Humacyte, Inc. · NASDAQ:HUMA

Humacyte — Corporate Update (March 2026)

55 slides from Humacyte's corporate update, Mar 19, 2026

  1. Slide 1: Universally Implantable Regenerative Human Tissue

    Universally Implantable Regenerative Human Tissue

  2. Slide 2: Disclaimer

    2 Disclaimer These slides and the accompanying oral presentation contain forward-looking statements. All statements, other than statements of historical fact, included in these slides and the accompanying oral presentation are forward-looking statements reflecting management’s current beliefs and ex

  3. Slide 3: Humacyte is a Leader in the Field of Regenerative Medicine

    Humacyte is a Leader the Field of Regenerative Medicine: Bioengineered Tissues & Organs Off-the-shelf, no special preparation required Universally implantable with no immuno-suppression Regenerate as the patient’s own tissue Category-Defining Innovation that Creates New Tissues 3

  4. Slide 4: Universally Implantable Regenerative Human Tissue

    Universally Implantable Regenerative Human Tissue U.S. FDA Approved FDA approved Symvess® (ATEV) BLA in December 2024 for treatment of extremity vascular trauma; U.S. market launch commenced 2025 First-in-Class Technology and Manufacturing Platform Large addressable markets trauma, dialysis, periphe

  5. Slide 5: Humacyte Leadership & Board

    Humacyte Leadership & Board Leadership Team Board of Directors Kathleen Sebelius Chair of the Board John P. Bamforth, PhD Emery N. Brown, MD, PhD Michael T. Constantino Brady W. Dougan Charles Bruce Green, MD Keith Anthony Jones, M.D., Laura E. Niklason, MD, PhD Todd M. Pope Diane Seimetz, PhD Max W

  6. Slide 6: Platform & Manufacturing: Enable Broad Pipeline of Regenerative Medicine Products

    Platform & Manufacturing: Enable Broad Pipeline of Regenerative Medicine Products Vascular tissue constructs (ATEV) Advanced tissue constructs Advanced organ systems Bioengineering Platform Cell seeding Tissue formation Cell removal and packaging 1 2 3 Working cell stock Cells transferred onto polym

  7. Slide 7: Symvess Demonstrates Mechanical Strength and Remodeling with Patient's Own Cells

    Symvess Demonstrates Mechanical Strength and Remodeling with Patient’s Own Cells 7

  8. Slide 8: Pipeline with Multiple Potential Commercial Launches

    Pipeline with Multiple Potential Commercial Launches Preclinical Phase 1/2 Phase 3 Approved Vascular Tissue Constructs Trauma Dialysis (AV Access) PAD CABG Pediatric Heart Disease Complex Tissue Constructs Urinary Conduit Tracheal Replacement Esophageal Replacement Complex Organ Systems BioVascular

  9. Slide 9: Vascular Trauma

    9 Vascular Trauma FDA Approved in Extremity Vascular Trauma Symvess acellular tissue engineered vessel-tyod

  10. Slide 10: Symvess is FDA Approved in Extremity Vascular Trauma

    Symvess is FDA Approved in Extremity Vascular Trauma Repopulates with the patient’s cells1-2,3 Low susceptibility to infection4 No immune response observed1-3,5 Off-the-shelf, ready to use1,3 Low amputation results1 INDICATION SYMVESS is an acellular tissue engineered vessel indicated for use in adu

  11. Slide 11: Vascular Trauma Injuries – Symvess Value Proposition

    • Common causes of vascular injuries include workplace injuries, car accidents, gunshots and stabbings, and sports injuries • Symvess address major drawbacks of current treatment options: Vascular Trauma Injuries – Symvess Value Proposition Vein is the standard of care, but takes valuable time, dela

  12. Slide 12: Two Studies Were Used to Support FDA Approval

    Two Studies Were Used to Support FDA Approval Gunshot Wound Industrial Accident Knee Dislocation 12 First Study: CLN-PRO-V005 Phase 2/3 Pivotal Trial In U.S. and Israel • Single-arm, open label study • Conducted at Level 1 trauma centers • Arteria injury repair • Extremity injuries at high risk of c

  13. Slide 13: Ukraine Real World Experience of Symvess Use in Vascular Repair

    • At request of Ukraine surgeons Humacyte supported humanitarian program for patients injured in conflict • 19 patients received Symvess • At suggestion of FDA, patients from humanitarian program were included in BLA filing • 17 consented for data collection and study participation • 16 patients had

  14. Slide 14: Clinical Improvement with Symvess over Synthetics

    Clinical Improvement with Symvess over Synthetics Two studies demonstrate improved outcomes compared to synthetic graft benchmark Symvess represents a new definitive and permanent repair option in patients with extremity arterial injury when a vascular graft is needed and no vein is available. Symve

