Cereno Scientific Ab Class B · OMXSTO:CRNO_B

Cereno Scientific Ab Class B — Investor Day (August 2022)

129 slides from Cereno Scientific Ab Class B's investor day presentation, Aug 30, 2022

  1. Slide 1: Cereno Scientific Capital Markets Day

    Cereno Scientific Capital Markets Day August 30, 2022

  2. Slide 2: Welcome and Introduction to Cereno CMD 2022

    Welcome and Introduction to Cereno CMD 2022 • Moderator today: Lars Frick, financial journalist at Börsveckan, specialist in Life Science • Agenda – corporate and external speakers with commercial and scientific presentations • Q&A and panel discussion – open for questions from audience in-situ and

  3. Slide 3: Today's program

    Today’s program Dr. Raymond L. Benza Sten R. Sörensen Dr. Björn Dahlöf Professor of Medicine, Wexner Chief Executive Chief Medical Officer Medical Center, Officer Ohio State University, SAB, Cereno and PI for CS1’s Phase II study Dr. Phil Adamson Dr. Michael Holinstat Dr. Gunnar Olsson Divisional Vi

  4. Slide 4: Cereno's Commitment to Transforming Cardiovascular Disease Management

    Cereno’s Commitment to Transforming Cardiovascular Disease Management Sten R. Sörensen Chief Executive Officer (CEO), Cereno

  5. Slide 5: Disclaimer

    Disclaimer This presentation has been prepared and produced by Cereno Scientific AB (publ) (“Cereno Scientific”) solely for Cereno Scientific’s investor presentation and may not be used for any other purpose. Unless otherwise stated, Cereno Scientific is the source for all data contained in this pre

  6. Slide 6: Most deaths worldwide are caused by cardiovascular disease

    Most deaths worldwide are caused by cardiovascular disease Cardiovascular disease (CVD) is a group of disorders of the heart and blood vessels. WHY? Most CVD complications happen because of thrombus formation – 22.2 million people blood clots obstructing the are expected to die annually due to CVD b

  7. Slide 7: Cereno develops novel drugs to transform treatments for PAH and other cardiovascular diseases

    Cereno develops novel drugs to transform treatments for PAH and other cardiovascular diseases Lead program CS1 currently in US Introducing epigenetic modulation Phase II in PAH with strong rationale through HDAC inhibition with disease and supportive data – topline data modifying potential. expected

  8. Slide 8: Cereno's Scientific Advisory Board are top thought leaders in the field of CVD

    Cereno’s Scientific Advisory Board are top thought leaders in the field of CVD Dr. Bertram Pitt Dr. Raymond L. Dr. Deepak Bhatt Dr. Gunnar Olsson Dr. Gordon Dr. Faiez Zannad Chair of Board Benza Prof of Medicine, MD, PhD in Medical Williams Prof of Therapeutics Prof Em in Professor of Medicine, Harv

  9. Slide 9: Promising programs with potential to transform the CVD treatment landscape

    Promising programs with potential to transform the CVD treatment landscape Next Program Indication Discovery Preclinical Phase I Phase II Phase III milestone Phase II top- CS1 PAH HDACi with epigenetic effects line data: Q1, 2023 Phase I IND HDACi with CS014 CVD epigenetic effects submission: 2023 P

  10. Slide 10: Growing and strengthening our management team with expertise for next stage

    Growing and strengthening our management team with expertise for next stage Sten R. Daniel Brodén Sörensen Chief Financial Chief Executive Officer Officer Nick Oakes Niklas Bergh Björn Dahlöf Head of Preclinical Chief Scientific Chief Medical Development Officer Officer Michael Holinstat Jonas Faije

  11. Slide 11: Merck $11.5 billion acquisition of Acceleron

    Merck $11.5 billion acquisition of Acceleron – highlights attractiveness of promising PAH pipeline drugs • Merck acquired Acceleron Pharma Inc., with sotatercept as the key asset, for approximately $11.5 billion in November 2021 • Acceleron had just started Phase III in PAH, composition of matter pa

  12. Slide 12: Leaving a mark in the medical community through abstracts accepted at top congresses

    Leaving a mark in the medical community through abstracts accepted at top congresses June 9-12, 2022 June, 22-26 2022 August 26-29, 2022 Investigation of efficacy, safety and CS014 is a novel HDAC inhibitor CS585 is a first-in-class compound optimal dose of CS1 in subjects regulating platelet activi

  13. Slide 13: Overview of Cardiovascular Disease and Cereno's Focus Areas

    Overview of Cardiovascular Disease and Cereno’s Focus Areas Björn Dahlöf, MD, PhD, FESC, FACC Chief Medical Officer (CMO) & Board member, Cereno

  14. Slide 14: The cardiovascular epidemic has rapidly grown in recent years

    The cardiovascular (CV) epidemic has rapidly grown in recent years Cardiovascular It all started with a disease of epidemic Now no. 1 ”big bang” Man proportions killer in appeared appeared the world 13.8 billion 200,000 –100 2020 -> years ago years ago years ago 14

  15. Slide 15: More than 200 million people at high risk of a cardiovascular event

    More than 200 million people in the world today are at high risk of having a cardiovascular event ”Previously we used to work ourselves to death, today we rest ourselves to death while eating easily available food” Inactivity = Smoking 15

  16. Slide 16: Most deaths worldwide are caused by cardiovascular disease

    Most deaths worldwide are caused by cardiovascular disease Cardiovascular disease (CVD) is a group of disorders of the heart and blood vessels. WHY? Most CVD complications happen because of thrombus formation – 22.2 million people blood clots obstructing the are expected to die annually due to CVD b

