TREATMENT OF CTCL NEW AGENTS WITH ACTIVITY: BRENTUXIMAB • Brentuximab vedotin (Anti CD30 ADC): > CTCL (CD30 positive; excl. SS): phase 3 study (ALCANZA) against investigator’s choice (methotrexate/bexarotene) (128 pts) > ORR4: 61 vs 8% (p < 0.001); med PFS: 15.8 vs 3.6 months (HR=0.37, p < 0.001) >

  86. Slide 86: Mogamulizumab, a CCR4 Inhibitor, in CTCL

    MOGAMULIZUMAB, A CCR4 INHIBITOR, IN CTCL NEW AGENTS WITH ACTIVITY: MOGAMULIZUMAB 372 pts with MF or SS, in failure post ≥ 1 systemic therapy, randomized between mogamulizumab and vorinostat Group 1 PFS (mos) 1,2 ORR Toxicity Mogamulizumab 7.7 28%  Infusion related reaction, cutaneous toxicity Vorin

  87. Slide 87: Standards of Care in CTCL – Future

    STANDARDS OF CARE IN CTCL HOW WILL MYCOSIS FUNGOIDES BE TREATED IN THE FUTURE? KOLs opinion: Bexarotene likely to stay the primary agent in 1st line (oral) Strong impact of brentuximab & mogamulizumab in later lines Predicted preferred therapies 1st line Bexarotene, bexarotene-based combinations 2nd

  88. Slide 88: CTCL: Foundations of Our Clinical Development Plan

    CTCL FOUNDATIONS OF OUR CLINICAL DEVELOPMENT PLAN • Single agent approach after 2 lines of prior systemic therapy, including biologics • Multiple different subtypes with a variable prognosis • Variable stages (IB-IV) Supports a randomized • Complex treatment algorithms program > Variable local thera

  89. Slide 89: CTCL: Clinical Development Program

    CTCL CLINICAL DEVELOPMENT PROGRAM1 • Population: advanced after 2 lines of prior systemic therapies, including brentuximab / mogamulizumab > Leveraging IPH4102 in patients with unmet medical need • Randomized program of single agent IPH4102 • Comparator: investigator choice (gemcitabine, vorinostat)

  90. Slide 90: Sézary Syndrome

    SÉZARY SYNDROME CLINICAL FEATURES AND SIMPLIFIED TREATMENT APPROACH • Leukemic variant of CTCL – stage IV in all cases – poor prognosis • Systemic therapy is the standard of care • Older drugs/approaches > First line setting: extracorporeal phototherapy, bexarotene, interferon  (combinations > sing

  91. Slide 91: Sézary Syndrome: Overall Treatment Approach in 2018

    SÉZARY SYNDROME OVERALL TREATMENT APPROACH IN 2018 • ECP, bexarotene, Interferon , Methotrexate, or combination of these approaches st likely to stay the main approach in “1 line” • Mogamulizumab likely to be approved (PDUFA date: June 4, 2018) and to penetrate nd the “2 line” setting rd • 3 + line

  92. Slide 92: Pivotal Program in Sézary Syndrome

    PIVOTAL PROGRAM IN SÉZARY SYNDROME STUDY DESIGN – POTENTIAL ACCELERATED APPROVAL SS Regulatory consultations IPH4102 IV Primary endpoint: After 2 systemic 1. Preclinical data therapies including (750 mg) ORR4 biological agents 2. “Isolation” of SS 3. ORR4 as 1ary endpoint, PFS as key 2ary endpoint 4

  93. Slide 93: Potential Development Paths in Other Lymphomas – PTCL

    POTENTIAL DEVELOPMENT PATHS IN OTHER LYMPHOMAS PTCL • PTCL represent ~10% of all NHL WW • Several subtypes with variable response to therapy and outcome • ~ 50% express KIR3DL2 Standard of care PTCL Incl. ALCL 1st line Chemo (CHOP-like) at times followed by transplantation if possible 2nd line*, Gem

  94. Slide 94: Potential Development Paths in Other Lymphomas – ATLL

    POTENTIAL DEVELOPMENT PATHS IN OTHER LYMPHOMAS ATLL • ATLL prevalence follows the distribution of the oncogenic HTLV-1 virus > <10% of all PTCL WW (~25% in Japan) > Annual incidence: WW: ~1,400; Japan: ~700-1,000 • Several subtypes with variable response to therapy and outcome • KIR3DL2 expressed in

