Battery Pack Immersion Cooling System Performance Test Rigs Market

Global Battery Pack Immersion Cooling System Performance Test Rigs Market Summary:

As per Transpire Insight Analysis, the Global Battery Pack Immersion Cooling System Performance Test Rigs Market size is estimated at USD 63.5 Million in 2025 and is anticipated to reach USD 179.8 Million by 2033, growing at a CAGR of 13.9% from 2026 to 2033.

This market provides specialized hardware and software diagnostic matrices used to validate direct-contact liquid cooling configurations for high-output electric vehicle powertrains. Over the past three to five years - cell design focus has dramatically pivoted from standard indirect cold plates toward submerging cells directly into specialized dielectric fluids. This structural technological shift was triggered by the widespread commercialization of high-density 800-volt charging platforms - which generate extreme localized heat during rapid charging cycles. Because thermal runaway risks increase at elevated voltages, automotive test engineers are rapidly adopting these rigs to simulate extreme heat loads and verify fluid compatibility under high electrical stress. Consequently - the industry-wide mandate to engineer hyper-fast charging EVs without compromising pack safety is directly accelerating global corporate investment in high-fidelity thermal validation equipment.

Global Battery Pack Immersion Cooling System Performance Test Rigs Market Size & Forecast:

• Global Market Size 2025: USD 63.5 Million
• Expected Market Value (2033): USD 179.8 Million
• Forecast CAGR (2026–2033): 13.9%
• Leading Region in 2025: Asia Pacific
• Fastest Growing Region: North America
• Key Company Profiles: AVL List, HORIBA, Chroma ATE, Keysight Technologies, Arbin Instruments, National Instruments, Siemens, dSPACE, Maccor, Weiss Technik, Bosch Rexroth, FEV Group, Burke Porter, TÜV SÜD, Intertek

Key Global Battery Pack Immersion Cooling System Performance Test Rigs Market Insights:

The battery pack immersion cooling system performance test rigs market - shifting away from static - single-parameter thermal evaluation toward highly integrated - multi-physical real-time simulation networks. Driven by the mass implementation of high-power 800V architectures and zero-tolerance safety standards for thermal runaways - automotive testing infrastructure is rapidly evolving to deliver synchronized dynamic cycling - high-voltage monitoring - fluid behavior tracking.

• Thermal Performance Test Rigs command a dominant 36% market share - with hardware developers like AVL List embedding advanced multi-physical fluid telemetry loops into their latest emulated testbeds to accelerate e-mobility thermal validation.
• Asia Pacific drives market dynamics with a leading 42% regional share - as players like HORIBA and Chroma ATE expand high-throughput silicon-carbide bidirectional battery cycler installations near regional EV manufacturing clusters.
• North America secures a vital 27% market footprint and stands as the fastest-growing region with a 17.4% CAGR - pushed by Keysight Technologies and National Instruments advancing automated hardware-in-the-loop (HiL) test rigs for localized software-defined vehicle validation.
• Battery Cycling Test Rigs control 20% of the market volume, with Arbin Instruments and Maccor rolling out high-channel - rapid-transient regenerative current architectures to model intense fast-charging thermal strain on submerged cells.
• Europe accounts for 24% of the industry footprint - where Siemens and FEV Group focus heavily on digital twin co-simulation workflows to model complex convective heat transfer metrics before structural components enter physical labs.
• Environmental Test Rigs capture a stable 15% share - led by Weiss Technik developing specialized multi-zone explosion-resistant climatic enclosures designed to safely handle flammable dielectric fluid mist during extreme abuse testing.
• High-voltage Test Rigs make up 10% of global demand - as dSPACE optimizes real-time high-voltage insulation tracking arrays to monitor potential fluid degradation and micro-arcing inside active immersion setups.
• Integrated Validation Rigs hold 9% of market equity but lead future expansion at an explosive 18.2% CAGR - pushed by Burke Porter and Bosch Rexroth consolidating automated fluid pumping loops, load modules, and leak detection onto plug-and-play skid frames.
• Leak Testing Rigs capture 6% of the industrial matrix - with global validation firms like TÜV SÜD and Intertek standardizing high-sensitivity pressure decay and mass spectrometry leak testing grids to avoid expensive coolant bypass faults in high-velocity production lines.

What Are the Key Drivers, Restraints, and Opportunities in the Global Battery Pack Immersion Cooling System Performance Test Rigs Market?

