Aerial LiDAR system is a mapping technology that uses a laser beam to measure the distance from an aircraft to the earth’s surface by utilizing onboard GPS and inertial measurement unit (IMU) sensors to determine the geospatial location of terrestrial objects and their features with high precision. Research Beam Model: Research Beam Product ID: 1091862 2780 USD New
U.S. Airborne LiDAR Market by Component (Lasers, Inertial Navigation Systems, Cameras, GPS/GNSS Receivers, Microelectromechanical Systems), Application (Corridor Mapping, Seismology, Exploration & Detection, and Others), and End User (Defense & Aerospace, Civil Engineering, Archaeology, Forestry & Agriculture, Mining Industry, and Transportation and Logistics) - U.S. Opportunity Analysis and Industry Forecast, 2014-2022
 

U.S. Airborne LiDAR Market by Component (Lasers, Inertial Navigation Systems, Cameras, GPS/GNSS Receivers, Microelectromechanical Systems), Application (Corridor Mapping, Seismology, Exploration & Detection, and Others), and End User (Defense & Aerospace, Civil Engineering, Archaeology, Forestry & Agriculture, Mining Industry, and Transportation and Logistics) - U.S. Opportunity Analysis and Industry Forecast, 2014-2022

U.S. Airborne LiDAR Market by Component (Lasers, Inertial Navigation Systems, Cameras, GPS/GNSS Receivers, Microelectromechanical Systems), Applicatio

Category : Semiconductor and Electronics
Published On : October  2016
Pages : 104

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Aerial LiDAR system is a mapping technology that uses a laser beam to measure the distance from an aircraft to the earth’s surface by utilizing onboard GPS and inertial measurement unit (IMU) sensors to determine the geospatial location of terrestrial objects and their features with high precision.

In the U.S., aerial LiDAR systems are widely used in forestry management & planning, flood modeling, urban/city modeling, pollution modeling, coastline management, transport planning, and cellular network planning. A recent trend to collect higher point densities by flying lower and slower to collect multiple data sets is widely adopted in the industry. Scientists reported that by utilizing this method, the system is able to measure the ground with 5–20 or even up to 40 points per square meter. This method is expected to provide accurate and precise mapping of the object and is widely employed for topographic surveys in the U.S. Accuracy of aerial LiDAR systems in the past few years has been enhanced due to the latest advancements in LiDAR sensors.  

Rise in the adoption rate of aerial LiDAR technology in the U.S. was observed owing to the growth of defense & aerospace and technological advancements in forestry & agriculture applications. In airborne applications, LiDAR technology provides exceptional advantages over RADAR technology such as improved accuracy, real-time mapping ability, and better visualization, which collectively drive the LiDAR market across U.S. Moreover, traditional specifications of aerial LiDAR systems are able to measure only one pulse per square meter point density; however, advancement in the traditional aerial systems along with the multi-pulse technique in aerial LiDAR systems further supplements the growth of the market. However, various Federal Aviation Administration (FAA) regulations on drones restrain the growth of airborne LiDAR in the U.S.  

U.S. Military Expenditure Compared to Other Countries, 2014 (%)

Source: Center for Arms Control and Non-Proliferation

In the year 2014, U.S. accounted for approximately 87% of the global military spending in Americas. Of the total U.S. military spending, technological upgradation holds a major share, which includes implementation of airborne LiDAR-based technology.

The market is segmented on the basis of component, application, and end user. Based on component, the market is segmented into lasers, inertial navigation systems, cameras, GPS/GNSS receivers, and Microelectromechanical systems. Based on application, the market is divided into corridor mapping, seismology, exploration & detection, and others. The market by end user comprises defense & aerospace, civil engineering, archaeology, forestry & agriculture, mining industry and transportation.

Key players operating in this market are Faro Technologies Inc., Leosphere SaS, Leica Geosystems Inc. (Hexagon), 3D Laser Mapping Inc., Firmatek LLC, RIEGL Laser Measurement Systems GmbH, Teledyne Technologies, Quanergy Systems, Inc., Saab Group and Raymetrics S.A. among others.   

