Ouster, Inc. · NASDAQ:OUST

Ouster — Colonnade Acquisition — SPAC Merger (February 2021)

37 slides from Ouster's SPAC merger presentation, Feb 22, 2021

  1. Slide 1: Shareholder vote: March 9th

    investors.ouster.com Shareholder vote: March 9th Exhibit 99.1

  2. Slide 2: Disclaimers: About this Presentation

    Disclaimers About this Presentation This investor presentation (this “Presentation”) does not constitute (i) a solicitation of a proxy, consent or authorization with respect to any securities or in respect of the proposed business combination between Ouster, Inc. (“Ouster”) and Colonnade Acquisition

  3. Slide 3: Disclaimers: Non-GAAP Financial Measures

    Disclaimers Non-GAAP Financial Measures This Presentation also includes certain financial measures not presented in accordance with generally accepted accounting principles (“GAAP”) including, but not limited to, Adjusted EBITDA and certain ratios and other metrics derived therefrom. Ouster defines EB

  4. Slide 4: Slide 4

  5. Slide 5: Slide 5

  6. Slide 6: Strategic customer agreement with Plus

    Strategic customer agreement with Plus Plus is a supplier of autonomous trucking technology Binding agreement Minimum purchase commitment of 2,000 sensors Currently projected non-binding forecast of 160,000 sensors over next 5 years

  7. Slide 7: Digital technology rapidly replaces analog with Moore's Law price-performance superiority

    Digital technology rapidly replaces analog with Moore’s Law price-performance superiority ANALOG DIGITAL The jump from analog to digital transforms industries LIMITED USE CASES EXPANDED, UBIQUITOUS USE CASES Camera Lidar Industrial Robotics Smart Infra Auto 7B Units 2020E 300M Units 2030E 30M Units

  8. Slide 8: Ouster Digital Lidar Architecture

    Ouster Digital Lidar Architecture 1. VCSEL LASER ARRAY 2. DIGITAL RECEIVER SoC (ASIC) • Proprietary single photon counting (SPAD) architecture and processing • Combines command and control logic, signal processing, on chip memory, and pixel array • Sourced from global leader in SPAD fabrication • Fu

  9. Slide 9: Benchmark

    Benchmark Ayudhaya Thailand > Benchmark.

  10. Slide 10: Digital lidar is chip based, efficient, and driven by Moore's Law

    FMCW Digital 905 nm MEMS Single Chip vs. Complex 1550 nm Digital lidar is chip based, efficient, and driven by Moore’s Law Efficiency vs. Brute Force Aligned with Moore’s Law vs. Incremental Integrated Complex Complex Complex Complex Efficiency Brute Force In-between Brute Force In-between Moore’s L

  11. Slide 11: Complex architectures are a hallmark of analog technology

    Complex architectures are a hallmark of analog technology 1550 nm FMCW MEMS 905 nm US Patent 10,267,898 Figure 18 (Luminar Technologies, Inc.) Laser System Detector System Optical System US Patent Application 0386872 A1 Figure 2B (Innoviz Technologies Ltd.) US Patent Application 0319314 A1 Figure 7B

  12. Slide 12: Digital CMOS puts complexity on the chip

    1550 nm FMCW MEMS 905 nm Laser System Detector System Optical System Digital CMOS puts complexity on the chip. 100M transistors L.3 Unnecessary in Ouster’s design Digital SoC Laser 1 cm “The best part is no part” - Elon Musk Note: L.3 SoC production planned in 2021 See previous slide for patent refe

  13. Slide 13: Digital lidar outpaces others even before they reach market

    Digital lidar outpaces others even before they reach market OS0 OS1 OS2 ES2 PRODUCT PORTFOLIO Performance Range x Resolution Time 905 nm analog lidar* Digital Lidar *Includes Mechanical, MEMS and FMCW approaches 130 nm L.1 L.2 L.3 40 nm XX nm OUSTER LIDAR SoC PROGRESSION L.1 L.2 L.3 1550 nm analog l

  14. Slide 14: Lidar has the potential to automate the global supply and logistics chain

    Mining 1 Manufacturing Trucking 5 Last mile 6 Shipping 4 2 Warehousing Lidar has the potential to automate the global supply and logistics chain Illustrative supply chain 3

  15. Slide 15: Mining Automation

    Lidar type Short-range Mid-range Quantity on-vehicle 3 - 4 1 - 2 Range Field of View (H x V) 0 - 50 meters 0 - 100 meters 180° x 90° 180° x 45° Mining Automation Note: Vehicles are meant as representations of common configurations, not indicative of current customers

  16. Slide 16: Autonomous Mining

    Autonomous Mining IK

  17. Slide 17: Factory Automation

    Lidar type Quantity on-vehicle Range Field of View (H x V) Short-range 2 - 4 0 - 50 meters 180° x 90° Factory Automation Note: Vehicles are meant as representations of common configurations, not indicative of current customers

  18. Slide 18: Factory Automation

    Factory Automation IK

  19. Slide 19: Warehouse Automation

    Warehouse Automation Lidar type Short-range Mid-range Quantity on-vehicle 3 - 4 1 - 2 Range Field of View (H x V) 0 - 50 meters 0 - 100 meters 180° x 90° 180° x 45° Note: Vehicles are meant as representations of common configurations, not indicative of current customers