  15. Slide 15: Durability of Symvess in Trauma Repair

    15 After up to 36 months of follow-up, patients demonstrated: • High rates of limb salvage • low rates of infection • no unprovoked structural failures Durability of Symvess in Trauma Repair Long-Term V005 Results1 Long-Term V017 Results2 • Trauma patients with battlefield injuries in Ukraine were f

  16. Slide 16: Symvess Limb Salvage and Infections are Similar to Vein

    Symvess Limb Salvage and Infections are Similar to Vein • Symvess compared to Prospective Observational Vascular Injury Trial (PROOVIT) registry • Retrospective comparison to existing registry • Symvess patients (n=67) were propensity-matched 1:2 to PROOVIT patients (n=134) who were previously treat

  17. Slide 17: U.S. Vascular Trauma Market – Total Addressable Market for Symvess

    U.S. Vascular Trauma Market – Total Addressable Market for Symvess Total Vascular Trauma Patients (All Injuries)1 79,000 Emergent Vascular Trauma – 56,000 Iatrogenic Vascular Trauma – 23,000 Target U.S. TAM for Symvess Based on Hospital Claims Data2 26,000 Emergent Vascular Trauma – 18,667 Iatrogeni

  18. Slide 18: Drivers of U.S. Commercial Launch in Vascular Trauma

    Drivers of U.S. Commercial Launch in Vascular Trauma 18 The Right Team Sales team of 12 executives who are experienced in vascular and/or trauma surgery and regenerative therapies Sales team is complemented by Medical Affairs, market access, and marketing teams Health Economics Budget Impact Model p

  19. Slide 19: Symvess in Extremity Injury: Savings in Hospital Charges

    Symvess in Extremity Injury: Savings in Hospital Charges Healthcare Economics Symvess is associated with meaningful reductions in hospital charges when used in patients lacking feasible saphenous vein Additional hospital charges associated with each vascular graft infection: $589,921 Additional hosp

  20. Slide 20: Symvess Budget Impact Model in Extremity Arterial Injury

    Symvess Budget Impact Model (BIM) in Extremity Arterial Injury Healthcare Economics At its current price point of $17,000, Symvess was shown to be the second-most economical arterial graft, after saphenous vein1 Published in J Med Econ, showed use of Symvess in patients without feasible saphenous ve

  21. Slide 21: Department of Defense Support

    Department of Defense Support DEPARTMENT OF DEFENSE SUPPORT Symvess (ATEV) for Vascular Trauma designated as a “Priority Product” by DoD • designation created by Public Law 115-92 to expedite the development and FDA review of DoD priority technologies V005 Phase 3 clinical trial was partially funded

  22. Slide 22: AV Access for Dialysis

    22 AV Access for Dialysis

  23. Slide 23: AV Access for Hemodialysis Has Limitations

    AV Access for Hemodialysis Has Limitations Estimate of Permanent Access Procedures Performed in U.S. ~20% Grafts ~20% Catheters ~60% AV fistulas Venous / Temporary Catheter Primary/AV Fistula (Autogenous) Secondary / Graft Market targeted by ongoing V007 Phase 3 Trial • ~40% of fistulas fail to matu

  24. Slide 24: ATEV is Designed to Address Failures in AV Access

    ATEV is Designed to Address Failures in AV Access • ATEV usable for dialysis after only four weeks • ATEV reduces catheter contact time, thereby reducing risk of catheter infection • >80% of ATEVs functional for dialysis at 6 months • ATEV infection rate is comparable to AVF • Opportunity to reduce

  25. Slide 25: Partnered with Fresenius / Frenova Renal Research

    Partnered with Fresenius / Frenova Renal Research to identify the hemodialysis subpopulations with highest unmet needs Analysis of 178,575 adults with in-center hemodialysis established that: • Women are more likely to use AVG ± CVC for access within 90 days of initiation • Women have up to 90% incr

  26. Slide 26: V007 Top-Line Results – ATEV Met Co-Primary Endpoints

    • More adverse events were reported in patients on the ATEV treatment arm than those on the AV fistula treatment arm: • More thromboses in the ATEV group, but virtually all were resolved • A number of serious events occurred more frequently in the AVF arm: • Two ruptures of AVF (a potentially fatal

  27. Slide 27: V007 Superior Subgroup Results

    27 V007 Superior Subgroup Results Females ATEV (N=37) AVF (N=33) p-value Functional Patency at Month 6 89.2% 54.5% <0.0001 Secondary Patency at Month 12 81.1% 48.5% Difference p-value Duration of Use Over First 12 Months 8.3 months 5.0 months 3.3 months 0.0011 ATEV showed superior function and paten

