Semiconductor ICP-MS Systems Market Size & Share 2026-2035

Semiconductor ICP-MS Systems Market Size

The Semiconductor ICP-MS Systems Market was valued at USD 198.6 million in 2025, is estimated at USD 208.2 million in 2026, and is projected to reach USD 343.9 million by 2035, expanding at a CAGR of 5.73% during 2026–2035.

Semiconductor manufacturing turns trace-metal analysis into a yield-protection function rather than a periodic laboratory exercise. Metallic contamination can originate in wafer substrates, wet chemicals, ultrapure water (UPW), CMP slurries, process gases, or chamber components, and can contribute to leakage, dielectric failure, and defects. Industry documentation identifies metal contamination as a material source of yield loss and describes electronic-grade silicon purity requirements extending from 9N to 11N, making sensitivity, recovery control, and matrix management central to analytical-system selection ^{[1]Agilent Technologies, Measuring Inorganic Impurities in Semiconductor Manufacturing. agilent.com}. SEMI M85 specifies vapor-phase decomposition ICP-MS procedures for trace metals on silicon wafer surfaces, while SEMI F63 addresses UPW quality requirements for semiconductor processing ^{[2]Glenn Woods, Agilent Technologies, Aqueous-based Applications of ICP-QQQ in Semiconductor Manufacturing, The ICP-MS Journal. agilent.com}.

Demand is being reshaped by the conversion of semiconductor investment announcements into analytical-laboratory buildouts. New fabs require incoming-material qualification, wafer-surface monitoring, UPW surveillance, and equipment-component validation before stable wafer output can be achieved. The U.S. CHIPS program, European state-aid approvals, Chinese capacity investment, and India's emerging fab program therefore create separate installation cycles rather than a single regional replacement market ^{[3]Agilent Technologies, ICP-MS for Semiconductor Cleaning and Surface Preparation. agilent.com}. At the same time, the movement toward more complex materials and tighter contamination limits shifts the highest-value applications toward triple-quadrupole systems capable of managing difficult spectral interferences in concentrated acids and silicon-rich matrices ^{[4]SEMI, SEMI F61 - Guide to Design and Operation of a Semiconductor Ultrapure Water System. semi.org}.

Asia Pacific led the market with USD 68.33 million in 2025 and is projected to grow at 6.75%, supported by China's fabrication expansion and established manufacturing ecosystems in Taiwan, South Korea, and Japan. North America generated USD 58.21 million and is forecast to grow at 6.38%, while Europe accounted for USD 41.54 million and is expected to expand at 5.00%. Latin America represented USD 10.82 million, growing at 1.84%, and the Middle East & Africa generated USD 19.72 million, with a 3.06% CAGR. The regional divergence reflects the concentration of leading-edge wafer fabrication in Asia, the United States, and Europe; elsewhere, demand is more heavily weighted toward research, industrial laboratories, and electronics-adjacent quality control.

The technology mix is changing for a more specific reason than broad automation demand. Single-quadrupole platforms remain economical for established, high-throughput chemical and UPW workflows, but advanced materials and concentrated process chemicals create polyatomic interferences that cannot always be resolved through routine collision-cell operation. Triple-quadrupole systems gain share where their interference-control capability prevents dilution, rework, or separate confirmatory runs. The resulting market is bifurcated: volume remains in routine screening, whereas technical pricing power is concentrated in systems supporting wafer qualification and high-matrix semiconductor chemicals.

Key Drivers

Expansion of Advanced Semiconductor Fabrication Facilities

A greenfield fab must establish contamination-control capacity before it can qualify materials and process tools for volume production. That requirement creates demand across several ICP-MS use cases at once: incoming-acid and solvent screening, UPW monitoring, wafer-surface residue measurement, and chamber-component evaluation. In the United States, the CHIPS and Science Act provides USD 39 billion in manufacturing incentives and supports semiconductor research and development, while the investment tax credit framework lowers the cost of qualifying manufacturing property. Micron's CHIPS award for projects in Idaho and New York illustrates the scale of new U.S. memory-fab investment, including planned cleanroom capacity that will require supporting analytical infrastructure ^{[5]SEMI, Newly Published Standard for Measurement of Particle Precursors in Ultrapure Water. semi.org}.

