Ring Laser Gyroscope Market Size, Share, Opportunities, And Trends By Technology (Conventional RLGs, Fiber Optic RLGs), By End-user (Automotive, Marine And Subseas, Defence, Others), And By Geography - Forecasts From 2024 To 2029

  • Published : Feb 2024
  • Report Code : KSI061616662
  • Pages : 142

The ring laser gyroscopes market is expected to witness significant growth during the forecasted period.

A ring laser gyroscope (RLG) detects changes in orientation or angular velocity using the Sagnac effect. It is used in navigation systems, airplanes, and spacecraft to monitor rotation rates precisely. RLG is based on the Sagnac phenomenon, which asserts that when light travels in opposing directions along a closed loop, any rotation causes a phase difference between counter-propagating beams. It comprises a closed optical cavity with light-retaining mirrors.

RLGs are utilized in a wide range of applications, including navigation, military, and civil engineering. They provide precise rotation rate data, which aids navigation, steering, and stabilization in GPS-denied environments. RLGs are used in civil engineering to monitor structural vibrations, detect seismic activity, and measure ground movement during building and infrastructure projects. They ensure the stability and integrity of essential structures including buildings, bridges, dams, and tunnels. RLGs are essential parts of inertial navigation systems in aircraft, ships, submarines, missiles, and spacecraft. One such gadget is the ring laser gyroscope strapdown inertial navigation system which is a high-precision inertial navigation system that uses a ring laser gyroscope and a quartz flexible accelerometer to transmit speed, position, and altitude information to aircraft and ground vehicles.

Market Drivers

  • Growing demand for navigation and guidance systems propels the ring laser gyroscopes market market

The growing demand for accurate navigation systems in a variety of industries, including aerospace, defence, marine, and automotive, is pushing the adoption of Ring Laser Gyroscopes (RLGs). RLGs detect angular velocities to assist with navigation, stabilization, and target tracking. These systems give accurate and independent position, heading, and velocity data, allowing for weapon pointing, platform stabilization, and tactical maneuvering in military aircraft, ships, and ground vehicles. One of the products used for navigation purposes is the GYPRO®4300 a high-performance, closed-loop digital MEMS gyroscope with a ± 300 °/s input range. It provides a cost-effective alternative to entry-level fiber optic and dynamically tuned gyroscopes. It has an excellent bias instability of 0.4°/h and an Angular Random Walk of 0.07°/√h, allowing for precise positioning, navigation, and stabilization in dynamic applications including railroads, land vehicles, VTOL aircraft, UAVs, and marine systems.

  • Growing demand for robotics and autonomous vehicles propels the ring laser gyroscopes market growth

The growing demand for robotics and autonomous vehicles propels the Ring Laser Gyroscope market growth by driving the adoption of RLG-based navigation systems, motion sensing solutions, and localization technologies in autonomous systems. RLGs play a vital role in enhancing the autonomy, safety, and performance of robots and autonomous vehicles, enabling them to navigate, explore, and operate effectively in dynamic and challenging environments.

One such device is the RLG600 ring laser gyro (RLG), the smallest-volume, lightest-weight, and least expensive RLG system. These gyros provide inertial guidance, assisted or midcourse navigation, and vehicle stabilization and control for a wide range of tactical missiles, standoff weapons, unmanned aerial vehicles, torpedoes, and manned rotorcraft. It is a real design-to-cost device, with producibility and the cost of parts, materials, assembly labor, and manufacturing automation as the primary design factors.

Market Restraint

  • High Cost

RLGs are usually more costly than other gyroscopic technologies like mechanical or MEMS gyroscopes. Because of their complicated optics, precision production procedures, and high-quality components, they are rather expensive, restricting their broad use in cost-sensitive applications.

The Ring Laser Gyroscope market is segmented based on technology into conventional RLGs and Fiber optic RLGs

The market for ring laser gyroscopes can be categorized into various types of technologies, with each representing different approaches and advancements in the technology. Conventional RLGs, which are widely used in aerospace, defence, and navigation, generate a closed-loop optical cavity using bulk optics and solid-state laser sources. Fiber-optic gyroscopes (FOGs) are interferometric gyroscopes that make use of optical fibers rather than a closed-loop optical cavity. FOGs, while not RLGs, provide similar capabilities for monitoring rotation rates and are frequently used with RLGs in navigation and guidance systems. FOGs are noted for their great precision, stability, and dependability, making them ideal for demanding applications.

North America region is anticipated to hold a significant share of the ring laser gyroscope market.

