Practical Sustainability at Magna

Discover how we advance efficient, responsible solutions that perform in the real world.

How does Magna make sustainability practical across automotive products and processes?

Built into design, materials and execution

Magna approaches sustainability as both a product and process challenge. Sustainability works best when it is built into design, materials and execution.
Improving impact and performance

We focus on solutions that improve material choices, reduce waste in how products are made, and enhance efficiency and performance in use.
Meeting real-world requirements

Our solutions support more responsible lifecycle outcomes while meeting real-world cost, performance and scalability needs.

This is the Power of Magna.

Driving Change: Discover our Sustainable Materials Evolution

In today's automotive landscape, sustainability is not a trend, but a must. At Magna, we believe materials are a key lever in building the next generation of vehicles. That's why we've embedded sustainability into every layer of our material strategy. Four central development areas characterize our materials strategy and show how innovation and environmental responsibility go hand in hand.

Learn more

See Practical Sustainability in action

Across body-in-white lightweighting, electrified powertrain systems, alternative drivetrain integration and embedded eco-design, Magna connects product and process decisions across the vehicle lifecycle. These technologies are developed to improve impact and performance while meeting real-world cost, performance and scalability needs.

Body-in-white lightweight vehicle frame — Body-in-White Lightweighting

Advanced High-Strength Steels

Magna develops advanced high-strength steel applications that balance vehicle performance, quality, cost and weight. Forming expertise helps optimize structural components for demanding automotive body applications.

Hot Stamping

Hot stamping enables complex component geometries with ultra-high-strength material properties. Magna applies the process to structural areas such as body pillars, rockers, roof rails, bumpers and door intrusion beams where crash performance is critical.

Aluminum Castings

Magna uses high-pressure vacuum casting and traditional low-pressure casting to create complex shapes for critical body and chassis structures. Aluminum casting expands the available design options for lightweight automotive structures.

High-Pressure Vacuum Casting

Magna’s High-Q-Cast™ technology combines product and process engineering, alloy selection and manufacturing expertise. It can replace complex multi-component welded assemblies with aluminum castings that reduce the number of components required in the vehicle body.

Drawing of a vehicle showing embedded Eco Design — Embedded Eco-Design

Material Efficiency

Magna integrates sustainability into material selection and product development from an early stage. Recycled, renewable and low-impact materials help reduce resource use and CO₂ emissions while maintaining the strength, durability and performance required for automotive applications.

Design for Circularity

Product design considers what happens throughout the entire lifecycle, including end-of-life. Recyclability assessments, modular design strategies and solutions such as EcoSphere™ help simplify material recovery and make circular approaches more practical and scalable.

Process Optimization

Embedded eco-design considers how product and manufacturing decisions influence resource use and emissions. Life cycle assessments and CO₂ footprinting help identify environmental impacts early and support more resource-efficient engineering decisions before a product reaches series production.

System-Level Integration

Magna integrates ecological criteria into engineering projects at an early stage, connecting material choices, product architecture, recyclability and vehicle efficiency. This system-level approach helps OEMs consider sustainability alongside the technical requirements of the complete vehicle.

Ghosted vehicle showing alternative driveline integration — Alternative Drivetrain Integration

Scalable eDrive Systems

Magna provides scalable electric drive systems for electrified vehicle architectures. Integrated motors, inverters and gearboxes support 400V and 800V applications across different power levels, vehicle segments and propulsion strategies. Magna’s modular platform approach helps OEMs adapt eDrive solutions to different performance, efficiency and packaging requirements.

Modular Hybrid Systems

Magna’s Dedicated Hybrid Drive solutions combine modular architectures with electric and combustion power for HEV and PHEV applications. Systems such as DHD Duo use scalable building blocks and multiple operating modes to address different vehicle segments, packaging requirements and electrification strategies.

Decoupling & Torque Vectoring

Magna’s eDecoupling and eTorque Vectoring technologies help optimize electric drivetrain efficiency and vehicle dynamics. Electromagnetic decoupling can reduce drag torque from the eMotor and gearbox, while twin-clutch torque vectoring distributes torque according to driving requirements.

Vehicle & Structural Integration

Alternative drivetrains need to work within the complete vehicle architecture. Magna connects powertrain packaging, battery integration, structural requirements, thermal management, testing and validation to help ensure that electrified propulsion systems perform reliably at vehicle level.