  17. Slide 17: Cardiovascular disease equals exorbitant costs for patients, their families and society

    Cardiovascular disease equals exorbitant costs for patients, their families and society • Common and rare CVDs result in significant markets Societal annual cost of CVD due to their mortality threat and adverse effect on the quality of life of patients These numbers are • The global anti-thrombotic

  18. Slide 18: Cereno's promising programs have potential to transform the CVD treatment landscape

    Cereno’s promising programs has potential to transform the CVD treatment landscape Next Program Indication Discovery Preclinical Phase I Phase II Phase III milestone Phase II top- CS1 PAH HDACi with epigenetic effects line data: Q1, 2023 Phase I IND HDACi with CS014 CVD epigenetic effects submission

  19. Slide 19: Genetics clearly plays a role in disease, but epigenetics may be the missing link

    ”Genetics clearly plays a role in disease, but epigenetics may be the missing link between the environment and the transcriptional responses and could explain why some individuals develop CV disease while others do not” Epigenetic Modulation for Cardiovascular Disease

  20. Slide 20: HDACi: Epigenetic modulation for cardiovascular disease

    Figure. Potential Therapeutic Epigenetic Targets in Cardiovascular Disease Examples of targeting epigenetic mechanisms in CVD. Possible targets HDACi: Epigenetic modulation include modifying DNA methylation, changing the acetylation or deacytylation of histones, and miRNA or lncRNA modificiations. D

  21. Slide 21: Review article in The Lancet Healthy Longevity supports epigenetic modulation via HDACi

    Review article in The Lancet Healthy Longevity supports the potential of epigenetic modulation via HDACi in CVD “Given the pleotropic properties of CS1’s active substance being a HDACi with documented anti-thrombotic, anti-inflammatory, anti- fibrotic and pressure-reducing effects gives it a unique

  22. Slide 22: Pulmonary arterial hypertension is a disease with poor prognosis and unsatisfactory treatment today

    Pulmonary arterial hypertension is a disease with poor prognosis and unsatisfactory treatment today Pulmonary arterial hypertension (PAH) is a type of pulmonary hypertension, high blood pressure in the lungs • A rare fatal pulmonary vascular disease with 5-15 / 100,000 people affected. • Patients ex

  23. Slide 23: CS1 aims to offer an effective, safe and disease modifying treatment for PAH

    CS1 aims to offer an effective, safe and disease modifying treatment for PAH CS1’s multi-fold efficacy, all relevant for PAH CS1 is a new advanced reformulation and acts as an epigenetic modulator Pulmonary pressure-reduction • Proven good safety and tolerability in Phase I study. Reverse-remodeling

  24. Slide 24: Towards personalized anti-thrombotic therapy

    Towards personalized anti- thrombotic therapy • There are many different potential uses of anti- thrombotic treatment as depicted A-L in the illustration to the right. Epigenetic Modulation for Cardiovascular Disease

  25. Slide 25: Current anti-thrombosis treatment involves the risk of serious bleedings

    Current anti-thrombosis/blood thinning treatment involves the risk of serious bleedings Waran Brilique Xarelto Trombyl Persantin Plavix Eliquis Depot Pradaxa Efient Systemic inhibition of coagulation/platelet function Increased risk of bleeding Insufficient preventive effect Need for new preventive

  26. Slide 26: Cereno will enter one of the largest pharmaceutical markets

    Cereno will enter one of the largest pharmaceutical markets with a profile which will impact thrombosis management NOACs/ Warfarin CS585 CS1, CS014 Antiplatelets Dose monitoring not required Required Anti-thrombotic efficacy Lower risk of Increased Increased bleeding bleeding bleeding Not Not Not ¤

  27. Slide 27: Understanding PAH: Debilitating Rare Disease

    Understanding PAH: Debilitating Rare Disease Dr. Raymond Benza Prof. and Director at the Ohio State University Wexner Medical Center; PI of Phase II study with CS1

  28. Slide 28: Pulmonary Hypertension; Focus on Pulmonary Arterial Hypertension

    Pulmonary Hypertension; Focus on Pulmonary Arterial Hypertension Raymond L. Benza, MD, FACC Professor of Medicine Division of Cardiovascular Diseases Bob and Corrine Frick Endowed Chair of Heart Failure Department of Medicine The Ohio State University Wexner Medical Center

  29. Slide 29: Normal Human Circulation

    Normal Human Circulation Pulmonary arteries

  30. Slide 30: Pulmonary Hypertension: High Pressure in the Pulmonary Arteries

    Pulmonary Hypertension: High Pressure in the Pulmonary Arteries Pulmonary hypertension= Mean PAP > 20 mmHg Normal mean pressure = 10-15 mmHg • Mild = Mean PAP 20-40 mmHg • Mod = Mean PAP 41-55 mmHg • Severe = Mean PAP > 55 mmHg Galie N et al European Heart J 2004; 25:2243-78 Khan MG, Lynch JP III ed

  31. Slide 31: PHTN: A Disease of Lung Vessels and the Right Heart

    PHTN: A Disease of Lung Vessels and the Right Heart 31

  32. Slide 32: Normal Human Circulation

    Normal Human Circulation wide-open Blood Vessels Normal THE OHIO STATE UNIVERSITY WEXNER MEDICAL CENTER

  33. Slide 33: Definition and Clinical Classification of Pulmonary Hypertension

    Definition and Clinical Classification of Pulmonary Hypertension 1. Pulmonary arterial 2. Pulmonary hypertension due to hypertension left heart disease 3. Pulmonary hypertension due to 4. Pulmonary hypertension due to lung diseases and/or hypoxia pulmonary artery obstructions Simonneau, et al. Eur R