The North American region is projected to have a substantial market share for ring laser gyroscopes. This growth is driven by advancements in technology and automation across industries. North America has a thriving commercial aviation sector and is a hub for innovation in autonomous systems, including drones, unmanned aerial vehicles (UAVs), and autonomous vehicles. RLGs are used in commercial aircraft navigation systems, flight control systems, and autopilot functions, as well as in autonomous platforms for precision navigation and motion sensing. The region's demand for RLGs in aviation and autonomous systems contributes to its substantial market share.

Key Developments

  • October 2022 - Fizoptika Malta developed a new range of IMUs (inertial measurement units) based on fiber optic gyro (FOG) and MEMS/pendulum accelerometer technology. The lightweight and compact U-Series is designed for a wide range of applications, including inertial navigation for UAVs, unmanned underwater vehicles and uncrewed surface vessels, and drone flight control.
  • May 2022 – STMicroelectronics released the first vehicle IMU with incorporated machine learning. The aSM330LHHX inertial measurement unit (IMU) from STMicroelectronics moved smartly, bringing one step closer to a high level of automation to its machine-learned core. The ML core offered rapid real-timed responsiveness and advanced functionalities while consuming little system power.

Company Products

  • Ring Laser Gyroscope Optics – Excelitas ring laser gyroscope optics offer micro-roughness below 0.5 Å, scattering loss under 5 ppm, and finesse of 200,000 when integrated into optical cavities. They provide outstanding micro-surface roughness, reflectivity, and the lowest scatter for all RLG applications, with Plano and concave-convex surface forms available. Advanced metrology equipment is utilized to maintain and validate performance criteria.
  • iNAV-RQH – The NAV-RQH is an inertial navigation product family that includes laser gyros for improved accuracy, reliability, and user interface. It has three high-precision ring laser gyroscopes, three servo accelerometers, and a strap-down processor. The modular system includes an internal or external GPS receiver, up to three odometers, external triggers, and analog inputs. It is appropriate for general-purpose applications, dedicated operations on land, at sea, underwater AUV missions, and in the air.

Market Segmentation

  • By Technology
    • Conventional RLGs
    • Fiber Optic RLGs
  • By End-user
    • Automotive
    • Marine and Subseas
    • Defence
    • Others
  • By Geography
    • North America
      • USA
      • Canada
      • Mexico
    • South America
      • Brazil
      • Argentina
      • Others
    • Europe
      • Germany
      • France
      • UK
      • Spain
      • Others
    • Middle East and Africa
      • Saudi Arabia
      • UAE
      • Israel
      • Others
    • Asia Pacific
      • China
      • Japan
      • India
      • South Korea
      • Indonesia
      • Taiwan
      • Others

