Quantum-si Incorporated · NASDAQ:QSI

Quantum-si — Investor Day (November 2024)

78 slides from Quantum-si's investor day presentation, Nov 21, 2024

  1. Slide 1: Investor & Analyst Day November 20, 2024

    Investor & Analyst Day November 20, 2024

  2. Slide 2: Forward Looking Statements

    Forward Looking Statements This presentation includes “forward-looking statements” within the meaning of the “safe harbor” provisions of the United States Private Securities Litigation Reform Act of 1995. The actual results of the Company may differ from its expectations, estimates, and projections

  3. Slide 3: Investor Day Agenda

    Investor Day Agenda Jeff Hawkins, CEO Proteomics Market: Current & Future Perspective 10:00–10:20 AM Todd Rearick, CTO Technology Architecture for the Future 10:20–10:40 AM Brian Reed, PhD Innovating Discovery Applications in Proteomics 10:40–11:00 AM John Vieceli, CPO Platform Roadmap 11:00–11:20 A

  4. Slide 4: Proteomics Market: Current & Future Perspective

    Proteomics Market: Current & Future Perspective

  5. Slide 5: Proteins are the vital engines of biological systems

    Proteins are the vital engines of biological systems, playing crucial roles in both health and disease Proteins are the Core of Biological Discoveries Therapeutic Development Biotech Innovation Disease Biomarkers

  6. Slide 6: Proteome Complexity

    Proteome Complexity GENOME TRANSCRIPTOME AlternativePromoters Alternative splicingmRNA editing Post-translationalModifications PROTEOME COMPLEXITY ~20–25,000 GENES ~100,000 TRANSCRIPTS PROTEOME >1,000,000 PROTEOFORMS

  7. Slide 7: Transcriptomics Does Not Accurately Predict Protein Profiles

    Transcriptomics Does Not Accurately Predict Protein Profiles Human Proteoform Project: https://www.science.org/doi/10.1126/sciadv.abk0734

  8. Slide 8: Disease Progression Goes Beyond the Protein Level

    Disease Progression Goes Beyond the Protein Level Human Proteoform Project: https://www.science.org/doi/10.1126/sciadv.abk0734

  9. Slide 9: Proteomics is a Large and Growing Market

    $75B+ Proteomics Market1 $8B+ Initial Target Market2 Proteomics is a Large and Growing Market Opportunity Identification $3B+ Expression + Quantification $3B+ Proteoforms + PTMs $1.5B+ SVB Leerink Research, “Proteomics: The Next Frontier in Life Science Tools and Diagnostics.” September 28, 2021 Dec

  10. Slide 10: Platinum Use Cases Today

    Post-translational modifications Amino acid variants RNA isoforms Platinum Use Cases Today Identify ProteinsCritical to Biology Screen and Characterize Proteins with Barcodes Uncover + Understand Proteoforms In-gel digest of bio samples Characterize antibodies Identify co-IP proteins Protein/antibod

  11. Slide 11: How QSI Customers Are Leveraging Platinum

    How QSI Customers Are Leveraging Platinum MRNA screening with protein barcodes for gene therapy Studying citrullination PTMs Characterizing far-flungextremophiles Studying mRNAtranslation and PTMs Studying disease isoforms Mapping protein conformationsusing protein barcodes

  12. Slide 12: The Proteomics Market is Poised for Significant Growth

    The Proteomics Market is Poised for Significant Growth The proteome is dynamic — longitudinal data will be needed (i.e., repeat testing) Routine use of multiomics requires creating new data analysis tools — these tools will require large amounts of training data Large-scale screening studies designe

  13. Slide 13: Technical Challenges in Proteomics Today

    Technical Challenges in Proteomics Today Top-down vs Bottom-up Sensitivity vs Dynamic Range Unbiased vs Biased Standardization + Reproducibility Throughput + Costs Breadth(# of Proteins) vs Depth(Amino Acid, PTM)

  14. Slide 14: Multiple Specialized Platforms Required to Fully Interrogate the Proteome

    Multiple Specialized Platforms Required to Fully Interrogate the Proteome HT Affinity Assays Mass Spec EdmanDegradation Western Blots + ELISA Samples: 100s–1,000s per study Proteins: 100-1,000s per sample Resolution: Protein Samples: 10s–100s per study Proteins: <50 per sample Resolution: Amino acid

