Piezoelectric Motor Market

Piezoelectric Motor Market Outlook from 2025 to 2035

Fact.MR research indicates that the world piezoelectric motor industry is experiencing a gradual shift fueled by miniaturization requirements, especially in medical devices, microelectronics, and robotics. By 2025, the industry is set to be worth USD 800 million, expanding at a CAGR of 4% during the study period and maintain a steady growth trend, growing to USD 1,100 million by 2035. Rising precision component integration in high-value industries and increased R&D spending across Japan, Germany, and the United States support this expansion.

Recent trends have witnessed leading players like PiezoMotor Uppsala, Physik Instrumente (PI), Noliac, and Piezo Systems Inc. diversifying their offerings to include miniature, high-performance motors for next-generation diagnostic equipment and aerospace guidance systems. Fact.MR opines that increasing demand for minimally invasive surgical equipment and miniaturized optical devices will offer profitable opportunities.

Although the industry is confronted with constraints in the shape of expensive production and material constraints, continuous developments in piezoceramic materials and energy-efficient driver electronics are likely to counteract these challenges. One of the major threats, however, is substitution by advanced electromagnetic motors in high-power applications.

Opportunities still prevail in the Asia Pacific industry, with China and South Korea investing substantially in precision robotics and automatic assembly lines. In addition, the move towards Industry 4.0 and adaptive motion technologies is expected to drive demand for customized motion solutions. The industry has a favorable outlook up to 2035 based on innovation and strategic partnerships driving future growth.

Key Metrics

Metric	Value
Industry Size (2025E)	USD 800 million
Industry Value (2035F)	USD 1,100 million
CAGR (2025 to 2035)	4%

Key Piezoelectric Motor Industry Dynamics and Outlooks

Rising Demand for Compact Motors to Spur Product Uptake

The industry is growing gradually due to increased demand for compact, high-performance motors across several industries. Increasing applications in precision equipment, robotics, medicine, and aerospace are driving the industry. Miniaturization, driven by new manufacturing technologies, is also the prime driver.

High Production Costs May Hinder Demand

While with positive growth, the industry also faces its difficulties in high production costs and limited availability of specialty materials. The manufacture of the product requires precision and costly raw materials like piezoceramic elements, which can add to the high cost of production. These are some of the aspects that can discourage small firms from investing in the product.

Technological Advancements to Bolster Opportunities

Advances in piezoelectric materials, like the creation of lead-free piezoceramics, are helping to overcome the current limitations in efficiency and cost. Advances in driver electronics technology, enhancing motor operation without wasting power, also play a critical role. As the industry continues to expand, these technologies continue to advance, leading to increased efficiency.

The ongoing drive toward Industry 4.0 and automation holds high growth potential. Piezoelectric motors are a vital component in cutting-edge robotics and automation technology, with increased precision and power efficiency. Moreover, the demand for minimally invasive medical devices is driving sector applications for diagnostic equipment and surgical devices, creating affluent opportunities.

Surging Competition May Pose Barriers

One major threat to the growth of the industry is increasing competition from alternative motor technologies such as electromagnetic motors and stepper motors. These substitutes may be cheaper, especially for high-power applications, thereby limiting the application of piezoelectric motors in certain industries. Thus, this factor is influencing the mass uptake of the product.

Demand Analysis in the Piezoelectric Motor Industry across Key End-User Segments

A group of stakeholders influences the industry worldwide, each playing a distinct role in stimulating growth, innovation, and regulation. Producers and manufacturers form the core of the industry, creating and manufacturing these motors. They stimulate growth by enhancing motor efficiency and lowering the cost of production, but they are usually affected by changes in raw material prices. The demand from manufacturers for special materials may result in conflicts with end-users calling for cost-efficient solutions. Strategic alliances between technology providers and manufacturers can alleviate such issues.

Technology providers, including those producing piezoelectric materials and driver electronics, are instrumental in driving the innovation envelope. Their efforts in miniaturization and efficiency drive demand for shrinking motors' sizes while increasing their power, particularly in the medical device and robotics industries. But the breakneck rate of technology development can clash with manufacturers' ability to maintain, based on considerable capital outlay, a pace that is difficult to support. These technology suppliers are sustained by robust R&D funding, and thus manufacturers' and technology companies' collaborations are paramount to industry expansion.