  20. Slide 20: Warehouse Automation

    Warehouse Automation IK

  21. Slide 21: Port Automation

    Port Automation Lidar type Quantity on-vehicle Range Field of View (H x V) Mid-range 1 - 2 0 - 100 meters 360° x 45° Note: Vehicles are meant as representations of common configurations, not indicative of current customers

  22. Slide 22: Port Automation

    Port Automation IK

  23. Slide 23: Autonomous Trucking

    Lidar type Mid-range Long-range Quantity on-vehicle 2 1 Range Field of View (H x V) 0 - 50 meters 5 - 200+ meters 180° x 45° 120° x 20° Autonomous Trucking Note: Vehicles are meant as representations of common configurations, not indicative of current customers

  24. Slide 24: Autonomous Last-mile Delivery

    Autonomous Last-mile Delivery Lidar type Quantity on-vehicle Range Field of View (H x V) Short-range Mid-range 3-4 1 0 - 50 meters 0 - 100 meters 180° x 90° 360° x 45° Long-range 1 1 - 200 meters 360° x 20° Note: Vehicles are meant as representations of common configurations, not indicative of curre

  25. Slide 25: Autonomous Last-mile Delivery

    Autonomous Last-mile Delivery ——— —— _—

  26. Slide 26: Automotive Business

    Automotive Business Product Requirements Manufacturing Transferred >60% of production to Contract Manufacturer (Benchmark) IATF 16949:2016 certified ISO 9001:2015 and ISO 14001:2015 certified True solid-state product in development Automotive mechanical and environmental performance testing ASIL(B)

  27. Slide 27: Ouster's perspective on automotive lidar

    Ouster’s perspective on automotive lidar Automakers want a package of lidar sensors, not just one. Price will be a key differentiator between winners and losers in auto We expect gross margins to match the auto industry, not tech 1. 2. 3.

  28. Slide 28: Automotive OEMs want a multi-lidar package, similar to cameras

    Automotive OEMs want a multi-lidar package, similar to cameras L2+ ADAS System ADAS Features Traffic Jam Assist 5 Lidar Package 1 Forward Lidar Automated Parking Adaptive Cruise Control Automatic Lane Change

  29. Slide 29: Digital lidar achieves the ADAS end state in product and pricing

    Digital lidar achieves the ADAS end state in product and pricing 1 Forward lidar 1,000 5 Lidar package total 1,000 each $ $ VS Others * *Representative proposed offering from competitors based on publicly available statemens

  30. Slide 30: Financial Overview

    Financial Overview Ne

  31. Slide 31: Record Q4 momentum

    Record Q4 momentum Q4 2020 revenue of $6.4 million: Ouster’s highest revenue quarter to date 100+ new customers secured in Q4 2020, bringing total for 2020 to ~500 Excellent margins: 31% gross margin achieved in Q4 Lidar sensor production increased 61% in Q4 compared to Q3 as our manufacturing capac

  32. Slide 32: Accelerating sales growth across diversified end markets

    Accelerating sales growth across diversified end markets REVENUE ($M) SENSOR UNIT SALES (000s) 142% CAGR Auto expected to account for ~15% of 2020-25E revenue BLENDED ASP & COGS/UNIT ($) 218% CAGR Note: ADAS refers to advanced driver assistance systems. 2020 numbers reflect preliminary unaudited fin

  33. Slide 33: Customer forecasts expected to anchor revenue projections through 2025E

    Customer forecasts expected to anchor revenue projections through 2025E with ~$5B cumulative opportunity Current customers drive bottoms-up revenue visibility 210 existing 25+ Pilot evaluation Production 135+ Benchtop evaluation ~20 ~25% CONVERSION RATE ~65% CONVERSION RATE 15+ 100% CONVERSION RATE

  34. Slide 34: We expect our current customers to anchor projections

    We expect our current customers to anchor projections. New customers expected to ~3x our 2025E opportunity. Current customers drive bottoms-up revenue visibility $11B+ cumulative 2020-25E sales opportunity including new customers 2020-25E SALES OPPORTUNITY AND CURRENT REVENUE PROJECTIONS HIGHLIGHTS

  35. Slide 35: Flexible architecture expected to drive strong margins and cash flow

    Note: 2020 numbers reflect preliminary unaudited financial results. (1) Adj. EBITDA is defined as operating income plus depreciation, amortization and SBC expenses, and Adj. EBITDA margin is defined as Adj. EBITDA divided by total revenue. (2) Adj. EBITDA less capex conversion is defined as Adj. EBI

  36. Slide 36: New funds expected to help drive rapid scale

    TO DRIVE… New funds expected to help drive rapid scale Rapid deployment of end market customizations Improved customer stickiness through deep bench of analytic capabilities Accelerated R&D further widens technological moats EXPECTED USE OF NEW FUNDS Build-out worldwide sales and marketing effort De

  37. Slide 37: Shareholder vote: March 9th

    investors.ouster.com Shareholder vote: March 9th

Colonnade Acquisition — SPAC Merger (February 2021) on 6ix