Structural Health Monitoring Market by Offering (Hardware, Services, Software), Monitoring Approach (Active Monitoring, Passive Monitoring), Technology, Application, End User - Global Forecast 2025-2032
Description
The Strontium Market was valued at USD 725.19 million in 2024 and is projected to grow to USD 764.12 million in 2025, with a CAGR of 5.35%, reaching USD 1,100.71 million by 2032.
An insightful introduction outlining how strontium's unique properties, supply characteristics, and evolving demand drivers converge to shape industry priorities in 2025
Strontium occupies a distinctive position among industrially important alkaline earth metals, combining unique physicochemical properties with a breadth of end-use applications that span traditional and high-technology domains. Its ionic radius, coordination chemistry, and ability to form stable salts underpin roles in ceramic pigments, specialty glass formulations, and targeted electronic applications. Meanwhile, isotopically specific forms of strontium also support niche scientific and medical uses, which further diversifies demand dynamics.
Against this backdrop, supply-side considerations such as primary ore availability, refining pathways, and substitution potential influence sourcing strategies. In recent years, manufacturers and end users have emphasized material purity, consistency, and traceability, driving investment in purification and analytical capabilities. Consequently, stakeholders are balancing legacy uses in ceramics and pyrotechnics with growth-oriented adoption in advanced electronics and optical materials. As a result, strategic planning must integrate technical performance requirements with logistical and regulatory realities to remain resilient and innovative.
A concise overview of the transformative technological, supply chain, and regulatory shifts that are reconfiguring demand patterns and sourcing strategies for strontium
The landscape for strontium is shifting rapidly as technological innovation, supply-chain reassessment, and regulatory pressure converge to redefine demand patterns. On the demand side, advances in display technologies, laser systems, and precision optics have elevated requirements for higher purity grades and tighter impurity specifications, prompting refinements in production processes and quality control systems. At the same time, established industries such as glass manufacturing and ceramics continue to innovate with new formulations that leverage strontium's chemical behavior to enhance durability, color stability, or refractive properties.
Concurrently, supply-side shifts have emerged. Producers are optimizing extraction and processing routes to reduce impurities and energy intensity, while some downstream manufacturers explore alternative chemistries and recycling strategies to manage exposure to feedstock volatility. Trade policy developments and raw material sourcing considerations have accelerated nearshoring and strategic stockpiling in some regions, thereby altering traditional trade flows. Moreover, sustainability trends are reshaping procurement criteria; lifecycle considerations and regulatory scrutiny of mining and chemical processing are leading companies to prioritize traceability and lower environmental footprints. Taken together, these transformative shifts are driving capital allocation, R&D priorities, and collaboration across the value chain.
An analytical assessment of how tariff measures and trade policy changes in 2025 reshape procurement, supplier qualification, and manufacturing footprint decisions for strontium users
Tariff actions targeting certain chemical intermediates and minerals can have immediate and longer-term effects on industries that rely on specialized inputs such as strontium compounds. When tariffs are applied to imported strontium salts or precursor materials, they typically raise landed costs for manufacturers that rely on cross-border supply chains, which in turn incentivizes sourcing diversification and supplier qualification programs. In response, procurement teams often accelerate supplier audits, explore alternative chemistries, and reassess inventory policies to reduce exposure to periodic tariff changes.
Moreover, tariffs can influence manufacturing location decisions. If import duties create persistent cost differentials, companies may evaluate relocating specific processing steps closer to end markets or to jurisdictions with more favorable trade arrangements. This reconfiguration often involves trade-offs between labor, energy costs, and regulatory compliance. Additionally, tariffs can spur more intensive domestic investment in refining and purification capacity where feasible, particularly for high-purity grades needed by electronics and optical sectors. Throughout these adjustments, firms must also manage customer expectations and technical validations, since substitution or new supplier qualification invariably requires time and validation to ensure material performance remains consistent.
A comprehensive segmentation-driven explanation of how end-use industries, chemical types, physical forms, purity grades, and source origins determine technical requirements and sourcing choices
Segmentation by end-use industry clarifies application-specific drivers: ceramics rely on strontium for pigment stability and thermal properties, electronics demand engineered grades for communications, display technology, laser systems, and radar and sonar, glass manufacturing uses strontium in architectural glass, fiberglass, and specialty glass formulations, while metal alloys and pyrotechnics continue to depend on well-characterized chemical forms. By type, different salts and compounds such as bromide, carbonate, hydroxide, nitrate, and sulfide exhibit distinct solubility, reactivity, and thermal behavior, which dictate their suitability for specific process chemistries and product specifications.
