Rotating Equipment Market - Global Industry Size, Share, Trends, Opportunity, and Forecast, Segmented By Type (Pumps, Compressors, Turbines, Motors, Generators, Others), By Application (Onshore, Offshore, Industrial Processing, Energy Production, Others), By End-User (Oil & Gas, Power Generation, Water & Wastewater Treatment, Chemicals & Petrochemicals, Others), By Region, and By Competition, 2020-2030F

Market Overview

The Global Rotating Equipment Market was valued at USD 29.16 Billion in 2024 and is expected to reach USD 37.73 Billion by 2030 with a CAGR of 4.23% during the forecast period.

The global rotating equipment market is a vital component of industrial infrastructure, encompassing machinery that converts energy into motion, including pumps, compressors, turbines, motors, and generators. These machines are critical to the functioning of industries such as oil and gas, power generation, chemical processing, water and wastewater treatment, and manufacturing. The market is witnessing substantial growth, driven by increasing industrialization, rising energy demand, and expanding infrastructure projects across emerging economies. As developing nations invest in utilities, refineries, and industrial facilities, the demand for efficient and durable rotating machinery continues to rise. In mature markets, growth is supported by the need for modernization, efficiency upgrades, and predictive maintenance practices.

Technological advancements are transforming the rotating equipment landscape. The integration of Industrial Internet of Things (IIoT), smart sensors, and condition-monitoring systems is enabling predictive maintenance and reducing downtime. Companies are increasingly adopting advanced materials and digital control technologies to improve equipment performance, energy efficiency, and lifecycle cost management. Furthermore, the shift toward sustainable energy sources has influenced the demand for energy-efficient solutions, especially in wind turbines and gas turbines, further stimulating innovation within the market. Environmental regulations and carbon reduction commitments are also prompting industries to invest in upgraded rotating equipment to meet compliance requirements while optimizing operational efficiency.

The market is highly competitive, with major players including Siemens AG, General Electric, Flowserve Corporation, Atlas Copco, Sulzer Ltd, and Mitsubishi Heavy Industries. These companies are focusing on strategic mergers, technological innovation, and aftermarket services to strengthen their positions. Despite growth opportunities, the market faces challenges such as high capital investment, maintenance costs, and supply chain disruptions. However, the increasing emphasis on operational reliability and energy efficiency is expected to offset these concerns. Overall, the rotating equipment market is poised for steady growth, supported by global industrial development, technological transformation, and the ongoing shift toward sustainable industrial operations.

Key Market Drivers

Industrial Automation and Operational Precision

The growing trend toward industrial automation is a major driver for rotating equipment demand. Automated systems across manufacturing, oil & gas, and process industries rely heavily on precision equipment like pumps, compressors, turbines, and motors. These systems ensure continuous operations and reduce human intervention, thus boosting reliability and output efficiency.

• Advanced control systems enhance rotating equipment performance by up to 20%.
• In electronic and precision manufacturing, accurate motors can reduce production defects by 15–25%.
• Pumps integrated with variable frequency drives (VFDs) can achieve energy savings of 10–30%.
• Approximately 60% of industrial electricity consumption is linked to electric motors.
• Smart factories report downtime reductions of 18–22% through automated monitoring.

With automation becoming integral to global production systems, rotating equipment designed for intelligent environments is in high demand. Modern machinery is expected not only to operate reliably but also to communicate performance data for maintenance and optimization.

Integration of IIoT and Smart Monitoring

Digital transformation through the Industrial Internet of Things (IIoT) has redefined the rotating equipment landscape. Equipment is now embedded with sensors that track temperature, vibration, load, and speed, providing real-time analytics that support predictive maintenance and enhance operational efficiency.

• Predictive maintenance reduces scheduled repairs by 12% and overall maintenance costs by 30%.
• Equipment failure incidents can be cut by 70% with IIoT integration.
• Over 60% of modern systems now include temperature monitoring, while 46% include vibration sensors.
• Smart platforms reduce unplanned downtime by 15–20% weekly in critical operations.
• Cloud-based IIoT solutions improve diagnostics and can extend machinery life by 25%.