  28. Slide 28: V007 Safety Results in Key Subgroup

    28 V007 Safety Results in Key Subgroup ATEV has shown no increased safety events per year of usability in the expected target population (all females and males with BMI ≥ 30 kg/m2 and diabetes) 12-Month Safety Summary ATEV AVF Subjects (%) n=54 Events per Patient Year Subjects (%) n=56 Events per Pa

  29. Slide 29: V007 Two-Year Results in Female Patients

    29 V007 Two-Year Results in Female Patients ATEV has shown superior long-term patency at 24 months in females, and in all females and males with BMI ≥ 30 kg/m2 and diabetes

  30. Slide 30: V012 (HUMAXX) Trial in Women Dialysis Patients

    • Enrollment: • Target 150 total subjects (interim analysis after 80 patients) • 1:1 Prospective randomization ATEV vs. Autogenous fistula V012 (HUMAXX) Trial in Women Dialysis Patients To Compare the Efficacy and Safety of the ATEV With AVF in Female Patients With End-Stage Renal Disease Requiring

  31. Slide 31: Peripheral Arterial Disease (PAD)

    31 Peripheral Arterial Disease (PAD)

  32. Slide 32: Peripheral Artery Disease (PAD)

    • Tissue does not receive enough blood flow to survive • If untreated, leads to tissue loss, gangrene, and ultimately amputation Critical Limb Threatening Ischemia • Non-surgical, catheter-based intervention • Surgical bypass Treatment Requires Restoration of Blood Flow 32 Can progress to multiple l

  33. Slide 33: Current Clinical Experience with ATEV in Peripheral Arterial Disease

    Current Clinical Experience with ATEV in Peripheral Arterial Disease 1Piotr Gutowski, et al, 6-Year Outcomes of a Phase 2 Study of Human-Tissue Engineered Blood Vessels for Peripheral Arterial Bypass, JVS: Vascular Science (2023) 2Lauria A, Kersey A, Propper B, et al. Annals of Vascular Surgery. 202

  34. Slide 34: Expanded Access: Restoring Mobility with ATEV

    Expanded Access: Restoring Mobility with ATEV • The ATEV was used under compassionate use program in 70-year-old patient with severe vascular disease • No vein was available to perform a bypass, as the vein was previously harvested for a CABG • A right distal superficial femoral artery-to-peroneal a

  35. Slide 35: Pipeline: CTEV for Coronary Bypass Graft Surgery

    35 Pipeline: CTEV for Coronary Bypass Graft Surgery

  36. Slide 36: Coronary Artery Bypass Grafting (CABG) Introduction

    36 Coronary Artery Bypass Grafting (CABG) Introduction • The most commonly performed cardiac surgical procedure in the U.S. (approx. 300,000 per year) • In the United States, 79 people per 100,000 have triple bypass surgery each year. • CABG is generally recommended when there are high-grade blockag

  37. Slide 37: Concerns with Saphenous Vein Grafts

    Concerns with Saphenous Vein Grafts Vein Quality Issues • Varicosities (20-30% of patients) • Previous vein stripping or ablation • Small diameter (<3mm) • Sclerotic or diseased veins • Peripheral vascular disease effects Medical Co-morbidities • Bilateral leg amputations • Need to preserve vein for

  38. Slide 38: Coronary Tissue Engineered Vessel (CTEV): Addressing an Unmet Need in Multivessel CABG

    38 Coronary Tissue Engineered Vessel (CTEV): Addressing an Unmet Need in Multivessel CABG • The CTEV is a first-of-its-kind, sterile, off-the-shelf human- derived vessel that requires no preparation, is non- immunogenic, and resists infection. • The CTEV has an inner diameter of 3.5 mm and is approx

  39. Slide 39: Positive Patency Results in Animal Models

    39 Three primates were successfully bypassed with a 3.5 mm CTEV as aorta-Right Coronary Artery CABG conduits. CTA at 1, 3 and 6 months demonstrated patency of the CTEV with no significant stenosis or dilatation. There were no CTEV-related adverse events for the duration of the study. Histological st

  40. Slide 40: Primate – CABG Angiography – Adaptive Remodeling

    Primate – CABG Angiography – Adaptive Remodeling 1 Month 3 Months 6 Months Jonas – Left Ventricular Function (%) Pre-Op 1-Month 3-Month 6-Month 70% 73% 74% 73% 40

  41. Slide 41: Pipeline: BioVascular Pancreas

    41 Pipeline: BioVascular Pancreas

  42. Slide 42: The BioVascular Pancreas (BVP)

    The BioVascular Pancreas (BVP) Acellular Tissue Engineered Vessel (ATEV) is implanted in the arm BioVascular Pancreas (BVP) The BVP is an innovative implantable device designed to deliver pancreatic islets, for treating Type 1 Diabetes (T1D) •Core Components: Combines Humacyte's FDA-approved Acellul

