Corporate Overview April 8, 2022 - Nuvalent Investors
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CAUTIONARY NOTE REGARDING FORWARD-LOOKING STATEMENTS This document contains forward-looking statements within the meaning of the Private Securities Litigation Reform Act of 1995, as amended, including, without limitation, implied and express statements regarding Nuvalent's strategy, business plans, and focus; the clinical development programs for NVL-520, NVL-655, ALK IXDN compound resistance mutations and HER2 exon 20 insertions and the timing thereof; the potential clinical effect of NVL-520 and NVL-655; the design and enrollment of the ARROS-1 study and the timing thereof; the design and initiation of the ALKOVE-1 Phase 1/2 study and the timing thereof; the potential of Nuvalent's pipeline programs, including NVL-520 and NVL-655; Nuvalent's research and development programs for the treatment of cancer; risks and uncertainties associated with drug development; capital allocation; and Nuvalent’s future financial and operating results and its expectations related thereto. The words "may," "might," "will," "could," "would," "should," "expect," "plan," "anticipate," "aim," "goal," "intend," "believe," "expect," "estimate," "seek," "predict," "future," "project," "potential," "continue," "target" or the negative of these terms and similar words or expressions are intended to identify forward-looking statements, although not all forward-looking statements contain these identifying words. Drug development and commercialization involve a high degree of risk, and only a small number of research and development programs result in commercialization of a product. You should not place undue reliance on these statements or the scientific data presented. Any forward-looking statements in this document are based on management’s current expectations and beliefs and are subject to a number of risks, uncertainties, and important factors that may cause actual events or results to differ materially from those expressed or implied by any forward-looking statements contained in this press release, including, without limitation, risks associated with: risks that Nuvalent may not fully enroll the ARROS-1 study or it will take longer than expected; unexpected concerns that may arise from additional data, analysis, or results obtained during clinical trials; the occurrence of adverse safety events; risks of unexpected costs, delays, or other unexpected hurdles; the impact of COVID-19 on countries or regions in which Nuvalent has operations or does business, as well as on the timing and anticipated timing and results of its clinical trials, strategy, and future operations, including the global ARROS-1 study and the planned initiation of the ALKOVE-1 Phase 1/2 study; the timing and outcome of Nuvalent’s planned interactions with regulatory authorities; and obtaining, maintaining, and protecting its intellectual property. These and other risks and uncertainties are described in greater detail in the section entitled “Risk Factors” in the Company’s Annual Report on Form 10-K for the year ended December 31, 2021, as well as any subsequent filings with the Securities and Exchange Commission. In addition, any forward-looking statements represent Nuvalent’s views only as of April 8, 2022 and should not be relied upon as representing its views as of any subsequent date. Nuvalent explicitly disclaims any obligation to update any forward-looking statements. 2
Expertise in chemistry and Our mission is to bring Precisely designed solutions aiming to structure-based drug design new medicines to overcome limitations of existing drives wholly-owned pipeline patients with cancer therapies identified through close of novel targeted therapies collaboration with physician-scientists 3
Significant pipeline progress and value creation to date: Foundational Discovery Transformational Growth $50M Series A ✓ External corporate launch ✓ Founder and head scientific advisor Matthew Shair, PhD, ✓ Team expansion to drive transition to a clinical stage company Professor of Chemistry & Chemical Biology, Harvard University ✓ Preclinical product profiles for both NVL-520 and NVL-655 ✓ Proprietary technology developed at Nuvalent to overcome presented at AACR & EORTC-NCI-AACR dual challenges of kinase resistance and kinase selectivity ✓ $135M Series B + $191M upsized IPO (Nasdaq: NUVL) ✓ Parallel lead drug candidates nominated: ✓ First patient dosed in ARROS-1, a Phase 1/2 clinical trial of NVL-520 for patients with advanced NVL-520 NVL-655 ROS1-positive non-small cell lung cancer (NSCLC) ROS1-selective inhibitor ALK-selective inhibitor and other solid tumors ✓ Established discovery team and robust pipeline ✓ Continued advancement of NVL-655 and discovery pipeline 4