  34. Slide 34: Problem

    PROBLEM Global Burden of PHTN: It’s a Pandemic! PHTN in the Community ;78 million with some form of PH ;780 million in those aged >650 Nl PASP 18-25 50% with abnormal PASP 25% w/PASP > 30 mmHg 34

  35. Slide 35: Problem

    PROBLEM • The Faces of Pulmonary Arterial hypertension: A progressive, chronic disease affecting primarily women (5:1) with a mean age of 50 y.o. • Mean life expectancy is 2.5 years without therapy, now extended to 7.5 years with modern therapeutics • PThere is no Cure for PAH except for Lung Transp

  36. Slide 36: Pathology of Pulmonary Hypertension and PAH

    Pathology of Pulmonary Hypertension and PAH Endothelial cells Lumen Smooth Muscle Effector Molecule cells Effector Molecule 41 Adapted from: Humbert, et al. N Engl J Med. 2004;351:1425-1436.

  37. Slide 37: Pathology of Pulmonary Hypertension and PAH

    Pathology of Pulmonary Hypertension and PAH 37 Woodcock ; J Cardiovasc Pharmacol Ther. 2019 Jul; 24(4): 334–354.

  38. Slide 38: Three Most Cited Mechanisms of PAH

    Three Most Cited Mechanisms of PAH Endothelin pathway Nitric oxide pathway Prostacyclin pathway Endothelial cells Preproendothelin Proendothelin L-arginine Arachidonic acid Prostaglandin I2 NOS sGC Nitric oxide Endothelin-1 stimulator GTP Prostaglandin I2 Endothelin-receptor A cGMP Prostacyclin Endo

  39. Slide 39: Managing PAH

    Managing PAH 40

  40. Slide 40: Pharmaceutical Therapies Implemented since 1991 yet Survival still Sub-Optimal

    14 Pharmaceutical Therapies Implemented since 1991 yet Survival still Sub-Optimal • Long-term data à observational registries • Median survival has increased ~ 7 vs 3 years in the 80s • Still, 7 year survival rate is unacceptable • Morbid events now outrank mortal events and these predict future Fur

  41. Slide 41: How Does Risk Stratification Help us?

    How Does Risk Stratification Help us? PAH – Deadly but unpredictable as to when and how • Sudden cardiac death Short survival • Right heart failure Who is the most vulnerable? Acute • Sepsis exacerbation • Renal failure • Arrythmia Long survival, • Systemic Organ but chronic Damage inadequate CO + •

  42. Slide 42: Risk Stratification in PAH

    Risk Stratification in PAH Risk Risk Risk THIS MATERIAL IS BEING PROVIDED FOR INTERNAL EDUCATIONAL AND BACKGROUND PURPOSES ONLY AND IS NOT FOR PROMOTIONAL USE. DO NOT COPY, DISTRIBUTE OR SHARE WITH 5 | PHYSICIANS, STAFF OR PATIENTS.

  43. Slide 43: One test does not tell it all

    We also Agree that “One test does not tell it all….We need the complete picture” BNP NYHA 6MWD There is a need for a collective measurement tool to predict survival in the modern era of PAH therapy Supplements Clinical Gestalt in experienced providers Serves as a key decision tool for less experienc

  44. Slide 44: REVEAL Risk Score Calculators

    Updated PAH Risk Score REVEAL Risk Score Calculators WHO Group I APAH-CTD APAH-PoPH FPAH Subgroup +1 +3 +2 New risk calculator with better discrimination Males Ages >60yrs (CI 0.76) Demographics +2 eGFR <60 mL/min/1.73m2 or renal inefficiency (if eGFR is unavailable) Existing variables with revised

  45. Slide 45: REVEAL Risk Score Calculators

    Updated PAH Risk Score REVEAL Risk Score Calculators WHO Group I APAH-CTD APAH-PoPH FPAH Subgroup +1 +3 +2 New risk calculator with better discrimination Males Ages >60yrs (CI 0.76) Demographics +2 eGFR <60 mL/min/1.73m2 or renal inefficiency (if eGFR is unavailable) Existing variables with revised

  46. Slide 46: PAH Therapeutic Trials: We are Finally Catching up!

    PAH Therapeutic Trials: We are Finally Catching up! 3 years 4 years 4 NOVEL 8 years PATHWAYS IP agonist 6-10 years introduced 2020 sGC stimulator introduced 2017 PDE-5i 2013 15 years introduced 2013 2005 ERAs Prostacyclin introduced 2005 Pathway 2001 Prostanoids Nitric Oxide 2001 Pathway introduced

  47. Slide 47: New pathway Development and Clinical Trials

    New pathway Development and Clinical Trials Clinical trials with drugs targeting metabolic dysfunction in pulmonary arterial hypertension • Metabolic syndrome: AMPK signalling and metformin • Glycolysis: dichloroacetate • Fatty acid oxidation: ranolazine and trimetazidine Clinical trials with drugs

  48. Slide 48: New Pathway Development: Failed or Neutral Clinical Trials

    New Pathway Development: Failed or Neutral Clinical Trials 48 Sitbon, O Eur Respir J. 2019 Jan; 53(1): 1801908.