European projects provide a comparable, though geographically concentrated, source of demand. The European Commission approved EUR 920 million in state aid for Infineon's MEGAFAB-DD project in Dresden in February 2025 ^{[6]Kazuhiro Sakai, Agilent Technologies, Enhancing the 8900 ICP-QQQ with Pure Gases and SPS 6 Autosampler, The ICP-MS Journal. agilent.com}. ESMC's Dresden facility, backed by EUR 5 billion in approved German state aid, is scheduled to begin production in 2027. GlobalFoundries also announced a EUR 1.1 billion Dresden expansion in October 2025, targeting more than one million wafers of annual capacity by the end of 2028. These projects create procurement opportunities before wafer-output ramps, because analytical methods and cleanroom-compatible workflows require validation during facility commissioning.

Growing Demand for Ultra-Trace Contamination Analysis

Smaller device geometries reduce the tolerance for both dissolved and particulate contamination. SEMI M85 defines vapor-phase decomposition ICP-MS procedures for silicon-wafer surface analysis, including critical metallic elements such as sodium, iron, copper, nickel, and zinc. The method matters commercially because it connects contamination monitoring directly to wafer release and process-yield management rather than to off-line materials characterization.

High-matrix chemicals are increasing the value of tandem mass spectrometry. Agilent documents direct analysis of concentrated semiconductor acids using ICP-QQQ workflows designed to control interferences without dilution steps that may introduce contamination. Thermo Fisher similarly describes multi-mode ICP-MS/MS workflows for semiconductor applications that combine cold plasma, kinetic-energy discrimination, and MS/MS operation for difficult analyte-matrix combinations ^{[7]SEMI, Liquid Chemicals Standards for Semiconductor Manufacturing. semi.org}. The operational consequence is fewer compromises between throughput and sensitivity when fabs and chemical suppliers qualify increasingly complex process chemistries.

Government Investments in Domestic Semiconductor Manufacturing

National semiconductor programs alter the geography of analytical-equipment demand because they encourage fabrication capacity in regions that previously relied more heavily on imported chips. U.S. incentives are complemented by European support for strategic projects, including Infineon's Dresden facility and STMicroelectronics' silicon-carbide campus in Italy. Such programs do not guarantee immediate ICP-MS orders, but they establish the construction, commissioning, and supplier-qualification pipeline from which analytical demand is derived.

China remains a separate source of growth because domestic capacity expansion coincides with the development of local instrumentation alternatives. U.S.-China Economic and Security Review Commission analysis describes the scale of China's state-backed semiconductor industrial policy. In India, Tata Electronics and PSMC completed a technology-transfer agreement in September 2024 for a fab project in Dholera, Gujarat. The commercial implication is that vendors cannot treat policy-led demand as homogeneous: the same public investment may expand the installed base while also changing local-content expectations, service requirements, and procurement preferences.

Rising Purity Requirements for Semiconductor Chemicals and Ultrapure Water

Purity specifications make chemical analysis a recurring production requirement. SEMI F63 provides guidance for UPW used in semiconductor processing, and ASTM D5127 addresses ultra-pure water for the electronics and semiconductor industries ^{[8]Glenn Woods, Agilent Technologies, High-purity Organics by ICP-QQQ, The ICP-MS Journal. agilent.com}. In practice, suppliers and fabs must demonstrate contamination control across acids, solvents, oxidizers, and water systems, which keeps routine analytical utilization high even after a new instrument installation is complete.

The challenge is not simply detecting more elements. Concentrated nitric, hydrochloric, sulfuric, and silicon-containing matrices generate distinct interference patterns. Triple-quadrupole systems use controlled reaction and mass-shift strategies to differentiate target analytes from interfering species, improving the credibility of results in matrices where a conventional screening workflow can produce ambiguity. That capability supports a shift from instrument selection based mainly on detection-limit specifications to selection based on validated semiconductor methods and matrix-specific uptime.

Increasing Automation in Semiconductor Quality Control

Automation reduces the delay between sampling, data generation, and process response. Revvity describes a fully automated VPD-ICP-MS workflow based on its NexION 5000 platform for wafer-surface metallic-impurity analysis, allowing continuous operation without routine operator intervention. Automated sample preparation also reduces the number of manual handling steps where trace-metal contamination can be introduced.

Software is becoming a second route to higher laboratory productivity. Thermo Fisher's Reaction Finder supports automated mode selection for individual analytes in ICP-MS/MS workflows, while Shimadzu's ICPMS-2030 combines lower argon consumption with software features intended to support method development and result review. These tools do not eliminate the need for semiconductor analytical expertise; instead, they standardize repeatable portions of method execution and can shorten the time required to commission a new analytical laboratory.