  95. Slide 95: Clinical Development Plans in PTCL and ATLL

    CLINICAL DEVELOPMENT PLANS IN PTCL AND ATLL1 • High interest of the medical community • PTCL • ATLL > Preliminary IHC data showing positive > High prevalence of KIR3DL2 expression KIR3DL2 in about 50% of the pts (>80%) in the acute form (most frequent > Preliminary preclinical data supporting a and

  96. Slide 96: Clinical Development Plan Across Patient Populations

    CLINICAL DEVELOPMENT PLAN1 ACROSS PATIENT POPULATIONS SUMMARY Pivotal program IPH4102 in PTCL Pivotal program IPH4102 in ATLL Pivotal program IPH4102 in CTCL Pivotal program IPH4102 in SS 2019 2020 2021 2022 2023 2024 2025 Potential Biologics License Application. 1. All elements of study design and

  97. Slide 97: Targeting KIR3DL2 in CTCL – Phase 1 Dose Escalation

    TARGETING KIR3DL2 IN CTCL PHASE 1 DOSE ESCALATION Dr. Julia Scarisbrick MBChB, FRCP, MD University Hospitals Birmingham NHS Foundation Trust St Thomas Hospitals The London Skin Clinic IPH4102 98

  98. Slide 98: Signs and Symptoms of Mycosis Fungoides and Sézary Syndrome

    SIGNS AND SYMPTOMS OF MYCOSIS FUNGOIDES (MF) AND SÉZARY SYNDROME (SS) Early Stages Advanced Stages • General > Itching > Disfigurement > Pain > Sleep disturbance > Psycho-social disorders > High disease burden plaques tumors erythroderma > Quality of life impairment IPH4102 99

  99. Slide 99: Therapies in Early-Stage CTCL

    THERAPIES IN EARLY-STAGE CTCL (PATCH/PLAQUE) • Skin directed therapy > No treatment shown to be superior > Typically associated with short response duration > 50-60% of patients will have recurrent disease > Few durable complete responses > Life expectancy may be normal > Morbidity may be significan

  100. Slide 100: Therapies in Advanced-Stage CTCL

    THERAPIES IN ADVANCED-STAGE CTCL • Chemotherapy (1970’s) • Immunotherapy (interferon 1980’s) • Extracorporeal photopheresis (1987) • Novel retinoids (bexarotene 1999) • Monoclonal antibody therapy (1997/2001/2017) • Autologous / Allogeneic stem cell transplants (2000) • Histone deacetylase inhibitor

  101. Slide 101: Real-World Treatment

    REAL-WORLD TREATMENT Heterogeneity of treatment approaches were found, with up to 24 different modalities or combinations used as first-line and 31% of patients receiving 4 or more treatments 100% 80% 60% 40% 20% 0% 1st 2nd 3rd 4th 5th 6th 7th 8th 9th 10th ECP * Bexarotene Phototherapy * MTX INF * L

  102. Slide 102: Unmet Needs in CTCL

    UNMET NEEDS IN CTCL • Effective treatments > Most have RR in 20-40% > Most have short response duration 6-9 months > Best combinations • Effective symptom relief > Patients have severe itch > Sleep disturbance IPH4102 103

  103. Slide 103: Summary Treatment Guidelines

    SUMMARY TREATMENT GUIDELINES • Early-stage CTCL should be treated with skin directed therapies • Advanced-stage CTCL require systemic therapy > No algorithm for treatment which is typically patient specific > No regime proven to improve survival > Most patients receive multiple consecutive therapies

  104. Slide 104: KIR3DL2 Is a Therapeutic Target in CTCL

    KIR3DL2 IS A THERAPEUTIC TARGET IN CTCL • KIR3DL2 belongs to the Killer Ig-like Receptor family that modulate NK and T cell activity • KIR3DL2 is expressed on <10% normal T cells • KIR3DL2 is widely expressed on CTCL cells (skin lesions and blood aberrant cells) > Irrespective of disease clinical st

  105. Slide 105: KIR3DL2 Is Expressed on Most CTCL Subtypes

    KIR3DL2 IS EXPRESSED ON MOST CTCL SUBTYPES Positivity threshold = 5% 80-100% cases are KIR3DL2+ EID: erythrodermic inflammatory disease; MF: Mycosis Fungoides; SS: Sézary Syndrome; cALCL: primary cutaneous Anaplastic Large Cell Lymphoma; LyP: Lymphomatoid papulosis; HTLV1: (primary cutaneous) Human