Year of Operational Execution: Double Down: Discovery & Development Vision ❖ Clinical-stage biotech with an active R&D pipeline: Discover, Develop & Deliver ▪ Efficient conduct of the Phase 1 portion of the ARROS-1 trial for NVL-520 Fully integrated pharmaceutical company ▪ Planned initiation of the ALKOVE-1 Phase 1/2 with the goal of translating deep expertise in trial in advanced ALK-positive NSCLC and chemistry & structure-based drug design into best-in-class small molecule medicines other tumors for NVL-655 for patients with cancer ▪ Planned portfolio expansion with internally discovered novel drug candidates ❖ Expected cash runway into 2024 with multiple opportunities for proof-of-concept clinical data 5
The Nuvalent Team Significant Experience in Drug Discovery, Development and Company Building LEADERSHIP TEAM BOARD OF DIRECTORS SCIENTIFIC ADVISORS James Porter, Alex Balcom, Christopher Emily Drabant Conley, PhD Matthew Shair, PhD PhD MBA, CPA Turner, MD CEO, Federation Bio Head Scientific Advisor Chief Executive Chief Financial Chief Medical Harvard Professor of Chemistry Gary Gilliland, MD, PhD & Chemical Biology Officer Officer Officer Independent Ross Camidge, MD, PhD Darlene Noci, Andrew Hack, MD, PhD Clinical Advisor Deborah Miller, Ruth Adams ALM Bain Capital Life Sciences University of Colorado PhD, JD VP, Clinical Sr VP, Product Chief Legal Operations Robert Jackson, MD Alexander Drilon, MD Development & Officer Independent Clinical Advisor Regulatory Affairs Joseph Pearlberg, MD, PhD Memorial Sloan Kettering Cancer Center Josh Horan, Benjamin Lane, Jessie Lin Deerfield Management Aaron Hata, MD, PhD PhD VP, Corporate Translational Research Advisor PhD Strategy & Portfolio Anna Protopapas VP, Pharmaceutical Mass General Cancer Center VP, Chemistry Management CEO, Mersana Development James Porter, PhD Pasi Jänne, MD, PhD CEO, Nuvalent Clinical Advisor Matthew Henry Pelish, John Soglia, PhD Dana Farber Cancer Institute Metivier PhD VP, Translational Matthew Shair, PhD VP, Human Development Harvard Professor of Chemistry Nancy Kohl, PhD VP, Biology Resources & Chemical Biology Translational Research Advisor Independent Consultant Sapna Srivastava, PhD PRIOR FDA Independent Michael Meyers, MD, PhD APPROVAL Clinical Advisor EXPERIENCE Cameron Wheeler, PhD CMO, Syndax Deerfield Management 6
Nuvalent is focused on creating precisely targeted therapies to overcome key limitations of existing therapies for clinically proven kinases and renew hope for patients in need • Expertise in structure-based drug design to create innovative small molecules • “Threading the needle”: Aim to achieve high affinity for drug-resistant kinases while avoiding off-target kinases in the central nervous system (CNS) and in the periphery • Potential to minimize adverse events AND drive more durable responses 7
ORIGINAL DRUG-RESISTANT TUMOR TUMOR & Mutation in target kinase confers resistance to existing therapy Kinase Resistance EXISTING THERAPY NUVALENT THERAPY EXISTING THERAPY NUVALENT THERAPY Structural innovations designed to overcome drug-resistance due to kinase mutations Successful inhibition of target kinase Mutation confers Designed to overcome resistance drug-resistance mutation 8
NON-SELECTIVE THERAPY SELECTIVE NUVALENT THERAPY vs. Selective inhibition potentially minimizes toxicities Kinase Selectivity Structural innovations designed to increase selectivity to potentially minimize therapy- limiting adverse events related to off-target inhibition AND drive more durable responses TA R G E T K I N A S E Adverse events due to TA R G E T K I N A S E INHIBITION off-target inhibition INHIBITION 9
ROS1 Receptor Tyrosine Kinase Genomic alterations lead to tumorigenesis and confer treatment resistance R O S 1 ( U N M U TAT E D ) ONCOGENIC ROS1 R EARRANGEMENTS S E C O N D A RY R E S I S TA N C E M U TAT I O N S Ligand-dependent ROS1 receptor activation ROS1 gene rearrangement Reported secondary e.g. CD74-ROS1 mutations mapped fusion on ROS1 kinase domain in complex Regulated Unregulated with crizotinib cell signaling cell signaling (PDB:3ZBF) Cell growth, proliferation, and differentiation Excessive cell growth and proliferation leading to tumorigenesis • ROS1-deficient mice are viable, with males • Rearrangements may result in transmembrane or • Kinase domain mutations in ROS1 confer resistance infertile and no detectable abnormalities intracellular ROS1 fusions to approved inhibitors such as crizotinib in females • ROS1 fusions have been identified across multiple • “Solvent front” mutation (e.g. G2032R, D2033N) in • In male mice, ligand NELL2 binds ROS1 in solid tumors, including NSCLC (up to 3%) adult the solvent-exposed region are the most common, epididymis to induce epididymal glioblastoma (0.5%), pediatric low-grade and high- and cause steric hinderance to drug binding differentiation for sperm maturation grade gliomas, spitzoid neoplasms (17%), IMT (~10%), • Additional mutations such as S1986Y/F and • In humans, highest expression in SGC, PTC, ALCL, SOC, IHCA, cholangiocarcinoma, and “gatekeeper” mutation L2026M have been epididymis and lung gastric and pancreatic adenocarcinoma observed Sources: Drilon et. al. Nat Rev Clin Oncol 2021; Jordan et al., Cancer Discovery. 