System Basis Chips Market

Global System Basis Chips Market Size, Share, Forecast & Strategic Analysis (2026–2035)

Data provided by Extent Research. Source: https://www.extentresearch.com/system-basis-chips-market

The Global System Basis Chips Market size was estimated at USD 2.84 billion in 2025 and is projected to reach USD 6.97 billion by 2035, growing at a CAGR of 9.4% from 2026 to 2035. Expansion in vehicle electrification, zonal automotive architectures, and semiconductor content per vehicle continues to accelerate procurement demand across automotive electronics supply chains, positioning system basis chips as a foundational interface component connecting power management, communication, diagnostics, and network integrity functions across next-generation electronic control units.

Key Highlights

• Asia Pacific accounted for over 42% of global market revenue in 2025, supported by expanding EV production, automotive semiconductor localization initiatives, and strong automotive electronics manufacturing ecosystems across China, Japan, and South Korea.
• CAN-based System Basis Chips dominated with more than 38% market share in 2025 due to deep integration across passenger vehicle body electronics, infotainment systems, and legacy automotive communication infrastructures.
• Ethernet-enabled System Basis Chips are expected to witness the fastest growth rate exceeding 12% CAGR through 2035 as software-defined vehicle architectures and centralized automotive computing platforms continue accelerating adoption.
• Passenger vehicles contributed approximately 47% of total market demand in 2025 owing to increasing semiconductor content per vehicle, rising ADAS deployment, and growing integration of connected mobility features.
• Highly integrated multi-function System Basis Chips captured nearly 45% revenue share in 2025 as automotive OEMs increasingly prioritize compact ECU architectures, lower wiring complexity, improved thermal efficiency, and reduced component count across next-generation electronic systems.

System Basis Chips Market Overview

The System Basis Chips market occupies a strategically embedded position within the broader automotive semiconductor ecosystem because these devices consolidate multiple support functions required for electronic control unit stability into a single integrated architecture. Procurement teams across passenger vehicle, commercial mobility, industrial transport, and emerging autonomous platform segments increasingly evaluate system basis chips not as discrete commodity semiconductors, but as infrastructure-level enablement components supporting network resilience, voltage regulation, fail-safe operation, and communication integrity across distributed electronic systems. As automotive electrical architectures migrate from decentralized controller layouts toward domain and zonal configurations, system basis chips become structurally important to reducing wiring complexity, lowering thermal load, and simplifying board-level integration economics.

Institutional interest in the global System Basis Chips market remains elevated because semiconductor content intensity per vehicle continues to outpace unit vehicle production growth. This distinction matters strategically because value creation increasingly originates from electronic complexity rather than absolute automotive volume expansion. System basis chips sit directly at the convergence of power management integrated circuits, communication transceivers, and safety-oriented system monitoring, giving suppliers influence over reliability certification pathways and long-term design wins. Relative to conventional analog support chips, system basis chips benefit from longer qualification cycles and stronger switching barriers, which stabilizes supplier relationships and supports recurring sourcing continuity across vehicle platform lifecycles extending beyond seven years.

Key Market Drivers & Industrial Demand Dynamics

Vehicle electrification remains the central structural force accelerating the System Basis Chips market because battery electric and hybrid vehicle platforms contain materially higher electronic subsystem density than internal combustion architectures. Advanced battery management systems, high-voltage gateway controllers, onboard chargers, thermal management modules, and distributed sensor arrays require coordinated voltage regulation and communication stability across multiple operating conditions. Because system basis chips integrate watchdog functionality, LIN/CAN transceivers, wake-up management, and voltage regulation into compact semiconductor footprints, automotive OEMs reduce board complexity and improve functional reliability. This consolidation effect directly influences procurement strategies focused on lowering component count while maintaining compliance with automotive safety standards.

The transition toward software-defined vehicles further expands the addressable opportunity within the System Basis Chips market because centralized compute architectures depend on uninterrupted network communication between zonal controllers and high-performance processors. As automakers redesign electrical platforms around Ethernet backbones and domain-level processing, support semiconductors capable of managing communication redundancy and low-power state transitions become operationally critical. Automotive manufacturers increasingly prioritize chips that simplify firmware updates, support fail-operational architectures, and maintain network integrity during partial subsystem shutdown conditions. Because over-the-air update capability becomes standard across premium and mid-tier vehicle categories, system basis chip demand rises alongside electronic architecture sophistication rather than merely vehicle production growth.