Key Restraints

High Capital Investment and Operating Costs of Semiconductor ICP-MS Systems

Semiconductor-ready systems require more than a standard mass spectrometer. Cleanroom-compatible pumps, corrosion-resistant cones, high-purity sample-introduction components, automation hardware, and semiconductor-method validation add to the acquisition and qualification burden. The cost differential is most pronounced for triple-quadrupole systems and automated VPD installations, which are often justified only where avoided yield risk or customer qualification requirements materially outweigh the additional capital expense.

Operating economics matter as well. ICP-MS platforms consume high-purity argon continuously, and gas usage becomes material in facilities running around-the-clock workflows. Shimadzu states that the ICPMS-2030 mini-torch configuration uses approximately 11 L/min of argon, illustrating why gas consumption has become a feature in lifecycle-cost comparisons. Analytik Jena similarly positions low-argon operation as a relevant operating-cost attribute for its PlasmaQuant MS series. Smaller chemical suppliers and independent laboratories may therefore retain lower-cost screening systems or outsource specialized analyses rather than adopt a full high-specification configuration.

Complex Sample Preparation and Shortage of Skilled Analytical Professionals

Wafer-surface analysis requires controlled preparation as well as sensitive detection. SEMI M85 VPD workflows involve vapor-phase oxide removal, collection of the resulting droplet, and contamination-controlled handling; recovery and blank performance can be affected by operator technique and method conditions. Direct analysis of semiconductor chemicals introduces a different problem: the analyst must choose plasma conditions, collision or reaction gases, calibration approaches, and interference-control modes appropriate to each matrix.

The staffing issue is most acute in newly built facilities, where analytical teams are being created alongside process organizations. A technical investigation published through IEEE demonstrates the specialized combination of ICP-MS and semiconductor-process knowledge required to trace metallic contamination in lithography chemicals. Vendors that provide application development, prevalidated methods, automation, and local service can convert this constraint into a competitive advantage, while buyers face a trade-off between building in-house expertise and using specialized external laboratories.

Automation is reducing, rather than removing, that barrier. Automated VPD and chemical-preparation systems can make recovery performance more repeatable and limit manual contamination opportunities, but fabs still need experts able to investigate unusual matrices, interpret interference behavior, and link trace-metal data to process conditions. The strongest supplier proposition is consequently a combined offer: hardware, semiconductor-specific methods, application support, and local service capacity. That package is particularly valuable in greenfield markets where commissioning speed has a direct impact on facility ramp timelines.

Semiconductor ICP-MS Systems Market Segment Analysis

Product Type

Single Quadrupole ICP-MS represented the largest product segment, at USD 86.22 million and 43.4% of the 2025 market, and is projected to expand at a 5.88% CAGR. Its position reflects the economics of high-throughput routine screening. Chemical suppliers and fab laboratories can use single-quadrupole systems for defined analyte panels when established collision-cell, cool-plasma, or matrix-dilution methods provide adequate confidence. Agilent's semiconductor application materials show why these systems retain broad relevance in chemical and wafer workflows, even as more demanding applications shift toward ICP-MS/MS.

Triple Quadrupole ICP-MS/ICP-MS/MS accounted for USD 66.23 million, or 33.3% of the 2025 market, and is forecast to grow fastest at 6.84%. The architecture uses two mass filters around a collision-reaction cell, allowing precursor and product-ion selection that improves interference removal in complex matrices. This is particularly relevant for elements such as silicon, sulfur, and phosphorus, where background and polyatomic interference can constrain conventional analysis. Agilent's 8900, Thermo Fisher's iCAP TQs, and Revvity's NexION 5000 illustrate the supplier focus on semiconductor-specific interference control, automated sequencing, and cleanroom-compatible configurations.

Sector Field/High-Resolution ICP-MS generated USD 29.18 million in 2025, equal to 14.7% of the market, and is projected to grow at 4.45%. Magnetic-sector systems are better suited to applications requiring high mass resolution, isotope-ratio precision, and reference-method work. Their semiconductor role is concentrated in compound-semiconductor characterization, advanced materials research, and analytical validation rather than high-volume fab process control.

Multi-Collector ICP-MS accounted for USD 17.00 million, or 8.6% of the 2025 market, and is expected to grow at 1.95%. These systems address specialized isotope-ratio work, including contamination-source tracing and materials research. Nu Instruments' Plasma 3 demonstrates the high-precision multi-collector capability associated with this tier, including simultaneous measurement across multiple Faraday and ion-counting detectors. Demand remains stable but does not scale with routine chemical qualification in the same way as quadrupole-based systems.