Driver

Market growth is heavily propelled by the rapid transition from traditional indirect cold-plate cooling toward direct-contact liquid immersion architectures in high-performance electric vehicles. The introduction of ultra-fast 800V charging networks triggered localized thermal management challenges, creating extreme localized hotspots that traditional surface-cooling plates cannot mitigate. This structural engineering pivot forces automotive OEMs and battery manufacturers to adopt advanced performance test rigs to validate fluid dynamics and cell-to-fluid heat transfer rates under maximum energy stress. Consequently, this testing shift drives immense corporate revenue growth as engineering teams require highly specialized multi-physical emulators to prevent catastrophic thermal runaway events.

Restraint

Severe fluid-sealing integrity issues paired with complex multi-parameter data alignment act as a major structural barrier holding back rapid testing deployment. Unlike static air or surface-chilled testing, immersion systems require completely leak-free environments using expensive dielectric fluids under variable pressure loops. This friction persists because minor seal degradation or pressure decay faults cause immediate coolant bypass errors, disrupting the analytical sensor calibration and risking laboratory-wide high-voltage electrical arcing.

Opportunity

The most lucrative growth window lies in the mainstream adoption of fully modular - plug-and-play Integrated Validation Rigs executing synchronized hardware-in-the-loop (HiL) workflows. Consolidating bidirectional regenerative cyclers - dynamic fluid pumping loops, and real-time insulation tracking onto single skid frames allows automotive development labs to bypass custom assembly friction entirely. This technological movement unlocks massive market opportunities particularly across booming aerospace and commercial vehicle testing hubs in North America by accelerating product validation times for next-generation solid-state - high-voltage battery modules.

What Has the Impact of Artificial Intelligence Been on the Global Battery Pack Immersion Cooling System Performance Test Rigs Market?

Artificial intelligence has completely transformed the battery pack immersion cooling system performance test rigs market, stepping far past basic data logging to drive complex "inverse thermal modeling" platforms. Instead of relying on slow, physical trial-and-error fluid loop testing, research and validation teams now utilize machine learning models to input targeted electrical loads—like aggressive 800V fast-charging profiles—and instantly map optimal flow dynamics.

This technology drives immense automation and operational improvements by dynamically syncing battery cycler telemetry with fluid loop flow rates in real time. Furthermore, neural networks provide advanced predictive capabilities by forecasting potential micro-cavitation zones and structural pressure decay faults before long-term safety validation cycles begin.

However, a serious limitation remains in the "fluid-thermal accuracy gap." Because advanced dielectric fluids change viscosity dynamically across extreme localized temperature spikes - standard AI models frequently output flawed thermal prediction maps when dealing with sudden high-voltage arcing conditions that drift outside historical lab data baselines.

Key Market Trends

The battery pack immersion cooling system performance test rigs market is shifting away from isolated, steady-state thermal evaluations toward highly integrated, multi-physical real-time emulation networks. Driven by the mass industry migration to high-power 800V architectures and zero-tolerance safety mandates for thermal runaways, automotive testing infrastructure developers are rapidly replacing standard fluid loops with automated hardware-in-the-loop (HiL) diagnostic grids.

• Testing setups are transitioning steadily from basic, steady-state chiller loops to advanced, high-dynamic fluid pumping networks capable of replicating instantaneous flow-rate changes during violent thermal spikes.
• Electrical validation methodologies are moving past simple passive load banks to deploy high-frequency bidirectional regenerative battery cyclers that precisely mimic intense fast-charging thermal strain on submerged cells.
• Fluid diagnostic architecture is leaving basic physical sampling behind to adopt inline optical and mass spectrometry sensors that dynamically monitor dielectric fluid degradation and micro-arcing in real time.
• Rig control systems are abandoning manual calibration routines to implement machine-learning-driven inverse thermal modeling that predicts fluid micro-cavitation zones before physical validation sequences begin.
• Safety engineering frameworks are evolving away from generic vent lines to establish multi-stage explosion-resistant climatic enclosures equipped with active mist-suppression grids to safely handle flammable dielectric gas bypass.
• Rig instrumentation is changing from traditional point-based thermocouples to embed high-density fiber-optic Bragg grating sensors that capture localized volumetric temperature profiles across dense cell gaps.
• Hardware configurations are shifting from custom, site-welded fluid plumbing layouts toward standardized, skid-mounted modular frames that allow testing laboratories to scale validation capacity instantly.
• Telemetry platforms are advancing from isolated data logging systems to incorporate cloud-linked predictive digital twin networks that continuously sync laboratory telemetry with active cell degradation models.
• Material choices for rig plumbing are moving away from standard industrial plastics to use specialized fluoropolymer lined pipes and ultra-clean stainless steel grades built to prevent fluid contamination under extreme high-voltage stress.