Investors are instrumental in providing finance for innovation and making sure the industry has the capital it needs to increase production. Investors put pressure on producers to look at cost-saving methods and profit, which might sometimes conflict with the demand for technological advancement. In contrast, regulators make sure the motors are safe and environmentally friendly, which might be costly to produce but is necessary for industry penetration. The tension between regulatory compliance and cost savings is a source of ongoing pressure between the stakeholders.

End-users and infrastructure developers round out the value chain. Infrastructure developers make sure piezoelectric motors are incorporated into essential systems like automated production lines and medical equipment. End-users, such as robotics and aerospace firms, drive demand for more specialized, efficient, and reliable motors. These players propel the industry by demanding high-performance motors with specific requirements. There is potential for cooperation, especially among developers of infrastructure and manufacturers, to include piezoelectric motors in new development schemes, which would create long-term demand.

Piezoelectric Motor Industry Analysis by Top Investment Segments

By Product Type

Non-magnetic LPM will be the most lucrative product segment from 2025 through 2035, driven by growing demand in medical diagnostics, semiconductor processing, and precision optics, where magnetic interference must be removed. The non-magnetic LPM segment is expected to expand at a CAGR of roughly 9.1% from 2025 to 2035, spearheading all other segments because of its widespread usage and ongoing investments in high-precision engineering uses.

Such motors are becoming more and more critical in high-sensitivity applications, such as MRI-compatible devices and atomic-level positioning systems. Fact.MR research identified that their natural compatibility, tiny dimensions, and ability to work in cleanroom and vacuum settings make them precious in all high-tech industries.

By End-Use Industry

From 2025 to 2035, robotics & factory automation is projected to be the largest revenue end-use segment due to the wave of industrial digitization around the world and the hyper-precision manufacturing race. The segment will post a CAGR of 10.4% over the forecast period, which represents a structural transition toward intelligent automation and modular robotic platforms.

As industries chase zero-defect manufacturing, the need for high-precision actuation rises. Fact.MR is of the opinion that producers choose solutions with greater repeatability, thermal stability, and quicker response times-essential features in which piezo-based systems have an edge.

By Operating Force/Torque

During the years 2025 to 2035, the 10-25 mNm segment shall remain the highest margin operating force/torque segment, courtesy predominantly of its optimum combination of minimized design and ample torque for complex positioning applications. The industry is projected to register a CAGR of 9.5% during the period between 2025 and 2035 on the basis of its ability to provide performance specifications in commercial and research-oriented applications.

Fact.MR surveys indicate this range to have been best for medical lab automation, wafer handling, and micro-assembly robots. As demand for low-backlash, submicron resolution integrated motion systems grows, the popularity of actuators within this force window has grown tremendously as well.

Analysis of Top Countries, Producing, Using, and Distributing Piezoelectric Motor

United States

The industry in the United States is projected to develop steadily at a CAGR of 5.2% during 2025 to 2035, supported by strong investments in precision engineering and autonomous systems, as per Fact.MR estimates. The ultra-miniaturized actuation trend in aerospace R&D and defense innovation in the nation is compelling unification across mission-critical applications.

The demand for high-precision motion components is being fueled by more federal investment in defense modernization initiatives and semiconductor production under the CHIPS and Science Act. OEMs are also collaborating with research institutions to enhance design tolerances in advanced surgical robotics and quantum computing systems. Even with supply-side inflation, U.S.-based OEMs are focusing on domestic sourcing, fueling vertical integration. NIST certification and FDA compliance standards for medical devices guarantee uniform standards.

United Kingdom

Fact.MR estimates the sales in the UK to grow at a CAGR of 5.1% from 2025 to 2035, powered primarily by defense diversification, healthcare robotics, and research and development in academia. Post-Brexit industrial strategies have augmented localized production of aerospace subassembly and nuclear instrumentation, both dependent on accurate, low-latency actuation. The increasing dependence of the NHS on robotic-assisted surgical systems further accelerates demand for clean, compact, and magnetically neutral motion solutions.