1. INTRODUCTION

1.1. Market Overview

1.2. Market Definition

1.3. Scope of the Study

1.4. Market Segmentation

1.5. Currency

1.6. Assumptions

1.7. Base, and Forecast Years Timeline

1.8. Key benefits to the stakeholder

2. RESEARCH METHODOLOGY

2.1. Research Design

2.2. Research Process

3. EXECUTIVE SUMMARY

3.1. Key Findings

3.2. Analyst View

4. MARKET DYNAMICS

4.1. Market Drivers

4.2. Market Restraints

4.3. Porter’s Five Forces Analysis

4.3.1. Bargaining Power of Suppliers

4.3.2. Bargaining Power of Buyers

4.3.3. Threat of New Entrants

4.3.4. Threat of Substitutes

4.3.5. Competitive Rivalry in the Industry

4.4. Industry Value Chain Analysis

4.5. Russia-Ukraine War Impact Analysis

5. RING LASER GYROSCOPE MARKET BY TECHNOLOGY

5.1. Introduction

5.2. Conventional RLGs

5.2.1. Market opportunities and trends

5.2.2. Growth prospects

5.2.3. Geographic lucrativeness 

5.3. Fiber Optic RLGs

5.3.1. Market opportunities and trends

5.3.2. Growth prospects

5.3.3. Geographic lucrativeness 

6. RING LASER GYROSCOPE MARKET BY END-USER

6.1. Introduction

6.2. Automotive

6.2.1. Market opportunities and trends

6.2.2. Growth prospects

6.2.3. Geographic lucrativeness 

6.3. Marine and Subsea

6.3.1. Market opportunities and trends

6.3.2. Growth prospects

6.3.3. Geographic lucrativeness 

6.4. Defence

6.4.1. Market opportunities and trends

6.4.2. Growth prospects

6.4.3. Geographic lucrativeness 

6.5. Others

6.5.1. Market opportunities and trends

6.5.2. Growth prospects

6.5.3. Geographic lucrativeness 

7. RING LASER GYROSCOPE MARKET BY GEOGRAPHY

7.1. Introduction

7.2. North America

7.2.1. By Technology

7.2.2. By End-user

7.2.3. By Country

7.2.3.1. United States

7.2.3.1.1. Market Trends and Opportunities

7.2.3.1.2. Growth Prospects

7.2.3.2. Canada

7.2.3.2.1. Market Trends and Opportunities

7.2.3.2.2. Growth Prospects

7.2.3.3. Mexico

7.2.3.3.1. Market Trends and Opportunities

7.2.3.3.2. Growth Prospects

7.3. South America

7.3.1. By Technology

7.3.2. By End-user

7.3.3. By Country

7.3.3.1. Brazil

7.3.3.1.1. Market Trends and Opportunities

7.3.3.1.2. Growth Prospects

7.3.3.2. Argentina

7.3.3.2.1. Market Trends and Opportunities

7.3.3.2.2. Growth Prospects

7.3.3.3. Others

7.3.3.3.1. Market Trends and Opportunities

7.3.3.3.2. Growth Prospects

7.4. Europe

7.4.1. By Technology

7.4.2. By End-user

7.4.3. By Country

7.4.3.1. Germany

7.4.3.1.1. Market Trends and Opportunities

7.4.3.1.2. Growth Prospects

7.4.3.2. France

7.4.3.2.1. Market Trends and Opportunities

7.4.3.2.2. Growth Prospects

7.4.3.3. United Kingdom

7.4.3.3.1. Market Trends and Opportunities

7.4.3.3.2. Growth Prospects

7.4.3.4. Spain

7.4.3.4.1. Market Trends and Opportunities

7.4.3.4.2. Growth Prospects

7.4.3.5. Others

7.4.3.5.1. Market Trends and Opportunities

7.4.3.5.2. Growth Prospects

7.5. Middle East and Africa

7.5.1. By Technology

7.5.2. By End-user

7.5.3. By Country

7.5.3.1. Saudi Arabia

7.5.3.1.1. Market Trends and Opportunities

7.5.3.1.2. Growth Prospects

7.5.3.2. UAE

7.5.3.2.1. Market Trends and Opportunities

7.5.3.2.2. Growth Prospects

7.5.3.3. Israel

7.5.3.3.1. Market Trends and Opportunities

7.5.3.3.2. Growth Prospects  

7.5.3.4. Others

7.5.3.4.1. Market Trends and Opportunities

7.5.3.4.2. Growth Prospects

7.6. Asia Pacific

7.6.1. By Technology

7.6.2. By End-user

7.6.3. By Country

7.6.4. China

7.6.4.1. Market Trends and Opportunities

7.6.4.2. Growth Prospects

7.6.5. Japan

7.6.5.1. Market Trends and Opportunities

7.6.5.2. Growth Prospects

7.6.6. India

7.6.6.1.1. Market Trends and Opportunities

7.6.6.1.2. Growth Prospects

7.6.7. South Korea

7.6.7.1.1. Market Trends and Opportunities

7.6.7.1.2. Growth Prospects

7.6.8. Indonesia

7.6.8.1.1. Market Trends and Opportunities

7.6.8.1.2. Growth Prospects

7.6.9. Taiwan

7.6.9.1.1. Market Trends and Opportunities

7.6.9.1.2. Growth Prospects

7.6.10. Others

7.6.10.1. Market Trends and Opportunities

7.6.10.2. Growth Prospects

8. COMPETITIVE ENVIRONMENT AND ANALYSIS

8.1. Major Players and Strategy Analysis

8.2. Market Share Analysis

8.3. Mergers, Acquisition, Agreements, and Collaborations

8.4. Competitive Dashboard

9. COMPANY PROFILES

9.1. Honeywell

9.2. Ericco Inertial System

9.3. Northrop Grumman Corporation.

9.4. Materion Balzers Optics

9.5. Fizoptika Malta.

9.6. Excelitas Technologies Corp.

9.7. G&H Group

9.8. Aenium Engineering, S.L.

9.9. Shenzhen Jioptics Technology Co., Ltd.

9.10. iMAR Navigation GmbH.


Honeywell

Ericco Inertial System

Northrop Grumman Corporation.

Materion Balzers Optics

Fizoptika Malta.

Excelitas Technologies Corp.

G&H Group

Aenium Engineering, S.L.

Shenzhen Jioptics Technology Co., Ltd.

iMAR Navigation GmbH.