Form factors influence logistics and process integration; solid powder grades are often preferred for batch ceramic and alloy processes, whereas solutions support chemical dosing and certain glass or electronics syntheses. Purity segmentation is critical: industrial grades meet general performance requirements, optical grades demand low trace-metal content and precise refractive characteristics, and pharmaceutical grades require stringent impurity control and regulatory documentation. Source considerations - whether natural feedstocks or synthetic precursors - affect traceability, impurity profiles, and sustainability credentials. Understanding these intersecting segmentation axes enables more precise sourcing, specification development, and R&D alignment across application areas.
A strategic regional analysis explaining how distinct industrial concentrations, regulatory frameworks, and supply chain architectures across global regions influence sourcing and investment decisions
Regional dynamics for strontium reflect differing end-market concentrations, industrial policies, and supply chain architectures. The Americas exhibit a mix of established industrial demand and technology-driven consumption, reinforced by regional supply relationships and evolving sourcing strategies that prioritize resilience and proximity to manufacturing hubs. In contrast, Europe, Middle East & Africa present a landscape where regulatory standards, sustainability expectations, and specialized manufacturing capabilities intersect, leading to a focus on high-purity grades and traceability initiatives. Asia-Pacific remains a central hub for both raw material processing and high-volume downstream manufacturing, driven by large-scale electronics production, glass manufacturing clusters, and integrated supply chains.
These regional variations influence investment decisions, licensing priorities, and trade flows. Manufacturers in each region tend to emphasize different risk-management approaches: some prioritize diversification and dual-sourcing to mitigate geopolitical risk, while others focus on vertical integration and local capacity build-out to capture value and ensure technical consistency. Furthermore, regional regulatory frameworks related to chemical handling, emissions, and product safety shape the acceptable processing methods and documentation practices that suppliers must meet to operate effectively in those jurisdictions.
A detailed examination of competitive differentiation and collaborative strategies among suppliers, toll processors, and end users that drive quality, continuity, and innovation in strontium value chains
The competitive landscape for companies operating with strontium-based products is characterized by technical differentiation, quality assurance capabilities, and supply-chain reliability. Leading producers distinguish themselves through investments in purification technology, advanced analytical laboratories, and robust quality management systems that support high-purity optical and pharmaceutical applications. At the same time, specialized toll processors and chemical intermediaries add value by providing tailored formulations and scalable purification steps that enable downstream manufacturers to shorten development cycles.
Partnerships between raw material suppliers, refiners, and end-product manufacturers are increasingly common as firms look to secure feedstock continuity and accelerate innovation. Strategic collaborations often focus on co-development of novel strontium chemistries for new display technologies or on process optimization to lower impurity profiles while reducing energy consumption. Meanwhile, smaller niche players focus on agility and deep technical expertise in specific compound classes or regional markets, providing complementary capability to larger integrated suppliers. Across the landscape, customers prioritize suppliers who can demonstrate traceable sourcing, consistent quality, and the capacity to support qualification programs for critical applications.
Practical and actionable recommendations for corporate leaders to strengthen technical capability, diversify sourcing, and embed sustainability to secure long-term competitiveness
Industry leaders should adopt a multi-pronged approach that combines technical excellence, supply-chain resilience, and sustainability commitments to maintain competitive advantage. First, invest in advanced purification and analytical capabilities to meet the tightening impurity requirements demanded by optics and electronics applications, and to reduce the time and cost associated with supplier qualification. Second, pursue strategic supplier diversification and regional sourcing partnerships to mitigate tariff exposure and geopolitical disruption, while evaluating the merits of nearshoring specific processing stages when cost and compliance conditions favor localized production.
In parallel, advance circular and footprint-reduction initiatives by developing recycling streams for process scrap and by optimizing processing routes to lower energy consumption and chemical waste. Engage proactively with regulators and standards bodies to shape feasible industry standards for traceability and environmental performance, which can translate into market differentiation. Finally, align commercial and technical teams to accelerate product qualification for new applications, ensuring that customer trials and performance validation are coordinated with supply security plans to support commercial adoption and scale-up.
