KVH Industries, Inc. · NASDAQ:KVHI

KVH Industries — Technical Presentation (November 2013)

23 slides from KVH Industries's technical presentation, Nov 13, 2013

  1. Slide 1: Guide to Comparing Gyro/IMU Technology

    Guide to Comparing Gyro/IMU Technology Presentation by: Steve Emge, Principal Fiber Optic Gyro Engineer, KVH Industries Jay Napoli, VP FOG & OEM Sales, KVH Industries 13 November 2013

  2. Slide 2: Gyro Performance Grades

    Gyro Performance Grades • Gyro grades defined by bias stability specifications • Consumer  30 – 1000 deg/hr • Industrial  1 – 30 deg/hr • Tactical  0.1 – 30 deg/hr • High-end Tactical  0.1 – 1 deg/hr • Navigation  0.01 to 0.1 deg/hr • Strategic  0.0001 – 0.01 deg/hr Copyright 2010 MEMS Investo

  3. Slide 3: Gyro Technology Types

    Gyro Technology Types Gyro technologies in-production: • Micro-Electro-Mechanical Systems Gyro (MEMS) – Coriolis Effect: Based on vibrating mass deflection resulting from rotation – Can be quartz or silicon based in construction – Low cost, small size/weight, consumer to industrial grade performance

  4. Slide 4: Gyro Grades by Application

    Gyro Grades by Application Flight Control, Smart Munitions, Robotics Tactical Missile AHRS Midcourse Torpedo Guidance Interceptor Self- Cruise Missile Aligning Air/Land/Sea Strategic Navigation Missile Surveying Autonomous Submarine Navigation Courtesy of 4

  5. Slide 5: Key Gyro Performance Factors

    Key Gyro Performance Factors Five critical areas where industrial/tactical grade gyros must outperform consumer grade gyros while maintaining small form factor and low cost • Noise or Angle Random Walk (ARW) – High frequency, mostly white-noise • Bias Offset Error – A stationary gyro can incorrectly

  6. Slide 6: Key Gyro Performance Factors: Noise or Angle Random Walk

    Key Gyro Performance Factors • Noise or Angle Random Walk (ARW) – The output of a gyro includes a broadband, random (white) noise element – Angle Random Walk (ARW) describes the average deviation or error that will occur as a result of this noise element – ARW can be obtained from the Allan Variance

  7. Slide 7: Allan Variance Analysis

    Allan Variance Analysis Log Allan Deviation Plot from IEEE-std-952 7

  8. Slide 8: Key Gyro Performance Factors: Bias Instability

    Key Gyro Performance Factors • Bias Instability (Constant Temp) – This is the stability of the Bias Offset at any constant temperature and ideal environment – Bias Instability is best measured using the Allan Variance (IEEE-std-952) measurement technique - It is a fundamental method of deriving perf

  9. Slide 9: Key Gyro Performance Factors: Temperature, Vibration and Shock

    Key Gyro Performance Factors • Temperature Sensitivity – Gyro performance degrades over temperature – Parameters sensitive to temperature include Noise, Bias Offset and Scale Factor (sensitivity) – System integrators should characterize all these parameters over temperature to confirm performance me

  10. Slide 10: Gyro FOG vs MEMS Performance Table

    Gyro FOG vs MEMS Performance Table Technology FOG FOG MEMS Quartz MEMS Silicon MEMS Silicon Parameter Units Spec Spec Spec Spec Spec Input Rate (maximum) ± °/sec 490 or 1000 1000 500 400 300 Angle Random Walk (25°C) °/h/√Hz ≤ 0.7 ≤ 1.2 ≤ 0.6 ≤9 ≤ 45 Bias Offset (25°C) ± °/h 2 Not specified Not speci

  11. Slide 11: IMU FOG vs. MEMS Performance Table

    IMU FOG vs. MEMS Performance Table Parameter Units Spec Spec Spec Spec Spec Performance - Gyros Technology FOG FOG MEMS Quartz MEMS Silicon MEMS Silicon Input Rate (maximum) ± °/sec 490 or 1000 1000 1000 400 300 Angle Random Walk (25°C) °/h/√Hz ≤ 0.7 ≤ 4.8 1.2 ≤9 ≤ 60 Bias Offset (25°C) ± °/h 2 Not

