Imunon, Inc. · NASDAQ:IMNN

Imunon — Investor Day (September 2023)

95 slides from Imunon's investor day presentation, Sep 14, 2023

  1. Slide 1: Harnessing the Power of the Immune System: R&D Day

    Harnessing the Power of R&D Day the Immune System September Nasdaq: IMNN 14, 2023 © 2023 IMUNON, Inc. PAGE 1

  2. Slide 2: Corinne Le Goff, Pharm.D, M.B.A.

    Corinne Le Goff, Pharm.D, M.B.A. President & CEO IMUNON © 2023 IMUNON, Inc. PAGE 2

  3. Slide 3: Safe Harbor Statement

    Safe Harbor Statement This presentation and any statements made during any presentation or meeting contain forward-looking statements related to Imunon, Inc. (“Imunon”) under the safe harbor provisions of Section 21E of the Private Securities Litigation Reform Act of 1995 and are subject to risks an

  4. Slide 4: Today's Agenda

    Today’s Agenda Introduction Corinne Le Goff, Pharm.D, PhD 4:00 – 4:15pm President & CEO IMUNON The Vaccines of the Future Sallie Permar, MD, PhD 4:15 – 4:35pm Nancy C. Paduano Professor and Chair Weill Cornell Medicine IMNN-101 Development Plan Khursheed Anwer, PhD 4:35 – 4:45pm CSO Immuno-Oncology:

  5. Slide 5: Transforming Medicine with Our Disruptive Non-Viral DNA Technology

    Transforming Medicine with Our Disruptive Non-Viral DNA Technology Proprietary Synthetic Delivery and Facilitating System, that promotes DNA Protection, Uptake, Bioavailability and Enhanced Antigen Expression ra Th e P l a s Pl a C C i n e NEXT GEN NEXT GEN IMMUNO Gene Therapy MODULATION PROPHYLACTI

  6. Slide 6: IMUNON Strategy to Build a Fully Integrated Biotech Company

    IMUNON Strategy to Build a Fully Integrated Biotech Company FOCUS ON IMMUNO-ONCOLOGY GMP MANUFACTURING Cytokines Coding & Cancer Vaccines In-house Early Development Scale FOCUS ON INFECTIOUS DISEASES WORLD CLASS PARTNERS Pathogen Antigens Coding Vaccines To Expand our R&D Capabilities M&A POTENTIAL

  7. Slide 7: IMUNON's Technology Advantages in Prophylactic Vaccines

    IMUNON’s Technology Advantages in Prophylactic Vaccines Durability of Flexible Speed protection manufacturing Durable antigen expression Non-viral DNA is a platform Simple handling & distribution Induces robust immunological Ability to go from sequence Stability and long shelf-life at response to th

  8. Slide 8: IMUNON's Technology Advantages in Cancer Vaccines

    makes the assumption the immune system can see th IMUNON’s Technology Advantages in Cancer Vaccines Fully personalised vaccines based on individual patient’s cancer genotypes are feasible Several vaccine platforms have high antigen capacities and short timelines to manufacture. . Choices as to which

  9. Slide 9: IMUNON's Pipeline of DNA-based Transformative Medicines

    IMUNON’s Pipeline of DNA-based Transformative Medicines Modality Program Indication(s) Discovery IND Phase 1 Phase 2 Partnerships enabling Advanced Ovarian, IL-12 (OVATION) Fallopian Tube or Primary IMNN-001 (formerly GEN-1) Intraperitoneal (IP) Peritoneal Cancer TheraPlas IL-12 IP in Advanced Ovari

  10. Slide 10: Financial Summary & Upcoming Key Milestones

    Financial Summary & Upcoming Key Milestones: Robust Flow of Value Creating Activities Cash , Cash Equivalents & Investments IMNN-001 OVATION 2 IMNN-001 OVATION 2 Interim Data Topline Results $ $24.1M As of June 30, 2023 Interim Results IMNN-001 + bevacizumab Shares Outstanding IMNN-101 IMNN-102 SARS

  11. Slide 11: Dr. Sallie Permar, MD, Ph.D.

    Dr. Sallie Permar, MD, Ph.D. Nancy C. Paduano Professor and Chair Weill Cornell Medicine © 2023 IMUNON, Inc. PAGE 11