2017; Lin and Shaw 2017 JTO; The Human Protein Atlas; Structure image from Lin and Shaw 2017 JTO Abbreviations: ALCL: Anaplastic large cell lymphoma; IHCA: Inflammatory hepatocellular adenoma; IMT: Inflammatory myofibroblastic tumor; SGC: Salivary gland carcinoma; PTC: Papillary thyroid carcinoma; ROS1: c-ros oncogene 1; SOC: Serous ovarian carcinoma (SOC); TRK: tropomyosin receptor kinase 11
ROS1-positive NSCLC Market Overview Emerging resistance mutations and increasing CNS involvement limit utility of approved therapies L I N E O F T H E R A PY S U B - PO P UL AT IO N I N C I D EN C E ( U S ) C N S D I S EA S E S TA N DA R D OF CARE (2021) Kinase ~3,000 – 4,500 Crizotinib Wild-type inhibitor naïve kinase domain newly diagnosed ~20 – 40% ROS1+ NSCLC patients / year Entrectinib Non-G2032R 1 prior kinase mutation inhibitor ~30 – 55% ROS1+ NSCLC G2032R ~41% mutation Sources: Lin et al., J Thorac Oncol 2017; Gainor et al, JCO Precision Oncol 2017; Ou and Zhu Lung Cancer 2019; Patil et al, JTO 2018 12
NVL-520 Differentiated Product Candidate for ROS1-positive NSCLC Patients NUVALENT IN VITRO PRECLINICAL CHARACTERIZATION W I L D T Y P E RO S 1 G 2 0 3 2 R RO S 1 TRKB CNS FUSION ACTIVITY ACTIVITY S PA R I N G ACTIVITY N VL-520 Yes Investigational Yes Yes Yes Predicted based on preclinical ROS1-selective inhibitor experiments FDA APPROVED C R I Z OT I N I B Yes No No No Dual ALK/ROS1 Not in FDA approved label ENTRECTINIB Yes No No Yes Dual TRK/ROS1 In FDA label LO R L AT I N I B No Yes INVESTIGATIONAL Yes No Limited selectivity at dose Dual ALK/ROS1 In FDA label for ALK NSCLC developed for ALK GR Yes R E P OT R E C T I N I B Yes Yes No Investigational: CNS activity Dual TRK/ROS1 reported in preliminary Phase 1 data No head-to-head clinical studies have been conducted for currently approved or investigational therapies versus NVL-520. Clinical investigation of NVL-520 is ongoing. Other than as indicated in the CNS Activity column, data in table above is based on preclinical experiments conducted by Nuvalent. Characterization of CNS activity for each ROS1 inhibitor is based on FDA labels and/or available clinical and preclinical data independently generated by each sponsor and not based on any preclinical experiments conducted by Nuvalent. 13
T R K I N H I B I T I O N S A F E T Y I M P L I C AT I O N S Overcoming Kinase Impairments in memory, learning and nociception Selectivity in NSCLC TRKB Development of obesity caused by ROS1 and ALK both share strong hyperphagia and hyperdipsia structural similarities to TRK Impairment of motor neuron afferents and loss of dorsal root ganglia neurons Brain penetration is needed to address associated CNS disease TRKC in ROS1 and ALK driven cancers Defect in proprioception Inhibitors must be highly Congenital insensitivity to selective to avoid CNS toxicities pain with anhidrosis (CIPA) from off-target inhibition of TRK TRKA Severe sensory and sympathetic neuropathies Sources: Adapted from Cocco, Scaltriti and Drilon Nat Rev Clin Oncol 2018 14
N V L - 5 2 0 R O S 1 - S E L E C T I V E TA R G E T P R O D U C T P R O F I L E Wild-type ROS1 fusions ROS1 ACTIVITY Emergent ROS1 resistance mutations: NVL-520 G2032R, D2033N, L2026M, S1986Y/F ROS1 NSCLC vs. TRK, to minimize CNS adverse events Development Strategy SELECTIVITY vs. Other off-targets kinases Optimize for brain penetrance to improve CNS ACTIVITY treatment options for patients with brain metastases 15
Preclinical NVL-520 activity against ROS1 Wild-type ROS1 Fusions, in vitro and in vivo NSCLC models NVL-520 in vitro in vivo ROS1-selective Target Product Profile IC50 cell viability assay SDC4-ROS1 wild-type NSCLC PDX model Ba/F3 CD74-ROS1 NVL-520 was well-tolerated in all in vivo studies Wild-type ROS1 fusions WILD-TYPE 2048 ROS1 ACTIVITY ROS1 FUSION 1024 vehicle Resistance mutations 512 NVL-520 1.2 nM Tumor 256 0.04 mg/kg * TRK C R I Z OT I N I B 40 nM 128 volume 64 SELECTIVITY (mm3 ) Other off- ENTRECTINIB 23 nM 32 0.2 mg/kg * targets 16 L O R L AT I N I B 1.3 nM 8 BID PO, n=5 1 mg/kg * Brain CNS ACTIVITY R E P OT R E C T I N I B 4.4 nM 4 penetration 0 7 14 21 28 Days on treatment *p < 0.0001 vs. vehicle by 2-way repeat measure ANOVA with Geisser-Greenhouse correction followed by Dunnett’s multiple comparison test Experiments not powered to determine the statistical significance of differences in measurements between any of the inhibitors tested. No head-to-head clinical studies have been conducted for currently approved or investigational therapies versus NVL-520. Clinical investigation of NVL-520 is ongoing. Source: Pelish, H.E., Tangpeerachaikul, A., Kohl, N.E., Shair, M.D., Porter, J.R., and Horan, J.C. AACR Conference 2021 16