This trend is leading to higher adoption of smart pumps, digital compressors, and connected turbines across industries, with a strong focus on reliability, real-time diagnostics, and lifecycle extension.

Rising Energy Costs and Efficiency Standards

With global electricity prices on the rise and increasing regulatory pressure, industries are investing in energy-efficient rotating equipment. Efficiency upgrades reduce operational costs and carbon emissions, aligning with both financial and environmental goals.

• Rotating equipment accounts for nearly 60% of industrial electricity consumption.
• High-efficiency equipment can lower energy bills by up to 30%.
• New equipment designs reach energy efficiency levels above 90%, reducing long-term costs.
• Nearly 45% of facility maintenance spending is now directed toward efficiency optimization.
• Replacing outdated motors and compressors can reduce carbon footprints by 15–25%.

Energy conservation programs across industrial nations are accelerating the transition toward next-generation equipment. As energy-intensive sectors modernize, this trend continues to bolster market growth.

Renewable Energy Expansion and Infrastructure Investment

The transition to renewable energy is creating new demand for specialized rotating equipment. Wind turbines, hydro plants, and utility-scale solar systems require motors, generators, and compressors suited to renewable integration. Simultaneously, infrastructure investments in water treatment and utilities are reinforcing demand.

• Renewable energy is expected to make up 95% of global power capacity additions by 2026.
• Wind energy currently contributes to around 7% of global power generation.
• Desalination plants, which rely heavily on pumps and turbines, are growing rapidly in arid regions.
• Asia-Pacific infrastructure investments are projected to reach USD 26 trillion by 2030.
• Renewable-friendly turbines now make up over 50% of new turbine installations.

As global infrastructure expands to meet urbanization and energy needs, the rotating equipment market is seeing new use cases emerge in clean energy, smart grids, and water systems.

Emphasis on Predictive Maintenance and Lifecycle Management

There is a rising shift from reactive to predictive maintenance in industries that depend on rotating equipment. Companies are leveraging sensors, AI analytics, and real-time monitoring to prevent failures, reduce costs, and extend equipment life.

• Over 50% of pump failures result from detectable bearing or seal issues.
• Predictive maintenance can reduce costs by 25% and failure rates by 70%.
• Scheduled maintenance now represents 45% of total service activities.
• Connected diagnostics systems can reduce downtime by 15 hours per week.
• Equipment lifespan can increase by 20–30% through condition-based monitoring.

This focus on uptime and reliability is driving companies to invest in rotating equipment that is not only durable but also digitally enabled for performance tracking and predictive analytics—further strengthening aftermarket demand.

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Key Market Challenges

High Capital and Maintenance Costs

One of the foremost challenges in the rotating equipment market is the significant capital investment required for procurement, installation, and operation. Pumps, compressors, turbines, and motors are highly engineered products that require substantial upfront expenditure, particularly for high-performance or specialized applications such as offshore oil rigs, power plants, or petrochemical refineries.

In addition to procurement costs, rotating equipment requires continuous monitoring, regular maintenance, and periodic overhauls, which adds to lifecycle costs. Components like seals, bearings, and couplings are prone to wear and need frequent replacement to prevent equipment failure. In many industrial settings, downtime caused by unplanned maintenance can result in massive production losses. This makes users cautious about investing in new or advanced systems, especially in cost-sensitive markets such as water utilities or municipal services.

Furthermore, small- and medium-sized enterprises (SMEs) often find it difficult to absorb such high investments or justify returns in the short term. In industries where margins are tight, such as textiles, paper, or metal fabrication, even essential upgrades may be delayed. For end users, the total cost of ownership often outweighs perceived performance benefits, especially when ROI is unclear.