Regulation by the Medicines and Healthcare Products Regulatory Agency (MHRA) has established a high-certification barrier in favor of premium-grade systems. Further, university-based R&D in areas like optics and quantum systems is stimulating collaboration with specialist component manufacturers. With digital twinning and predictive maintenance at the forefront of industrial automation, demand for position-feedback-enabled motors is on the rise.

Germany

Fact.MR predicts that the industry in Germany will expand at a CAGR of 5.6% over the 2025 to 2035 forecast period, driven by continued investment in Industry 4.0 and optical metrology. With a strong manufacturing sector and government support for cleanroom-friendly automation, the use of micro-movement technology has increased in automotive research and development, photonics, and bioengineering. German OEMs require high-resolution, non-magnetic systems to withstand continuous operation under extreme conditions.

TÜV Rheinland and CE Mark approval are requirements, especially in medical and laboratory automation environments. Integration of adaptive motion modules with real-time AI-based control becomes the norm, particularly in autonomous test benches. Fraunhofer Institutes continue to be centers of innovation, expediting the commercialization of precision motion technologies for next-generation optics, biotechnology, and quantum computing.

France

Fact.MR expects that the sector in France will witness a CAGR of 5.0% during 2025 to 2035, influenced by green technology regulations. The government's strong emphasis on low-noise and energy-saving solutions is driving a shift away from electromagnetic systems. The nation is becoming a center of photonics and laser-guided automation systems, mainly in Bordeaux and Grenoble.

The ANSSI (French National Cybersecurity Agency) has imposed more stringent mechatronics cybersecurity compliance, which affects system architecture in intelligent surgical instruments and lab automation devices. CE marking and REACH rules continue to be obligatory for OEMs engaged in life sciences. France's proximity to ESA programs has also boosted demand for precision motion in satellite testing and orbital component calibration.

Italy

Fact.MR estimates that the industry in Italy will expand at a CAGR of 5.1% from 2025 to 2035, supported by robust machinery exports and accelerated life sciences modernization. Italy's manufacturing infrastructure-especially in Lombardy and Bologna-prefers space-efficient, integrated systems for textile robotics, medical equipment, and packaging. Government-sponsored digitalization incentives have promoted the adoption of adaptive automation and high-resolution actuation among SMEs.

INAIL certification of work is increasingly focused on robotic operating rooms to ensure safety and quality of operation. Italy's diagnostic precision industry is also testing portable laboratory automation equipment, which has produced a shift in demand to silent, self-leveling motion units. Economic uncertainty notwithstanding, export-driven companies are spearheading innovation in modulated platform design, which is simultaneously affordable and high-torque-dense.

India

Fact.MR foresees the landscape in India to grow at a CAGR of 6.4% between 2025 and 2035, driven by structural change in electronics manufacturing and domestic production of medical devices. The "Make in India" program, together with government-sponsored semiconductor manufacturing policies, has driven domestic demand for low-profile, high-precision components.

India's fast-growing medical diagnostics industry is increasingly preferring components that provide noiseless, clean, and zero-maintenance motion, especially among urban Tier-1 hospitals. Collaborative automation (cobots) and electronic testing laboratories are significant users of micro-positioning systems. However, fractured supplier ecosystems and skills gaps present operational challenges. BIS certification is becoming a requirement in the healthcare and electronics industries, with an effort to harmonize local quality standards with IEC guidelines.

China

Fact.MR predicts the sector in China will exhibit a CAGR of 5.9% during the study period, driven by government-backed automation within semiconductor, photonics, and biomedical device fabrication. As a component of the "Made in China 2025" policy, efforts are focused on advancing actuation solutions to drive precision optics, MEMS assembly, and metrology. The local ecosystem prefers closed-loop systems with minimal hysteresis and nanometer-level repeatability.

Local OEMs are increasing their production capacities but continue to be subject to worldwide scrutiny on quality standards and IP levels. Therefore, the government is simplifying compliance with CCC certification and increasing subsidies for indigenous component creation. National priorities also include encouraging the use of robotic-assisted microsurgeries and equipment for checking wafers, which will result in more motion systems being used in major cities.