  15. Slide 15: QSI is Best Positioned to Usher in a New Paradigm in Proteomics

    QSI is Best Positioned to Usher in a New Paradigm in Proteomics Proteus™ Platinum® Pro Core technology is the only commercially available tech that can enable single-molecule, top-down, and bottom-up proteomics methods New architecture (Proteus™), combined with other ongoing technology development i

  16. Slide 16: Distribution Agreement in Place to Scale Adoption Across the US + Canada

    Distribution Agreement in Place to Scale Adoption Across the US + Canada

  17. Slide 17: Technology Development Pipeline

    Technology Development Pipeline

  18. Slide 18: Quantum-Si Core Technologies

    Quantum-Si Core Technologies Peptide Mapping Barcode Applications Variant Calling PTM Characterization Protein Identification Platinum® System 2M Chip Chemistry Biomolecules Algorithms Applications

  19. Slide 19: End-to-End Protein Analysis

    End-to-End Protein Analysis Protein Peptides Data Analyzed Excitation ‘R’ Sequenced Wells Prepared IL4(78-84)-QLI — IL4(85-102)-RLD — IL4(43-61)-ETF — IL4(22-37)-TLC — IL4(3-12)-CDI — IL4(13-21)-TLN — IL4(103-117)-EAN — 15,548.0, FDR:0.00 ALIGNMENTS IL4 (22,160 Reads) FDR <0.05 0.05 ≤ FDR <0.1 FDR ≥

  20. Slide 20: Prepare Proteins for Sequencing

    Prepare Proteins for Sequencing Proteins are digested into short fragments (peptides) Peptides are immobilized at the bottom of reaction chambers on our chip

  21. Slide 21: Kinetic Signatures Uniquely Identify Proteins + Proteoforms

    Kinetic Signatures Uniquely Identify Proteins + Proteoforms Recognizers bind amino acids in sequence Recognition events produce kinetic signatures R L I F DQQ 600 500 400 300 200 100 0 0.24s 3.23s 0.23s 0.97s TIME (min) Kinetic signature plot Excitation ’R’ Sequenced ‘L’ Sequenced ‘I’ Sequenced ‘F’

  22. Slide 22: Rationale for New Technology Architecture

    Rationale for New Technology Architecture Semiconductors require large R&D investment Re-partitioning of system allows for less expensive consumable Leverage optical magnification to pack wells closer together and scale to billions of reads Leverage high-performance, commercially-available imaging c

  23. Slide 23: QSI Core Technologies

    QSI Core Technologies Trying to show all components of core tech. Do not need “chip” box and SW image could be something else Chip Surface Chemistry Instrument Library Prep + Sequencing Reagents Software

  24. Slide 24: Chip + Surface Chemistry

    Chip + Surface Chemistry Simple passive device with approximately 20M wells (per flow cell) at initial launch Heavily de-risked — leverages existing design, materials, and fabrication methods Compatible with existing surface chemistry Surface passivation Functionalized well bottom

  25. Slide 25: Proteus Consumable Development

    Proteus™ Consumable Development Wafer process flow developed in production foundry Prototype wafers fabricated and tested Simple process has low-risk path to high-volume production

  26. Slide 26: Wafer Fabrication Process Development

    Wafer Fabrication Process Development Foundry process modules work and produce the desired well structure Foundry partner for development and production is in place Fused Silica Wafer

  27. Slide 27: Proteus Instrument Development

    Proteus™ Instrument Development Move imaging components to the system Increase workflow automation Leverage commercially available technologies for imaging and liquid handling Takes advantage of significant investment in optics driven by NGS industry

  28. Slide 28: Library Prep + Sequencing Chemistry

    Library Prep + Sequencing Chemistry Existing library prep and sequencing chemistry are completely portable New system discriminates dyes with color rather than lifetime Some new dye development is necessary, but is underway and low risk

  29. Slide 29: Color Ratio is a Viable Alternative to Current Lifetime Detection

    Color Ratio is a Viable Alternative to Current Lifetime Detection Key elements have already been de-risked Move to color means we can leverage off-the-shelf camera technology

  30. Slide 30: Registration Deconvolution Analysis Software

    Registration Deconvolution Analysis Software Pulse detection, ROI calling, alignment, protein inference, and other applications Backend processing is completely portable to new system Development required for frontend image processing Well within state-of-the-art capability Camera Image Reconstitute