As a result, many industries continue to operate aging equipment beyond its optimal lifespan, leading to reduced operational efficiency and a higher risk of failure. The capital-intensive nature of the market thus acts as a barrier to widespread modernization and adoption of energy-efficient technologies. Overcoming this challenge requires greater access to financing models, leasing programs, and service-based contracts, but these alternatives are still in early stages in many parts of the world.

Skilled Labor Shortage and Training Gaps

The operation, maintenance, and troubleshooting of rotating equipment require highly skilled technicians, engineers, and operators. However, there is a growing shortage of such professionals globally, particularly in emerging markets and remote industrial locations. As older technicians retire, the inflow of trained talent has not kept pace with the increasing complexity of modern equipment, which now integrates sensors, analytics, and automated control systems.

Many companies struggle to find maintenance personnel who are well-versed in both mechanical fundamentals and digital technologies. The skill gap is particularly acute in industries like oil & gas, power generation, and water treatment, where rotating equipment is mission-critical. Without trained personnel, regular maintenance schedules are often skipped or improperly executed, increasing the risk of breakdowns and reducing equipment efficiency.

In addition, the integration of Industrial Internet of Things (IIoT), predictive analytics, and cloud-based monitoring requires operators to understand both IT systems and traditional mechanical components—a blend of expertise that remains rare. Many vocational training centers have yet to update their curricula to include modern technologies, leaving new entrants underprepared for field conditions.

As companies deploy smarter rotating equipment, the need for upskilled labor becomes even more urgent. However, the cost of training, combined with employee turnover, discourages many firms from investing heavily in workforce development. This lack of skilled labor not only hampers equipment performance but also affects the after-sales service quality offered by manufacturers and distributors.

Bridging the skills gap will require a concerted effort from educational institutions, OEMs, and industrial users. Without resolving this challenge, the rotating equipment market may face operational inefficiencies, service backlogs, and customer dissatisfaction—despite technological advancements.

Complexity in Retrofitting and Integration with Legacy Systems

Many industrial facilities, particularly in older plants, still operate legacy systems that were designed decades ago with minimal consideration for digital integration or modular upgrades. Retrofitting new rotating equipment into such environments presents a complex challenge, both technically and economically.

Compatibility issues arise when modern motors, pumps, or turbines with advanced automation features must be connected to outdated control systems, power supplies, or piping networks. Modifying the infrastructure to accommodate new equipment often involves re-engineering of layouts, recalibration of system parameters, and prolonged downtime—all of which add to project costs and risks. In many cases, the cost of retrofitting surpasses the price of the equipment itself.

Additionally, legacy systems lack standardized interfaces, making it difficult to achieve seamless integration. Even if physical installation is possible, achieving optimal performance through digital connectivity and analytics may remain out of reach. This undermines the full value proposition of modern rotating equipment, which is increasingly designed to work within smart, interconnected industrial ecosystems.

Moreover, older facilities may not have the necessary space, structural integrity, or electrical capacity to support newer, larger, or more advanced units. Customization of equipment for retrofitting purposes increases lead times, engineering costs, and complexity. These constraints often discourage industries from upgrading, especially in low-margin sectors or regions with limited technical support.

As a result, many companies are caught in a dilemma—continue using inefficient, aging equipment or invest heavily in infrastructure modernization. The complexity and cost of retrofitting serve as major roadblocks to the broader adoption of new-generation rotating equipment, especially in brownfield projects.

Volatile Raw Material Prices and Supply Chain Disruptions

The production of rotating equipment depends heavily on materials such as steel, aluminum, copper, and high-performance alloys. Price volatility in these raw materials poses a major challenge for manufacturers, impacting cost structures and profit margins. Global geopolitical events, trade restrictions, energy crises, and natural disasters can cause sudden spikes in material costs, leading to pricing uncertainty for both OEMs and customers.

For example, copper—used extensively in motors and generators—has experienced significant price fluctuations in recent years. These cost pressures are often passed down to end users or absorbed by manufacturers, squeezing margins and reducing competitiveness. In addition, rare earth materials used in specialized bearings or high-efficiency motors are subject to limited supply and export controls.