A clear description of the research approach combining technical literature review, expert interviews, regulatory analysis, and validation steps to ensure rigorous and actionable insights
This research synthesizes information from a broad range of publicly available technical literature, industry regulatory documents, and primary interviews with subject-matter experts across raw material suppliers, refiners, and end-use manufacturers. Technical assessment draws on peer-reviewed studies and standard reference sources to characterize chemical behaviors, impurity impacts, and processing considerations relevant to strontium compounds. Trade and policy implications are inferred from observed tariff actions, customs classifications, and publicly available governmental announcements, combined with interviews that highlight practical procurement responses.
Qualitative insights were validated through multiple expert interviews and cross-checked against available technical references to ensure consistent interpretation of material requirements and processing trends. Where appropriate, company announcements, patent filings, and academic publications were consulted to identify innovation trajectories and purification technologies. Limitations of the methodology include restricted access to proprietary commercial data and the dynamic nature of trade policies, which were addressed by emphasizing structural drivers and documented technical constraints rather than time-sensitive numerical estimates.
A concise conclusion that synthesizes technical, supply chain, and sustainability imperatives to guide strategic action and long-term decision making in the strontium ecosystem
In summary, strontium remains a technically versatile element whose role spans both established industrial segments and emerging high-value applications, from ceramics and glass to advanced electronics and optics. The evolving landscape is shaped by tightening technical specifications, supply-chain reconfiguration in response to trade and geopolitical pressures, and a growing emphasis on sustainability and traceability. These factors are prompting investment in purification, analytical capacity, and strategic partnerships that can de-risk supply while enabling new product performance.
Looking ahead, stakeholders who integrate technical capability building with proactive sourcing strategies and environmental considerations will be best placed to capture opportunities and manage risk. Effective coordination between procurement, R&D, and regulatory teams will accelerate qualification cycles and reduce time-to-adoption for new strontium-based technologies. Ultimately, the most resilient and competitive organizations will be those that balance operational agility with deep technical understanding and long-term commitments to responsible sourcing.
Note: PDF & Excel + Online Access - 1 Year
An insightful introduction outlining how strontium's unique properties, supply characteristics, and evolving demand drivers converge to shape industry priorities in 2025
Strontium occupies a distinctive position among industrially important alkaline earth metals, combining unique physicochemical properties with a breadth of end-use applications that span traditional and high-technology domains. Its ionic radius, coordination chemistry, and ability to form stable salts underpin roles in ceramic pigments, specialty glass formulations, and targeted electronic applications. Meanwhile, isotopically specific forms of strontium also support niche scientific and medical uses, which further diversifies demand dynamics.
Against this backdrop, supply-side considerations such as primary ore availability, refining pathways, and substitution potential influence sourcing strategies. In recent years, manufacturers and end users have emphasized material purity, consistency, and traceability, driving investment in purification and analytical capabilities. Consequently, stakeholders are balancing legacy uses in ceramics and pyrotechnics with growth-oriented adoption in advanced electronics and optical materials. As a result, strategic planning must integrate technical performance requirements with logistical and regulatory realities to remain resilient and innovative.
A concise overview of the transformative technological, supply chain, and regulatory shifts that are reconfiguring demand patterns and sourcing strategies for strontium
The landscape for strontium is shifting rapidly as technological innovation, supply-chain reassessment, and regulatory pressure converge to redefine demand patterns. On the demand side, advances in display technologies, laser systems, and precision optics have elevated requirements for higher purity grades and tighter impurity specifications, prompting refinements in production processes and quality control systems. At the same time, established industries such as glass manufacturing and ceramics continue to innovate with new formulations that leverage strontium's chemical behavior to enhance durability, color stability, or refractive properties.
Concurrently, supply-side shifts have emerged. Producers are optimizing extraction and processing routes to reduce impurities and energy intensity, while some downstream manufacturers explore alternative chemistries and recycling strategies to manage exposure to feedstock volatility. Trade policy developments and raw material sourcing considerations have accelerated nearshoring and strategic stockpiling in some regions, thereby altering traditional trade flows. Moreover, sustainability trends are reshaping procurement criteria; lifecycle considerations and regulatory scrutiny of mining and chemical processing are leading companies to prioritize traceability and lower environmental footprints. Taken together, these transformative shifts are driving capital allocation, R&D priorities, and collaboration across the value chain.