  12. Slide 12: Dr. Khursheed Anwer, Ph.D.

    Dr. Khursheed Anwer, Ph.D. CSO IMUNON © 2023 IMUNON, Inc. PAGE 12

  13. Slide 13: Dr. Patrick Ott, MD, Ph.D.

    Dr. Patrick Ott, MD, Ph.D. Associate Professor, Medicine Harvard Medical School Clinical Director, Melanoma Center Dana-Farber Cancer Institute © 2023 IMUNON, Inc. PAGE 13

  14. Slide 14: Dr. Khursheed Anwer, Ph.D.

    Dr. Khursheed Anwer, Ph.D. CSO IMUNON © 2023 IMUNON, Inc. PAGE 14

  15. Slide 15: © 2023 IMUNON, Inc. PAGE

    SIMUNON | © 2023 IMUNON, Inc.

  16. Slide 16: Vaccines of the Future

    Vaccines of the Future Sallie Permar, MD, PhD Nancy C. Paduano Professor and Chair, Weill Cornell Medicine Pediatrician-in-Chief, NewYork-Presbyterian/Weill Cornell Medical Center @salliepermar

  17. Slide 17: Dr. Permar is a consultant for Pfizer, Merck, Moderna, GSK

    Dr. Permar is a consultant for Pfizer, Merck, Moderna, GSK, Hoopika, and Dynavax CMV vaccine programs

  18. Slide 18: Highly successful SARS-CoV-2 mRNA/LNP vaccine developed in warp speed

    Highly successful SARS-CoV-2 mRNA/LNP vaccine developed in “warp speed”

  19. Slide 19: Congenital Cytomegalovirus (CMV)

    Congenital Cytomegalovirus (CMV) • Most common congenital infection and cause of birth defects worldwide – 1/200 (0.5%) live-born infants globally – 40,000 cases annually in US, ~5,000 have permanent sequelae – 4 billion cost annually in US • Leading cause of pediatric neurologic deficits – Up to 25

  20. Slide 20: 50+ years of CMV vaccine development, yet no approved vaccine

    50+ years of CMV vaccine development, yet we still await an approved vaccine Vaccine Platform Phase Efficacy 1972 Live attenuated Phase I,II Reduction of disease in renal tx Live viral vectors Phase I - gB subunit Phase I,II 50% eVLP Phase I - Single round DISC Phase I,II 42% vectors PC subunit/MVA

  21. Slide 21: The rate of pandemics is increasing

    The rate of pandemics is increasing

  22. Slide 22: Deadly endemic infections still require novel vaccine efforts

    Yet, deadly endemic infections still require novel vaccine efforts

  23. Slide 23: Populations vulnerable to infectious diseases are increasing

    Populations vulnerable to infectious diseases are increasing: elderly and immunocompromised

  24. Slide 24: Pregnant women and children frequently more vulnerable to pandemic variants

    Pregnant women and children frequently more vulnerable to pandemic variants • Pregnant/lactating women and children left out of early phase vaccine development • Prevents innovations from reaching these groups https://www.aamc.org/news-insights/are-covid-19-vaccines-safe- • Children require specific

  25. Slide 25: Ideal Immunity: Vaccination in infancy for life-long prevention

    Ideal Immunity: Vaccination in infancy for life-long prevention Hepatitis B vaccine • 1st dose: Birth • 2nd dose: 1-2 months • 3rd dose: 6-18 months High risk newborn: • HIBIg + HepB vaccine (passive + active)

  26. Slide 26: Leverage rapidly designed DNA vaccine platforms to protect the next generation

    Leverage rapidly designed/produced DNA vaccine platforms to design vaccines to protect the next gen Two Novel Approaches: 1. Reverse vaccinology: Isolation of potent mAbs from pre- screened, infected patients, use to design antigens that will elicit potent, protective responses 2. Protective Transfe

  27. Slide 27: New Era of Vaccines: Pandemic Readiness via Reverse Vaccinology

    New Era of Vaccines: Pandemic Readiness via Reverse Vaccinology

  28. Slide 28: Challenging Vaccines: Where natural immunity is not protective

    Challenging Vaccines: Where natural immunity is not protective Reverse Engineering 2.0 Strategy: Identify immunogens that can select for B cells with key mutations required for neutralizing IgG development (Kwong, Mascola, 2018) (Haynes, et al. 2012)