The rotating equipment industry is also highly sensitive to global logistics and shipping conditions. Disruptions such as port closures, container shortages, and long customs clearance times can delay deliveries and extend lead times. COVID-19 and subsequent geopolitical tensions exposed vulnerabilities in global supply chains, particularly for OEMs dependent on multi-country component sourcing.

Additionally, regional imbalances in manufacturing capacities lead to overdependence on certain countries for key components. This concentration risk has driven some manufacturers to reconsider global sourcing strategies, but establishing alternative suppliers or localizing production is time-consuming and expensive.

These supply chain and pricing uncertainties affect not only production planning but also contract pricing, customer delivery schedules, and aftermarket support. Managing this volatility is critical, but few companies have sufficient control or flexibility to mitigate these risks entirely.

Environmental Regulations and Emission Compliance Burdens

Stringent environmental regulations are placing increasing pressure on manufacturers and users of rotating equipment to minimize emissions, reduce noise, and enhance energy efficiency. While such measures are essential for sustainability, they present operational and technical challenges for the industry.

Complying with new emission norms often requires redesigning equipment to use eco-friendly lubricants, reduce fugitive emissions, or incorporate noise suppression technologies. These design modifications increase R&D costs, certification requirements, and manufacturing complexity. For users, regulatory compliance may mean upgrading older equipment that does not meet new efficiency or pollution standards—often at considerable expense.

Industries like oil & gas and chemicals face particularly rigorous standards due to their environmental impact, and failure to comply can lead to fines, operational shutdowns, or loss of licenses. Rotating equipment in such settings must meet stringent tolerances for leak-proof operations and energy usage, which can be difficult with legacy systems or budget constraints.

Moreover, regulatory frameworks are evolving rapidly, and staying compliant requires ongoing monitoring, reporting, and audits. Smaller manufacturers often struggle to keep pace with these requirements due to limited technical and financial resources. Even large OEMs may find it challenging to align product development cycles with shifting regulatory landscapes.

As global focus on decarbonization and net-zero goals intensifies, rotating equipment manufacturers must innovate continuously while balancing performance, cost, and compliance. However, the burden of regulatory adaptation, especially for legacy operations and equipment, remains a persistent obstacle for market growth.

Key Market Trends

Rising Demand for Energy-Efficient Equipment

Energy efficiency has emerged as a major purchasing criterion in the rotating equipment industry. With global energy prices rising and regulatory frameworks becoming more stringent, industries are seeking motors, pumps, compressors, and turbines that consume less power while delivering high output. This has led to significant innovation in design, materials, and control systems.

Manufacturers are now producing equipment that meets or exceeds international energy efficiency standards. This includes the use of premium-efficiency motors (IE3/IE4), magnetic bearings, optimized impeller designs, and variable frequency drives (VFDs) that allow dynamic speed control based on load conditions. These advancements result in substantial energy savings over the lifecycle of the equipment.

Additionally, industries are now evaluating total cost of ownership (TCO) rather than just initial capital expenditure. This shift in mindset is encouraging end-users to invest in high-efficiency equipment that offers long-term benefits through reduced utility bills and maintenance costs.

Energy efficiency is also being driven by sustainability goals. Many large corporations have committed to carbon neutrality or emission reduction targets. Upgrading to efficient rotating equipment is one of the most immediate and measurable actions toward these goals.

This trend is especially strong in regions like Europe and North America, where energy regulations are more advanced. However, developing economies are also catching up, particularly in industrial clusters where energy use is a major operational cost. As such, the push for energy-efficient rotating machinery is becoming a global movement.

Integration of Smart and Connected Equipment

Digital transformation is reshaping the rotating equipment market through the integration of smart, connected features. Modern equipment is no longer limited to mechanical performance; it also serves as a node in a broader industrial automation and data analytics ecosystem.