  49. Slide 49: New Pathways for Treating Pulmonary Arterial Hypertension

    New Pathways for Treating Pulmonary Arterial Hypertension • Manipulating BMPR2 • Sotatercept: PULSAR Study1 • Manipulating PDGF • Seralutinib: TORREY Study, a novel small molecule tyrosine kinase inhibitor for inhalation • Iminitab: AV-101-002 Study: Aerovate Therapeutics; Trials of AV-101, an inhal

  50. Slide 50: Role of CS1

    Role of CS1 • Anti-thrombotic activity (restoration of tissue-type plasminogen activator in pulmonary blood vessels and reduction of PAI-1) • Anti-inflammatory activity • Anti-fibrotic/remodeling activity • Pulmonary pressure reduction 50

  51. Slide 51: Role of CS1

    Role of CS1 • Anti-thrombotic activity (restoration of tissue-type plasminogen activator in pulmonary blood vessels and reduction of PAI-1) A Phase 2, Prospective, Randomized, Open-label, Blinded • Endpoint, Anti-inflammatory activity Multicenter Study to Investigate Safety and Tolerability, PK and

  52. Slide 52: Clinical Phase II Study Design with CS1

    Clinical Phase II Study Design with CS1 Dr. Raymond Benza Prof. and Director at the Ohio State University Wexner Medical Center; PI of Phase II study with CS1

  53. Slide 53: CS1 Phase II study aims to evaluate safety, tolerability and exploratory efficacy

    CS1 Phase II study aims to evaluate safety, tolerability and exploratory efficacy Phase II study of CS1 in patients with PAH § Primary endpoint: Safety and tolerability. § Other variables including all standard efficacy endpoints for this patient group (6MWT etc.), a calculated validated risk score,

  54. Slide 54: The innovative Phase II study design was presented at top pulmonary congress

    The innovative Phase II study design was presented at top pulmonary congress Investigation of efficacy, safety and optimal dose of CS1 in subjects with pulmonary arterial hypertension: a prospective, randomized, multicenter, parallel-group phase II study R. Benza, N. Bergh, P. Adamson, B. Dahlöf Jun

  55. Slide 55: Phase II study: First patient has been randomized

    Phase II study: First patient has been randomized and entered the study’s treatment period Update as of Aug 29 § First site activated: 14 Mar 2022 § First patient screened: 5 July 2022 30 patients § First patient randomized: 25 Aug 2022 ~10 US clinical sites § Activation of clinical sites is ongoing

  56. Slide 56: Phase 2 Study of CS1 in Subjects with Pulmonary Arterial Hypertension

    Phase 2 Study of CS1 in Subjects with Pulmonary Arterial Hypertension • Novel Compound with Novel Actions • Novel and Innovative Endpoints – REVEAL Risk Score – Cardiac MRI – CardioMEMs device – Novel biomarkers • Traditional Endpoints (efficacy and safety) – 6MWD, hemodynamics, echo, biomarker

  57. Slide 57: Archetypal Progression of Decompensation: Early and Remote Detection is Key

    Archetypal Progression of Decompensation: Early and Remote Detection is Key Clinical Congestion RV Failure GAIN IN TIME HOSPITALIZATION NYHA Hemodynamic Congestion Symptoms Hemodynamic Decompensation PE Weight Change Change LABS 6MWD IntrathoracicImaging Biomarker Impedance Autonomic Change Decompen

  58. Slide 58: Right Heart Catheterization: Contemporary Gold Standard

    Right Heart Catheterization: Contemporary Gold Standard for Evaluating PAH & RV Function Hemodynamics are the Most Important Piece of HF Management but not Readily Obtainable • Right Heart Cath (RHC) to Measure Pulmonary Artery Pressure Remains the Gold Standard for Cardiac Hemodynamics • Shortcomin

  59. Slide 59: Right Heart Catheterization: Contemporary Gold Standard

    Right Heart Catheterization: Contemporary Gold Standard for Evaluating PAH & RV Function Hemodynamics are the Most Important Piece of HF Management but not Readily Obtainable • Right Heart Cath (RHC) to Measure Pulmonary Artery Pressure Remains the Gold Standard for Cardiac Hemodynamics • Shortcomin

  60. Slide 60: Changes in Right Ventricular Function with Management of mPAP

    Changes in Right Ventricular Function with Management of mPAP Prostacyclin Prostacyclin

  61. Slide 61: CardioMEMS – Phase II Clinical Collaboration Between Abbott and Cereno

    CardioMEMS – Phase II Clinical Collaboration Between Abbott and Cereno Dr. Phil Adamson Divisional Vice President and Chief Medical Office Heart Failure Division, Abbott

  62. Slide 62: CardioMEMS HF Monitoring System

    CardioMEMS HF Monitoring System or LAN la r v i a cellu ad Uplo PA SYSTOLIC, DIASTOLIC AND MEAN. HEART RATE

  63. Slide 63: Pressure Sensor

    Pressure Waveform Frequency Pressure Sensor Cross section CL. Le ee

  64. Slide 64: Hemodynamic guided heart failure management

    Hemodynamic guided heart failure management Insights into the mechanisms of acute decompensation Symptomatic Pre-symptomatic Symptoms Weight Change Hospitalization Intrathoracic Impedance Autonomic Change Changes Filling (BNP) Pressure Change Hemodynamically Stable Hemodynamic Congestion Clinical Co

  65. Slide 65: Totality of evidence - consistent benefit of CardioMEMS guided care

    Totality of evidence - consistent benefit of CardioMEMS guided care Reduction Study Type Study N Follow up p-value in HFH RCT GUIDE-HF IDE NYHA Class II-III 1 946 8.6 mo. 32% p < 0.01 RCT CHAMPION IDE 2 550 18 mo. 33% p < 0.0001 Retrospective Propensity Matched Outcomes 3 2,174 12 mo. 24% p < 0.001

  66. Slide 66: CardioMEMS indications

    Current USFDA and CE Mark approved CardioMEMS indications February 21, 2022 The CardioMEMS™ HF System is indicated for wirelessly measuring and monitoring pulmonary artery pressure and heart rate in NYHA Class II or III heart failure patients who either have been hospitalized for heart failure US in