  31. Slide 31: Instrument Roadmap

    Instrument Roadmap New architecture scales upto 10B reads per consumable Enables shotgun proteomics of complex samples Puts us on path tode novo sequencing Platinum (2M) ProteusTM 1.0 (50M+) ProteusTM 2.0 (10B)

  32. Slide 32: Innovation Toward the Most Advanced Set of Discovery Applications in Proteomics

    Brian Reed Innovation Toward the Most Advanced Set of Discovery Applications in Proteomics

  33. Slide 33: Agenda

    Agenda Innovation at the Forefront of Proteomics The path to complete proteome coverage 1 Deep, unbiased interrogation of high-complexity samples 3 Beyond sequencing: the first platform for top-down single-molecule proteomics 4 Ultrasensitive PTM detection for proteoforms 2

  34. Slide 34: Acceleration on the Path to Complete Proteome Coverage

    Acceleration on the Path to Complete Proteome Coverage

  35. Slide 35: Sequence Proteins on Platinum

    Sequence Proteins on Platinum Each recognizer binds 1-3 cognate N-terminal amino acids (NAAs) Rapid on-off binding generates a pulsing pattern detected by the chip Extremely information-rich data output: 10s-100s of pulsing events per amino acid

  36. Slide 36: A Rapid Path to Complete Amino Acid Coverage

    A Rapid Path to Complete Amino Acid Coverage Our team has mastered the engineering and evolution of amino acid recognizers As a result of our rich kinetic output, we have more data on our recognizers than possibly any other set of proteins in biotechnology Recognizers in the V3 kit recognize 13 of t

  37. Slide 37: Kinetic Signatures are Sensitive to Downstream Sequence

    Kinetic Signatures are Sensitive to Downstream Sequence Recognizers physically contact residues downstream of bound NAA Influence is encoded in the peptide’s kinetic signature and is highly predictable Kinetic signatures are a unique and powerful feature of Quantum-Si's core technology The acquisiti

  38. Slide 38: Ultrasensitive PTM Detection for Proteins and Proteoforms

    Ultrasensitive PTM Detection for Proteins and Proteoforms

  39. Slide 39: Phosphorylation is the Most Abundant PTM in the Human Proteome

    Phosphorylation is the Most Abundant PTM in the Human Proteome Post-translational modifications (PTMs) are central to protein function and implicated in human diseases There are more than 400 different types of PTMs; phosphorylation is the dominant type (~72% of all PTM sites) Phosphorylation has th

  40. Slide 40: Affinity Reagents as Ultrasensitive PTM Recognizers

    Affinity Reagents as Ultrasensitive PTM Recognizers Anti-PTM antibodies and other affinity reagents work on chip for ultrasensitive PTM detection Deliver the same real-time kinetic information as NAA recognizers Recognize PTMs anywhere in the peptide (not just at the N-terminus) PTM Recognition AQRY

  41. Slide 41: Phosphotyrosine Affinity Reagents as Ultrasensitive PTM Recognizers

    Phosphotyrosine Affinity Reagents as Ultrasensitive PTM Recognizers 30 min Step1: PTM detection for 30 minutes with PTM recognizer Step 2: Normal protein sequencing with NAA recognizers PTM recogizers can be multiplexed and combined with kinetic signatures to pinpoint PTMs in multisite configuration

  42. Slide 42: Ultrasensitive Phosphotyrosine Detection with CDNF

    Ultrasensitive Phosphotyrosine Detection with CDNF Extreme sensitivity to PTM stoichiometry due to the clear pulsing pattern from PTM recognition Example: a CDNF peptide is detected at a ratio of less than 1 phosphorylated peptide in 1,000 Method can be extended to other types of PTMs, e.g., ubiquit

  43. Slide 43: Recognition of Human TAU Proteoforms

    Recognition of Human TAU Proteoforms Affinity reagents can be used in a bottom-up or top-down configuration Example: bottom-up recognition of pT* on human TAU peptides, top-down detection of immobilized full-length TAU proteoforms Real-time approach enables proteoform detecting reagents to be run si

  44. Slide 44: Unbiased Interrogation of High-Complexity Samples with Quantum-Si's Core Technology

    Unbiased Interrogation of High-Complexity Samples with Quantum-Si's Core Technology

  45. Slide 45: Sequencing Complex Biological Samples Unlocks Broad Access to Proteomics

    Sequencing Complex Biological Samples Unlocks Broad Access to Proteomics PROTEIN CONTENT COMPLEXITY Protein complexes Viral particles Sub- cellular protein fractions Plasma extra- cellular vesicles Serum/ plasma Cell lysates Tumor tissue samples Cerebro- spinal fluid 1,000s 100s 10s Biological sampl