Connected rotating equipment includes embedded sensors, edge computing capabilities, and compatibility with cloud-based platforms. This allows the equipment to communicate with control systems, deliver real-time performance data, and integrate with enterprise resource planning (ERP) systems for seamless operational visibility.

Smart equipment can self-regulate under variable conditions, automatically adjust operating parameters, and trigger maintenance alerts before problems occur. This level of automation reduces the need for constant human oversight and improves operational accuracy.

The trend is also driving the growth of digital twin technology in the rotating equipment space. Digital twins simulate real-world equipment behavior using live data, enabling performance optimization, design testing, and failure prediction without physical intervention.

Industries such as chemicals, pharmaceuticals, and power generation—where process precision is vital—are particularly benefiting from smart rotating equipment. Manufacturers, in response, are investing heavily in R&D to enhance software compatibility, cybersecurity, and remote diagnostics capabilities.

This trend is set to redefine the competitive landscape of the rotating equipment market. Companies that offer not just hardware but integrated digital solutions are becoming preferred vendors. The adoption of Industry 4.0 principles is thus catalyzing a long-term evolution in how rotating equipment is manufactured, sold, and maintained.

Growing Popularity of Modular and Customizable Designs

Flexibility in design is becoming an important trend in the global rotating equipment market. Industries today demand modular equipment that can be easily installed, upgraded, or scaled depending on process needs. This is a departure from traditional one-size-fits-all machinery and has reshaped product development strategies.

Modular rotating equipment allows for faster assembly, simplified integration with existing systems, and quicker replacement of faulty components. This design approach minimizes downtime during installation or repairs, significantly boosting operational uptime. It is especially popular in remote or offshore installations, where transporting and servicing large, complex machinery is both time-consuming and expensive.

Customization is also in high demand, particularly in niche sectors such as pharmaceuticals, desalination, food processing, and advanced manufacturing. These industries often have unique process conditions—like corrosive fluids, high pressures, or hygienic requirements—which necessitate specially designed pumps, motors, or turbines.

To meet this need, manufacturers are offering configuration tools that allow end-users to select performance parameters, materials, and connectivity features according to their specific applications. This customization extends to software as well, where control interfaces and alerts are tailored to customer preferences.

This trend is helping manufacturers differentiate themselves in a competitive market by offering value beyond standard product lines. It also supports greater lifecycle flexibility, as customers can adapt or upgrade individual modules rather than replacing entire systems. As industrial operations grow more complex and diverse, modular and customizable rotating equipment is becoming a market norm rather than an exception.

Expansion of Aftermarket Services and Lifecycle Management

Another key trend in the rotating equipment market is the rising importance of aftermarket services, including maintenance contracts, performance optimization, spare parts supply, and equipment upgrades. As competition intensifies, original equipment manufacturers (OEMs) are focusing not only on sales but also on building long-term service relationships with clients.

Customers are increasingly looking for full-service providers who can manage their rotating equipment assets throughout their lifecycle. This includes initial installation, commissioning, periodic health assessments, condition monitoring, remote diagnostics, and end-of-life recycling or replacement.

Service-based business models, such as Equipment-as-a-Service (EaaS), are gaining traction. These models allow customers to pay for equipment use and performance rather than own the machinery outright. Such arrangements reduce upfront capital expenditure and transfer the responsibility for maintenance and uptime to the OEM or service provider.

Digital technologies are playing a major role in enabling this trend. Remote monitoring tools and cloud-based dashboards provide OEMs with real-time data, allowing them to offer proactive services and reduce response time in case of faults. AI-based analytics are also being used to fine-tune performance and predict component wear.

The aftermarket segment has become a significant revenue stream for many companies, often surpassing initial equipment sales in profitability. This shift reflects a broader trend toward solution-oriented offerings, where rotating equipment is part of an integrated performance management system.

As the focus on uptime, efficiency, and total cost of ownership increases, aftermarket services will continue to expand, offering new business opportunities and customer engagement strategies for players across the value chain.