  29. Slide 29: Improbable B cell mutations prevent development of potent antibodies

    Improbable B cell mutations prevent development of potent antibodies after vaccination Problem: Improbable B cell mutations may impose a bottleneck on B cell lineage maturation M utational Probability Solution: Rapidly iterative 20-100% 10-20% 2-10% vaccine design for engaging 1-2% 0.1-1% 0.01-0.1%

  30. Slide 30: Protective Transfer: Design protective antibodies for delivery

    Protective Transfer: Design protective antibodies for delivery to specific sites of virus acquisition Abs at the maternal/fetal interface Maternal Vaccine or Vectored Immunoprophylaxis IgM Antibody products have a good safety profile and precedent in pregnancy • Rh factor incompatibility • Varicella

  31. Slide 31: Vertical transmission of Zika Virus

    Vertical transmission of Zika Virus • 1 in 10 pregnant women with a confirmed Zika infection had a baby with congenital Zika syndrome (US population, CDC) – >11,000 cases of microcephaly in 2015-16 epidemic http://www.bbc.com/news/world-latin-america-37112639 • Congenital ZIKV symptoms: – Microcepha

  32. Slide 32: Ultrapotent ZIKV-neutralizing IgM mAb DH1017.IgM

    Ultrapotent ZIKV-neutralizing IgM mAb DH1017.IgM Z IK V B in d in g Z IK V N e u tr a liz a tio n 2 .0 R e la tiv e In fe c tio n (% ) Z IK V B in d in g (O D 4 50 ) D H 1 0 1 7 .Ig M 100 1 1 9 -4 -D 6 1 .5 1 1 9 -1 -D 7 1 .0 1 1 9 -5 -C 5 50 1 2 3 -3 -G 2 0 .5 1 2 4 -1 -C 2 1 2 4 -4 -C 8 0 .0 0 1 2

  33. Slide 33: Maternal potent IgM as Zika post or pre-exposure prophylaxis

    Maternal potent IgM as Zika post or pre- exposure prophylaxis that does not cross the placenta Potential uses of a ZIKV immunoprophylaxis: Option #1 Option #2 Pre-exposure Post-exposure Virion Image: Sirohi et al., 2016; Google Images

  34. Slide 34: Protective Transfer: maternal dIgA into breast milk

    Protective Transfer: maternal dIgA for transfer into breast milk to protect against neonatal enteric pathogens

  35. Slide 35: Design of a maternally administered dIgA to block rotavirus

    Design of a maternally administered dIgA to traffic to breast milk and block rotavirus transmission to the infant mAb#41 • Isolated from IgA+ antibody secreting cells in the intestine • VP4-specific • Neutralizing in vitro and in vivo Nair et al., 2017 Produce as a dimeric IgA Dimeric IgA Tetrameric

  36. Slide 36: Systemically administered maternal dIgA protect against rotavirus challenge

    Systemically administered maternal dIgA protect against rotavirus challenge Pup stomach content 5 mg/kg mAb41 5 mg/kg tail vein mAb41 tailinfusion vein 1 day post dam injection infusion 150000 100000 106 FFU RV 24 hours ng/ml 50000 Euthanize/ 6 hours post dam injection necropsy 0 15 mg/kg 5 mg/kg Pr

  37. Slide 37: Leveraging DNA vaccine platform for vaccines of the future

    Leveraging rapidly designed/produced DNA vaccine platform for vaccines of the future Reverse vaccinology: Isolation of potent mAbs from pre- screened, infected patients, use to design antigens that will elicit potent, protective responses • DNA vaccines could be rapidly and iteratively developed for

  38. Slide 38: IMNN-101 Development Plan

    IMNN-101 Development Plan Dr. Khursheed Anwer, PhD, MBA CSO IMUNON © 2023 IMUNON, Inc. PAGE 1

  39. Slide 39: IMNN-101 – The Lead PlaCCine Product

    IMNN-101– The Lead PlaCCine Product Next-Generation Covid-19 DNA Vaccine Antigen DNA Plasmid Addressing the limitations of Omicron XBB1.5 Spike Antigen current vaccines Key Distinguishing Attributes Synthetic DNA Delivery System Durable Ag expression Safe & efficient delivery Stable at working temp

  40. Slide 40: IMNN-101 – Evidence of Robust Immunogenicity in a Mouse Model

    IMNN-101– Evidence of Robust Immunogenicity in a Mouse Model Prime & Boost Day 14 Day 28 23-032 IgG ✱ 105 10 5 IgG 5 5 nAbs ns Titer Titer 4 Endpoint Titer 4 104 10 4 Endpoint Titer IC50 3 3 Log IC50 103 10 3 2 Log 2 102 10 2 1 1 41039.5 56623.4 21558.3 56623.4 11324.7 21558.3 2264.9 1641.6 2264.9 3