  67. Slide 67: Cereno – Abbott Collaboration

    Cereno – Abbott Collaboration US Food and Drug Administration Center for Drug Center for Evaluation and Devices and Research Radiological (CEDR) Health (CDRH) Collaborative review Cereno Investigational New Drug (IND) program with Abbott and CardioMEMS

  68. Slide 68: CS1 Phase II study – CardioMEMS Monitoring

    CS1 Phase II study – CardioMEMS Monitoring • All centers are experienced CardioMEMS users • Patients upload hemodynamic information daily from home • Investigators review pressures twice weekly during drug titration • Effectiveness described using the targeted lesion – secondary endpoint or LAN la r

  69. Slide 69: Secondary pulmonary hypertension is almost always found in NYHA Class III patients

    Secondary pulmonary hypertension is almost always found in NYHA Class III patients Trial Total ≥ 35 mmHg 25-35 mmHg <25 mmHg CHAMPION 550 (545)* 201 192 152 Heywood 2,000 958 692 350 US PAS 1,200 550 434 211 MEMS-HF 234 (227)* 121 106 - Totals 3,984 (3,967)* 1830 1424 713 September 5, 2022 69 % 46%

  70. Slide 70: Clinical assessment and filling pressures - GUIDE-HF

    Clinical assessment and filling pressures - GUIDE-HF - Does less symptomatic = less ill? mmHg PCWP PA Diastolic PA Mean PA Systolic 60 50 48,4 44,1 45,1 40 32,2 28,5 29,4 30 21,9 Pulmonary 18,1 18,9 19,1 20 17,3 17,3 Hypertension September 5, 2022 70 10 0 NYHA Class II NYHA Class III NYHA Class IV N

  71. Slide 71: Prognosis in Group 2 pulmonary hypertension

    Prognosis in Group 2 pulmonary hypertension Role of right ventricular dysfunction September 5, 2022 Marco Guazzi et al. J Am Coll Cardiol 2017; 69:1718-1734. 71

  72. Slide 72: Unifying the impact of pulmonary hypertension

    Unifying the impact of pulmonary hypertension Unstable refractory symptoms Advanced HF Symptoms RV Failure Stable/treatable symptoms RV dysfunction Intervention or death and decoupling Advanced HF Pulmonary Vascular Remodeling – Increased PVR Secondary Pulmonary Hypertension Elevated LV and LA Press

  73. Slide 73: Cereno's Drug Candidate CS1 to Treat PAH and Broader Potential

    Cereno’s Drug Candidate CS1 to Treat PAH and Broader Potential Björn Dahlöf, MD, PhD, FESC, FACC Chief Medical Officer (CMO) & Board member, Cereno

  74. Slide 74: ValProic Acid (VPA) an HDAC inhibitor

    ValProic Acid (VPA) an HDAC inhibitor Epigenetic modulator for Cardiovascular Disease • First synthesized in 1882 • Globally established treatment for epilepsy (and bipolar disease) – used for the past 52 years • The widest spectrum of all anti-epileptic drugs • Well tolerated in long-term in the ma

  75. Slide 75: Existing treatment options are insufficient in PAH

    Existing treatment options are insufficient in PAH Current therapies are vasodilators treating symptoms of PAH rather than the underlying pathophysiology No. of PAH drugs by class • Four main classes of current PAH therapies: sGC • Endothelin receptor agonists (ERA) 2 ERA • Prostacyclin analogues (P

  76. Slide 76: The search for disease-modifying therapies in pulmonary hypertension

    The search for disease-modifying therapies in pulmonary hypertension: new direction in epigenetic modulation for PAH

  77. Slide 77: HDACi game-changing with epigenetic modulation of cardiovascular disease

    HDACi game-changing with epigenetic modulation of cardiovascular disease CS1 and preclinical CS014 acts as epigenetic modulators • Epigenetic modulation is the alteration of gene expression without altering genetic material. • Epigenetic changes play a significant role in the pathogenesis of many CV

  78. Slide 78: Epigenetic Modulation for Cardiovascular Disease

    2020 Epigenetic Modulation for Cardiovascular Disease

  79. Slide 79: Epigenetic Modulation for Cardiovascular Disease

    2020 Epigenetic Modulation for Cardiovascular Disease

  80. Slide 80: Cereno's portfolio includes HDAC inhibitors and a PCA with potential in CVD

    Cereno’s portfolio includes HDAC inhibitors and a PCA with potential in CVD Next Program Indication Discovery Preclinical Phase I Phase II Phase III milestone Phase II top- CS1 PAH HDACi with epigenetic effects line data: Q1, 2023 Phase I IND HDACi with CS014 CVD epigenetic effects submission: 2023

  81. Slide 81: CS1 vs Sotatercept

    CS1 vs Sotatercept Important mechanisms for PAH - Selected preclinical data Comparison characteristics of CS1 vs Sotatercapt1,2,3,4,5,6,7 Pulmonary pressure Reverse- Anti- Anti- Anti- Generic name MoA Phase reduction remodeling fibrotic inflammatory thrombotic CS1 +++ +++ +++ ++ +++ HDACi II Sotater

  82. Slide 82: Characteristics of CS1 vs Sotatercept

    Characteristics of CS1 vs Sotatercept CS1 Sotatercept MoA HDACi TGF-β ligand trap (monoclonal antibody) Oral Innovative formulation, Subcutaneous, Administration delayed immediate release every 3 weeks Use patent 2038 2036 ODD ✓ ✓ Potential disease modifying ✓ ✓ Pulmonary pressure reduction ✓ ✓ Reve

  83. Slide 83: CS1 stands strong vs established and pipeline PAH drugs

    CS1 stands strong vs established and pipeline PAH drugs based on preclinical data Pulmonary Reverse- Anti- Anti- Anti- MoA Company Generic name pressure remodeling fibrotic inflammatory thrombotic reduction Ambrisentan,Bosentan, ERA Misc Macisentan +++ + + + 0 PDE5i Misc Sildanafil, Taldalafil ++ +?