Segmental Insights

Type Insights

Pumps segment dominates in the Global Rotating Equipment market in 2024 due to its widespread application across multiple industries, evolving technological innovations, and increasing demand driven by global infrastructure development and water management needs. Pumps are indispensable components in sectors such as oil & gas, water and wastewater treatment, power generation, chemical processing, pharmaceuticals, and food & beverages, making them the most extensively used rotating equipment globally.

One of the key reasons behind this dominance is the escalating global focus on water and wastewater infrastructure, particularly in urban and industrial areas. Countries facing water scarcity or pollution are investing in large-scale desalination and treatment plants, all of which rely heavily on different types of pumps (centrifugal, submersible, and diaphragm pumps). Moreover, municipal and industrial water systems require continuous pumping operations, resulting in substantial demand for reliable, energy-efficient pump solutions.

In the oil & gas sector, pumps are critical for fluid transfer, circulation, injection, and refining operations. With upstream and midstream investments rebounding post-pandemic, the segment has experienced renewed growth. Additionally, chemical and pharmaceutical industries require specialized pumps for handling corrosive, volatile, or high-viscosity fluids with precision, pushing demand for customized and high-performance solutions.

Technological advancements also support this trend. The integration of smart pumps with real-time monitoring, variable frequency drives (VFDs), and predictive maintenance features has significantly enhanced pump efficiency and reduced operating costs. This has encouraged industries to replace outdated units with newer, digitally enabled models.

Furthermore, as energy efficiency becomes a top priority, high-efficiency pumps are increasingly preferred, supported by global regulations like the EU Ecodesign Directive. The combination of regulatory compliance, essential process roles, and evolving technology has placed pumps at the forefront of the rotating equipment market in 2024, making them the most dominant and fastest-adopted segment worldwide.

Application Insights

Onshore segment dominated the Global Rotating Equipment market in 2024 due to the widespread presence of industrial facilities, power plants, manufacturing units, and water treatment infrastructure located onshore. Onshore operations offer easier equipment installation, maintenance, and scalability compared to offshore environments, reducing operational complexity and cost. Additionally, rapid industrialization in emerging economies, along with significant investments in oil refining, chemical processing, and renewable energy projects on land, have accelerated equipment demand. The availability of skilled labor, established supply chains, and robust regulatory frameworks further supported the dominance of onshore applications across multiple end-use industries.

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Regional Insights

Largest Region

North America dominates the Global Rotating Equipment market in 2024 due to its well-established industrial base, advanced technological infrastructure, and strong presence of leading equipment manufacturers. The region’s dominance is primarily driven by robust activity in key sectors such as oil & gas, power generation, water treatment, chemicals, and manufacturing, all of which require high-performance rotating machinery including pumps, compressors, turbines, and motors.

The United States, in particular, continues to invest heavily in energy infrastructure, including both conventional and renewable power generation. The expansion of shale oil and gas exploration in the U.S. has maintained high demand for rotating equipment in drilling, production, and refining operations. Additionally, Canada’s oil sands and resource extraction industries contribute significantly to regional demand, especially for heavy-duty and high-pressure machinery.

Technological leadership further reinforces North America’s dominance. The region is at the forefront of integrating Industrial Internet of Things (IIoT), smart sensors, and predictive maintenance solutions into rotating equipment. This digital transformation enhances efficiency, reliability, and lifecycle performance, driving widespread upgrades and replacements of older systems. North American industries are also early adopters of energy-efficient and low-emission equipment, aligning with stringent regulatory requirements related to environmental sustainability and carbon reduction.

Moreover, North America is home to several global market leaders such as General Electric, Flowserve Corporation, and Ingersoll Rand, which have robust R&D capabilities, strong service networks, and a broad customer base. These companies not only cater to domestic demand but also export equipment and solutions globally.

Government support for industrial modernization, coupled with a high level of automation and skilled labor availability, further boosts equipment deployment across the region. Collectively, these factors make North America the most mature and innovation-driven market for rotating equipment in 2024, solidifying its position at the top of the global landscape.