  41. Slide 41: Over 90% Protection From Live Viral Challenge in Mice

    Over 90% Protection From Live Viral Challenge in Mice IMNN-101 Prototypes – Early Spike Variants TCID50 Tissue Culture Infection Dose 10 7 10 7 D614G Challenge ( 2.5 x 105) ) Delta Challenge (7 x 104) 10 6 TCID50/gm of lung 10 6 TCID50/gm of lung 10 5 10 5 10 4 10 4 LOD LOD 10 3 10 3 Placebo pVac16

  42. Slide 42: Complete & Comparable Viral Clearance to mRNA Vaccine in Monkeys

    4 4 4 Log copies/m 4 Log copies/m Log copies Logcopies/m Log copies/m Log copies Log copies/ Log copies/ Log copi Log copi Log copie 4 Log copie 4 Log copies/ Log copies/ copies/ 44 4 4 4 4 4 3 3 3 3 3 3 3 3 3 Complete & Comparable Viral Clearance to mRNA Vaccine in Monkeys 33 3 3 3 Log 3 2 2 2 2 2

  43. Slide 43: IMNN-101 – Development Status

    IMNN-101– Development Status Preclinical Proof of Concept IND-Enabling Studies Safety Tox 4Q 2023 Biodistribution 4Q 2023 Clinical Lot 1Q 2024 IND Filing 1Q 2024 Phase 1 April 2024 Phase 2 June 2024 © 2023 IMUNON, Inc. PAGE 6

  44. Slide 44: IMNN-101 – FDA-Reviewed Clinical Development Plan

    IMNN-101– FDA-Reviewed Clinical Development Plan Phase 1/2 Trial in Healthy Subjects: Single Dose, Placebo Controlled Rapid Dose Escalation Followed by Expanded Phase 2 Approach for Speedy Completion DNA Dose Escalation (mg) 0.5 1.0 2.0 Placebo (n = 8 each) Vaccine -30 Days Day-1 Day-7 Day-28 Day-90

  45. Slide 45: Plug & Play Allows for Rapid Response to New & Urgent Vaccines

    Plug & Play Allows for Rapid Response to New & Urgent Vaccines Proof of Concept Against Multiple Pathogens • Flu • LASSA C AA • Marburg TTG • Monkeypox CAG Antigen Coding Cassettes SARS-CoV2 Variants Active Vaccine Partnerships • NIAID/NIH – LASSA • Wistar Institute – Flu, Marburg © 2023 IMUNON, Inc

  46. Slide 46: Personal(ized) Immunotherapy

    Personal(ized) Immunotherapy Patrick A Ott, MD, PhD Clinical Director, Melanoma Center Dana Farber Cancer Institute Associate Professor of Medicine Harvard Medical School

  47. Slide 47: Disclosures

    Disclosures Advisory Role: Alexion, Array, Bristol-Myers Squibb, Celldex, CytomX, Genentech, Merck, Neon Therapeutics, Novartis, Pfizer, TRM Oncology, Evaxion, Immunetune, Imunon, Servier Grants to institution: Armo Biosciences, AstraZeneca/MedImmune, Bristol-Myers Squibb, Celldex, CytomX, Genentech

  48. Slide 48: What is personalized Immunotherapy, really?

    What is personalized Immunotherapy, really?

  49. Slide 49: Personalized Immunotherapy in the neoadjuvant setting

    Personalized Immunotherapy in the neoadjuvant setting: Use of biomarkers to adapt therapy Baseline biomarker On treatment Pathologic response • response biomarkers for • prognosticator • toxicity early Tx adjustment • +/- adj therapy Biomarker for combination vs monotherapies Adapted from Blank, ASC

  50. Slide 50: Personalized Immunotherapy in the neoadjuvant setting

    Personalized Immunotherapy in the neoadjuvant setting: Use of biomarkers to adapt therapy Baseline biomarker On treatment Pathologic response • response biomarkers for • prognosticator • toxicity early Tx adjustment • +/- adj therapy Biomarker for combination vs Extent of Adjuvant therapy monotherap