  84. Slide 84: HDAC inhibitor CS1 aims to offer an effective, safe and disease modifying treatment for PAH

    HDAC inhibitor CS1 aims to offer an effective, safe and disease modifying treatment for PAH CS1’s multi-fold efficacy, all relevant for PAH CS1 is a new advanced reformulation and acts as an epigenetic modulator Pulmonary pressure-reduction • Proven good safety and tolerability in Phase I study. Rev

  85. Slide 85: CS1 viewed as potential game-changer in PAH by global thought leader

    CS1 viewed as potential game-changer in PAH by global thought leader “CS1 has to definitely be tested in PAH, it could be game-changing for patients.” – Dr Raymond Benza, global thought leader in PAH treatment and PI CS1-003, CS1’s Phase II study in PAH is ongoing with first about Cereno’s CS1. pati

  86. Slide 86: Review article in The Lancet Healthy Longevity supports epigenetic modulation via HDACi

    Review article in The Lancet Healthy Longevity supports the potential of epigenetic modulation via HDACi in CVD Accumulating evidence supports the role of epigenetic modulation through HDAC inhibition in the treatment of multiple medical conditions beyond the treatment of epilepsy, which has been do

  87. Slide 87: Beyond PAH: Cereno's robust strategy for cardiovascular disease management

    Beyond PAH: Cereno’s robust strategy for cardiovascular disease management Anti-hypertensive Anti-inflammatory Disability Dementia Diabetes Hypertension Anti-fibrotic Fibrosis Reverse remodeling Stroke Diastolic dysfunction Anti-thrombotic (anti-platelet, fibrinolytic, Atrial fibrillation without bl

  88. Slide 88: CS1 active ingredient reduces thrombus formation in vivo without bleedings

    CS1 effect profile: Anti-fibrotic Anti-inflammatory Pulmonary pressure reduction Anti-thrombotic CS1 active ingredient – pre-treatment reduces thrombus formation in vivo – without bleedings Fibrin (injury only) Fibrin (injury + Thrombin) Thrombus volume (inj only) Thrombus volume (inj + Thrombin) Th

  89. Slide 89: CS1 – prevention of fibrosis, atrial fibrillation and thrombosis

    CS1 – prevention of fibrosis, atrial fibrillation and thrombosis • Atrial fibrillation increases with age • Associated with progressive (fibrotic) remodelling of the atrium • The risk of thrombosis is linked to the size/fibrotic remodelling of the atrium Findings show that CS1 has therapeutic potent

  90. Slide 90: Potential of Cereno's pipeline of HDACi epigenetic modulators

    Potential of Cereno’s pipeline of HDACi epigenetic modulators (CS1, CS014, CSXXX) based on unique efficacy profile Efficacy profile of Systemic blood Pulmonary Anti-fibrotic/ HDACi epigentic pressure pressure Anti-inflammatory/ Reverse Cardiovascular disease modulators reduction reduction Anti-throm

  91. Slide 91: Cereno's Preclinical Candidates Potential to Break New Ground

    Cereno’s Preclinical Candidates Potential to Break New Ground Dr. Björn Dahlöf Chief Medical Officer (CMO), Cereno

  92. Slide 92: Cereno's portfolio of two pipeline drug candidates in preclinical development

    Cereno’s portfolio of two pipeline drug candidates in preclinical development Next Program Indication Discovery Preclinical Phase I Phase II Phase III milestone Phase II top- CS1 PAH HDACi with epigenetic effects line data: Q1, 2023 Phase I IND HDACi with CS014 CVD* epigenetic effects submission: 20

  93. Slide 93: CS014 is a novel HDACi with epigenetic modulation properties

    CS014 is a novel HDACi with epigenetic modulation properties Preclinical development program Q2: Collaboration extended with a full preclinical Ready to start Research collaboration Acquired by development program in clinical phase I, Emeriti Bio cardiovascular disease first-in-man studies 2019 2020

  94. Slide 94: CS585 is a prostacyclin receptor agonist

    CS585 is a prostacyclin receptor agonist utilizing a well- established drug class and regulatory pathway Preclinical development program Q1: CS585 obtained through Ready to start Research collaboration an option agreement with Q3: First patent clinical phase I, University of Michigan granted in the

  95. Slide 95: Leaving a mark in the medical community through abstracts accepted at top congresses

    Leaving a mark in the medical community through abstracts accepted at top congresses June 9-12, 2022 August 26-29, 2022 CS014 is a novel HDAC inhibitor CS585 is a first-in-class compound regulating platelet activity, targeting the IP receptor for fibrinolysis and clot stability for prevention of thr

  96. Slide 96: CS585 – A First-In-Class Compound Targeting the IP Receptor

    CS585 – A First-In-Class Compound Targeting the IP Receptor for Prevention of Thrombosis Without Increased Risk of Bleeding Dr. Michael Holinstat Ass. Prof. at University of Michigan Medical School; and Director Translation Research, Cereno

  97. Slide 97: CS585 is a first-in-class compound targeting the IP receptor

    CS585 IS A FIRST-IN-CLASS COMPOUND TARGETING THE IP RECEPTOR FOR PREVENTION OF THROMBOSIS WITHOUT INCREASED RISK OF BLEEDING Michael Holinstat, PhD, FAHA Departments of Pharmacology, Internal Medicine (Division of Cardiovascular Medicine), and Vascular Surgery University of Michigan Contributing aut