Regulatory expansion surrounding vehicle safety and emissions efficiency continues to reinforce long-term procurement demand within the global System Basis Chips market. Functional safety standards governing electronic systems require increasingly sophisticated monitoring and fault-detection capabilities across powertrain, braking, steering, and autonomous support systems. Since system basis chips consolidate diagnostics and watchdog functions into certified automotive-grade semiconductor platforms, OEMs reduce validation complexity during platform homologation. Regulatory pressure therefore creates indirect semiconductor demand because compliance costs increase substantially when discrete component architectures require fragmented validation procedures across multiple suppliers.

Advanced driver assistance systems are reshaping semiconductor sourcing economics because sensor fusion platforms require uninterrupted low-latency communication between radar modules, cameras, LiDAR subsystems, and centralized processors. System basis chips contribute directly to maintaining stable communication interfaces under harsh automotive operating conditions, including temperature fluctuation, vibration exposure, and voltage instability. Because ADAS functionality migrates from luxury platforms toward mass-market vehicle segments, semiconductor suppliers with automotive-qualified integration capabilities gain sustained demand visibility across extended platform cycles. This transition creates durable design-win advantages rather than short-duration transactional semiconductor procurement.

The commercial vehicle sector also contributes incremental expansion to the System Basis Chips market because fleet operators increasingly prioritize predictive maintenance, telematics integration, and energy optimization. Electrified logistics fleets, autonomous industrial transport systems, and connected heavy-duty platforms require resilient communication infrastructure capable of supporting continuous uptime. Procurement teams within commercial mobility prioritize reliability over lowest-cost sourcing because downtime directly impacts fleet utilization economics. Consequently, suppliers capable of demonstrating long-term thermal reliability, electromagnetic compatibility, and lifecycle support secure stronger contractual positioning relative to general-purpose semiconductor vendors.

Global semiconductor localization initiatives reinforce investment flows into automotive-grade integrated circuits because geopolitical supply chain disruptions exposed structural concentration risk across advanced chip manufacturing networks. Governments across Asia Pacific, Europe, and North America continue incentivizing regional semiconductor manufacturing capacity, especially for automotive-critical devices. Because system basis chips are embedded in safety-relevant applications, OEMs increasingly pursue multi-source qualification strategies and geographically diversified semiconductor sourcing. This restructuring supports long-duration capital investment into automotive analog and mixed-signal semiconductor production capabilities.

Segmentation Analysis — System Basis Chips Market

By communication protocol, the System Basis Chips market is segmented into CAN-based system basis chips, LIN-based system basis chips, FlexRay-compatible system basis chips, and Ethernet-enabled system basis chips. CAN-based devices accounted for the largest revenue share in 2025 because controller area network infrastructure remains deeply embedded across passenger and commercial vehicle architectures. OEMs continue relying on CAN communication due to cost efficiency, established validation ecosystems, and compatibility with legacy electronic control units. Ethernet-enabled system basis chips emerged as the fastest growing segment because software-defined vehicle architectures require higher bandwidth communication and centralized computing integration. Demand behavior differs materially across protocols because CAN and LIN products prioritize high-volume cost optimization, whereas Ethernet-compatible variants command premium pricing through advanced integration capabilities and lower supplier substitution flexibility. Suppliers participating in Ethernet-enabled architectures maintain stronger bargaining leverage because qualification requirements and interoperability validation increase switching barriers for automotive procurement teams.

By vehicle type, the System Basis Chips market is categorized into passenger vehicles, light commercial vehicles, heavy commercial vehicles, and electric vehicles. Passenger vehicles contributed over one-third of global demand because infotainment systems, ADAS modules, body electronics, and comfort-oriented electronic subsystems continue expanding semiconductor content intensity. Electric vehicles represented the fastest growing category because electrified platforms incorporate higher electronic redundancy and expanded communication requirements across battery management and thermal control systems. Commercial fleet procurement cycles remain more conservative because operators prioritize reliability and lifecycle durability over rapid platform redesign. However, once commercial vehicle programs adopt validated semiconductor architectures, supplier retention rates remain structurally high due to recertification costs and operational risk concerns. Strategic importance within this segment increasingly depends on thermal resilience, low-power standby performance, and compatibility with centralized vehicle domain architectures.