  46. Slide 46: Unbiased Interrogation of High-Complexity Samples

    Unbiased Interrogation of High-Complexity Samples New chip architectures and advances in sequencing chemistry will enable sequencing biological samples at ever-increasing depth Future versions of the platform will see shotgun sequencing with thousands of proteins identified Barcoding approaches and

  47. Slide 47: Fast Sequencing for Deep Coverage and Rapid Sample-to-Answer

    Fast Sequencing for Deep Coverage and Rapid Sample-to-Answer Standard chemistry FAST chemistry v1 Example peptide We have developed new sequencing chemistry with a much faster rate of sequencing With FAST chemistry, we achieve equal performance to 10-hour runs in just 90 minutes (version 1) Path to

  48. Slide 48: Beyond Sequencing: Top-Down Single-Molecule Proteomics

    Beyond Sequencing: the First Commercially Available Platform for Top-Down Single-Molecule Proteomics

  49. Slide 49: Detecting Antibody Binding Events with the Power of Real-Time Kinetics

    Dye-cycling enables ultrasensitive real-time detection of biomarkers Detecting Antibody Binding Events with the Power of Real-Time Kinetics IL6 Capture antibody Detection antibody Detection of fixed protein panels with high sensitivity is an increasingly important application in proteomics We develo

  50. Slide 50: Ultrasensitive Detection of Proteins in Serum

    Ultrasensitive Detection of Proteins in Serum Interleukin 6 Lysozyme GFP Spike-in titration experiments in serum demonstrate 0.1–1 pg/mL detection (path down to 10 fg/mL with further development) Direct detection of proteins in serum with high sensitivity

  51. Slide 51: Multiplexed Ultrasensitive Protein Biomarker Detection

    Multiplexed Ultrasensitive Protein Biomarker Detection Affinity reagents against multiple biomarkers can be loaded on the chip Dye-cycling approach enables discrimination of biomarkers by fluorescence and kinetic properties in multiplexed assays, along with PTMs IL6 TNF-α Multiplexed detection of hu

  52. Slide 52: A Platform for Ultrasensitive Detection of Protein Panels

    A Platform for Ultrasensitive Detection of Protein Panels Sensitivity on Platinum is suitable for commercialization of panels with up to 10 proteins Panel size scales with the platform, as well as capacity to multiplex samples Proteins detected directly in serum on chip, eliminating complex sample p

  53. Slide 53: Platform Roadmap

    Platform Roadmap Nov 20, 2024 John Vieceli

  54. Slide 54: Innovation Pipeline is Robust and Accelerating

    2025 2H24 2023 2026 2022 1H24 Innovation Pipeline is Robust and Accelerating Sequencing V1 Instruments + Software UI/UX ProteinInference AI KineticDatabase V2 AI KineticDatabase V3 Library Prep V1 Platinum Pro ProteoVue ScientificCollaborations V2 Low Input LI V2 V3 V4 ProteusTM

  55. Slide 55: Sequencing Analysis Software

    Sequencing Analysis Software Sequence Measure fluorescence from single molecule binding of N-terminal amino acid recognizers Pulse Caller Assign pulses to a recognizer based on fluorescence intensity and lifetime Analyze Determine amino acid sequence using kinetic signature Excitation ’R’ Sequenced

  56. Slide 56: Software Workflows for Next-Gen Protein Sequencing

    Software Workflows for Next-Gen Protein Sequencing™ Protein Inference Kinetic signature enables inference of sample protein from whole human proteome panel ProteoVue™ Variant Calling Kinetic signature enables differentiation of protein variations at the single amino acid level Rank Inferred Protein

  57. Slide 57: Artificial Intelligence

    Artificial Intelligence

  58. Slide 58: N-terminal Amino Acid Recognizer Development

    N-terminal Amino Acid Recognizer Development Science Publication Oct 2022 FYW LIV R Version 1 Kit Mar 2023 AS NQ Version 2/3 Kit Jan/July 2024 DE

  59. Slide 59: Recognizer Protein Design AI

    Recognizer Protein Design AI Orthogonal verification of amino acid recognizer protein design Amino acid recognizer backbone design Amino acid recognizer sequence design Protein design AI leverages NVIDIA GPUs on-premises and in Amazon Cloud