An analytical assessment of how tariff measures and trade policy changes in 2025 reshape procurement, supplier qualification, and manufacturing footprint decisions for strontium users
Tariff actions targeting certain chemical intermediates and minerals can have immediate and longer-term effects on industries that rely on specialized inputs such as strontium compounds. When tariffs are applied to imported strontium salts or precursor materials, they typically raise landed costs for manufacturers that rely on cross-border supply chains, which in turn incentivizes sourcing diversification and supplier qualification programs. In response, procurement teams often accelerate supplier audits, explore alternative chemistries, and reassess inventory policies to reduce exposure to periodic tariff changes.
Moreover, tariffs can influence manufacturing location decisions. If import duties create persistent cost differentials, companies may evaluate relocating specific processing steps closer to end markets or to jurisdictions with more favorable trade arrangements. This reconfiguration often involves trade-offs between labor, energy costs, and regulatory compliance. Additionally, tariffs can spur more intensive domestic investment in refining and purification capacity where feasible, particularly for high-purity grades needed by electronics and optical sectors. Throughout these adjustments, firms must also manage customer expectations and technical validations, since substitution or new supplier qualification invariably requires time and validation to ensure material performance remains consistent.
A comprehensive segmentation-driven explanation of how end-use industries, chemical types, physical forms, purity grades, and source origins determine technical requirements and sourcing choices
Segmentation by end-use industry clarifies application-specific drivers: ceramics rely on strontium for pigment stability and thermal properties, electronics demand engineered grades for communications, display technology, laser systems, and radar and sonar, glass manufacturing uses strontium in architectural glass, fiberglass, and specialty glass formulations, while metal alloys and pyrotechnics continue to depend on well-characterized chemical forms. By type, different salts and compounds such as bromide, carbonate, hydroxide, nitrate, and sulfide exhibit distinct solubility, reactivity, and thermal behavior, which dictate their suitability for specific process chemistries and product specifications.
Form factors influence logistics and process integration; solid powder grades are often preferred for batch ceramic and alloy processes, whereas solutions support chemical dosing and certain glass or electronics syntheses. Purity segmentation is critical: industrial grades meet general performance requirements, optical grades demand low trace-metal content and precise refractive characteristics, and pharmaceutical grades require stringent impurity control and regulatory documentation. Source considerations - whether natural feedstocks or synthetic precursors - affect traceability, impurity profiles, and sustainability credentials. Understanding these intersecting segmentation axes enables more precise sourcing, specification development, and R&D alignment across application areas.
A strategic regional analysis explaining how distinct industrial concentrations, regulatory frameworks, and supply chain architectures across global regions influence sourcing and investment decisions
Regional dynamics for strontium reflect differing end-market concentrations, industrial policies, and supply chain architectures. The Americas exhibit a mix of established industrial demand and technology-driven consumption, reinforced by regional supply relationships and evolving sourcing strategies that prioritize resilience and proximity to manufacturing hubs. In contrast, Europe, Middle East & Africa present a landscape where regulatory standards, sustainability expectations, and specialized manufacturing capabilities intersect, leading to a focus on high-purity grades and traceability initiatives. Asia-Pacific remains a central hub for both raw material processing and high-volume downstream manufacturing, driven by large-scale electronics production, glass manufacturing clusters, and integrated supply chains.
These regional variations influence investment decisions, licensing priorities, and trade flows. Manufacturers in each region tend to emphasize different risk-management approaches: some prioritize diversification and dual-sourcing to mitigate geopolitical risk, while others focus on vertical integration and local capacity build-out to capture value and ensure technical consistency. Furthermore, regional regulatory frameworks related to chemical handling, emissions, and product safety shape the acceptable processing methods and documentation practices that suppliers must meet to operate effectively in those jurisdictions.
A detailed examination of competitive differentiation and collaborative strategies among suppliers, toll processors, and end users that drive quality, continuity, and innovation in strontium value chains
The competitive landscape for companies operating with strontium-based products is characterized by technical differentiation, quality assurance capabilities, and supply-chain reliability. Leading producers distinguish themselves through investments in purification technology, advanced analytical laboratories, and robust quality management systems that support high-purity optical and pharmaceutical applications. At the same time, specialized toll processors and chemical intermediaries add value by providing tailored formulations and scalable purification steps that enable downstream manufacturers to shorten development cycles.