By application, the global System Basis Chips market includes body electronics, powertrain systems, infotainment systems, safety and ADAS systems, battery management systems, and telematics modules. Body electronics held a commanding position across the forecast horizon because lighting controls, seat modules, HVAC controllers, and door systems collectively represent high-volume deployment categories across nearly all vehicle classes. Safety and ADAS systems outpaced the broader market through the base period because sensor fusion and autonomous support features require highly reliable communication and diagnostic interfaces. Margin dynamics differ substantially between segments because infotainment and body electronics applications emphasize volume scalability, while ADAS and battery management deployments support higher average selling prices through performance-critical integration requirements. Buyers within safety-oriented categories demonstrate lower tolerance for supplier transition risk because software interoperability and validation continuity directly influence vehicle certification timelines.

By integration level, the System Basis Chips market is segmented into discrete support chips, partially integrated system basis chips, and highly integrated multi-function system basis chips. Highly integrated devices accounted for the largest revenue share in 2025 because automotive OEMs increasingly prioritize board-space optimization and reduced wiring complexity. Integration enables lower system-level assembly costs and simplified thermal management, improving overall electronic architecture efficiency. Highly integrated variants also emerged as the fastest growing segment because zonal vehicle architectures require consolidation of communication, power regulation, and monitoring functionality into compact semiconductor modules. Switching barriers remain elevated within this segment because redesigning electronic control units around alternative chip configurations imposes validation costs, firmware adjustments, and supply chain requalification burdens. Suppliers capable of delivering highly integrated automotive-qualified devices therefore maintain structurally stronger pricing discipline relative to vendors focused on discrete semiconductor offerings.

By end-use industry, the market comprises automotive OEMs, automotive Tier-1 suppliers, industrial mobility platforms, agricultural equipment manufacturers, and smart transportation infrastructure providers. Automotive Tier-1 suppliers represented a material minority of consumption but maintain disproportionate influence over semiconductor selection because they control subsystem architecture and validation integration. Automotive OEM procurement departments increasingly engage directly with semiconductor vendors to secure long-term supply continuity following recent semiconductor shortages. Industrial mobility and agricultural equipment applications are expanding steadily because connected machinery and electrified equipment platforms require robust communication and power management solutions under demanding operating conditions. Relative to passenger automotive applications, industrial deployments prioritize longevity, environmental resilience, and field reliability over compact design aesthetics, altering supplier differentiation criteria.

By distribution model, the System Basis Chips market is segmented into direct OEM supply agreements, authorized semiconductor distributors, and contract manufacturing procurement channels. Direct OEM and Tier-1 agreements accounted for the dominant procurement structure because automotive semiconductor sourcing prioritizes traceability, lifecycle support, and qualification continuity. Authorized distribution channels remain strategically relevant for aftermarket modules and smaller-volume industrial deployments requiring flexible sourcing models. Contract manufacturing procurement is expanding alongside outsourced electronics assembly operations, particularly in Asia Pacific manufacturing ecosystems. Supplier relationships in this segment are heavily influenced by allocation priority during semiconductor supply constraints, making long-term contractual visibility a strategic competitive differentiator across the value chain.

Strategic Market Snapshot

The System Basis Chips market demonstrates characteristics of a moderately consolidated strategic semiconductor category with relatively high qualification barriers and long product lifecycle visibility. Demand stability remains stronger than broader consumer semiconductor markets because automotive platform programs extend across multi-year production cycles and require extensive validation before supplier substitution becomes operationally feasible. Pricing elasticity therefore remains comparatively restrained, especially in safety-oriented applications where reliability certification outweighs incremental unit cost optimization.

Buyer power varies materially across the value chain. Large automotive OEMs maintain leverage through volume commitments and platform standardization strategies, while smaller subsystem manufacturers remain more dependent on approved semiconductor ecosystems established by Tier-1 integrators. Margin structure within the market favors suppliers capable of integrating communication, voltage regulation, diagnostics, and low-power management into unified architectures because consolidation reduces total system complexity for vehicle manufacturers. Relative to commodity analog semiconductors, system basis chips maintain stronger resilience against aggressive price erosion due to specialized automotive qualification requirements and software interoperability dependencies.