POTENTIAL BENEFITS FOR STAKEHOLDERS:

  • This report provides an in-depth analysis of the world U.S. airborne LiDAR market along with current trends and future estimations to identify lucrative investment opportunities
  • Key drivers, opportunities, and restraints that shape the market along with their impact analysis are explained
  • Porter’s Five Forces analysis highlights the potency of buyers and suppliers that participate in this market to facilitate better business decisions for stakeholders and strengthen their supplier and buyer networks
  • Market estimation of geographical regions is based on the current market scenario and future trends

U.S. AIRBORNE LiDAR SEGMENTATION

The market is segmented on the basis of component, application, and end user.

BY COMPONENT

  • Lasers
  • Inertial Navigation Systems
  • Cameras
  • GPS/GNSS Receivers
  • Microelectromechanical Systems

BY APPLICATION

  • Corridor Mapping
  • Seismology
  • Exploration & Detection
  • Others

BY END USER

  • Defense & Aerospace
  • Civil Engineering
  • Archaeology
  • Forestry & Agriculture
  • Transportation and Logistics
  • Mining Industry

KEY PLAYERS

  • Faro Technologies Inc.
  • Leosphere SaS
  • Leica Geosystems Inc. (Hexagon)
  • 3D Laser Mapping Inc.
  • Firmatek LLC
  • RIEGL Laser Measurement Systems GmbH
  • Teledyne Technologies
  • Quanergy Systems, Inc.
  • Saab Group
  • Raymetrics S.A.    

OTHER PLAYERS IN VALUE CHAIN

  • FLIR Systems, Inc.
  • EHang, Inc.
  • 3D Robotics, Inc.
  • Trimble Navigation
  • Merrick & Company
  • Surveying and Mapping, LLC
  • CyPhy Works Inc.

Chapter: 1 INTRODUCTION

1.1 Report description
1.2 Key benefits
1.3 Key market segments
1.4 Research methodology

1.4.1 Secondary research
1.4.2 Primary research
1.4.3 Analyst tools and models

Chapter: 2 EXECUTIVE SUMMARY

2.1 CXO perspective

Chapter: 3 MARKET OVERVIEW

3.1 Market definition and scope
3.2 Key findings

3.2.1 Top impacting factors
3.2.2 Top investment pockets
3.2.3 Top winning strategies

3.3 Porters five force analysis

3.3.1 Moderate bargaining power of suppliers due to high demand, customized services, domestic players and low switching cost
3.3.2 Moderate bargaining power of buyer due to presence of viable substitute and limited quality product providers
3.3.3 Moderate threat of substitute due to cost-effective substitute and price insensitive buyers
3.3.4 Higher capital investments, presence of established players and government regulations have led to low threat of new entrants
3.3.5 Moderate industry rivalry due to presence of few dominant players, high exit barriers due to significant initial investment

3.4 Value chain analysis
3.5 Key market players positioning
3.6 Drivers

3.6.1 Expanding applications in defence and civil engineering
3.6.2 Falling price of drones
3.6.3 Increasing number of drones in U.S.
3.6.4 Rise in demand for 3D imaging

3.7 Restraint

3.7.1 Regulations by FAA (Federal Aviation Administration) for commercial usage of drones

3.8 Opportunities

3.8.1 Increasing demand in forestry and agriculture
3.8.2 A solution for degraded visual environment in military applications