  12. Slide 12: Fiber Optic Gyros (FOGs) – Overview

    Fiber Optic Gyros (FOGs) – Overview • Pros – High performance in the 5 key parameters vital for navigation, control & stabilization • Low Angle Random Walk (low noise) • Small Bias Offset • Excellent Bias Instability (low drift) • Reduced Temperature, Vibration and Shock Sensitivity – Extremely robu

  13. Slide 13: Micro Electro-Mechanical Gyros (MEMS) – Overview

    Micro Electro-Mechanical Gyros (MEMS) – Overview • Pros – Smaller size, lower weight, less power consumption – Can withstand higher non-operating shock levels – Lower cost vs. FOGs • Cons – Higher Angle Random Walk/Noise – extremely critical in stabilization & positioning systems – Higher Bias Insta

  14. Slide 14: Typical Applications – MEMS

    Typical Applications – MEMS • Micro Electro-Mechanical Systems (MEMS) gyros – Consumer grade performance: • Digital cameras • Video game controllers • Smartphones • Automotive applications for Electronic Stability Control systems, airbag deployment • MEMS Inertial Measurement Units (IMUs) – Industri

  15. Slide 15: Typical Applications - FOGs

    Typical Applications - FOGs • Fiber Optic Gyros – Superior ARW & Thermal Bias Stability performance • Platform stabilization: Land, sea, and aerial systems – including weapons platform stabilization • Motion sensing • Pointing • Stabilization and navigation for unmanned & manned applications • GNSS/

  16. Slide 16: Emerging Applications - MEMS

    Emerging Applications - MEMS • Entertainment: Requires low cost, small size – Full body motion capture for movie special effects and game developers • Movement science: Requires small size – Motion capture for sports – Medical/health applications: rehabilitation & clinical • GPS/sensor-aided autonom

  17. Slide 17: Emerging Applications – FOGs

    Emerging Applications – FOGs • Autonomous platforms (Land, Sea & Air): Requires excellent Bias Thermal Sensitivity – Oil & gas exploration (undersea, pipelines) – Ocean floor mapping – Search & rescue operations – Security & law enforcement support – Wild fire control & monitoring – Military operati

  18. Slide 18: An Overview of KVH Industries

    An Overview of KVH Industries • KVH at a glance – Founded 1982 – 600 employees worldwide – All products manufactured in the United States – Publically traded (Nasdaq: KVHI) • Leading high-tech manufacturer with global customer base – Creating mobile satellite products for land, sea & air – Providing

  19. Slide 19: Unique KVH FOG Technology & Capabilities

    Unique KVH FOG Technology & Capabilities • Design, develop, and build our own optical components, including polarization-maintaining optical fiber • Fully integrated fiber optic gyro manufacturer • Patented technology as a result of significant investment in R&D • Dedicated ISO 9001:2008 U.S. manufa

  20. Slide 20: KVH’s Diverse FOG/IMU Product Line

    KVH’s Diverse FOG/IMU Product Line • Fiber Optic Gyros (FOGs) – Versatile, stand-alone sensors – Compact, rugged, solid-state with ultra-high bandwidth • Inertial Measurement Units (IMUs) – Combines 3 axes of FOGs & 3 accelerometers – 6-degrees of freedom • Inertial Navigation Systems (INS) – Combin

  21. Slide 21: World’s Most Demanding Customers

    World’s Most Demanding Customers Choose KVH All third-party trademarks and logos are the property of their respective owners.

  22. Slide 22: Contact KVH

    Contact KVH • North America: • Sean McCormack, KVH FOG/OEM Sales Manager – Direct Tel: +1 401-845-2413; email: smccormack@kvh.com • Turkey, Middle East, Africa & ASIAPAC: • Christine Marion, KVH International FOG/OEM Sales Manager – Direct Tel: +1 401-845-8126; email: cmarion@kvh.com • Europe: • Jey

  23. Slide 23: Thank you

    tM Thank you

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