Software and the electronics value chain exist in a deeply symbiotic relationship—each enabling and amplifying the other. Embedded and runtime software defines the functionality and differentiation built on top of the hardware stack. Conversely, advances in hardware—from faster processors and denser packaging to high-reliability assemblies—create new possibilities for software innovation. This continuous feedback loop between software intelligence and electronic implementation drives progress across every vertical market, blurring the line between physical capability and digital behavior. This is essential for software-defined products.
Nanometer-scale precision, yield optimization, and material purity. Focuses on process control, defect reduction, and performance scaling across every die and every wafer.
Some of the most complex machines ever built—combine precision, optics, and chemical process control. Focused on nanometer-scale motion, real-time feedback, and process automation under extreme stability and cleanliness requirements.
Performance, scalability, and power efficiency. From high-density processors and memory packages to server boards and rack systems with a focus on throughput, cooling, uptime, integration, and energy management.
Performance, scalability, and uptime. From high-speed silicon and advanced packaging to densely populated boards, every phase emphasizes signal integrity, thermal management, and reliability.
Scale, cost, and speed. Each phase—from silicon to sleek assemblies—prioritizes miniaturization, performance, and manufacturability for mass production, with rapid innovation taking precedence over long-term reliability.
Unified design-to-production insight drives the creation of high-efficiency power electronics—improving control, thermal resilience, and scalability across renewable energy, grid systems, and electric mobility.
Reliability, miniaturization, and strict regulations. From hermetically sealed dies to high-reliability PCB assemblies, every phase prioritizes safety, traceability, and longevity over cost or speed, creating a value chain defined by precision and patient safety.
Seamless integration of design, materials, and performance data ensures mission-critical electronics meet demanding standards for reliability, radiation tolerance, and long lifecycle support in avionics and defense systems.
Connected engineering and manufacturing processes deliver chips built for harsh conditions—powering ADAS, powertrain control, infotainment, and EV systems with proven reliability and real-time responsiveness.
Connect OEMs with semiconductor, PCB, EMS, and software partners in a governed digital thread—enabling secure external collaboration on requirements, specs, designs, changes, and quality actions. By synchronizing SBOM/EBOM/MBOM and AML/AVL across the chain—and managing component lifecycles, compliance, and obsolescence—they keep the hardware–software feedback loop aligned, accelerating NPI, reducing supply risk, and sustaining software-defined products.
Unify software-defined functionality with advanced electronics and complex physical packaging across product portfolios worldwide
Span software-defined functionality enablement, electronic variants (PCBAs, types of sensors, environmental protection), and mechanical aspects (color, finish materials, power connections)
Enable service teams to rapidly diagnose and resolve issues, and engineering to systematically evaluate feedback for the next product release
Leverage a bi-directional digital thread to enable complete traceability between requirements and every aspect of modern, software-driven product implementation lifecycle
Enable teams monitor and respond to new regulations, enables secure OTA software updates, and proactively manages supply chain risks and disruptions worldwide
Empower cross-domain software, electronics, and mechanical teams to collaborate seamlessly, accelerating innovation, quality, and coordinated releases