Global Battery Pack Immersion Cooling System Performance Test Rigs Market Segmentation

By Test Rig Type

Thermal Performance Test Rigs command the largest share of market capital, holding a dominant 36% of global revenue due to their essential role in validating cell-to-fluid heat dissipation metrics. Battery Cycling Test Rigs follow at 20%, Environmental Test Rigs hold 15%, High-voltage Test Rigs hold 10%, while Integrated Validation Rigs stand out as the fastest-growing technology segment expanding at an explosive 18.2% CAGR. Leak Testing Rigs capture 6%, whereas End-of-Line Test Rigs and other specialized engineering configurations round out the remaining 4% of the industry footprint. This division is shaped by the strict engineering balance between isolated thermal analysis and total multi-physical validation parameters. Thermal Performance Test Rigs maintain their peak position because automotive powertrain engineers systematically solve localized overheating liabilities by deploying these systems to map precise fluid flow vectors and convective heat transfer coefficients under peak electrical loads. Moving forward, structural designs will pivot toward high-rate co-simulation capability, forcing equipment developers to roll out advanced thermal testbeds that dynamically adjust volumetric coolant flow rates in direct sync with simulated real-world track driving profiles.

By Cooling Fluid

Dielectric Fluids serve as the primary financial engine of the matrix, controlling a dominant majority of industry revenue due to their exceptional insulation properties and direct compatibility with live electrical components. Synthetic Ester Fluids and Mineral Oil Fluids follow as active secondary segments representing established industrial fluid standards, while Fluorinated Fluids, Silicone Fluids, Bio-based Cooling Fluids, and Hybrid Cooling Fluids represent specialized operational alternatives tailored for distinct temperature thresholds or environmental mandates. The underlying growth logic relies on fluid chemical stability and flashpoint optimization under extreme electrical duress, where testing facilities demand rig environments that handle rapid fluid circulation without risking chemical breakdown. Dielectric Fluids maintain this peak market position because their low viscosity and high dielectric strength allow test rigs to simulate tight, high-velocity fluid paths without inducing parasitic pumping losses or triggering short circuits. Moving forward, industry success will require the widespread validation of bio-based and hybrid cooling formulations, compelling test rig manufacturers to supply corrosion-resistant plumbing lines that handle chemically diverse, non-synthetic alternative fluids without degrading internal sensor seals.

By Battery Type

Lithium-ion Batteries function as the undisputed anchor of this matrix, capturing a commanding portion of total industry revenue, while High-voltage Battery Packs stand out as the fastest-accelerating design configuration due to the rapid global transition toward 800V and greater powertrain architectures. NMC Batteries alongside LFP Batteries hold a stable secondary share, primarily serving high-volume passenger vehicle testing lines - while Solid-state Batteries - Sodium-ion Batteries - Commercial EV Battery Packs form highly specialized technical development niches. This distribution pattern is driven by the global automotive push for ultra-fast charging capabilities and the elimination of cell degradation - where immersive test setups secure the structural safety boundaries of highly sensitive chemistries. Lithium-ion Batteries lead because global electric vehicle platforms explicitly rely on high-energy-density cells that require rapid - direct-contact thermal extraction to prevent catastrophic thermal runaway cycles during peak regenerative braking or high-power draws. Moving forward, application tech will focus heavily on validating next-generation solid-state architectures - pushing rig providers to deliver specialized pressure-staged contact modules that monitor expansion forces and thermal shifts simultaneously under total fluid immersion.