  106. Slide 106: IPH4102-101 First-in-Human Phase 1 Study Design and Objectives

    IPH4102-101 FIRST-IN-HUMAN PHASE 1 STUDY DESIGN AND OBJECTIVES Cohort expansion in Dose-escalation subtypes of CTCL (doses in mg/kg) RP2D for cohorts • Dose-escalation (10 dose levels – accelerated 3+3 design) followed by cohort expansion • Primary objective: determination of Maximal Tolerated Dose

  107. Slide 107: Baseline Disease Characteristics (Dose-Escalation)

    BASELINE DISEASE CHARACTERISTICS (DOSE-ESCALATION) All doses N = 25 Age (years), median (min; max) 71 (42; 90) MF/SS CTCL type, n (%) Mycosis fungoides (MF) 4 (16) Sézary Syndrome (SS) 20 (80) Non MF/SS CTCL type, n (%) CD4+ T-cell lymphoma, NOS 1 (4) Clinical stage at study entry (MF/SS), n (%) IB

  108. Slide 108: Summary of Adverse Events (Dose-Escalation)

    SUMMARY OF ADVERSE EVENTS (AE) (DOSE-ESCALATION) N = 25 Total Grade 3 Grade 4 DLT 0 - - AE 23 (92%) 6 (24%) 2 (8%) Related AE 13 (52%) 2 (8%) - SAE 8 (32%) 2 (8%) 2 (8%) Related SAE 2 (8%) †† - - AE causing treatment discontinuation 1 (4%) 1 (4%)* - Fatal AE 2 (8%)** n is the number of subjects havi

  109. Slide 109: Adverse Events Related to Drug (Dose-Escalation)

    ADVERSE EVENTS RELATED TO DRUG (DOSE-ESCALATION) (REPORTED BY ≥2 PATIENTS, DATA CUTOFF 5/SEPT/2017) Related AE (N = 25) All grades* Grade 3 Grade 4 n (%) n (%) n (%) Any related AE 13 (52) 3 (8) 0 Lymphopenia 4 (16) 2 (8) 0 Asthenia 3 (12) 0 0 Nausea 2 (8) 0 0 Chills 2 (8) 0 0 Pyrexia 2 (8) 0 0 Arth

  110. Slide 110: Efficacy Outcome (Dose-Escalation)

    EFFICACY OUTCOME (DOSE-ESCALATION) DATA CUT-OFF 5/SEPT/2017 Best Response Best Response in Sézary Syndrome patients in all patients Global Global Skin Blood N=25 n=20 n=20 n=20 Best Response (n) CR 1 1 2 5 PR 10 9 10 8 SD 12 8 8 6 PD 2 2 0 1 ORR 44 % 50 % 60 % 65 % ORR4, n (%) 9 (36%) 8 (40%) DOR (d

  111. Slide 111: mSWAT Used to Measure Skin Tumor Burden in MF/SS

    MSWAT (MODIFIED SEVERITY WEIGHTED ASSESSMENT TOOL) IS USED TO MEASURE SKIN TUMOR BURDEN IN MF/SS • Two assessments 1. Lesion assessment – patch, plaque or tumor 2. Body surface area involved • Calculate body surface area affected by patch, plaque and tumor • This is then multiplied by 1, 2, or 4 for

  112. Slide 112: Maximum Percent Change in mSWAT Score and Aberrant Blood Cell Counts

    MAXIMUM PERCENT CHANGE IN MSWAT SCORE AND ABERRANT BLOOD CELL COUNTS IN SÉZARY SYNDROME PATIENTS Skin RR = 60% Best Global Response: mSWAT score CR PR SD PD Aberrant blood cell count Blood RR = 65% IPH4102 113

  113. Slide 113: Representative Pictures of Responders

    REPRESENTATIVE PICTURES OF RESPONDERS • Patient 11-005: > 77-year old female > Sézary Syndrome (SS) diagnosed in NOV 2008 > 6 lines of previous therapies (incl. ECP + BEX + INFα, MTX, mogamulizumab, ECP + INFα + MTX, romidepsin, BEX+ INFα) > Started at 0.05 mg/kg on 25JAN16 > Global PR since W10 (0.