Chapter: 4 U.S. AIRBORNE LIDAR MARKET, BY COMPONENT

4.1 Overview
4.2 Lasers

4.2.1 Key market trends
4.2.2 Key growth factors & opportunities
4.2.3 Market size and forecast

4.3 Inertial navigation system

4.3.1 Key market trends
4.3.2 Key growth factors and opportunities
4.3.3 Market size and forecast

4.4 Camera

4.4.1 Key market trends
4.4.2 Key growth factors and opportunities
4.4.3 Market size and forecast

4.5 GPS/GNSS receiver

4.5.1 Key market trends
4.5.2 Key growth factors and opportunities
4.5.3 Market size and forecast

4.6 Microelectromechanical system (MEMS)

4.6.1 Key market trends
4.6.2 Key growth factors and opportunities
4.6.3 Market size and forecast

Chapter: 5 U.S. AIRBORNE MARKET BY APPLICATION

5.1 Overview
5.2 Corridor mapping

5.2.1 Key market trends
5.2.2 Key growth factors and opportunities
5.2.3 Market size and forecast

5.3 Seismology

5.3.1 Key market trends
5.3.2 Key growth factors and opportunities
5.3.3 Market size and forecast

5.4 Exploration and detection

5.4.1 Key market trends
5.4.2 Key growth factors and opportunities
5.4.3 Market size and forecast

5.5 Others

5.5.1 Key market trends
5.5.2 Key growth factors and opportunities
5.5.3 Market size and forecast

Chapter: 6 U.S. AIRBORNE LIDAR MARKET, BY END USER

6.1 Overview
6.2 Defense & Aerospace

6.2.1 Key market trends
6.2.2 Key growth factors and opportunities
6.2.3 Market size & forecast

6.3 Civil engineering

6.3.1 Key market trends
6.3.2 Key growth factors and opportunities
6.3.3 Market size & forecast

6.4 Forestry and Agriculture

6.4.1 Key market trends
6.4.2 Key growth factors and opportunities
6.4.3 Market size & forecast

6.5 Transportation & logistics

6.5.1 Key market trends
6.5.2 Key growth factors and opportunities
6.5.3 Market size & forecast

6.6 Archaeology

6.6.1 Key market trends
6.6.2 Key growth factors and opportunities
6.6.3 Market size & forecast

6.7 Mining industry

6.7.1 Key market trends
6.7.2 Key growth factors and opportunities
6.7.3 Market size & forecast

Chapter: 7 COMPANY PROFILES

7.1 Faro Technologies Inc.

7.1.1 Company overview
7.1.2 Business performance
7.1.3 Key strategies and developments

7.2 Leosphere SaS

7.2.1 Company overview
7.2.2 Key strategies and developments

7.3 Leica Geosystems Inc. (Hexagon)

7.3.1 Company overview
7.3.2 Business performance
7.3.3 Key strategies and developments

7.4 D Laser Mapping Inc.

7.4.1 Company overview
7.4.2 Key Strategies and developments

7.5 Firmatek LLC

7.5.1 Company overview
7.5.2 Key strategies and developments

7.6 RIEGL Laser Measurement Systems GmbH

7.6.1 Company overview
7.6.2 Key Strategies and Developments

7.7 Teledyne Technologies

7.7.1 Company overview
7.7.2 Business performance
7.7.3 Key strategies and developments

7.8 Quanergy Systems, Inc.

7.8.1 Company overview
7.8.2 Key strategies and developments

7.9 Saab Group

7.9.1 Company overview
7.9.2 Business performance
7.9.3 Key strategies & developments

7.10 Raymetrics S.A.

7.10.1 Company overview
7.10.2 Key strategies & developments

Other players in the value chain include

  • FLIR Systems, Inc.
  • EHang, Inc.
  • 3D Robotics, Inc.
  • Trimble Navigation
  • Merrick & Company
  • Surveying and Mapping, LLC
  • s Inc.CyPhy Work

*Profiles of these players are not included. The same will be included on request