  98. Slide 98: Conflict of Interest Disclosure Slide

    Conflict of Interest Disclosure Slide: Consulting: • I am a consultant and equity holder in Cereno Scientific and Veralox Therapeutics. I am also an inventor for the patents on CS585 and VLX-1005. Grants: • I receive research grants from the NIH, Cayman Biomedical Research Institute (CaBRI), Cereno

  99. Slide 99: Platelet physiology and pathophysiology

    Platelet physiology and pathophysiology Hemostasis Thrombosis

  100. Slide 100: Platelet physiology and pathophysiology

    Platelet physiology and pathophysiology Hemostasis

  101. Slide 101: Platelet physiology and pathophysiology

    Platelet physiology and pathophysiology Hemostasis Thrombosis

  102. Slide 102: Regulation of human platelet function

    Regulation of human platelet function • Currently approved Anti-platelet drug • While current anti-platelet therapy has therapy has reduced the risk of morbidity significant health benefits, morbidity and and mortality by more than 26%. death due to thrombotic events and bleeding still remains a sig

  103. Slide 103: Eicosanoids function as negative regulators for platelet activation

    Eicosanoids function as negative regulators for platelet activation: (DGLA) • 12-lipoxygenase oxidizes fatty acids to form bioactive lipids • 12-LOX bioactive lipids represent novel targets for development of antiplatelet therapeutics • Little is known about the Substrate Product Name Reduced Produc

  104. Slide 104: 12(S)-HETrE protects vessel from Thrombosis

    12(S)-HETrE protects vessel from Thrombosis 100 WT 12(S)-HETrE IP-/- 80 Control Vessel Aggregation (%) 60 Platelets 40 Gαs Fibrin 20 AC 0 cAMP DMSO 12-HETrE (10µM) 12-HETrE (20µM) PKA 12-HETrE DMSO FORSK 12-HETE 10 µM 20 µM VASP P-VASP Vessel treated with 12(S)-HETrE P-VASP Yeung et al. ATVB 2016; T

  105. Slide 105: 12-HETrE signals through the IP receptor in human platelets

    12-HETrE signals through the IP receptor in human platelets 12-HETrE PGI2 PGI2 RO3244794 RO3244794 PAR4 IP receptor Inhibition Aggregation Aggregation Inhibition Aggregation (IP receptor (IP receptor Independent) Dependent) IP receptor IP Receptor Antagonist PGI2 PAR4-AP Tourdot et al. Blood Adv 201

  106. Slide 106: CS585 developed as a high potency analog of 12(S)-HETrE

    CS585 developed as a high potency analog of 12(S)-HETrE (human platelets) 250 kDa CS585 regulates Platelet function through: Veh. Control 100pM 250pM 500pM 100nM 10pM 25pM 50pM 10nM 25nM 50nM 75 kDa 1nM Unstimulated v VASP phosphorylation (IP receptor) pVASP 50 kDa Vehicle Stimulated 37 kDa GAPDH v

  107. Slide 107: CS585 selectively signals through IP receptor

    CS585 selectively signals through IP receptor IP receptor DMSO DP receptor DMSO EP2/EP4 receptor DMSO RO118542 TG4-155/CJ42794 100 100 100 MK0524 *** 90 80 ** *** 80 80 Aggregation (%) Aggregation (%) Aggregation (%) 70 60 60 60 50 40 40 40 30 20 20 20 10 0 0 0 0 0.050.25 0.5 0.75 1 25 50 100 0 0.05

  108. Slide 108: CS585 inhibits platelet clot formation following injury

    CS585 inhibits platelet clot formation following injury Vehicle control CS585 3mg/kg CS585 6mg/kg

  109. Slide 109: CS585 delays clotting and occlusion time in the carotid artery

    CS585 delays clotting and occlusion time in the carotid artery ns ns ✱✱ ✱ Carotid Artery Occlusion Time (mins) 30 20 10 0 kg kg kg kg ol tr g/ g/ g/ g/ on 6m 5m 5m 1m C 1. 0. 0.

  110. Slide 110: CS585 doesn't affect coagulation or bleeding

    CS585 doesn’t affect coagulation or bleeding ns ns Control 600 CS585 Tail Bleeding time (sec) 250ng/mL Rivaroxaban 500 250ng/mL Rivaroxaban + CS585 400 300 200 100 0 g l g 7UDFLQJVIURPWRSWRERWWRP ro k k g/ g/ nt 6m 5m co HT &KDQQHO 3DWLHQW 67 6DPSOHGHVFULSWLRQ 2SHUDWRU $QDO\]HU61 0. le 85 c 85 S5 hi

  111. Slide 111: Summary: CS585

    Summary: CS585 • 12(S)-HETrE potently and selectively inhibits platelet activity and IP receptor thrombosis through activation of the IP receptor • CS585 is a novel IP agonist derived from 12(S)-HETrE Ø Stable in human plasma and blood • CS585 selectively activates the IP receptor resulting in phosp

  112. Slide 112: Acknowledgements

    Current Holinstat Lab: Acknowledgements: • Sylviane Lambert, PhD-Research Specialist • Livia Stanger-PhD-Graduate Student Support: • Raymond Adili, MD-Associate Research Scientist • Antonela Rodriguez, PhD-Graduate Student • Adriana Yamaguchi, PhD-Postdoctoral Fellow • Eliana Botta, PhD-Postdoctoral

  113. Slide 113: CS014 – A Novel HDAC Inhibitor Regulating Platelet Activity

    CS014 – A Novel HDAC Inhibitor Regulating Platelet Activity, Fbrinolysis and Clot Stability for Prevention of Thrombosis Without Increased Risk of Bleeding Dr. Michael Holinstat Ass. Prof. at University of Michigan Medical School; and Director Translation Research, Cereno