  114. Slide 114: Exploratory/Pharmacodynamics Endpoints: Skin & Blood Assessments

    EXPLORATORY/PHARMACODYNAMICS ENDPOINTS SKIN & BLOOD ASSESSMENTS / PT 11-005 CD4/8 mSWAT • Treated skin lesions show decrease in CD4 and increase SCR = screening ratio score in skin in CD8 lymphocytes SCR: 52% • Decrease in %KIR3DL2+ CD4 T-cells in skin/blood % of KIR3DL2+ cells in skin lesions by IH

  115. Slide 115: Representative Pictures of Responders

    REPRESENTATIVE PICTURES OF RESPONDERS • Patient 11-024: Screening > 75-year old male > SS diagnosed in AUG 2011 > 6 lines of previous therapies (incl. MTX, INFα, vorinostat then mogamulizumab, BEX, pembrolizumab) W28 Sustained PR > Started at 3 mg/kg on 16OCT16 > Global PR since W14 (3 mg/kg), susta

  116. Slide 116: Significant Pruritus Improvement by VAS Score

    SIGNIFICANT PRURITUS IMPROVEMENT BY VAS SCORE VAS: Visual Analogue Scale IPH4102 117

  117. Slide 117: IPH4102-101 Summary (Dose Escalation)

    IPH4102-101 SUMMARY (DOSE ESCALATION) SAFETY, CLINICAL ACTIVITY AND BIOMARKERS • IPH4102 Maximal Tolerated Dose was not reached: Recommended Ph 2 Dose is 10 mg/kg • Well-tolerated in heavily pretreated (med. 4 prior lines) advanced CTCL patients • Best global ORR is 44% in the overall population and

  118. Slide 118: Acknowledgements

    ACKNOWLEDGEMENTS All our patients and their families… Depts of Dermatology & Pathology Stanford Cancer Institute (CA, USA) St Louis Hospital (Paris, France) Youn H. Kim Martine Bagot Michael Khodadoust Caroline Ram-Wolff Ohio State University (OH, USA) Steve Mathieu Basem William Maxime Battistella

  119. Slide 119: Next Generation IO – Monalizumab (NKG2A)

    NEXT GENERATION IO 3 STRATEGIC KEY PILLARS 1 2 3 NK cells Tumor Tumor checkpoints targeting Microenvironment (NKCP) (TAg) (TME) monalizumab (target: NKG2A) Monalizumab 120

  120. Slide 120: Monalizumab: Combination Strategy Opportunity

    MONALIZUMAB COMBINATION STRATEGY OPPORTUNITY Mohammed Dar VP Oncology clinical development AstraZeneca MedImmune Monalizumab 121

  121. Slide 121: Next-Generation Immuno-Oncology at AstraZeneca/MedImmune

    NEXT-GENERATION IMMUNO-ONCOLOGY AT ASTRAZENECA/MEDIMMUNE BROAD IO CLINICAL PROGRAM TO ENHANCE ANTI-TUMOR IMMUNITY Monalizumab 122

  122. Slide 122: Monalizumab (IgG4 Anti-NKG2A)

    MONALIZUMAB (IGG4 ANTI-NKG2A) BLOCKS NKG2A/HLA-E MEDIATED SUPPRESSION OF NK CELLS AND CD8 T CELLS HLA-E on tumor cells NKG2A on TILs 100 P e r c e n ta g e o f p a tie n ts 75 50 25 0 0) 0) 0) 0) 6) *) 7) 7) =2 =4 =4 =4 =1 ) ( =4 =4 (n (n ) (n ) (n (n = 1 5 ) (n ) (n l ) l N ry or a ma a l (n a ma H

  123. Slide 123: Rationale for Durvalumab & Monalizumab Combination

    RATIONALE FOR DURVALUMAB & MONALIZUMAB COMBINATION: ENHANCE ANTI-TUMOR IMMUNITY BY NON-REDUNDANT, POTENTIALLY SYNERGISTIC PATHWAYS Anti-NKG2A _ NKG2A HLA-E - + Activating Activating + receptor ligand HLA-E MHC PD-L1 NKG2A _ TCR Anti-PD-L1 + _ PD-1 + or PD-1 Monalizumab 124

  124. Slide 124: Monalizumab – Development Strategy

    MONALIZUMAB – DEVELOPMENT STRATEGY ADDRESS SIGNIFICANT MEDICAL NEEDS 1 Potentiate existing responses – IO sensitive tumors 2 Reverse resistance to CPI – IO sensitive tumors 3 Unlock activity of NK and T cells – IO resistant tumors Monalizumab 125