Preclinical NVL-520 activity against ROS1 Clinically Relevant Drug-Resistant Mutations, in vitro and in vivo ROS1 fusion NSCLC models NVL-520 in vitro ROS1 ROS1-selective IC50 cell viability assays NVL-520 CRIZOTINIB ENTRECTINIB LORLATINIB REPOTRECTINIB STATUS Target Product Profile MGH9018-1 PDC, CD74-ROS1 G2032R 4.7 nM 1000 nM 590 nM 460 nM 30 nM Ba/F3 CD74-ROS1 G2032R 3.5 nM 960 nM 1,500 nM 300 nM 25 nM Wild-type S1986F
Preclinical ability of NVL-520 to avoid off-target TRK inhibition Potential for Differentiation vs CNS Active Dual TRK/ROS1 Inhibitors Entrectinib and Repotrectinib More selective NVL-520 for ROS1 variant 730x ROS1 fusion variants: wt: wild-type GR: G2032R 1000 ROS1-selective 240x Target Product Profile 100 Wild-type ROS1 fusions 7.8x 10 ROS1 ACTIVITY Resistance Relative selectivity ROS1 3.0x ROS1 ROS1 ROS1 mutations for ROS1 vs. TRKB GR GR wt GR TRK selectivity 1 IC50 (pTRKB) ROS1 ROS1 ROS1 ROS1 TRK = wt GR wt wt 0.3x IC50 (Ba/F3 CD74-ROS1) 0.1 0.19x SELECTIVITY Other off- 0.047x targets 0.034x 0.01 ROS1 Brain wt = wild-type CNS ACTIVITY GR = G2032R penetration 0.001 More selective for TRKB NUV-520 NVL-520 Crizotinib Entrectinib Repotrectinib TRKB activity as measured by a cell TRKB phosphorylation assay. Phosphorylation of intracellular TRKB was measured in Ba/F3 cells expressing full-length TRKB and stimulated by BDNF using the phospho-TRK AlphaLISA kit. TRKB activity was also measured in additional internal assays, where results were consistent in relative terms. Compounds that showed greater selectivity in one assay also showed greater selectivity in all other investigated assays. Experiments not powered to determine the statistical significance of differences in measurements between any of the inhibitors tested. No head-to-head 18 clinical studies have been conducted for currently approved or investigational therapies versus NVL-520. Clinical investigation of NVL-520 is ongoing. Source: Tangpeerachaikul, A., Horan, J.C, and Pelish, H.E. AACR-NCI-EORTC 2021
Selectivity of NVL-520 for ROS1 over other kinases Preclinical Kinome Selectivity Screen: 335 Wild Type Kinases ALK ROS1 NVL-520 ROS1-selective Target Product Profile S ELECTIVITY I NDEX KINASE Relative to ROS1-wt Wild-type 1x ROS1 ROS1 fusions ROS1 ACTIVITY 1 – 10x ALK Resistance mutations 10 – 50x LTK, FAK, PYK2, TRKB, FER TRK >50x 328 other kinases SELECTIVITY Other off- targets Brain IC50 (kinase of interest) CNS ACTIVITY Selectivity index = penetration IC50 (ROS1 wild-type) Eid S. et al. Bioinformatics 2017 Illustration reproduced courtesy of Cell Signaling Technologies, Inc. (www.cellsignal.com) 19 Source: Pelish, H.E., Tangpeerachaikul, A., Kohl, N.E., Shair, M.D., Porter, J.R., and Horan, J.C. AACR Conference 2021
Preclinical brain penetrance of NVL-520 Pharmacokinetic Data Similar to Preclinical Observations for Lorlatinib NVL-520 ROS1-selective Target Product Profile in vivo 0.5 Wistar Han rats Wild-type Dose: 10 mg/kg QDx1 PO 0.4 ROS1 fusions 1h timepoint ROS1 ACTIVITY unbound 0.3 Resistance mutations brain:plasma ratio 0.2 TRK (Kp,uu) 0.1 SELECTIVITY Other off- targets 0.0 NVL-520 Lorlatinib Brain CNS ACTIVITY penetration Experiments not powered to determine the statistical significance of differences in measurements between any of the inhibitors tested. No head-to-head clinical studies have been conducted for currently approved or investigational therapies versus NVL-520. Clinical investigation of NVL-520 is ongoing. 20 Source: Data on file
Preclinical CNS anti-tumor activity of NVL-520 Reduction of Brain Tumors and Extended Median Survival in a Preclinical Model vehicle NVL-520 ROS1-selective Target Product Profile 0 Treatment 100 NVL-520 * Wild-type Day 2 mg/kg ROS1 fusions 16 ROS1 ACTIVITY Resistance Survival mutations (%) 50 vehicle TRK NVL-520 2 mg/kg BID (PO) SELECTIVITY Other off- 0 targets 0 0 7 14 21 28 35 42 49 56 63 Treatment Brain Day Days on treatment CNS ACTIVITY penetration 16 Ba/F3 CD74-ROS1 G2032R stably expressing luciferase * Median survival was 16.5 days for vehicle group and >61 days for the NVL-520-treated group, corresponding to a significant median overall survival extension >3.7-fold (p-value < 0.0001, log-rank Mantel-Cox test). 21 Source: Pelish, H.E., Tangpeerachaikul, A., Kohl, N.E., Shair, M.D., Porter, J.R., and Horan, J.C. AACR Conference 2021