Value Chain, Cost Structure & Procurement Intelligence

The System Basis Chips market operates within a cost structure heavily influenced by wafer fabrication economics, automotive-grade qualification expenses, packaging reliability standards, and long-duration product support obligations. Mixed-signal semiconductor production requires stringent process stability because automotive environments expose chips to vibration, thermal cycling, and voltage fluctuation over extended operational lifespans. As a result, suppliers prioritize mature-node fabrication consistency over aggressive migration toward leading-edge process geometries.

Procurement behavior across the value chain increasingly reflects supply continuity concerns rather than lowest-cost sourcing alone. Automotive OEMs and Tier-1 suppliers now negotiate extended semiconductor allocation agreements to reduce exposure to cyclical supply disruptions. Long-term sourcing arrangements also support design continuity because changing validated semiconductor suppliers introduces engineering requalification costs and delays platform deployment schedules. Raw material sensitivity remains concentrated around silicon wafer availability, substrate packaging materials, and specialty testing infrastructure. Because automotive qualification cycles remain lengthy, suppliers with geographically diversified manufacturing networks and validated second-source strategies maintain stronger negotiating positions within global procurement frameworks.

Market Restraints & Regulatory Challenges

The System Basis Chips market faces structural constraints linked to automotive qualification complexity, semiconductor fabrication concentration risk, and rising compliance obligations across vehicle electronics systems. Automotive-grade semiconductor certification requires extensive validation under harsh environmental conditions, extending development timelines and increasing engineering expenditures. These requirements create operational friction for smaller semiconductor vendors attempting to enter safety-critical automotive applications.

Margin pressure also emerges from cyclical pricing negotiations between OEM procurement teams and semiconductor suppliers. Although switching barriers remain meaningful, large automotive manufacturers continue pursuing cost-down targets across electronic subsystems, compressing supplier profitability in high-volume vehicle categories. Regulatory fragmentation across global automotive markets further complicates semiconductor deployment because communication protocols, electromagnetic compatibility requirements, and cybersecurity standards differ across jurisdictions. Non-compliance introduces substantial strategic consequences including delayed vehicle homologation, recall exposure, and reputational risk within safety-sensitive transportation sectors.

Market Opportunities & Outlook 2026–2035

Long-term expansion within the System Basis Chips market will be sustained by the convergence of electrification, autonomous functionality, and software-centric vehicle architectures. Semiconductor content per vehicle continues rising because automotive manufacturers increasingly differentiate through electronic capability rather than mechanical performance alone. This transition structurally benefits system basis chip suppliers capable of supporting centralized processing architectures and low-power communication management.

Asia Pacific manufacturing expansion will remain a major volume driver because regional automotive production ecosystems continue scaling electric vehicle output and advanced electronics integration. Meanwhile, North American and European demand will increasingly favor high-value integrated semiconductor solutions supporting safety certification and software-defined mobility platforms. Volume growth and margin optimization will not progress uniformly across the market. High-volume body electronics deployments will prioritize procurement efficiency, whereas ADAS and battery management applications will reward suppliers with advanced integration and functional safety expertise. Emerging industrial mobility applications, including autonomous logistics platforms and electrified agricultural machinery, represent demand pockets not fully reflected in current consensus procurement forecasts.

Regional & Country-Level Strategic Insights

Asia Pacific accounted for the largest regional share of the global System Basis Chips market in 2025, contributing over 42% of worldwide demand because the region combines large-scale automotive manufacturing capacity with rapidly expanding electric vehicle production ecosystems. China remains central to global semiconductor consumption patterns due to domestic EV platform scaling and aggressive automotive electronics localization initiatives. Japan and South Korea maintain strong influence through advanced automotive electronics engineering and semiconductor packaging capabilities.

North America continues demonstrating strong demand for high-performance automotive semiconductor architectures linked to software-defined vehicle development and ADAS deployment intensity. The United States remains strategically important because automotive OEMs increasingly prioritize semiconductor supply chain diversification and domestic electronics manufacturing resilience. Europe maintains a technologically advanced procurement environment shaped by premium automotive production, emissions compliance requirements, and functional safety leadership across mobility systems. Germany particularly influences demand for integrated automotive electronics due to advanced engineering integration standards.