South Korea

Fact.MR estimates that sales in South Korea will record a CAGR of 5.3% from 2025 to 2035, which will be led by robust government investment in 6G, semiconductors, and biomedical imaging. The Ministry of Trade, Industry, and Energy's "K-Semiconductor Strategy" has driven demand for nanoscale positioning platforms that are cleanroom and vacuum compatible. Korean companies are accelerating the development of micro-motion platforms used in wafer inspection, AR optics, and medical robots.

KATS (Korean Agency for Technology and Standards) is responsible for certification, particularly for components integrated into diagnostic imaging equipment. As diagnostic platforms move increasingly to AI-guided targeting, the demand for ultra-quiet and vibration-free actuation is growing stronger. There are also startups in Seoul and Daejeon testing flexible substrate manufacturing, which requires flexible positioning units.

Japan

Japan's industry is projected to grow at a CAGR of 4.8% during 2025 to 2035, driven by heritage leadership in optics and a fresh focus on sustainable mechatronics. Japan is still the world standard for nanometer-grade metrology and quiet actuation, especially in surgical robotics, semiconductor photolithography, and spectrometry. The Ministry of Economy, Trade and Industry (METI) is simplifying international certifications to encourage component exports while maintaining JIS standards.

Japanese companies are highly self-sufficient in upstream design and investing strongly in AI-driven motion controls. Despite this, demographic issues and labor shortages are increasing reliance on intelligent automation in high-precision assembly. Firms are also enhancing component robustness for extreme-environment testing, especially for space robotics and deep-sea exploration.

Australia-New Zealand

Fact.MR anticipates the industry in the Australia-New Zealand region to register a CAGR of 4.9% during 2025 to 2035, driven by increasing biomedical research investments and cleanroom manufacturing. Australia's Medical Research Future Fund and New Zealand's health tech investment programs have created opportunities for precision actuation in surgical simulation and medical imaging.

The region is inclined towards low-maintenance, thermally stable, and magnet-free systems compatible with sterile environments. Australia's TGA (Therapeutic Goods Administration) and New Zealand's Medsafe require stringent compliance levels for embedded motion subsystems in regulated healthcare devices. As precision agriculture and drone-based environmental monitoring increase in popularity, there is increasing demand for lightweight, weather-durable actuation platforms.

Industry Share Analysis by Key Companies

Physik Instrumente (PI) GmbH (20-25% industry share) will lead high-precision industrial and semiconductor applications in 2025 by virtue of demand for automation and nanoscale positioning. Nanomotion Ltd. (15-20%) will continue to lead medical robotics with its focus on miniature, high-speed motors for surgery and diagnostic equipment, particularly in North America and Europe.

TDK Corporation (10-15%) will expand in consumer electronics and industrial automation with low-cost piezoelectric actuators for haptics and robotics. Samsung Electro-Mechanics (8-12%) will rise in Asia-Pacific with the smartphone and wearable industries via small, low-power piezoelectric solutions.

Core Tomorrow Technology (7-10%) will become a player in aerospace and auto uses with high-torque, rugged motors for the most demanding environments. Meanwhile, Piezomotor Uppsala AB (5-8%) will target specialized scientific and OEM industries with an emphasis on customization and dependability for research instruments. New Chinese and Japanese entrants are exerting pressure with low-cost options, particularly in mid-industry consumer and industrial segments, threatening well-established brands in price-sensitive segments.

Company Name	Estimated Industry Share (%)
Piezomotor Uppsala AB	5-8%
PI (Physik Instrumente)	20-25%
Cedrat Technologies	15-18%
Core Tomorrow Technologies	7-10%
Samsung Electro-Mechanics	8-12%
Others Combined	10-15%

Key Strategies of Piezoelectric Motor Manufacturers, Suppliers, and Distributors

Companies are focusing on several strategic efforts to stay competitive with growing industry pressures and changing technology. Product innovation is one of the key trends, with companies investing heavily in R&D to develop more efficient, compact, and energy-saving motors. Manufacturers are increasingly using advanced materials, such as next-generation piezoceramics, to enhance performance at reduced costs.

Another vital strategy is strategic partnerships with technology firms to capitalize on cutting-edge technology innovations that can be incorporated into new motor designs to stay abreast of the high speed of technology changes in fields like robotics and healthcare.

Investors are reacting by targeting companies that have strong growth opportunities through capital expenditure in R&D and technology innovation. With the increasing requirement for efficient motors, investors are preferring businesses that are leaders in motor miniaturization and efficiency development.