C O UN T RY I N S T IT UT I O N* MGH (Boston, MA) MDACC (Houston, TX) MSKCC (New York, NY) First-in-Human (FIH) Phase 1/2 Clinical Trial of NVL-520 in Advanced ROS1-Positive NSCLC University of Colorado (Denver, CO) and Other Solid Tumors (NCT05118789) Sarah Cannon (Nashville, TN) ✓ Sites selected to target global experts in TKI NSCLC early UCI Medical Center (Irvine, CA) development (ROS1 and ALK Programs) Vall d-Hebron (Barcelona) ✓ Phase 1 portion of ARROS-1 open and actively enrolling Gustave-Roussy (Paris) ✓ Ongoing site expansion in the US and Europe UMCG (Groningen) * Non-exhaustive list of planned and active sites. Please refer to clinicaltrials.gov for the most up to date list of sites. 22
First-in-Human Phase 1/2 Clinical Trial of NVL-520 in Advanced ROS1-Positive NSCLC and Other Solid Tumors (NCT05118789) Phase 2 Cohorts Designed to Support Potential Registration in Kinase Inhibitor Naive or Previously Treated ROS1-positive NSCLC Phase 2 Phase 1 PRIOR PRIOR COHORT TUMOR TYPE DETAIL ROS1 TKI CHEMO/I-O** 150 mg QD 2a ROS1-positive NSCLC Naive ≤1 125 mg QD Subset analysis for 2b ROS1-positive NSCLC 1* Naive G2032R 100 mg QD Subset analysis for 2c ROS1-positive NSCLC 1* 1 G2032R 75 mg QD Subset analysis for 2d ROS1-positive NSCLC 2+ ≤1 G2032R 50 mg QD Any ROS1-positive 25 mg QD 2e Any Any Exploratory Cohort Solid Tumor*** ✓ Safety / Tolerability PURPOSE Cohorts 2a, 2b, 2c, and 2d were designed to support potential registration ✓ Determine/Confirm RP2D *Either crizotinib or entrectinib; ** Platinum-based chemotherapy ± immunotherapy; *** Includes NSCLC who do not qualify for any of the other cohorts I-O: Immunotherapy; RP2D: Recommended Phase 2 Dose; TKI: Tyrosine Kinase Inhibitor 23
NVL-655 Next generation ALK-selective inhibitor 24
Anaplastic Lymphoma Kinase (ALK) Genomic alterations lead to tumorigenesis and treatment resistance A L K ( U N M U TAT E D ) O N C O G E N I C A L K A LT E R AT I O N S S E C O N D A RY R E S I S TA N C E M U TAT I O N S Ligand-dependent ALK receptor activation ALK gene rearrangement Reported secondary e.g. EML4-ALK mutations mapped fusion Activating on ALK kinase point domain in complex Regulated Unregulated mutations with crizotinib cell signaling cell signaling (PDB:2XP2) Cell growth, proliferation, and differentiation Excessive cell growth and proliferation leading to tumorigenesis • Limited data is available • Activating ALK gene rearrangements and point • Growing clinical evidence suggests that different characterizing function and ligand- mutations have been reported in multiple solid and resistance mutation patterns may emerge depending on stimulated activation hematologic tumor types the ALK TKI used and line of therapy • Expression pattern in humans • ALK rearrangements define a distinct molecular • “Solvent front” mutations (e.g. G1202R, D1203N) in the suggests a role in early nervous subtype of NSCLC, occurring in ~5% of NSCLC cases solvent-exposed region cause steric hinderance to drug system development, with low with EML4 being the most common fusion partner binding expression in adults • ALK tyrosine kinase inhibitors (TKIs) have • Compound mutations (“solvent front” mutation G1202R + • Knockout mice are viable revolutionized care of ALK-positive NSCLC patients, “gatekeeper” mutation L1196M) have been observed with multiple generations of inhibitors now available upon sequential alectinib/lorlatinib treatment Sources: Palmer et. al. Biochem J 2009; Hallberg & Palmer Nat Rev Cancer 2013; Hallberg & Palmer Ann of Oncol 2016; Gainor et. al. Cancer Discov 2016; 25
ALK-Positive NSCLC Market Overview Emerging Resistance Mutations and Increasing CNS Involvement Limit Utility of Approved Therapies L I N E O F T H E R A PY S U B - PO P UL AT IO N I N C I D EN C E ( U S ) C N S D I S EA S E S TA N DA R D OF CARE (2021) Brigatinib Kinase ~9,000 – 18,000 newly Alectinib Ceritinib Wild-type inhibitor naïve kinase domain diagnosed patients / ~30 – 40% (preferred) Crizotinib ALK+ NSCLC year Lorlatinib G1202R ~35% 1 prior kinase inhibitor I1171N/S/T ~15 – 30% > 60% Lorlatinib ALK+ NSCLC Other G1202R/L1196M G1202R/G1269A 2 prior kinase inhibitors G1202R/L1198F > 60% ALK+ NSCLC I1171N / D1203N Other Sources: Ou and Zhu Lung Cancer 2019; Kris et. al. JAMA 2014; Shaw and Engelman J Clin Onc 2013; Noé et. al. J Thor Onc 2019; Peters et. al. NEJM 2017; Shaw et. al. Lancet Onc 2017; Dagogo-Jack et. al. Clin Cancer Res 2019 26