By End User

Automotive OEMs function as the primary driver of this market, controlling a combined majority of total industry volume due to their immense capital scale and localized vehicle program validation timelines. Battery Manufacturers and Tier-1 Suppliers follow closely as critical pillars for high-volume supply cell verification, while EV Startups, Testing Laboratories, Research Institutes, and Defense Battery Programs represent highly specialized, high-security target operations. This division is shaped by the macro transition away from outsourced, single-component evaluations toward fully integrated, in-house vehicle validation infrastructures where time-to-market is the defining competitive indicator. Automotive OEMs lead the market position because the aggressive corporate mandate to roll out next-generation flagship EV fleets requires immediate, captive infrastructure to clear strict validation milestones without experiencing supplier bottlenecks. Moving forward, end-user strategies will focus heavily on establishing automated multi-rig testing hubs, forcing rig manufacturers to deploy standardized hardware-in-the-loop interfaces that allow factory engineers to manage multiple thermal fluid testbeds simultaneously via single cloud-linked facility portals.

By Application

Thermal Validation functions as the primary operational driver of this matrix, controlling the largest share of historical market capital due to the foundational engineering requirement to measure exact heat rejection rates before cell packaging layout finalization. Durability Testing and Safety Testing follow closely as highly active high-growth segments, handling long-term continuous thermal cycling, while Performance Benchmarking, R&D Testing, Production Quality Testing, and Certification Testing form specialized validation milestones. This structural division persists because certifying direct-contact cooling geometries under international transit safety laws requires rigorous, multi-month abuse testing data. Thermal Validation maintains its peak position because aircraft and vehicle design groups must systematically eliminate fluid stagnation zones—where hidden hot pockets can rapidly destabilize neighboring cells—by running dense fluid-dynamic analysis loops. Moving forward, application strategies will pivot sharply toward integrated production-line quality tracking, enabling manufacturing plants to deploy rapid, high-pressure end-of-line fluid verification loops that cross-reference assembly metrics against dynamic laboratory-certified baseline models.

What Are the Global Key Use Cases Driving the Battery Pack Immersion Cooling System Performance Test Rigs Market?

The dominant utilization of thermal performance test rigs is heavily driven by ultra-fast 800V powertrain validation to satisfy automotive OEMs and battery manufacturers. High-volume electric vehicle developers integrate these diagnostic testbeds directly into captive laboratory grids to analyze cell-to-fluid convective heat transfer. This setup allows engineering teams to map exact dielectric fluid flow dynamics and eliminate structural hot pockets during aggressive fast-charging simulations, systematically preventing field-level thermal runaway events.

Beyond baseline thermal characterization - expanding applications are highly visible across long-term durability testing - high-voltage safety benchmarking. Automotive Tier-1 suppliers and testing laboratories deploy high-frequency regenerative cycling arrays to continuously monitor insulation resistance and prevent micro-arcing inside submerged NMC or LFP battery enclosures. This continuous multi-physical testing ensures reliable fluid-material seals - long-term fluid chemical stability under real-world vehicle vibration profiles.

Emerging operational use cases focus on integrated validation rigs for next-generation solid-state architectures and specialized defense battery programs. Aerospace and defense developers utilize modular, skid-mounted test rig platforms to execute synchronized hardware-in-the-loop (HiL) workflows. These automated environments evaluate complex pressure-staged contact variations and fluid degradation simultaneously, accelerating product certification times for high-density, low-altitude flight matrices and electric commercial transport fleets.

Which Regions are Driving the Global Battery Pack Immersion Cooling System Performance Test Rigs Market Growth?

Asia Pacific maintains a commanding grip on the battery pack immersion cooling system performance test rigs market, capturing a dominant 42% of all worldwide industry revenue. This geographic leadership is heavily driven by rapid commercial electric vehicle volume scaling combined with intensive gigafactory capacity investments across major regional industrial corridors. The regional ecosystem is structurally supported by a dense concentration of local battery cells and pack manufacturers who demand localized validation machinery to certify next-generation high-energy platforms. Consequently - transitioning away from indirect cold-plate setups toward direct liquid-submerged architectures has become the standard operational choice for regional powertrain developers seeking absolute safety margins during ultra-fast charging phases.

In March 2026, automotive electronics innovator Chroma ATE expanded its high-voltage validation ecosystem by rolling out its Model 17040 regenerative battery pack testing system optimized for high-throughput automated lab frameworks. The high-power system uses fast current-transient capabilities to replicate extreme fast-charging vehicle driving profiles while actively recovering up to 96% of spent testing energy back into the local grid infrastructure. By deploying these modular power banks directly next to active immersion fluid circulation skids, the hardware architecture allows high-volume Asian gigafactories to eliminate standard power supply constraints and accelerate cell pack release gates. 