  60. Slide 60: Pulse Width Prediction Using Artificial Intelligence

    Pulse Width Prediction Using Artificial Intelligence Platinum Sequencing QSI is continually increasing the size of the training data with more proteins and/or new binders Pulse Width Prediction AI Currently predicts ~4.6 million pulse widths used in analysis Better Performance Pulse width prediction

  61. Slide 61: Platinum Pro

    Platinum® Pro

  62. Slide 62: Platinum Instrument

    Platinum® Instrument Customers identified opportunities to improve workflow and UI/UX Functionality limited to protein & peptide sequencing Local analysis enabledby additional server

  63. Slide 63: Introducing Platinum Pro

    Introducing Platinum® Pro Streamlined workflowand reduced hands-on time Pro Mode enables new applications Onboard analysis or via the cloud Enhanced user interface

  64. Slide 64: Streamlined Workflow Improves Usability

    Streamlined Workflow Improves Usability

  65. Slide 65: Pro Mode

    Pro Mode Available only on Platinum Pro Dye-labeling Kit Binding Kinetics Protein Binding Protein of Interest Kit and platform enable detection of single-molecule protein binding and kinetics

  66. Slide 66: Peptide Barcodes can be Used to Monitor Protein Expression

    Peptide Barcodes can be Used to Monitor Protein Expression Both In Vivo or In Vitro IN VIVO IN VITRO Equimolar 5 barcode mix encoded as mRNA and packaged into LNPs Enrich for target protein, functionalize, cleave, and sequence barcodes Inject into mouse model; harvest target tissues 5433.0, FDR:0.00

  67. Slide 67: V2 Library Preparation Kit Improvements

    V2 Library Preparation Kit Improvements Simplified workflow reduces need for buffer exchange Improved performance with ~80% of proteins successfully inferred Reduced protein input five-fold

  68. Slide 68: Proteus

    ProteusTM

  69. Slide 69: Proteus Increases Throughput + Automation

    ProteusTM Increases Throughput + Automation Switch from semiconductor to optical architecture with patterned array for throughput scalability Liquid handling automation simplifies workflow and reduces hands-on time Up to an order of magnitude throughput increase per sample relative to Platinum at in

  70. Slide 70: Proteus Increases Number of Samples

    ProteusTM Increases Number of Samples Reagent cartridges with sequencing workflow automation Run up to 8 samples inone sequencing run Run one or two samples simultaneously

  71. Slide 71: The Proteomics Lab of the Future

    The Proteomics Lab of the Future

  72. Slide 72: QSI's Pipeline is Heavily De-risked Compared to Other Proteomics Companies

    QSI’s Pipeline is Heavily De-risked Compared to Other Proteomics Companies Builds upon QSI’s existing commercially available technologies Industry-leading protein and enzyme engineering program operating at scale and with high success rates Manufacturing infrastructure in place and routinely produci

  73. Slide 73: Strategic Partnerships to Accelerate Commercial Adoption

    Strategic Partnerships to Accelerate Commercial Adoption and Deliver on Innovation Roadmap

  74. Slide 74: QSI is Best Positioned to Usher in a New Paradigm in Proteomics

    QSI is Best Positioned to Usher in a New Paradigmin Proteomics QSI core technology is the only commercially available tech that can enable single-molecule, top-down, and bottom-up proteomic analysis New platform architecture designed so QSI will not be feature limited (can scale to billions of reads

  75. Slide 75: QSI Near-term Pipeline Will Unlock Opportunities Across All Market Segments

    QSI Near-term Pipeline Will Unlock Opportunities Across All Market Segments

  76. Slide 76: Proteomics Lab Today

    Proteomics Lab Today Many specialized platforms needed to fully interrogate the proteome Technical tradeoffs when selecting between the breadth of protein coverage and depth of insights High capital costs and manual workflows limit the number of laboratories capable of performing proteomics

  77. Slide 77: QSI Will Power the Proteomics Lab of the Future

    QSI Will Power the Proteomics Lab of the Future One platform and core technology capable of addressing the broadest range of proteomics analysis methods Eliminate technical tradeoffs – single-molecule, amino acids and PTMs, top-down or bottom-up, ultrasensitive, scalable throughput Affordable and au

  78. Slide 78: Q&A

    QUANTUM SI Q&A

Quantum-Si — Investor Day (November 2024) on 6ix