NVL-655 Differentiated Product Candidate for ALK-positive NSCLC patients NUVALENT IN VITRO PRECLINICAL CHARACTERIZATION WILD-TYPE ALK G1202R ALK GRLM, GRGA & GRLF TRKB CNS FUSION ACTIVITY ACTIVITY ALK ACTIVITY SPARING ACTIVITY N V L - 655 Yes Investigational Yes Yes Yes Yes Predicted based on preclinical ALK-selective inhibitor experiments C R I Z OT I N I B Yes No No No No Not in FDA label CERITINIB Yes No No Yes Yes In FDA label FDA APPROVED ALECTINIB Yes No No Yes Yes In FDA label B R I G AT I N I B Yes No No Yes Yes In FDA label No Yes L O R L AT I N I B Yes Yes No Limited selectivity at dose In FDA label developed for ALK GR No head-to-head clinical studies have been conducted for currently approved or investigational therapies versus NVL-655. No clinical studies have been conducted with NVL-655. Other than as indicated in the CNS Activity column, data in table above is based on preclinical experiments conducted by Nuvalent. Characterization of CNS activity for each ALK inhibitor is based on FDA labels and/or available clinical and preclinical data independently generated by each sponsor and not based on any preclinical experiments conducted by Nuvalent. GR: G1202R; LM: L1196M; GA: G1269A; LF: L1198F 27
N V L - 6 5 5 A L K - S E L E C T I V E TA R G E T P R O D U C T P R O F I L E Wild-type ALK fusions ACTIVITY Emergent ALK resistance mutations: G1202R single and compound mutations NVL-655 (G1202R/L1196M, G1202R/G1269A, ALK NSCLC G1202R/L1198F) Development Strategy vs. TRK, to minimize CNS adverse events SELECTIVITY vs. Other off-target kinases Optimize for brain penetrance to improve CNS ACTIVITY treatment options for patients with brain metastases 28
Preclinical NVL-655 activity against ALK Wild-type ALK Fusions, in vitro NSCLC models NVL-655 ALK-selective Target Product Profile in vitro Wild-type ALK fusion ALK ACTIVITY IC50 cell viability assay (nM) NVL-655 C R I Z OT I N I B CERITINIB ALECTINIB B R I G AT I N I B L O R L AT I N I B Resistance mutations NCI-H2228 (EML4-ALK v3) 0.70 nM 90 nM 55 nM 13 nM 13 nM < 1.1 nM NCI-H3122 (EML4-ALK v1) 2.0 nM 180 nM 48 nM 22 nM 22 nM 3.5 nM TRK Ba/F3 EML4-ALK v1 1.6 nM 270 nM 90 nM 25 nM 42 nM 4.2 nM SELECTIVITY Other off- IC50: 0-49 nM; 50 - 499 nM; ≥ 500 nM targets Brain CNS ACTIVITY penetration Experiments not powered to determine the statistical significance of differences in measurements between any of the inhibitors tested. No head-to-head clinical studies have been conducted for currently approved therapies versus NVL-655. No clinical studies have been conducted with NVL-655. Source: Pelish, H.E., Tangpeerachaikul, A., Kohl, N.E., Shair, M.D., Porter, J.R., and Horan, J.C. AACR Conference 2021 29
Preclinical NVL-655 activity against ALK Clinically Relevant Drug-Resistant G1202R+ Mutations, in vitro and in vivo ALK fusion NSCLC models NVL-655 in vitro ALK-selective IC50 cell viability assay (nM) NVL-655 C R I Z OT I N I B CERITINIB ALECTINIB B R I G AT I N I B L O R L AT I N I B Target Product Profile G1202R < 0.73 nM 950 nM 570 nM 1600 nM 400 nM 120 nM Wild-type G1202R/L1196M 7.0 nM 1500 nM 1400 nM 2200 nM 820 nM 3900 nM ALK fusion ALK ACTIVITY G1202R/G1269A 3.0 nM 1100 nM 350 nM 1300 nM 240 nM 970 nM Resistance G1202R/L1198F 2.0 nM 170 nM 1300 nM 2200 nM 470 nM 720 nM mutations IC50: 0-49 nM; 50 - 499 nM; ≥ 500 nM TRK in vivo 2048 vehicle 2048 vehicle 1024 1024 SELECTIVITY 0.3 mg/kg Other off- Ba/F3 EML4-ALK v1 512 512 10 mg/kg Tumor 256 256 Lorlatinib targets G1202R/L1196M NVL-655 CDX models volume 128 128 3 Brain (mm ) 64 64 CNS ACTIVITY 1.5 mg/kg * 32 penetration NVL-655 was 32 well-tolerated in 16 16 BID PO, n=5 BID PO, n=5 all in vivo studies 8 8 0 7 14 0 7 14 Days on treatment Days on treatment *p < 0.0001 vs. vehicle by two-way repeat measures ANOVA followed by Tukeys post hoc comparisons of the means Experiments not powered to determine the statistical significance of differences in measurements between any of the inhibitors tested. No head-to-head clinical studies have been conducted for currently approved therapies versus NVL-655. No clinical studies have been conducted with NVL-655. 30 Source: Pelish, H.E., Tangpeerachaikul, A., Kohl, N.E., Shair, M.D., Porter, J.R., and Horan, J.C. AACR Conference 2021
Preclinical NVL-655 activity against ALK Clinically Relevant Drug-Resistant non-G1202R+ Mutations, in vitro and in vivo ALK fusion NSCLC models NVL-655 in vitro ALK-selective Target Product Profile IC50 cell viability assay (nM) NVL-655 C R I Z OT I N I B CERITINIB ALECTINIB B R I G AT I N I B L O R L AT I N I B L1196M 29 nM 1100 nM 79 nM 120 nM 100 nM 86 nM Wild-type I1171N 27 nM 320 nM 140 nM 570 nM 30 nM 59 nM ALK fusion ALK ACTIVITY IC50: 0-49 nM; 50 - 499 nM; ≥ 500 nM Resistance mutations 2048 2048 TRK in vivo vehicle vehicle 1024 1024 SELECTIVITY Ba/F3 EML4-ALK v1 512 512 Other off- Tumor 1.5 mg/kg I1171N CDX model volume 256 * 256 targets NVL-655 was (mm3) 128 NVL-655 128 well-tolerated in all 4.5 mg/kg * Brain 7.5 mg/kg Lorlatinib CNS ACTIVITY in vivo studies 64 * 64 penetration BID PO, n=5 BID PO, n=5 5 mg/kg * 32 32 0 7 14 0 7 14 Days on treatment Days on treatment *p < 0.0001 vs. vehicle by two-way repeat measures ANOVA followed by Tukeys post hoc comparisons of the means Experiments not powered to determine the statistical significance of differences in measurements between any of the inhibitors tested. No head-to-head clinical studies have been conducted for currently approved therapies versus NVL-655. No clinical studies have been conducted with NVL-655. Source: Tangpeerachaikul, A., Deshpande, A., Kohl, N.E., Horan, J.C, and Pelish, H.E.. AACR-NCI-EORTC 2021 31