  51. Slide 51: "Stratified" vs. "Personalized Therapy"

    “Stratified” vs. “Personalized Therapy” Stratified Personalized – the drug is custom-made for each patient • Tebentafusp – HLA-A2 • Personalized Vaccines • BRAF/MEKi – BRAFV600 • Adoptive T cell Therapy • EGFR/ALK/METi

  52. Slide 52: "Stratified" vs. "Personalized Therapy"

    “Stratified” vs. “Personalized Therapy” Stratified Personalized – the drug is custom-made for each patient • Tebentafusp – HLA-A2 • Personalized Vaccines • BRAF/MEKi – BRAFV600 • Adoptive T cell Therapy

  53. Slide 53: Neoantigens as Cancer Immunotherapy Targets: A paradigm shift

    Neoantigens as Cancer Immunotherapy Targets: A paradigm shift A Personal Approach Ott Hematol Oncol Clin N Am 2018

  54. Slide 54: Generation of a personalized neoantigen vaccine

    Generation of a personalized neoantigen vaccine Hacohen Cancer Immunol Res 2013

  55. Slide 55: How can Neoantigens be Targeted Therapeutically?

    How can Neoantigens be Targeted Therapeutically?

  56. Slide 56: Vaccines and Adoptive Cell Transfer

    VACCINES Adoptive Cell Transfer Peptide TIL RNA/DNA Effector Phase: Priming Phase: neoTCR Effector Phase: Tumor DC Lymph nodes Tumor Viral etc. Adapted from Gupta RG Cancer Discov 2021

  57. Slide 57: TILs

    TILs Lifileucel Sarnaik SITC 2022

  58. Slide 58: TILs

    TILs neoTCR T cells derived from TILs neoTCR T cells derived from autologous PBMC Lybaert Trends in Cancer 2023

  59. Slide 59: Prophylactic vaccines and cancer therapeutic vaccines

    SARS-CoV-2 Pathgens Prophylactic vaccines Antibody generation ? T cell responses Cancer Therapeutic vaccines Hu Ott Wu Nature Reviews Immunology 2018

  60. Slide 60: Therapeutic Cancer Vaccines: Considerations

    Therapeutic Cancer Vaccines: Considerations Blass, Ott Nature Rev Clin Oncol, 2021

  61. Slide 61: NeoVax in High risk melanoma patients: Study Design

    NeoVax in High risk melanoma patients: Study Design Ott et al. Nature 2017

  62. Slide 62: Neoantigen-specific T cell responses

    Neoantigen-specific T cell responses Ex vivo * * * ** * * ** * CD4 CD8 ex vivo 18% 0% 1 stimulation 60% 16% © American Association for Cancer Research Ott et al. Nature 2017

  63. Slide 63: Vaccine-induced T cell responses

    Vaccine-induced T cell responses: 1) Specific for the mutant epitope 2) Reactive against autologous tumor 4) Broaden after PD-1 inhibition 4) CR after Vax + anti-PD-1 © American Association for Cancer Research Ott et al Nature 2017

  64. Slide 64: Transcriptional profile of neoantigen-specific T cells over the course of vaccination

    Transcriptional profile of neoantigen-specific T cells over the course of vaccination v Hu Z & Leet DE Nat. Med., 2021

  65. Slide 65: Transcriptional profile of neoantigen-specific T cells over the course of vaccination

    Transcriptional profile of neoantigen-specific T cells over the course of vaccination v Hu Z & Leet DE Nat. Med., 2021

  66. Slide 66: Transcriptional profile of neoantigen-specific T cells over the course of vaccination

    Transcriptional profile of neoantigen-specific T cells over the course of vaccination v v Hu Z & Leet DE Nat. Med., 2021

  67. Slide 67: The TCR repertoire diversifies over time after vaccination

    The TCR repertoire diversifies over time after vaccination Time Hu Z & Leet DE Nat. Med., 2021

  68. Slide 68: Clinical Course of Patients with High Risk Melanoma (Long-term)

    Clinical Course of Patients with High Risk Melanoma (Long-term) Hu Z & Leet DE Nat. Med., 2021

  69. Slide 69: Vaccine-induced neoantigen specific T cells persist over several years

    Vaccine-induced neoantigen specific T cells persist over several years Hu Z & Leet DE Nat. Med., 2021

  70. Slide 70: Vaccine-induced neoantigen specific T cells persist over several years

    Vaccine-induced neoantigen specific T cells persist over several years Hu Z & Leet DE Nat. Med., 2021