  125. Slide 125: Monalizumab – Joint Clinical Development Plan

    MONALIZUMAB – JOINT CLINICAL DEVELOPMENT PLAN FOCUS ON COMBINATIONS AZ- Innate Pharma MedImmune Ovarian Single agent dose ranging study CRC NSCLC NSCLC Endometrial SCCHN SCCHN CLL Monalizumab + Monalizumab + Monalizumab + Monalizumab + Durvalumab Durvalumab Cetuximab Ibrutinib Monalizumab 126

  126. Slide 126: Monalizumab – Ongoing Phase 1/2 Study, Durvalumab + Monalizumab

    MONALIZUMAB – CLINICAL DEVELOPMENT PLAN ONGOING PHASE 1 STUDY, DURVALUMAB + MONALIZUMAB Data snapshot 09Feb2018. Database is open and data cleaning in progress; results subject to change Dose-Escalation Mona Mona Mona Mona Mona Dose 1 Q2W Dose 2 Q2W Dose 3 Q2W Dose 4 Q2W Dose 4 Q4W + Durva + Durva +

  127. Slide 127: Monalizumab & Cetuximab Combination

    MONALIZUMAB – CLINICAL DEVELOPMENT PLAN MONALIZUMAB & CETUXIMAB COMBINATION Rationale • High level of HLA-E expression in Evaluate safety and define SCCHN MTD/RP2D of mona+cetux • Cetuximab is approved in SCCHN, including in post-platinum setting • Cetuximab-mediated ADCC is inhibited Assess antitum

  128. Slide 128: Key Development Questions for Monalizumab

    KEY DEVELOPMENT QUESTIONS FOR MONALIZUMAB Understand which Assess potential to Understand potential pts likely to benefit combine with with tumor-targeting from Mona+Durva chemotherapy mAbs Ongoing analysis of paired tumor and blood samples Consider chemotherapy combination arms - Explore cetuximab

  129. Slide 129: Market Potential and Pipeline Newsflow

    MARKET POTENTIAL AND PIPELINE NEWSFLOW MONDHER MAHJOUBI CHIEF EXECUTIVE OFFICER

  130. Slide 130: Building an Innovative & Differentiated Pipeline

    INNATE PHARMA – PIPELINE BUILDING AN INNOVATIVE & DIFFERENTIATED PIPELINE No effective Anti-tumor immunity Sub-optimal or exhausted anti-tumor immunity suppressed by TME anti-tumor immunity Noninflamed Inflamed NK Bispecific IPH5401 Monalizumab Engagers Anti-C5aR Anti-NKG2A Antibody Drug IPH53 Liril

  131. Slide 131: IPH4102 – Targeting T-Cell Lymphoma

    IPH4102 – TARGETING T-CELL LYMPHOMA SÉZARY AS THE ENTRY POINT Increasing efficacy Combination Combination Monotherapy Monotherapy ATLL Sézary CTCL PTCL Expanding patient population 132

  132. Slide 132: IPH4102 – Commercial Opportunity

    IPH4102 – COMMERCIAL OPPORTUNITY SIGNIFICANT POTENTIAL BEYOND SÉZARY ATLL PTCL Advanced CTCL Sézary 850 pts 15000 pts 3200 pts 1000 pts* • 15% of all NHL • Highly heterogeneous • Medical need in late lines 1L 2L 3L** 3L+ • Differentiated profile • Biomarker driven therapy • Premium pricing strategy

  133. Slide 133: Monalizumab – Combination Strategy

    MONALIZUMAB – COMBINATION STRATEGY LEVERAGE NON REDUNDANT & SYNERGISTIC PATHWAYS Potentiate responses in IO Unlock responses in IO sensitive tumors resistant tumors SCCHN CRC Mona + Cetux 3L* Mona + Durva 2-4L Mona + Cetux + SoC 2L Mona + Durva + CT Mona + Cetux + RT/CT LA *3L: Potential fast to mar

  134. Slide 134: Monalizumab – Commercial Opportunity: SCCHN Current Landscape

    MONALIZUMAB – COMMERCIAL OPPORTUNITY IO SOC Other SOC SCCHN – CURRENT COMPETITIVE LANDSCAPE Resectable Unresectable Metastatic 1L 2L 35k* 40k* 65k* 25k* Cis-ineligible Cetuximab + RT 40% Adjuvant CT + Cetuximab IO Mono CT/RT Cis-eligible Cisplatin + RT 60% *Drug-treated patients in US/5EU/Jpn & Chin