North America has emerged as the fastest-growing territory globally, accelerating at a market-leading standalone CAGR of 17.4% while currently holding an essential 27% slice of global sales. This sudden structural shift is driven by massive corporate supply chain localization policies, extensive aerospace battery program modernizations, and heavy implementation of cloud-linked hardware-in-the-loop (HiL) validation networks. Historically, regional automotive engineering centers relied on basic, single-parameter thermal chillers or isolated load benches, but an aggressive push for fully automated digital test facilities has forced the widespread adoption of smart, integrated test benches. Looking ahead, future digital infrastructure development in this booming corridor relies heavily on deploying edge-connected fluid-thermal controller rigs featuring intelligent inverse data tracking algorithms to dynamically govern dynamic multi-pump flow rates.

In April 2026, electrical instrumentation giant Keysight Technologies officially reshaped high-power validation limits by deploying the latest firmware update for its SL1700A Scienlab Battery Pack Test System featuring advanced high-voltage Silicon-Carbide power architectures. This specialized second-generation hardware platform integrates its dynamic power allocation algorithm directly with real-time hardware-in-the-loop (HiL) simulation interfaces to accurately model direct liquid immersion environments. By managing massive electrical loads up to 1.5 MW through intelligent parallel configurations, this mechanical deployment allows North American EV powertrain laboratories to execute complex fast-charging stress scenarios without incurring extensive facility utility expansion costs. 

Europe serves as a highly stable, predictable secondary pillar for the global market, locking down an essential 24% share of total industry demand. While North American expansion is propelled by massive automotive supply chain localization and rapid HiL software integration, European adoption is shaped by rigid regional environmental regulations and aggressive safety certification mandates. This regional market stability is structurally insulated by long-term corporate development partnerships that prioritize the development of multi-stage explosion-resistant enclosures capable of containing volatile dielectric fluid mist. To minimize heavy utility power spending and navigate complex thermal compliance evaluations without structural errors, continental automotive groups steadily invest in advanced test rigs equipped with closed-loop digital twin co-simulation networks.

In January 2026, simulation and testing leader AVL List officially enhanced its e-mobility validation footprint by launching the AVL CRUISE™ M 2026 R1 simulation environment featuring highly precise discretized multi-physical battery models. This software framework bridges the gap between digital fluid-dynamics modeling and physical hardware infrastructure by allowing engineers to predict immersion fluid behavior and localized hot spots prior to setting up physical lab components. By syncing these multi-physical predictive matrices directly into automated laboratory management frameworks, the system enables European tier-one automotive suppliers to dramatically reduce manual tuning times while maintaining full compliance with strict regional safety validation procedures. 

Who Are the Key Players in the Global Battery Pack Immersion Cooling System Performance Test Rigs Market and How Do They Compete?

The Global Battery Pack Immersion Cooling System Performance Test Rigs Market functions as a highly specialized engineering arena contested by multinational diagnostic instrumentation giants, advanced automotive hardware-in-the-loop (HiL) suppliers - dedicated e-mobility thermal validation innovators. As automotive OEMs scale 800V fast-charging architectures, test rig vendors compete across three primary operational capabilities: delivering synchronized high-dynamic fluid-thermal loops, guaranteeing explosion-resistant multi-zone containment safety - integrating real-time digital twin co-simulation networks.

AVL List deploys a high-tier innovation strategy - positioning its diagnostic footprint around multi-physical system simulation - automated laboratory management systems. The vendor differentiates its market position by offering its CRUISE™ M simulation framework - which utilizes advanced 3D discretized battery modeling to dynamically analyze cell-to-fluid convective heat patterns and venting gases alongside physical testbed actions. The company drives its international expansion by deploying modular - plug-and-play validation skids across leading European and North American EV test corridors to compress OEM time-to-market metrics.

Chroma ATE executes a highly precise, niche-focused strategy targeted at high-throughput battery pack and module validation lines. The enterprise differentiates its hardware architecture by integrating high-voltage - Silicon-Carbide (SiC) regenerative battery cyclers that recover up to 96% of testing power while executing fast current-transient driving profiles under actual liquid immersion constraints. The manufacturer accelerates its global expansion by establishing localized engineering hubs directly adjacent to massive Asian gigafactory hubs to secure long-term production quality testing contracts.