  71. Slide 71: NT-001: Personalized peptide vaccine plus Nivolumab in metastatic patients

    NT-001: Personalized peptide vaccine (PV-01) + Nivolumab in metastatic patients (melanoma, NSCLC, and urothelial cancer) NEO-PV-01 + nivolumab in αPD-1/PD-L1 naïve subjects Objectives: safety, clinical efficacy (response rate and durability) and immune responses Ott et al. Cell 2020

  72. Slide 72: NT-001: Personalized peptide vaccine plus Nivolumab in metastatic patients

    NT-001: Personalized peptide vaccine (PV-01) + Nivolumab in metastatic patients (melanoma, NSCLC, and urothelial cancer) NEO-PV-01 + nivolumab in αPD-1/PD-L1 naïve subjects  Immune Monitoring: (NCT02897765) Ott et al. Cell 2020

  73. Slide 73: NEO-PV-01 + Nivolumab Induces Neoantigen-Specific Immune Responses

    NEO-PV-01 + Nivolumab Induces Neoantigen-Specific Immune Responses Ott et al. Cell 2020

  74. Slide 74: Anti-tumor activity

    Anti-tumor activity Ott et al. Cell 2020

  75. Slide 75: Epitope spreading correlates with durable progression-free survival

    Epitope spreading correlates with durable progression-free survival Ott et al. Cell 2020

  76. Slide 76: Pathologic response post vaccine is associated with clinical benefit

    Pathologic response post vaccine is associated with clinical benefit Ott et al. Cell 2020

  77. Slide 77: Pathologic response post vaccine is associated with clinical benefit

    Pathologic response post vaccine is associated with clinical benefit Ott et al. Cell 2020

  78. Slide 78: Pathologic response post vaccine is associated with clinical benefit

    Pathologic response post vaccine is associated with clinical benefit %PFS Ott et al. Cell 2020

  79. Slide 79: Encouraging signals for efficacy, however no definitive data until recently

    Encouraging signals for efficacy, however no definitive data … until recently CRs with α-PD-1 post long Epitope Spreading post long-peptide Path CR post long-peptide Vax peptide Vax in Melanoma Vax in mel, NSCLC, bladder Ca in melanoma Ott & Hu, Nature 2017 Ott, Cell 2020 Ott, Cell 2020 Decreased Re

  80. Slide 80: Personalized Neoantigen RNA vaccine autogene cevumeran in resectable PDAC

    Personalized Neoantigen RNA vaccine autogene cevumeran in patients with resectable pancreatic ductal carcinoma (PDAC) Balachandran et al, ASCO Annual Meeting, 2022

  81. Slide 81: T cell immunity induced with a Personalized RNA vaccine correlates with delayed recurrence

    T cell immunity induced with a Personalized RNA vaccine + Atezolizumab + mFOLFORINOX correlates with delayed recurrence Rojas LA, Nature, 2023

  82. Slide 82: Randomized Phase 2 trial: mRNA-4157 (V940) + pembrolizumab vs. pembrolizumab

    And now a randomized Phase 2 trial: mRNA-4157 (V940) + pembrolizumab vs. Pembrolizumab alone Combination treatment arm: mRNA-4157 (V940) + pembrolizumab Up to 1 year of pembrolizumab treatment Primary endpoint: Key eligibility criteria mRNA-4157 (V940) 1 mg IM Q3W for up to 9 doses + RFSc,d • Stage

  83. Slide 83: mRNA-4157 (V940) and pembrolizumab demonstrated RFS improvement

    mRNA-4157 (V940) and pembrolizumab combination treatment demonstrated a statistically significant and clinically meaningful RFS improvement 100 + + 12-month RFS 18-month RFS + + 90 + 83.4 + Censored ++ + % +++++ 78.6 80 + +++++++ %++ +++++ + +++++++ + +++ + ++ 70 77.1 +++++ + + % + +++ + ++++ ++ 60

  84. Slide 84: Challenges/opportunities

    Challenges/opportunities • Time and Cost • Magnitude and Quality of Vaccine-induced Immune responses • Improve vaccine formulation/immune adjuvant • Enhance T cell priming

  85. Slide 85: Challenges/opportunities

    Challenges/opportunities • Time and Cost • Magnitude and Quality of Vaccine-induced Immune responses • Improve vaccine formulation/immune adjuvant • Enhance T cell priming • “Manage” the TME