Preclinical ability of NVL-655 to avoid off-target TRK inhibition Potential for Differentiation vs CNS Active ALK Inhibitor Lorlatinib NVL-655 More selective ALK fusion variants: wt: wild-type GR: G1202R ALK-selective for ALK variant GRLM: G1202R/L1196M GRGA: G1202R/G1269A 870x 1000 Target Product Profile 390x 210x 200x 91x Wild-type 100 ALK fusion ALK ACTIVITY Relative selectivity 9x Resistance for ALK vs. TRKB 10 mutations TRK selectivity 1.4x ALK ALK ALK ALK ALK ALK ALK ALK ALK IC50 (pTRKB) GR GRLM GRGA GRLM GRGA wt GR GRLM GRGA 1 TRK = ALK ALK ALK ALK ALK ALK ALK IC50 (Ba/F3 EML4-ALK) wt GR GRLM GRGA wt wt GR 0.8x SELECTIVITY 0.4x ALK 0.2x 0.3x 0.2x Other off- wt = wild-type 0.1 0.1x 0.1x targets GR = G1202R 0.07x 0.06x LM = L1196M GA = G1269A Brain 0.01 CNS ACTIVITY More selective NVL-655 Crizotinib Lorlatinib TPX-0131 penetration for TRKB TRKB activity as measured by a cell TRKB phosphorylation assay. Phosphorylation of intracellular TRKB was measured in Ba/F3 cells expressing full-length TRKB and stimulated by BDNF using the phospho-TRK AlphaLISA kit. TRKB activity was also measured in additional internal assays, where results were consistent in relative terms. Compounds that showed greater selectivity in one assay also showed greater selectivity in all other investigated assays. Experiments not powered to determine the statistical significance of differences in measurements between any of the inhibitors tested. No head-to-head clinical studies have been conducted for currently approved or investigational therapies versus NVL-655. No clinical studies have been conducted with NVL-655. Sources: Tangpeerachaikul, A., Deshpande, A., Kohl, N.E., Horan, J.C, and Pelish, H.E. AACR-NCI-EORTC 2021; 32 Tangpeerachaikul, A., Bigot, L., Friboulet, L., and Pelish, H.E. AACR 2022.
Selectivity of NVL-655 for ALK over other kinases Preclinical Kinase Selectivity Screen: 335 Wild Type Kinases ALK ROS1 NVL-655 ALK-selective S ELECTIVITY I NDEX KINASE Target Product Profile Relative to ALK wt Wild-type 1x ALK, ROS1 ALK fusion ALK ACTIVITY 1 – 10x LTK, PYK2, TRKB*, FAK Resistance SLK, TRKA, FER, MUSK, mutations 10 – 50x EPHA6, TRKC TRK >50x 323 other kinases SELECTIVITY *Due to limitations of this biochemical assay, the actual Other off- fold selectivity over TRKs may be greater than shown. The targets prior analysis presents selectivity of NVL-655 over TRKB in Brain a more physiologically relevant context. CNS ACTIVITY penetration IC50 (kinase of interest) Selectivity index = IC50 (ALK wild-type) Eid S. et al. Bioinformatics 2017 Illustration reproduced courtesy of Cell Signaling Technologies, Inc. (www.cellsignal.com) 33 Source: Pelish, H.E., Tangpeerachaikul, A., Kohl, N.E., Shair, M.D., Porter, J.R., and Horan, J.C. AACR Conference 2021
Preclinical brain penetrance of NVL-655 Pharmacokinetic Data Similar to Preclinical Observations for Lorlatinib NVL-655 ALK-selective in vivo Target Product Profile 0.5 Wistar Han rats Dose: 10 mg/kg QDx1 PO Wild-type 1h timepoint 0.4 ALK fusion ALK ACTIVITY unbound 0.3 Resistance mutations brain:plasma ratio 0.2 TRK (Kp,uu) 0.1 SELECTIVITY Other off- targets 0.0 NVL-655 Lorlatinib Brain CNS ACTIVITY penetration Experiments not powered to determine the statistical significance of differences in measurements between any of the inhibitors tested. No head-to-head clinical studies have been conducted for currently approved or investigational therapies versus NVL-655. No clinical studies have been conducted with NVL-655. Source: Pelish, H.E., Tangpeerachaikul, A., Kohl, N.E., Shair, M.D., Porter, J.R., and Horan, J.C. AACR Conference 2021 34
Preclinical CNS anti-tumor activity of NVL-655 Reduction of Brain Tumors and Extended Median Survival in a Preclinical Model NVL-655 Vehicle BID (PO) ALK-selective 100 Target Product Profile 0 vehicle Treatment NVL-655 Wild-type Survival Day >4 fold 4.5 mg/kg ALK fusion 50 10 (%) ALK ACTIVITY Resistance mutations 0 TRK NVL-655 4.5 mg/kg BID (PO) 0 14 28 42 56 SELECTIVITY Days on treatment Other off- 0 targets Ba/F3 EML4-ALK v1 G1202R/L1196M stably expressing luciferase. Treatment Median survival was 15 days for vehicle group and >65 days for the NVL-655- Brain Day CNS ACTIVITY treated group, corresponding to a significant median overall survival extension of penetration >4-fold (p-value < 0.0001, log-rank Mantel-Cox test). Vehicle is 20% HP-β-CD. 10 Source: Tangpeerachaikul, A., Deshpande, A., Kohl, N.E., Horan, J.C. and Pelish, H.E. EORTC-NCI-AACR Conference 2021 35