Technology

Quadrupole technology is the dominant technology category, encompassing single- and triple-quadrupole systems and representing approximately 76.7% of 2025 market composition. The platform balances scan speed, multi-element coverage, operating complexity, and capital cost. Its commercial importance comes from serving both ends of the semiconductor workflow: routine chemical and UPW screening with single-quadrupole instruments, and difficult high-matrix applications with tandem mass spectrometry.

Magnetic-sector technology corresponds primarily to the SF/HR-ICP-MS product tier, representing approximately 14.7% of the market. It resolves interfering ions through high mass resolution rather than reaction chemistry, which is valuable when isotope accuracy and method traceability outweigh throughput. The technology's limited growth reflects its use in specialist research and validation environments rather than its absence of technical relevance.

Others, representing approximately 8.6%, include MC-ICP-MS and emerging full-spectrum approaches used in specialized materials and particle-analysis workflows. These systems can be important where transient signals or isotopic relationships matter, but their higher specialization limits their deployment across routine fab laboratories.

Application

Semiconductor-Grade Chemical Analysis was the largest application, valued at USD 72.32 million and 36.4% of the 2025 market, with a projected 5.91% CAGR. The segment includes qualification of mineral acids, solvents, oxidizers, precursors, and cleaning chemistries against demanding contamination specifications. High analytical volume is driven by the breadth of incoming-material controls and the need to verify that reagent quality is preserved through storage, transfer, and use. Revvity describes automated preparation and analysis workflows for semiconductor-grade chemicals that address dilution, acidification, and spiking steps in concentrated matrices.

Wafer & Silicon Material Analysis accounted for USD 45.63 million, or 23.0%, and is forecast to grow at 7.85%, the highest application CAGR. VPD-ICP-MS provides a direct route to quantify trace metals on wafer surfaces under the framework set out in SEMI M85. Fraunhofer IPMS operates a VPD-ICP-MS laboratory for 200 mm and 300 mm wafer characterization, reflecting the role of dedicated analytical capacity in both commercial and research wafer ecosystems. Growth is also supported by the expansion of SiC, GaN, and other compound-semiconductor materials, which require methods adapted to matrices beyond conventional silicon.

Process Gas Analysis represented USD 27.64 million, or 13.9%, of the market and is projected to grow at 4.61%. Contamination can enter gas-delivery systems through cylinders, fittings, lines, and valves, creating an analytical requirement that extends beyond liquid chemicals. HORIBA's semiconductor portfolio spans process-monitoring and gas-analysis infrastructure, providing a complementary route into fab contamination-control workflows.

CMP Slurry & Nanoparticle Analysis accounted for USD 22.54 million, or 11.3%, and is forecast to expand at 4.41%. CMP slurries contain engineered abrasives alongside dissolved chemical components, making it necessary to distinguish intended particles from metallic contaminants. Agilent's single-particle ICP-MS application work demonstrates simultaneous assessment of dissolved metals and particle concentration, size, and composition in semiconductor process chemicals. This capability is increasingly valuable where particle-driven defects cannot be diagnosed through dissolved-metal analysis alone.

Ultra-Pure Water (UPW) Analysis, Cleanroom & Process Environment Monitoring, and Research & Development collectively represented approximately USD 30.50 million, or 15.4%, of the 2025 market, growing at 3.52%. UPW analysis remains a continuous production requirement under semiconductor water-quality guidance. Research and analytical-service laboratories support method development, wafer qualification, precursor characterization, and dispute resolution. Fraunhofer CSP's SilaPure work illustrates the use of high-resolution trace-element analysis in chlorinated oligosilane production relevant to semiconductor-material research.

End-User

Integrated Device Manufacturers held the largest end-user position, at USD 72.32 million and 36.4% of the 2025 market, and are projected to grow at 5.91%. Their vertically integrated manufacturing model supports broad in-house deployment because a single organization controls wafer fabrication, incoming material qualification, and process assurance. New IDM facilities can require multiple systems with different configurations rather than a single general-purpose platform.

Semiconductor Foundries generated USD 58.61 million, or 29.5%, in 2025 and are forecast to grow at 7.08%, the highest end-user CAGR. Foundries must support varied customer process requirements, which increases the importance of method breadth, traceability, and contamination-control consistency. SMIC's annual-results disclosure confirms ongoing expansion of its 8-inch and 12-inch manufacturing footprint, while ESMC's planned Dresden ramp extends advanced-foundry capacity in Europe. These projects support higher-value demand for systems able to manage difficult matrices and customer qualification requirements.