Latin America represents an emerging manufacturing and vehicle assembly ecosystem where cost-sensitive automotive production supports gradual adoption of integrated semiconductor platforms. Meanwhile, the Middle East & Africa region demonstrates selective growth centered on connected transportation infrastructure, industrial fleet modernization, and logistics electrification initiatives rather than broad-based automotive semiconductor manufacturing scale.

Technology, Innovation & Derivative Trends

Technology evolution within the System Basis Chips market increasingly centers on integration density, low-power optimization, and compatibility with next-generation automotive communication standards. Suppliers are embedding advanced diagnostics, cybersecurity-oriented monitoring, and enhanced wake-up management into semiconductor architectures to support software-defined mobility ecosystems. Because electronic control unit consolidation reduces wiring complexity and vehicle weight, integrated semiconductor solutions directly influence energy efficiency and manufacturing economics.

Sustainability-oriented automotive design is also reshaping semiconductor engineering priorities. Lower standby power consumption, improved thermal efficiency, and optimized voltage regulation contribute to reduced vehicle energy loss, particularly within electric mobility platforms. Advanced packaging technologies are improving heat dissipation performance while enabling compact board-level integration across increasingly dense electronic systems. Downstream linkages between autonomous functionality, predictive maintenance systems, and connected mobility infrastructure continue creating new semiconductor demand vectors requiring resilient communication and monitoring architectures.

Competitive Landscape Overview

The System Basis Chips market reflects a moderately consolidated competitive structure shaped by automotive qualification barriers, long-duration customer validation cycles, and high reliability expectations. Competitive positioning depends less on absolute semiconductor production scale and more on automotive-grade certification capability, application engineering support, and long-term supply continuity. Suppliers competing successfully in this market typically maintain deep integration relationships with automotive OEMs and Tier-1 subsystem manufacturers.

Competition increasingly centers on integration sophistication, communication protocol compatibility, and lifecycle reliability rather than simple unit pricing. Vendors capable of combining power management, diagnostics, and communication functions into unified semiconductor platforms maintain stronger positioning within next-generation vehicle architectures. Vertical integration strategies are expanding because semiconductor firms seek greater control over packaging, testing, and supply chain resilience. Merger and acquisition activity remains concentrated around automotive analog and mixed-signal semiconductor specialization rather than general-purpose consumer electronics exposure.

Key Players

• NXP Semiconductors
• Infineon Technologies AG
• Texas Instruments Incorporated
• STMicroelectronics NV
• onsemi
• Renesas Electronics Corporation
• Analog Devices, Inc.
• Microchip Technology Inc.
• Robert Bosch GmbH
• Melexis NV
• Elmos Semiconductor SE
• ROHM Semiconductor
• Qualcomm Incorporated
• Broadcom Inc.
• Toshiba Electronic Devices & Storage Corporation

Recent Developments

• In March 2026, Renesas introduced the RH850/U2C automotive MCU platform supporting Ethernet TSN, CAN-XL, CAN-FD, and LIN communication standards. The platform targets zonal automotive control systems, battery management systems, and next-generation vehicle networking architectures
• In February 2026, NXP highlighted increased investment focus on software-defined vehicles and “physical AI” applications during its 2025 annual financial release. The company emphasized rising automotive semiconductor demand linked to intelligent vehicle systems, radar integration, and connected mobility infrastructure.
• In February 2026, Infineon announced increased semiconductor investments to expand manufacturing capacity supporting AI infrastructure and automotive semiconductor demand. The company allocated major investments toward advanced semiconductor production facilities and automotive mixed-signal device expansion.
• In June 2025, NXP announced a collaboration with Rimac Technology to co-develop centralized vehicle architectures for software-defined vehicles. The partnership integrates NXP’s S32E2 real-time processors into next-generation zonal and domain control systems, reducing more than 20 electronic control units into three centralized processing units. This development strengthens demand for integrated automotive communication and system basis semiconductor platforms.
• In June 2025, NXP completed the acquisition of TTTech Auto to accelerate software-defined vehicle development. The acquisition expands NXP’s automotive middleware, safety software, and vehicle networking capabilities, strengthening its positioning across centralized automotive electronic systems and integrated semiconductor architectures.
• In April 2025, Renesas launched its first automotive Bluetooth Low Energy System-on-Chip designed for connected vehicle applications, including wireless keyless entry, diagnostics, and in-vehicle communication systems. The development strengthens the company’s automotive connectivity and low-power semiconductor portfolio.
• In June 2024, Infineon introduced new 600 V CoolMOS S7TA MOSFETs with integrated high-precision temperature sensing for automotive electronics applications. The platform enhances automotive power management efficiency, thermal reliability, and semiconductor durability for advanced vehicle electronic systems.