  114. Slide 114: CS014 is a novel HDAC inhibitor regulating platelet activity, fibrinolysis and clot stability

    CS014 is a novel HDAC inhibitor regulating platelet activity, fibrinolysis and clot stability for prevention of thrombosis without increased risk of bleeding Michael Holinstat, PhD, FAHA Departments of Pharmacology, Internal Medicine (Division of Cardiovascular Medicine), and Vascular Surgery, Unive

  115. Slide 115: Regulation of human platelet function

    Regulation of human platelet function • Currently approved anti-platelet drug therapy • While current anti-platelet therapy has significant has reduced the risk of morbidity and mortality health benefits, morbidity and death due to by more than 26%. thrombotic events and bleeding still remains a Clo

  116. Slide 116: CS014 inhibits platelet clot formation following vascular injury

    CS014 developed as an HDAC inhibitor with the ability to inhibit platelet clot formation following vascular injury Control *** 9000 CS014 100 mg/kg Pre-injury 1 min 2 min 3 min 8000 7000 Platelet MFI 6000 Saline 5000 control 4000 3000 2000 1000 0 0 1 2 3 4 CS014 Time (mins) 100 mg/kg 600 Control ***

  117. Slide 117: CS014 delays carotid artery occlusion time

    CS014 delays carotid artery occlusion time 35 * Carotid artery occlusion time 30 25 (mins) 20 15 10 5 0 Control CS014 100 mg/kg • CS014 significantly delays time to full • Destroying the vessel wall with 10% FeCl3 results in full occlusion of the carotid artery occlusion of the vessel in 15 minutes

  118. Slide 118: CS014 prevents low shear clot formation and fibrin formation

    CS014 prevents low shear clot formation and fibrin formation 16000 2250 *** Saline control *** Saline control 14000 CS014 100mg/kg CS014 100mg/kg 2000 12000 10000 1750 Platelet MFI Fibrin MFI 8000 1500 6000 4000 1250 2000 1000 0 0 5 10 15 0 5 10 15 Time (mins) Time (mins) • CS014 prevents platelet c

  119. Slide 119: CS014 does not alter tail vein bleeding time

    CS014 does not alter tail vein bleeding time 600 Tail bleeding time (sec) 500 • CS014 has no increased time to cessation 400 of bleeding compared to control mice following resection of tail 300 • CS014 does not demonstrate any increased risk for bleeding even at elevated levels 200 of drug (tested o

  120. Slide 120: CS014 does not alter coagulation activity in the blood

    CS014 does not alter coagulation activity in the blood Reaction time • CS014 did not alter reaction time in whole blood as assessed by TEG CS014 100 mg/kg + • Rivaroxaban (an FXa inhibitor) significantly rivaroxaban 100 mg/mL delays reaction time for clot formation in blood CS014 100 mg/kg • Reactio

  121. Slide 121: Conclusions

    Conclusions: • HDACi CS014 inhibits both small and large vessel clotting and fibrin formation • CS014 prevents high shear arterial platelet clot formation and fibrin formation following vascular injury • CS014 significantly delays vessel occlusion in high shear large vessels. • CS014 prevents platel

  122. Slide 122: Panel: The Need for True Innovation in CVD Management

    Panel: The Need for True Innovation in CVD Management – Focus on PAH and Thrombosis Dr. Björn Dahlöf Dr. Phil Adamson Dr. Michael Holinstat Dr. Gunnar Olsson Chief Medical Officer, Divisional Vice President and Ass. Prof. at University of MD, Prof, KI; SAB Cereno Chief Medical Officer Michigan Medic

  123. Slide 123: Questions from Audience

    Cereno Scientific Questions from Audience

  124. Slide 124: Concluding Words

    Concluding Words Sten R. Sörensen Chief Executive Officer (CEO), Cereno

  125. Slide 125: Full steam ahead in 2022

    Full steam ahead in 2022 Key 2022 achievements and upcoming milestones ü CS585 and CS014 nominated in Q2 as CDs for further development towards IND submission for clinical programs ü CS585 thrombosis data (prevention of thrombosis without increased risk of bleeding) accepted for EHA June 2022 ü CS01

  126. Slide 126: Cereno's strategy to provide value for patients and stakeholders

    Cereno’s strategy to provide value for patients and stakeholders Cereno’s key objectives 2024 Utilizing the project portfolio’s full potential on 2023 profitable markets within cardiovascular disease. 2022 Clinical phase Clinical phase Initiated Phase IIb/III study in PAH with CS1 Topline data Phase

  127. Slide 127: Warrants of series TO2

    Warrants of series TO2 • The warrants of series TO2 were issued in Oct Terms of the warrants: 2020 in connection to a directed share issue • Each warrant give the holder the right • In total, 34.5 million warrants of series TO2 are to subscribe for one new share in outstanding and are trading on Spo

  128. Slide 128: Cereno is well-positioned to become a leader in developing innovative treatments for cardiovascular disease

    Cereno is well-positioned to become a leader in developing innovative treatments for cardiovascular disease Global presence Offices in biotech hot spots Gothenburg, Sweden and Boston, MA, US and significant R&D collaboration with University of Michigan, MI, US. Inherently profitable market Rare dise

  129. Slide 129: About Cereno Scientific

    Cereno Scientific is a clinical stage biotech company within cardiovascular diseases. The lead drug candidate, CS1, is a Phase II candidate in development for the treatment of the rare disease pulmonary arterial hypertension (PAH). CS1 is an HDAC (histone deacetylase) inhibitor that acts as an epige

Cereno Scientific — Investor Day (August 2022) on 6ix