Emerging Region

Europe is the emerging region in the Global Rotating Equipment market in the coming period due to its strong push toward energy efficiency, decarbonization, and industrial modernization. The region’s ambitious climate goals and regulatory mandates, such as the EU Ecodesign Directive, are driving demand for advanced, low-emission pumps, compressors, and turbines. Additionally, significant investments in renewable energy, water infrastructure, and smart manufacturing are fueling market growth. European industries are also adopting digital solutions and predictive maintenance at a rapid pace. With strong engineering capabilities, innovation-driven OEMs, and sustainability-focused policies, Europe is poised to be a major growth hub in the coming years.

Recent Developments

• In January 2025, Arcline Investment Management acquired Rotating Machinery Services, Inc. (RMS), a premier OEM and global third-party service provider for critical turbomachinery. Founded in 1998, RMS has redefined aftermarket support through comprehensive offerings that include parts manufacturing, component repair, metrology, and engineering services for both OEM and non-OEM systems. The acquisition strengthens Arcline’s presence in high-performance rotating equipment, supporting RMS’s continued innovation and expansion across key industrial and energy sectors.
• In May 2025, Westpower announced a strategic partnership with Summit Pump, Inc., a leading U.S. manufacturer of centrifugal and positive displacement pumps. This alliance expands Westpower’s end-to-end rotating equipment solutions, from supply and installation to lifecycle maintenance. With over 40 years of manufacturing experience and rapid delivery capabilities, Summit Pump enhances Westpower’s ability to reduce lead times, optimize client uptime, and deliver reliable, cost-effective pump systems to critical infrastructure and process industries.
• In April 2025, Sulzer entered a 10-year strategic service partnership with Manweir WLL to enhance rotating equipment repair services in Qatar. Based at Manweir’s Ras Laffan facility, Sulzer will provide localized support across oil & gas, power, water, and industrial sectors. This initiative shortens repair cycles, boosts equipment reliability, and aligns with Qatar’s In-Country Value targets and Vision 2030 sustainability objectives, strengthening domestic capabilities and infrastructure resilience.
• In April 2025, CG Pumps unveiled SmartSENSE, India’s first cordless, float-free automatic water pump controller. Designed for residential use, the system uses advanced sensors to monitor water levels at both inlet and tank points, enabling fully automated pump operation without manual wiring or float switches. This innovation enhances water efficiency, eliminates overflow, and simplifies installation—offering a modern, intelligent solution for household water management in India’s evolving urban landscape.

Key Market Players

• Siemens AG            
• General Electric
• Atlas Copco AB
• Flowserve Corporation
• Sulzer Ltd
• Mitsubishi Heavy Industries
• Grundfos
• Ingersoll Rand Inc.
• Ebara Corporation
• Ansaldo Energia           

Report Scope:

In this report, the Global Rotating Equipment Market has been segmented into the following categories, in addition to the industry trends which have also been detailed below:

•  Rotating Equipment Market, By Type:

o   Pumps

o   Compressors

o   Turbines

o   Motors

o   Generators

o   Others

• Rotating Equipment Market, By Application:

o   Onshore

o   Offshore

o   Industrial Processing

o   Energy Production

o   Others

• Rotating Equipment Market, By End-User:

o   Oil & Gas

o   Power Generation

o   Water & Wastewater Treatment

o   Chemicals & Petrochemicals

o   Others

• Rotating Equipment Market, By Region:

o   North America

§  United States

§  Canada

§  Mexico

o   Europe

§  Germany

§  France

§  United Kingdom

§  Italy

§  Spain

o   South America

§  Brazil

§  Argentina

§  Colombia

o   Asia-Pacific

§  China

§  India

§  Japan

§  South Korea

§  Australia

o   Middle East & Africa

§  Saudi Arabia

§  UAE

§  South Africa

Competitive Landscape

Company Profiles: Detailed analysis of the major companies present in the Global Rotating Equipment Market.

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Company Information

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