  43. Slide 43: Drawbacks to Current Islet Transplantation Methods

    43 Drawbacks to Current Islet Transplantation Methods Intraportal Infusion: Injecting islets directly into the portal vein for liver engraftment ECTRA Commercial and developmental islet cell transplantation techniques have significant drawbacks impacting cell survival Islet Pouch Transplantation: cr

  44. Slide 44: BioVascular Pancreas Solves the Islet Delivery Problem

    44 BioVascular Pancreas Solves the Islet Delivery Problem Precision Islet Delivery, while Protecting Islets from Bloodstream Damage Islet dosing Uniform and Controlled Immediate and continued Oxygen Delivery to Islets from bloodstream Angiogenesis supports Long-Term Islet engraftment O2 Avoids exces

  45. Slide 45: BVP Proof of Concept in a Rat Model

    45 BVP Proof of Concept in a Rat Model BVP stimulates small blood vessels that nourish islets after implantation Measure Blood Sugar Streptozotocin-Induced Diabetic Nude Rat BVP, rat islets Transplant BVP into Aorta, or adjacent to Aorta (negative control) Diabetic rats implanted with BVPs containin

  46. Slide 46: BVP Cures Diabetes in a Rat Model

    46 BVP Cures Diabetes in a Rat Model 0 50 100 0 200 400 600 Blood Glucose Levels Day Blood Glucose (mg/dL) BVP (n=5) No Flow (n=3) **** BVP not in circulation, so diabetes continues BVP in aorta corrects blood sugar All animals (n=5) who received BVP in the Aorta were cured of diabetes = 100% cure r

  47. Slide 47: BVP NHP Preclinical Data

    47 BVP NHP Preclinical Data • BVP Non-Human Primate (NHP) model: human 6mm ATEV combined with primate islets • Subjects: Cynomolgus macaques weighing 7-8 kg with streptozotocin-induced T1D • Treatment with allogeneic Biovascular Pancreas (BVP) delivering ~3840 islet equivalents/KG supported islet su

  48. Slide 48: BVP in non-human primates – Excellent Islet Survival

    48 • Cynomolgus monkeys, 7-8 kg weight • University of Miami Diabetes Research Center • Small size aortic implantation of 6mm human-sized ATEV • Animal islet dosing equivalent to 300,000 islets for a human • 2-month explant: >80% islet survival. • Superior to any known transplant method. BVP in non-

  49. Slide 49: BVP Supports Long-Term Islet Survival in Primates

    Islets 100 µm 100 µm 100 µm 100 µm BVP Supports Long-Term Islet Survival in Primates Islets Islets Pre-Op Islets at 2 Weeks Islets at 2 Months Islets Islets at 7 Months Islets C-Peptide (Insulin) DAPI - cells C-Peptide (Insulin) DAPI - cells C-Peptide (Insulin) DAPI - cells C-Peptide (Insulin) 49 DA

  50. Slide 50: Milestones

    50 Milestones

  51. Slide 51: Our Technology Targets Compelling Unmet Needs in Attractive Markets

    Our Technology Target Compelling Unmet Needs in Attractive Markets Pre-Clinical Trachea Pancreas Esophagus Urinary Conduit Lung Peripheral Arterial Disease (PAD) Dialysis AV Access Coronary Artery Bypass Graft (CABG) BT Shunt Clinical Programs Pre-Clinical Vascular Tissue Constructs Complex Tissue C

  52. Slide 52: Commercial Manufacturing Scale – LUNA200 System

    Commercial Manufacturing Scale – LUNA200 System Commercial 83,000 sq ft Bioprocessing Facility • Currently operating 8 LUNA200 systems • Annual capacity expected to exceed 40,000 ATEVs • Functionally closed system with state-of-the-art process automation Bioreactor bag Each bioreactor bag contains a

  53. Slide 53: Anticipated 2026 Milestones

    Anticipated 2026 Milestones Vascular Trauma (Symvess): • U.S. commercial launch growth • Expansion into international markets Dialysis (ATEV): • Publication of V007 Phase 3 results • Interim results from V012 Phase 3 trial in female patients • Supplemental BLA filing with FDA All milestone dates are

  54. Slide 54: The Promise of Regenerative Medicine

    The Promise of Regenerative Medicine Broad platform of universally implantable off-the-shelf bioengineered human tissues and organs Bioengineering Platform Platform targets extensive markets across multiple indications Extensive Markets Existing facilities expected to support anticipated commercial

  55. Slide 55: Thank You

    Universally Implantable Regenerative Human Tissue Thank You

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