Semiconductor Material & Chemical Suppliers accounted for USD 28.09 million, or 14.1%, and are expected to grow at 4.85%. Suppliers must certify purity before materials reach the fab, making routine analytical throughput and repeatability more important than peak specification alone. GlobalWafers' CHIPS award for facilities in Missouri demonstrates how wafer-supply-chain investments can create associated demand for surface qualification and chemical-analysis capability.

Independent Testing & Analytical Laboratories and Research & Academic Institutions together generated USD 39.61 million, or 19.9%, in 2025 and are forecast to grow at 3.72%. These users provide outsourced qualification, specialized method development, and materials research where buyers do not maintain a full in-house analytical team. Their growth is slower because new advanced fabs increasingly allocate space and capital to internal analytical laboratories, but they remain important for validation, specialist testing, and emerging-material applications.

Single-quadrupole demand remains commercially significant because the market does not move uniformly to the highest-performance platform. Routine chemical screening, established UPW workflows, and mature laboratories still reward lower acquisition cost and high throughput. Suppliers consequently need two distinct commercial models: application-rich, performance-led selling for advanced fabs and technically difficult matrices; and service-efficient, cost-conscious selling for routine screening. Vendors able to migrate customers between those tiers as process complexity increases are best positioned to protect installed-base value.

Semiconductor ICP-MS Systems Market Regional Analysis

North America

North America generated USD 58.21 million in 2025 and is projected to expand at a CAGR of 6.38%. The United States accounted for USD 45.91 million and is forecast to grow at 7.09%, supported by new fabrication projects and domestic supply-chain investment under the CHIPS program. Analytical demand will emerge throughout construction and ramp-up because fabs must establish qualification methods before high-volume production. Automated sample-introduction suppliers also have a strong role in the region; Revvity's prepFAST S workflow is designed for automated analysis of semiconductor-grade chemicals.

Canada represented USD 12.30 million in 2025, with a 3.20% CAGR. Its market is more dependent on analytical-instrument development, research, electronics manufacturing services, and chemical testing than on large-scale leading-edge wafer fabrication. Aurora Biomed participates in elemental-analysis and laboratory-automation markets through its spectroscopy and sample-preparation product lines.

Europe

Europe accounted for USD 41.54 million in 2025 and is forecast to grow at 5.00%. Germany generated USD 19.23 million and is projected to expand at 6.35%, with Dresden serving as the region's clearest concentration of advanced-fab projects. The combination of ESMC, Infineon's MEGAFAB-DD, and GlobalFoundries' Project SPRINT creates a multi-year pipeline for analytical-laboratory procurement and service demand. Fraunhofer IPMS adds local wafer-analytics capacity through its VPD-ICP-MS services, strengthening the link between industrial production and specialized analytical support.

The Rest of Europe generated USD 22.31 million in 2025. France benefits from semiconductor manufacturing activity, including support for the STMicroelectronics-GlobalFoundries Crolles project. Italy's silicon-carbide investment is particularly relevant because STMicroelectronics is developing an integrated SiC manufacturing facility in Catania, supported by approved Italian aid ^{[9]SEMI, SEMI F123 - Guide for Meeting IRDS Yield Table Recommendations for High Purity Polymer Materials and Components Used in Ultrapure Water. semi.org}. The United Kingdom remains relevant through specialist instrument production, including Nu Instruments' high-resolution and multi-collector platforms, while European routine-analysis demand is also addressed by SPECTRO and Analytik Jena.

Asia Pacific

Asia Pacific was the largest market, at USD 68.33 million in 2025, and is forecast to grow at 6.75%. China generated USD 47.66 million and is estimated to expand at approximately 8.5%. The market combines a large fab base, continuing mature-node expansion, and the development of domestic analytical-instrument suppliers. Digitimes reported expected investment above USD 100 billion in China's 12-inch capacity equipment through 2027, while SMIC's 2024 annual results describe ongoing capacity expansion across its manufacturing footprint.

EXPEC Technology, a Focused Photonics subsidiary, illustrates the shift in domestic capability. Its 7350S Plus ICP-MS/MS is positioned for semiconductor applications including silicon and silicon-carbide wafer analysis, electronic chemicals, and specialty gases. The competitive effect is concentrated first in China's domestic market, where local service, procurement alignment, and lower-cost alternatives can matter greatly for routine or mid-tier applications.