First-in-Human Phase 1/2 Clinical Trial of NVL-655 in Advanced ALK-Positive NSCLC and Other Solid Tumors Phase 1 Portion Planned to Initiate in 2Q 2022 Phase 2 Phase 1 PRIOR ALK-positive Solid Tumors with ≥1 ALK TKI* COHORT TUMOR TYPE PRIOR ALK TKI** CHEMO and/or I -O Dose Level 6 1 prior 2nd generation 2a ALK fusion-positive NSCLC 0 – 2 lines (ceritinib, alectinib, or brigatinib) Dose Level 5 2 – 3 prior 1st or 2nd generation 2b ALK fusion-positive NSCLC 0 – 2 lines (crizotinib, ceritinib, alectinib, or brigatinib) Dose Level 4 2 – 3 prior, with lorlatinib in 2nd or 3rd line of 2c ALK fusion-positive NSCLC 0 – 2 lines Dose Level 3 therapy Other ALK-positive solid tumors Dose Level 2 & ≥ 1 prior systemic therapy (or for whom no 2d*** Any ALK-positive NSCLC satisfactory standard therapy exists) Dose Level 1 not eligible for 2a-c ✓ Safety / Tolerability PURPOSE Cohorts 2a, 2b, and 2c may be expanded to support potential registration ✓ Determine/Confirm RP2D * Patients with ALK fusion-positive NSCLC must have previously received ≥1 ALK TKI, one of which must be a 2nd or 3rd generation TKI (ceritinib, alectinib, brigatinib, or lorlatinib), while those with other solid tumors must have previously received ≥1 prior systemic anticancer therapy or be those for whom no satisfactory standard therapy exists. ** Excluding investigational agents targeting ALK (except for cohort 2d). *** Exploratory cohort, includes patients age ≥ 12 years with weight > 40 kg. ALK-positive: Positive for Anaplastic Lymphoma Kinase fusion or mutation; NSCLC: Non small cell lung cancer; RP2D: Recommended Phase 2 Dose; TKI: Tyrosine Kinase Inhibitor 36
Pipeline Expansion 37
Close Partnership with Physician-Scientists • Characterize emerging medical needs for patients • Refine understanding of safety events observed with currently available multi-kinase inhibitors Rigorous Target Selection Pipeline • Combine clinical insights with internal expertise in chemistry and structure-based drug design and development Expansion • Prioritize opportunities with an aim to maximize patient impact through more selective kinase inhibitor design Rigorous Target Selection and Disciplined Advancement of Discovery Programs Disciplined Program Advancement PROGRAM 1 • Well defined selection criteria PROGRAM 2 • Focused resource deployment on opportunities with potential for PROGRAM 3 immediate impact 38
Key Discovery Programs Research Programs Prioritized Following Assessment of Emerging Medical Needs ALK IXDN Resistance Mutations HER2 Exon 20 Insertions (DC Nomination 2022) (DC Nomination 2022) TARGET PRODUCT PROFILE: TARGET PRODUCT PROFILE: Selectively target ALK, ALK IX, and ALK IXDN Selectively target mutant HER2 Spare TRKB (related to CNS adverse events) Spare wild-type EGFR (related adverse events include skin rash and diarrhea) Strong preclinical brain penetrance (30-40% of patients present with brain metastases) Strong preclinical brain penetrance (~20% of patients present with brain metastases) No FDA approved agents: No FDA approved agents: Emergent mutations following treatment with currently Standard of Care is platinum-based chemotherapy approved ALK inhibitors IX: I1171X resistance mutation, (X = N, S, or T); IXDN: I1171X/D1203N compound mutation Sources: Cocco, Scaltriti and Drilon Nat Rev Clin Oncol 2018; Ou and Zhu Lung Cancer 2019; Shaw et al., NEJM 2020; Offin et al, Cancer 2019 39
Nuvalent Pipeline – Ongoing Programs Advancing parallel lead programs in ROS1-positive and ALK-positive NSCLC, and multiple early-stage discovery programs LEAD PRODUCT SELECTED IND ANTICIPATED COMMERCIAL INDICATION CANDIDATE MUTATION(S) DISCOVERY ENABLING PHASE 1 PHASE 2 PHASE 3 MILESTONES RIGHTS G2032R, Phase 1 portion S1986Y/F, ROS1 NSCLC NVL-520 L2026M, of Phase 1/2 trial open & enrolling D2033N G1202R Phase 1 portion G1202R/L1196M of Phase 1/2 trial ALK NSCLC NVL-655 G1202R/G1269A expected to G1202R/L1198F initiate 2Q 2022 Drug candidate I1171X / D1203N ALK NSCLC (X = N, S, or T) nomination expected in 2022 Drug candidate Exon 20 HER2 NSCLC Insertions nomination expected in 2022 Additional Discovery Research Programs Ongoing 40
▪ Innovative molecular structures with the potential to overcome the dual challenges of kinase resistance and selectivity in the CNS and in the periphery ▪ Potential for differentiated inhibition of proven kinase targets with opportunities for clinical utility earlier in the treatment paradigm Parallel lead programs in ROS1-positive and ALK-positive NSCLC: 2022 operational focus on efficient conduct of concurrent Phase 1/2 clinical trials Robust development pipeline leveraging established approach: Planned portfolio expansion in 2022 with internally discovered novel drug candidates Expected cash runway into 2024 41
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