Partnerships between raw material suppliers, refiners, and end-product manufacturers are increasingly common as firms look to secure feedstock continuity and accelerate innovation. Strategic collaborations often focus on co-development of novel strontium chemistries for new display technologies or on process optimization to lower impurity profiles while reducing energy consumption. Meanwhile, smaller niche players focus on agility and deep technical expertise in specific compound classes or regional markets, providing complementary capability to larger integrated suppliers. Across the landscape, customers prioritize suppliers who can demonstrate traceable sourcing, consistent quality, and the capacity to support qualification programs for critical applications.
Practical and actionable recommendations for corporate leaders to strengthen technical capability, diversify sourcing, and embed sustainability to secure long-term competitiveness
Industry leaders should adopt a multi-pronged approach that combines technical excellence, supply-chain resilience, and sustainability commitments to maintain competitive advantage. First, invest in advanced purification and analytical capabilities to meet the tightening impurity requirements demanded by optics and electronics applications, and to reduce the time and cost associated with supplier qualification. Second, pursue strategic supplier diversification and regional sourcing partnerships to mitigate tariff exposure and geopolitical disruption, while evaluating the merits of nearshoring specific processing stages when cost and compliance conditions favor localized production.
In parallel, advance circular and footprint-reduction initiatives by developing recycling streams for process scrap and by optimizing processing routes to lower energy consumption and chemical waste. Engage proactively with regulators and standards bodies to shape feasible industry standards for traceability and environmental performance, which can translate into market differentiation. Finally, align commercial and technical teams to accelerate product qualification for new applications, ensuring that customer trials and performance validation are coordinated with supply security plans to support commercial adoption and scale-up.
A clear description of the research approach combining technical literature review, expert interviews, regulatory analysis, and validation steps to ensure rigorous and actionable insights
This research synthesizes information from a broad range of publicly available technical literature, industry regulatory documents, and primary interviews with subject-matter experts across raw material suppliers, refiners, and end-use manufacturers. Technical assessment draws on peer-reviewed studies and standard reference sources to characterize chemical behaviors, impurity impacts, and processing considerations relevant to strontium compounds. Trade and policy implications are inferred from observed tariff actions, customs classifications, and publicly available governmental announcements, combined with interviews that highlight practical procurement responses.
Qualitative insights were validated through multiple expert interviews and cross-checked against available technical references to ensure consistent interpretation of material requirements and processing trends. Where appropriate, company announcements, patent filings, and academic publications were consulted to identify innovation trajectories and purification technologies. Limitations of the methodology include restricted access to proprietary commercial data and the dynamic nature of trade policies, which were addressed by emphasizing structural drivers and documented technical constraints rather than time-sensitive numerical estimates.
A concise conclusion that synthesizes technical, supply chain, and sustainability imperatives to guide strategic action and long-term decision making in the strontium ecosystem
In summary, strontium remains a technically versatile element whose role spans both established industrial segments and emerging high-value applications, from ceramics and glass to advanced electronics and optics. The evolving landscape is shaped by tightening technical specifications, supply-chain reconfiguration in response to trade and geopolitical pressures, and a growing emphasis on sustainability and traceability. These factors are prompting investment in purification, analytical capacity, and strategic partnerships that can de-risk supply while enabling new product performance.
Looking ahead, stakeholders who integrate technical capability building with proactive sourcing strategies and environmental considerations will be best placed to capture opportunities and manage risk. Effective coordination between procurement, R&D, and regulatory teams will accelerate qualification cycles and reduce time-to-adoption for new strontium-based technologies. Ultimately, the most resilient and competitive organizations will be those that balance operational agility with deep technical understanding and long-term commitments to responsible sourcing.