LIST OF FIGURES

FIG. 1 U.S. MILITARY EXPENDITURE COMPARED TO OTHER COUNTRIES, 2014 (%)
FIG. 2 U.S. AIRBORNE LIDAR MARKET, RESEARCH METHODOLOGY
FIG. 3 U.S. AIRBORNE LIDAR MARKET SEGMENTS, REVENUE & CAGR, 2016-2022
FIG. 4 TOP INVESTMENT POCKETS
FIG. 5 TOP WINNING STRATEGIES IN U.S. AIRBORNE LIDAR MARKET, 2014-2016
FIG. 6 PORTERS FIVE FORCE ANALYSIS
FIG. 7 VALUE CHAIN ANALYSIS OF U.S. AIRBORNE LIDAR MARKET
FIG. 8 COMPANIES INVOLVED IN AIRBORNE LIDAR MANUFACTURING PROCESS
FIG. 9 KEY MARKET PLAYERS POSITIONING
FIG. 10 COUNTRY-WISE NUMBER OF REGISTERED COMMERCIAL DRONE OPERATORS, 2015
FIG. 11 PROJECTED COMMERCIAL ANNUAL UAV SALES, 2015-2025 (UNITS)
FIG. 12 COMPARATIVE MARKET SHARE ANALYSIS OF U.S. AIRBORNE LIDAR MARKET, BY COMPONENT, 2015 & 2022 (% SHARE)
FIG. 13 U.S. AIRBORNE LIDAR MARKET REVENUE IN LASER ($MILLION), 2014-2022
FIG. 14 U.S. AIRBORNE LIDAR MARKET REVENUE IN INS ($MILLION), 2014-2022
FIG. 15 U.S. AIRBORNE LIDAR MARKET REVENUE IN CAMERAS ($MILLION), 2014-2022
FIG. 16 U.S. AIRBORNE LIDAR MARKET REVENUE IN GPS/GNSS ($MILLION), 2014-2022
FIG. 17 U.S. AIRBORNE LIDAR MARKET REVENUE IN MEMS ($MILLION), 2014-2022
FIG. 18 COMPARATIVE MARKET SHARE ANALYSIS OF U.S. AIRBORNE LIDAR MARKET, BY APPLICATION, 2015 & 2022 (% SHARE)
FIG. 19 U.S. AIRBORNE LIDAR MARKET REVENUE IN CORRIDOR MAPPING ($MILLION), 2014-2022
FIG. 20 U.S. AIRBORNE LIDAR MARKET REVENUE IN SEISMOLOGY ($MILLION), 2014-2022
FIG. 21 U.S. AIRBORNE LIDAR MARKET REVENUE IN EXPLORATION AND DETECTION ($MILLION), 2014-2022
FIG. 22 U.S. AIRBORNE LIDAR MARKET REVENUE IN OTHERS ($MILLION), 2014-2022
FIG. 23 USES OF COMMERCIAL DRONES IN THE U.S.
FIG. 24 COMPARATIVE MARKET SHARE ANALYSIS OF U.S. AIRBORNE LIDAR MARKET, BY END USER (% SHARE), 2015 & 2022
FIG. 25 NUMBER OF UNMANNED AIRCRAFT SYSTEMS IN DEPARTMENT OF DEFENSE, 2015-2020
FIG. 26 U.S. AIRBORNE LIDAR MARKET REVENUE IN DEFENSE AND AEROSPACE ($MILLION), 2014-2022
FIG. 27 U.S. AIRBORNE LIDAR MARKET REVENUE IN CIVIL ENGINEERING ($MILLION), 2014-2022
FIG. 28 U.S. AIRBORNE LIDAR MARKET REVENUE IN FORESTRY AND AGRICULTURE ($MILLION), 2014-2022
FIG. 29 DRONE VS IN-PERSON DELIVERY CHARGES IN E-COMMERCE SECTOR
FIG. 30 NUMBER OF CUSTOMERS WILLING TO PAY FOR SAME-DAY DELIVERY
FIG. 31 U.S. AIRBORNE LIDAR MARKET REVENUE IN TRANSPORTATION & LOGISTICS ($MILLION), 2014-2022
FIG. 32 U.S. AIRBORNE LIDAR MARKET REVENUE IN ARCHEOLOGY ($MILLION), 2014-2022
FIG. 33 COAL PRODUCTION IN THE U.S., 20102014
FIG. 34 U.S. AIRBORNE LIDAR MARKET REVENUE IN MINING INDUSTRY ($MILLION), 2014-2022
FIG. 35 FARO TECHNOLOGIES INC.: REVENUE ($MILLION) 2013-2015
FIG. 36 FARO TECHNOLOGIES INC.: REVENUE BY REGION (%), 2015
FIG. 37 LEICA GEOSYSTEMS: REVENUE ($MILLION), 2013-2015
FIG. 38 LEICA GEOSYSTEMS: REVENUE BY REGION (%), 2015
FIG. 39 TELEDYNE TECHNOLOGIES: REVENUE ($MILLION), 2013-2015
FIG. 40 TELEDYNE TECHNOLOGIES: REVENUE BY REGION (%), 2015
FIG. 41 SAAB GROUP: SALES ($MILLION), 2013-2015
FIG. 42 SAAB GROUP: REVENUE BY REGIONS (%), 2015