  135. Slide 135: Monalizumab – Commercial Opportunity: SCCHN Future Landscape

    MONALIZUMAB – COMMERCIAL OPPORTUNITY IO SOC Other SOC SCCHN – FUTURE COMPETITIVE LANDSCAPE Resectable Unresectable Metastatic 1L 2L 3L 35k* 40k* 65k* 25k* 15k* Cis-ineligible Cetuximab + RT Adjuvant Mona + Cetux IO Combo IO Mono CT/RT Cis-eligible IO + RT/CT Mona + Cetux Mona + Cetux *Drug-treated p

  136. Slide 136: Monalizumab – Commercial Opportunity: CRC

    MONALIZUMAB – COMMERCIAL OPPORTUNITY CRC - THE NEXT BIGGEST OPPORTUNITY • Third most common cancer worldwide 2016 2026 • ~1.1m deaths by 2030 • High unmet need in the metastatic setting • Chemo + Bev or Cetux is SoC • Limited options in late lines • IO monotherapy approved in 3L MSI- high • Large ma

  137. Slide 137: IPH5401 – Unlock the Immune Response

    IPH5401– UNLOCK THE IMMUNE RESPONSE IN COMBINATION WITH ANTI PD/PD-L1 Tumor Incidence C5aR types * expression NSCLC 290K ~80% Reverse IO resistance UCC 50K ~70% Strategy Enhance IO response HCC 110K ~70% CRC 575K 60% Gastric 258K 30-35% Expand into IO refractory tumors TNBC 72K 13-27% Prostate 621K

  138. Slide 138: IPH5401 – Commercial Opportunity: NSCLC

    IPH5401 – COMMERCIAL OPPORTUNITY NSCLC – TREATING IO FAILURES Stage III-IV NSCLC* 2nd line IO-pretreated NSCLC US: 127k 260k EU5: 100k Patients Japan: 43k eligible 3rd line US: 53k EU5: 40k 110k • ~1.6m global lung cancer deaths Patients Japan: 17k eligible • IO transforming NSCLC management • Vast

  139. Slide 139: IPH5401 – Commercial Opportunity: HCC

    IPH5401 – COMMERCIAL OPPORTUNITY HCC – OPTIMIZING IO RESPONSE Advanced stage HCC* 1st line US: 5k 25k EU5: 10k Patients Japan: 10k treated 2nd line US: 5k 13k EU5: 5k Patients • >500,000 people affected Japan: treated • Third leading cause of cancer deaths 3k • Moderate activity of CPI * IO likely t

  140. Slide 140: Innate Pharma – Long Term Catalysts

    INNATE PHARMA – LONG TERM CATALYSTS IPH52 IPH52 combo IPH52 potential Ph 1 Ph 1/2 pivotal program* IPH5401 + Durva IPH5401 + PD1/L1 IPH43 IPH5401 potential IPH43 IPH43 potential Ph1/2 Ph2-3rd indication Ph 1/2 pivotal program* Ph 2/3 pivotal program* IPH4102 IPH4102 IPH4102 Pivotal-SS Ph 1/2 ATLL Pi

  141. Slide 141: Upcoming Conference AACR 2018

    UPCOMING CONFERENCE AACR 2018 INNATE PHARMA TO PRESENT NEW DATA FROM ITS IMMUNO-ONCOLOGY PORTFOLIO • Oral presentation of Eric Vivier, CSO, on next generation immunotherapies • 5 presentations by Innate Pharma teams, including: > Preliminary clinical efficacy data on monalizumab in combination with

  142. Slide 142: Questions & Answers

    QUESTIONS & ANSWERS

  143. Slide 143: Closing Remarks

    CLOSING REMARKS MONDHER MAHJOUBI CHIEF EXECUTIVE OFFICER

  144. Slide 144: Key Messages

    KEY MESSAGES World-class science and technology platform Clinical read-outs ahead for monalizumab and IPH4102 programs Delivering on IPH5401 with clinical collaborations to accelerate development Potential to address large unmet medical needs in cancer Financial strength, enabling room for investmen

  145. Slide 145: Innate Pharma – Our Ambition

    INNATE PHARMA – OUR AMBITION BUILDING IO LEADERSHIP 3 new Growing medicines pipeline by 2025 More partnerships Disciplined execution

  146. Slide 146: Thank You

    THE INNATE IMMUNITY COMPANY THANK YOU

Innate Pharma — Investor Day (March 2018) on 6ix