Note: PDF & Excel + Online Access - 1 Year
Table of Contents
190 Pages
- 1. Preface
- 1.1. Objectives of the Study
- 1.2. Market Segmentation & Coverage
- 1.3. Years Considered for the Study
- 1.4. Currency
- 1.5. Language
- 1.6. Stakeholders
- 2. Research Methodology
- 3. Executive Summary
- 4. Market Overview
- 5. Market Insights
- 5.1. Growing use of SHM in aging infrastructure to prevent catastrophic failures worldwide
- 5.2. Government regulations mandating SHM for public safety in bridges and dams globally
- 5.3. Increasing adoption of wireless sensors for cost-effective and scalable structural monitoring systems
- 5.4. Integration of AI and machine learning for predictive maintenance in SHM applications
- 5.5. Rising demand for real-time data analytics to enhance structural safety and efficiency
- 5.6. Expansion of SHM in wind energy sector for turbine blade health monitoring
- 5.7. Development of smart cities driving SHM adoption in high-rise buildings and stadiums
- 5.8. Increased investment in R&D for advanced sensors and data acquisition technologies
- 5.9. IoT-enabled SHM systems gaining traction for remote and continuous infrastructure monitoring
- 5.10. Cloud-based SHM platforms revolutionizing data storage, visualization, and remote diagnostics
- 6. Cumulative Impact of United States Tariffs 2025
- 7. Cumulative Impact of Artificial Intelligence 2025
- 8. Structural Health Monitoring Market, by Offering
- 8.1. Hardware
- 8.1.1. Accelerometers
- 8.1.2. Displacement Sensors
- 8.1.3. Inclinometers & Tiltmeters
- 8.1.4. Sensors
- 8.1.5. Strain Gauges
- 8.2. Services
- 8.2.1. Post-Installation
- 8.2.2. Pre-Installation
- 8.3. Software
- 8.3.1. Data Management Software
- 8.3.2. Predictive Maintenance Software
- 9. Structural Health Monitoring Market, by Monitoring Approach
- 9.1. Active Monitoring
- 9.2. Passive Monitoring
- 10. Structural Health Monitoring Market, by Technology
- 10.1. Wired
- 10.2. Wireless
- 11. Structural Health Monitoring Market, by Application
- 11.1. Airframes & Wind Turbines
- 11.2. Bridges & Dams
- 11.3. Buildings & Stadiums
- 11.4. Large Machines & Equipment
- 12. Structural Health Monitoring Market, by End User
- 12.1. Aerospace & Defence
- 12.2. Energy
- 12.3. Infrastructure
- 12.4. Mining
- 13. Structural Health Monitoring Market, by Region
- 13.1. Americas
- 13.1.1. North America
- 13.1.2. Latin America
- 13.2. Europe, Middle East & Africa
- 13.2.1. Europe
- 13.2.2. Middle East
- 13.2.3. Africa
- 13.3. Asia-Pacific
- 14. Structural Health Monitoring Market, by Group
- 14.1. ASEAN
- 14.2. GCC
- 14.3. European Union
- 14.4. BRICS
- 14.5. G7
- 14.6. NATO
- 15. Structural Health Monitoring Market, by Country
- 15.1. United States
- 15.2. Canada
- 15.3. Mexico
- 15.4. Brazil
- 15.5. United Kingdom
- 15.6. Germany
- 15.7. France
- 15.8. Russia
- 15.9. Italy
- 15.10. Spain
- 15.11. China
- 15.12. India
- 15.13. Japan
- 15.14. Australia
- 15.15. South Korea
- 16. Competitive Landscape
- 16.1. Market Share Analysis, 2024
- 16.2. FPNV Positioning Matrix, 2024
- 16.3. Competitive Analysis
- 16.3.1. Hottinger Brüel & Kjaer GmbH
- 16.3.2. James Fisher and Sons PLC
- 16.3.3. Acellent Technologies Inc.
- 16.3.4. AVT Reliability Ltd.
- 16.3.5. Beanair GmbH
- 16.3.6. Bridge Diagnostics
- 16.3.7. Campbell Scientific, Inc.
- 16.3.8. COWI A/S
- 16.3.9. ElastiSense
- 16.3.10. FEAC Engineering P.C.
- 16.3.11. First Sensor AG by TE Connectivity Ltd.
- 16.3.12. Geocomp, Inc.
- 16.3.13. Geokon
- 16.3.14. Infibra Technologies Srl
- 16.3.15. KDM Engineers [India] Pvt. Ltd.
- 16.3.16. Kinemetrics, Inc.
- 16.3.17. National Instruments by Emerson Electric Co
- 16.3.18. Nova Ventures Group Corp.
- 16.3.19. Rst Instruments Ltd.
- 16.3.20. Sensuron LLC
- 16.3.21. Setpoint Technologies Ltd.
- 16.3.22. SGS S.A.
- 16.3.23. SHM Canada Consulting Limited
- 16.3.24. Siemens AG
- 16.3.25. Sisgeo Srl
- 16.3.26. SITES AFLA (Pty) Ltd.
- 16.3.27. Sixense Group
- 16.3.28. Sodis Lab
- 16.3.29. Somni Solutions
- 16.3.30. Xylem Inc.
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