The Rest of Asia Pacific generated USD 20.67 million in 2025 and includes Japan, South Korea, India, Australia, and Southeast Asia. Japan and South Korea retain advanced semiconductor and materials ecosystems that support sophisticated in-fab analytical demand. India represents a greenfield opportunity: Tata Electronics' agreement with PSMC creates a future fab-installation cycle, while ATONARP's METI-supported evaluation of mass-spectrometry sensors for the Indian semiconductor-equipment market signals interest in local analytical deployment. HORIBA's planned Nagpur mass-flow-controller facility further indicates the movement of semiconductor equipment capabilities toward the Indian supply chain.

Latin America

Latin America represented USD 10.82 million in 2025 and is forecast to grow at 1.84%. Brazil, Mexico, and Argentina support demand through industrial laboratories, electronics manufacturing services, mining, materials testing, and university research. Semiconductor-specific use is concentrated in incoming-material testing and assembly-and-test-related quality work rather than in leading-edge wafer fabrication. The lower growth rate follows from this value-chain position: the region has less immediate exposure to the new-fab construction cycles that drive multi-system ICP-MS purchases in Asia, North America, and Europe.

Middle East & Africa

The Middle East & Africa generated USD 19.72 million in 2025 and is projected to grow at 3.06%. Current demand is supported primarily by industrial, petrochemical, mining, water, and materials-analysis applications, with semiconductor-specific use concentrated in research and emerging technology programs. The United Arab Emirates and Saudi Arabia are building technology and industrial capabilities, while South Africa maintains an established analytical market linked to mining and metallurgy. Without comparable near-term leading-edge fab construction, the region's semiconductor ICP-MS opportunity remains more dependent on research, materials development, and electronics-adjacent testing than on production-fab qualification.

The strategic regional tension lies in China. Capacity investment supports instrument demand, yet domestic suppliers are improving their ability to serve semiconductor-specific applications. Global vendors will retain an advantage where validated high-matrix methods, multinational service coverage, and advanced automation are decisive. In routine screening and locally supported procurement, however, domestic suppliers can narrow the gap. India offers a different opportunity: its initial fab projects make early application support and service infrastructure more valuable than broad installed-base scale, because supplier relationships are likely to be established during laboratory design and commissioning.

Semiconductor ICP-MS Systems Market Share & Competitive Landscape

The market is concentrated among suppliers with mature semiconductor methods and broad service capabilities. Agilent Technologies held 21.3% of the 2025 market, followed by Thermo Fisher Scientific at 17.5%, Revvity at 13.4%, HORIBA Scientific at 9.7%, and SPECTRO Analytical Instruments at 6.5%. Other participants collectively accounted for 31.6%. Competition is defined by application performance in difficult semiconductor matrices, automation compatibility, cleanroom suitability, method support, and the ability to integrate results into laboratory and fab-control workflows.

Agilent Technologies held the leading share, supported by the semiconductor-specific 8900 ICP-QQQ configuration and a large body of applications spanning wafer VPD analysis, UPW, concentrated acids, and nanoparticle characterization. Agilent's fiscal 2024 revenue was USD 6.51 billion, giving the company the scale to maintain a broad applications and service organization. For semiconductor users, the important advantage is method continuity: validated workflows can be costly to replace when a fab has qualified them across multiple materials and process steps.

Thermo Fisher Scientific competes through the iCAP ICP-MS portfolio, particularly the iCAP TQs platform for multi-mode semiconductor analysis. Its semiconductor materials describe sub-ng/L capability across a broad analyte range in high-purity nitric acid and automated mode selection through Reaction Finder. The iCAP RQ supports routine applications, allowing Thermo Fisher to address both screening and more demanding tandem-MS workflows from a common supplier relationship.

Recent Industry Developments

• August 2025: ATONARP announced selection under Japan's METI Global South Future-oriented Co-creation Project to evaluate mass-spectrometry sensor deployment in India's semiconductor-manufacturing-equipment market.
• 2025: STMicroelectronics advanced plans for an integrated silicon-carbide manufacturing facility in Catania, Italy. The European Commission had approved EUR 2 billion in Italian aid for the project.
• 2026: Fraunhofer IPMS expanded its wafer-analytics offering with VPD-ICP-MS capability for 200 mm and 300 mm wafer surfaces.