In addition, the majority of investors are looking for geographical diversification, particularly in emerging economies where the development of robotics, automation, and intelligent manufacturing is on the rise. This allows them to access unsatisfied demand while diversifying the risk geographically.

Regulators play a central role in shaping the industry's strategies by setting safety, environmental, and quality standards. Regulatory lobbying is their main concern to ensure that new technologies, like piezoelectric motors, are environmentally and safety compliant while encouraging innovation.

Regulators are now advocating for sustainability, which enables stakeholders to adopt green technologies and reduce the carbon footprint of manufacturing processes. Since the industry is under increased scrutiny regarding environmental effects, these efforts at lobbying guarantee a proportional response between innovation and regulation.

End-users like firms in the robotics, medical, and aerospace sectors are actively engaging to procure specialized solutions to address particular application requirements. For the robotics sector, there is a need for extremely precise and small motors, which can operate effectively in constrained spaces, and end-users have been looking for such solutions in direct interaction with producers.

They are focusing on long-term partnerships with automotive producers to ensure assured quality, timely delivery, and reduced expenses. As these industries are growing, end-users are also pushing the initiative towards energy-saving and low-maintenance products to keep the costs of operations down. Technology providers and startups in this sector heavily focus on disruptive innovation.

Key Success Factors Driving the Industry

The most important success drivers for the industry are focused on technological innovation, efficiency gains, and the growing need for miniaturized solutions. With sectors such as robotics, aerospace, and medical devices demanding greater performance and accuracy, piezoelectric material and motor design advancements are critical.

Advances that improve motor efficiency, minimize energy consumption, and allow for compact sizes are essential in order to fulfill the expanding needs of these industries. Companies develop a competitive advantage in a fast-changing marketplace by investing in R&D and partnering with technology providers to bring leading-edge developments into their offerings.

The second key driving force is the increasing use of automation and robots across different sectors. With an ever-growing need for more efficient, dependable, and compact motors, piezoelectric products are increasingly a part of automated solutions.

The rising need for environmentally friendly and energy-efficient technology, along with the demand for precise motion control, means that piezoelectric motors are likely to gain a lot of advantages. Firms that are capable of matching their products to these industry requirements while surviving regulatory demands and upholding cost feasibility are geared for success in capturing the burgeoning industry share.

Other Key Players

• Dr. Fritz Faulhaber GmbH & Co. KG
• Attocube Systems AG
• Physik Instrumente (PI) GmbH & Co. KG
• Nanomotion Inc.
• PiezoMotor Uppsala AB
• SmarAct GmbH
• Portescap
• Adamant Namiki Precision Jewel Co., Ltd
• New Scale Technologies Inc.
• Piezo Electric Technology Co., Ltd.
• Boston Scientific Corporation
• Medtronic plc
• Siemens Healthineers
• Terumo Corporation
• Philips Healthcare
• Stryker Corporation
• Abbott Laboratories
• GE Healthcare
• Zimmer Biomet
• Johnson & Johnson
• Schneider Electric
• Rockwell Automation
• KUKA AG
• Fanuc Corporation
• Mitsubishi Electric Corporation
• Omron Corporation
• ASML Holding
• Carl Zeiss AG
• Keysight Technologies
• Renishaw plc
• Festo AG & Co. KG
• Toshiba Corporation
• Kistler Group
• Aerotech, Inc.
• Thorlabs, Inc.

Segmentation

• By Product :

  • Standard LPM
  • Non-magnetic LPM
  • Vacuum LPM
  • Standard RPM
  • Non-magnetic RPM
  • Vacuum RPM

• By End-Use Industry :

  • Micro Positioning Stages
  • Medical & Lab Automation Equipment
  • Automotive, Aerospace & Defence
  • Robotics & Factory Automation
  • Optics & Photonics
  • Instrumentation

• By Operating Force/Torque :

  • 0 to 20 N
  • 20-150 N
  • 150 - 225 N
  • Above 225 N
  • Below 10 mNm
  • 10 - 25 mNm
  • Above 225 mNm

• By Region :

  • North America
  • Latin America
  • Europe
  • Asia Pacific
  • MEA