Methodology & Data Credibility

This System Basis Chips market analysis is built using bottom-up modeling frameworks integrating semiconductor shipment analysis, automotive electronics penetration assessment, and platform-level demand mapping across five major geographic regions. Demand-side primary research included procurement interviews with automotive electronics sourcing teams, subsystem engineers, and mobility platform strategists. Supply-side validation incorporated semiconductor fabrication capacity analysis, automotive qualification benchmarking, and integrated circuit packaging assessments.

Historical baseline verification was cross-validated against vehicle production data, electronic control unit deployment intensity, and semiconductor sourcing patterns across passenger and commercial vehicle categories. Executive interviews included professionals involved in semiconductor sourcing, automotive electronics integration, powertrain engineering, and vehicle network architecture development. Cross-region triangulation methodologies were used to validate procurement trends, technology migration pathways, and long-duration automotive platform adoption cycles.

Who Should Read This Report

This report supports decision-making for automotive semiconductor executives evaluating product portfolio allocation, manufacturing investment timing, and regional expansion priorities. Strategy teams will use this intelligence to assess communication protocol migration, software-defined vehicle adoption trajectories, and evolving supplier qualification dynamics across automotive electronics ecosystems.

Institutional investors and private equity stakeholders will benefit from understanding long-cycle demand visibility, qualification barriers, and integration-driven pricing resilience within the System Basis Chips market. Consultants and advisory firms can leverage the analysis to evaluate supply chain localization, procurement restructuring, and competitive positioning trends. Product leaders and engineering executives will use the report to benchmark integration strategies, communication architecture evolution, and automotive electronics roadmap alignment through 2035.

What This Report Delivers

This report delivers enterprise-grade intelligence on procurement behavior, semiconductor integration trends, vehicle electronics evolution, and long-term automotive sourcing dynamics shaping the System Basis Chips market. Rather than relying on publicly visible shipment narratives alone, the analysis integrates supply-side capacity validation with demand-side platform adoption modeling and executive interview triangulation.

The research provides strategic visibility into communication protocol migration, integration-level profitability dynamics, and regional manufacturing shifts influencing semiconductor allocation decisions. Decision-makers gain actionable understanding of switching barriers, pricing leverage, lifecycle procurement structures, and future architecture transitions affecting automotive semiconductor investment planning. Because automotive electronics ecosystems are undergoing structural redesign toward centralized computing and electrified mobility, timing-sensitive visibility into semiconductor positioning remains commercially non-substitutable.

System Basis Chips Market Report — Segmentation Summary

By Communication Protocol:

• CAN-based System Basis Chips
• LIN-based System Basis Chips
• FlexRay-compatible System Basis Chips
• Ethernet-enabled System Basis Chips

By Vehicle Type:

• Passenger Vehicles
• Light Commercial Vehicles
• Heavy Commercial Vehicles
• Electric Vehicles

By Application:

• Body Electronics
• Powertrain Systems
• Infotainment Systems
• Safety & ADAS Systems
• Battery Management Systems
• Telematics Modules

By Integration Level:

• Discrete Support Chips
• Partially Integrated System Basis Chips
• Highly Integrated Multi-function System Basis Chips

By End-Use Industry:

• Automotive OEMs
• Automotive Tier-1 Suppliers
• Industrial Mobility Platforms
• Agricultural Equipment Manufacturers
• Smart Transportation Infrastructure Providers

By Distribution Model:

• Direct OEM Supply Agreements
• Authorized Semiconductor Distributors
• Contract Manufacturing Procurement Channels

By Region:

• North America : United States, Canada, Mexico
• Europe : Germany, United Kingdom, France, Italy, Spain, Nordic Countries, Benelux Union, Rest of Europe
• Asia Pacific : China, India, Japan, New Zealand, South Korea, Australia, Southeast Asia, Rest of Asia Pacific
• Latin America : Brazil, Argentina, Rest of Latin America
• Middle East & Africa : Saudi Arabia, UAE, Egypt, Kuwait, South Africa, Rest of Middle East & Africa