Company List

• AVL List
• HORIBA
• Chroma ATE
• Keysight Technologies
• Arbin Instruments
• National Instruments
• Siemens
• dSPACE
• Maccor
• Weiss Technik
• Bosch Rexroth
• FEV Group
• Burke Porter
• TÜV SÜD
• Intertek

Recent Development News

In November 2025, Keysight Technologies expanded its high-power automated test equipment (ATE) systems portfolio for electric vehicle - battery validation. This product launch integrates advanced high-power electronics emulation with real-time telemetry analytics - allowing automotive development centers to safely evaluate next-generation high-voltage battery packs - fast-charging interfaces under peak mechanical and thermal stress levels. [https://www.keysight.com

In January 2026, electronics and e-mobility testing innovator Anritsu Corporation established a multi-company strategic technology partnership with dSPACE, DEWETRON - TAKASAGO. This collaborative deployment unifies dSPACE’s real-time hardware-in-the-loop (HiL) emulation platforms with high-voltage battery pack dynamic cyclers to create a unified Power HiL testing ecosystem. The integrated configuration allows development laboratories to safely execute synchronized charging and structural thermal validation scripts under real-world EV operating conditions. [https://www.anritsu.com

In May 2026, validation equipment specialist Chroma ATE finalized a strategic technology integration with National Taiwan University’s NTU Racing Team. This advanced hardware-in-the-loop product integration combines Chroma's dual-axle dynamometer testbeds with real-time powertrain simulation software to evaluate live electric propulsion systems. The deployment enables high-fidelity laboratory replication of extreme transient wheel loads, providing battery manufacturers with precise tracking records to optimize pack cooling parameters under asymmetric driving stresses. [https://www.chromaate.com

What Strategic Insights Define the Future of the Global Battery Pack Immersion Cooling System Performance Test Rigs Market?

The Global Battery Pack Immersion Cooling System Performance Test Rigs Market is heading toward unified multi-physical validation. Rigs are transitioning from isolated thermal chillers into complex, software-defined environments that synchronously emulate high-voltage dynamics, dynamic fluid telemetry, and physical cell stresses.

A critical hidden risk lies in "fluid-chemical degradation mapping." Because dielectric coolants age and drift in viscosity under repeated high-voltage arcing, failure to continuously validate testbed seal integrity and sensor baselines can result in micro-arcing blindspots or catastrophic laboratory-wide fluid bypass faults.

Conversely - a major emerging opportunity is the development of out-of-autoclave, smart-sensing test interfaces tailored for solid-state and sodium-ion pouch architectures.

Strategic recommendation - Manufacturers must invest heavily in standardized, hardware-in-the-loop (HiL) turnkey skids. Integrating predictive machine-learning fluid loops directly will allow labs to catch micro-cavitation errors instantly while providing the trace calibration data needed to clear rigid international transit safety audits.

By Test Rig Type

• Thermal Performance Test Rigs
• Leak Testing Rigs
• Battery Cycling Test Rigs
• Environmental Test Rigs
• High-voltage Test Rigs
• End-of-Line Test Rigs
• Integrated Validation Rigs
• Others

By Cooling Fluid

• Dielectric Fluids
• Synthetic Ester Fluids
• Mineral Oil Fluids
• Fluorinated Fluids
• Silicone Fluids
• Bio-based Cooling Fluids
• Hybrid Cooling Fluids
• Others

By Battery Type

• Lithium-ion Batteries
• LFP Batteries
• NMC Batteries
• Solid-state Batteries
• Sodium-ion Batteries
• High-voltage Battery Packs
• Commercial EV Battery Packs
• Others

By End User

• Battery Manufacturers
• Automotive OEMs
• EV Startups
• Tier-1 Suppliers
• Testing Laboratories
• Research Institutes
• Defense Battery Programs
• Others

By Application

• Thermal Validation
• Durability Testing
• Safety Testing
• Performance Benchmarking
• R&D Testing
• Production Quality Testing
• Certification Testing
• Others

Regional Outlook

North America

• United States
• Canada
• Mexico

Europe

• Germany
• United Kingdom
• France
• Spain
• Italy
• Rest of Europe

Asia Pacific

• Japan
• China
• Australia & New Zealand
• South Korea
• India
• Rest of Asia Pacific

South America

• Brazil
• Argentina
• Rest of South America

Middle East & Africa

• Saudi Arabia
• United Arab Emirates
• South Africa
• Rest of the Middle East & Africa