  86. Slide 86: Challenges/opportunities

    Challenges/opportunities • Time and Cost • Magnitude and Quality of Immune responses • Improve vaccine formulation • Enhance T cell priming • Identify best immune adjuvant • “Manage” the tumor microenvironment • Neoantigen discovery HLAthena • What are the most immunogenic tumor neoantigens? 9-38%in

  87. Slide 87: Challenges/opportunities

    Challenges/opportunities • Time and Cost • Magnitude and Quality of Immune responses • Improve vaccine formulation • Enhance T cell priming • Identify best immune adjuvant • “Manage” the tumor microenvironment • Neoantigen discovery • What are the most immunogenic tumor neoantigens? • Can we increas

  88. Slide 88: Catherine Wu lab acknowledgments

    Catherine Wu lab DFCI Department of Cancer Immunology and Zhuting Hu Virology Donna Leet Ed Fritsch Kai Wucherpfennig Giacomo Olivera Adrienne Luoma Sachet Shukla Jason Pyrdol Jing Sun Wandi Zhang DFCI Center for Immuno- Pavan Bachireddy Oncology Satyen Gohil Scott Rodig Patrick Lee Zoe Ciantra Moha

  89. Slide 89: Immuno-Oncology & Cancer Vaccine Programs

    Immuno-Oncology & Cancer Vaccine Programs Dr. Khursheed Anwer, PhD, MBA CSO IMUNON © 2023 IMUNON, Inc. PAGE 1

  90. Slide 90: IMUNON's Immuno-Oncology & Cancer Vaccine Programs

    IMUNON’s Immuno-Oncology & Cancer Vaccine Programs DNA-based Technology Independent of Viruses or Devices for Delivery TheraPlas FixPlas IndiPlas Immune Modulation by Tumor-Associated Antigen Neoantigens Cytokine Therapy Vaccines (personalized vaccines) IMNN-001 IMNN-001 Normal Cell Tumor Cell Self

  91. Slide 91: IMNN-001 – Persistent Local Delivery of IL-12 with Formulated Plasmid

    IMNN-001 – Persistent Local Delivery of IL-12 with Formulated Plasmid First Target: Epithelial Ovarian Cancer • Insidious disease – late-stage diagnosis • High recurrence rate – poor survival • Novel approaches warranted IMNN-001 • A gene therapy product for safe and effective delivery of IL-12 • IL

  92. Slide 92: FixPlas: Cancer Vaccines Targeting Tumor-Associated Antigens

    FixPlas: Cancer Vaccines Targeting Tumor-Associated Antigens (TAAs) – Monovalent and Bivalent DNA Vaccines Preclinical Proof-of-Concept Studies (bivalent vaccine) Mouse TAA Antigens Melanoma • NYESO-1 & Trp-2 Strong Cellular Responses (Advantage over protein/mRNA) Prophylactic Completed Well Suited

  93. Slide 93: FixPlas Prophylactic: Tumor Inhibition & Survival Improvement

    FixPlas Prophylactic- Tumor Inhibition & Survival Improvement – Trp2/NYESO1, B16F10 Melanoma Monovalent Trp2 Vaccine Bivalent Trp2 + NYESO1 Vaccine Monovalent & Bivalent (Formulated Trp2 plasmid) (Formulated Trp2 + NYESO1 plasmid) (Formulated plasmid) Bivalent Trp2 - NYESO Vaccine 23-018 IFNγ T cell

  94. Slide 94: FixPlas Therapeutic: Tumor Inhibition & Survival Improvement

    FixPlas Therapeutic- Tumor Inhibition & Survival Improvement Bivalent Trp2 + NYESO1 Vaccine Formulation 3000 Mock 100 Mock Tumor volume (mm3) control-CP+STIN control-CP+STINGa Percent Survival Ga (1×104cells) (1×104cells) 2000 NYESO1+Trp2 NYESO1+Trp2 CP-STINGa 50 CP-STINGa (1×104cells) 1000 (1×104ce

  95. Slide 95: FixPlas Development Plan

    FixPlas Development Plan Preliminary Studies Warrant a Product Development Plan • Selection of the disease target • Selection of the antigen target(s) • Optimization of the antigen • Demonstration of robust anticancer activity • IND-enabling studies • Phase 1 clinical trial © 2023 IMUNON, Inc. PAGE

Imunon — Investor Day (September 2023) on 6ix