LIST OF TABLES

TABLE 1 FACTORS AND THEIR IMPACT ON U.S. AIRBORNE LIDAR MARKET
TABLE 2 REDUCING COST OF COMMERCIAL DRONES, (2010-2015)
TABLE 3 U.S. AIRBORNE LIDAR MARKET, BY COMPONENT, 2014-2022 ($MILLION)
TABLE 4 U.S. AIRBORNE LIDAR MARKET REVENUE IN LASERS ($MILLION), 2014-2022
TABLE 5 U.S. AIRBORNE LIDAR MARKET REVENUE IN INS ($MILLION), 2014-2022
TABLE 6 U.S. AIRBORNE LIDAR MARKET REVENUE IN CAMERAS ($MILLION), 2014-2022
TABLE 7 U.S. AIRBORNE LIDAR MARKET REVENUE IN GPS/GNSS ($MILLION), 2014-2022
TABLE 8 U.S. AIRBORNE LIDAR MARKET REVENUE IN MEMS ($MILLION), 2014-2022
TABLE 9 U.S. AIRBORNE LIDAR MARKET, BY APPLICATION, 2014-2022 ($MILLION)
TABLE 10 U.S. AIRBORNE LIDAR MARKET REVENUE IN CORRIDOR MAPPING ($MILLION), 2014-2022
TABLE 11 U.S. AIRBORNE LIDAR MARKET REVENUE IN SEISMOLOGY ($MILLION), 2014-2022
TABLE 12 U.S. AIRBORNE LIDAR MARKET REVENUE IN EXPLORATION AND DETECTION ($MILLION), 2014-2022
TABLE 13 U.S. AIRBORNE LIDAR MARKET REVENUE IN OTHERS ($MILLION), 2014-2022
TABLE 14 U.S. AIRBORNE LIDAR MARKET, BY END USER ($MILLION), 2014-2022
TABLE 15 U.S. AIRBORNE LIDAR MARKET REVENUE IN DEFENSE AND AEROSPACE ($MILLION), 2014-2022
TABLE 16 U.S. AIRBORNE LIDAR MARKET REVENUE IN CIVIL ENGINEERING ($MILLION), 2014-2022
TABLE 17 U.S. AIRBORNE LIDAR MARKET REVENUE IN FORESTRY AND AGRICULTURE ($MILLION), 2014-2022
TABLE 18 U.S. AIRBORNE LIDAR MARKET REVENUE IN TRANSPORTATION & LOGISTICS ($MILLION), 2014-2022
TABLE 19 U.S. AIRBORNE LIDAR MARKET REVENUE IN ARCHEOLOGY ($MILLION), 2014-2022
TABLE 20 U.S. AIRBORNE LIDAR MARKET REVENUE IN MINING INDUSTRY ($MILLION), 2014-2022
TABLE 21 FARO TECHNOLOGY INC.: COMPANY SNAPSHOT
TABLE 22 LEOSPHERE SAS: COMPANY SNAPSHOT
TABLE 23 LEICA GEOSYSTEMS INC. (HEXAGON): COMPANY SNAPSHOT
TABLE 25 FIRMATEK LLC: COMPANY SNAPSHOT
TABLE 26 RIEGL LASER MEASUREMENT SYSTEMS: COMPANY SNAPSHOT
TABLE 27 OPTECH INC.: COMPANY SNAPSHOT
TABLE 28 QUANERGY SYSTEMS, INC.: COMPANY SNAPSHOT
TABLE 29 SAAB GROUP - COMPANY SNAPSHOT
TABLE 30 RAYMETRICS S.A. - COMPANY SNAPSHOT

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