Vehicle driving over a bridge ghosted to show electrified powertrain system BEV & DHD — Electrified Powertrain Systems: BEV & DHD Duo

Integrated BEV Powertrain Systems

Magna’s EtelligentDrive portfolio ranges from individual components to complete BEV powertrain systems. Integrated eMotor, inverter, gearbox and software technologies support primary, secondary and complementary drive applications across electrified vehicle platforms.

Scalable 400V & 800V Architecture

Magna’s flexible platform approach supports power levels from below 50 kW to more than 300 kW and both 400V and 800V vehicle architectures. This scalability allows OEMs to adapt electric powertrain solutions across different vehicle segments, performance requirements and platform strategies.

DHD Duo Hybrid Flexibility

Magna’s DHD Duo uses a scalable and modular design approach with two e-motors for HEV and PHEV applications. Electric, serial and parallel driving modes, modular building blocks and proven components support flexible operation, efficient packaging and different vehicle segment requirements.

Efficiency, Range & Driving Performance

Magna develops BEV and hybrid powertrain systems around key requirements including efficiency, range, driving dynamics, comfort and performance. The DHD Duo adds range-extender capability and can build on existing ICE platforms, while Magna’s BEV portfolio provides scalable solutions across different power and voltage levels.

Vehicle driving on a gravel road ghosted showing Range Extension & Hybrids DHD REX and DHD Duo — Range Extension & Hybrids: DHD REX & DHD Duo

BEV-Like Driving with Extended Range

Magna’s Range Extender solutions enable BEV-like driving with extended electric range and reduced dependence on charging infrastructure. Their modular architecture supports flexible integration across existing vehicle platforms, multiple drivetrain layouts and vehicle segments from B to E, including SUVs and light commercial vehicles.

DHD REX: Single e-Motor Range Extension

DHD REX combines range extension and electric drive in a single e-motor hybrid system optimized for BEV-based serial REEV applications. The compact architecture supports electric AWD on demand while reducing system cost, weight and complexity. An optional parallel mode can address specific Western-market highway efficiency requirements.

DHD Duo: Dual e-Motor Flexibility

DHD Duo uses two dedicated e-motors for propulsion and energy generation. The architecture supports electric, serial and serial-parallel operation as well as 2WD and AWD applications, providing scalability for demanding use cases including long-distance driving and towing.

Scalable Solutions for Global Markets

DHD REX and DHD Duo address different regulatory requirements, infrastructure conditions and user needs across China, Europe and North America. A modular technology backbone gives OEMs flexibility across vehicle segments, drivetrain layouts and regional strategies while supporting BEV-like efficiency and performance.

Battery Enclosures

Steel Capabilities

Magna’s steel battery enclosures combine extensive engineering expertise with advanced forming and joining capabilities. High-grade steel provides strong structural performance while offering material cost advantages, and optimized design and manufacturing processes help maximize available battery space for electric vehicle applications.

Aluminum Capabilities

Magna’s aluminum battery enclosures combine engineering and manufacturing expertise in complex assemblies of extrusions, castings and stampings. They are 20% lighter than comparable steel designs and highly scalable, allowing different enclosure sizes and designs to be produced on a single production line.

Cast Hybrid Capabilities

Magna’s Cast Hybrid Battery Enclosures use heat-treated cast aluminum alloys to provide robust and reliable housing for hybrid vehicle batteries. High-capacity die casting supports precision and dimensional accuracy, while different enclosure sizes and rigorous performance testing address varying hybrid vehicle requirements.

From Engineering to High-Volume Production

Magna combines battery enclosure engineering with advanced materials and manufacturing expertise to support development from concept through production. Capabilities across forming, joining, casting and assembly enable battery enclosure solutions designed for automotive performance, safety and efficiency at production scale.

OptiForm™ Battery Systems

Magna’s OptiForm™ Battery Enclosure uses an innovative deep-draw stamping process to create a one-piece tray with near-rectangular corners and sidewalls. The design enhances leak tightness, increases available battery space by 10% and delivers significant weight savings while simplifying manufacturing and assembly. Compared with traditional multi-piece designs, OptiForm™ reduces the need for numerous welds and fasteners and maximizes space efficiency within existing stamping infrastructure.

Battery Enclosures

Magna provides a comprehensive range of battery enclosure engineering and production solutions for electric and hybrid vehicles. Capabilities include steel, aluminum, cast-hybrid and innovative one-piece designs, combining advanced materials with forming, joining and manufacturing expertise. The portfolio is engineered to support performance, safety, efficiency and scalable production across different vehicle architectures and customer requirements.

FAQs - About Practical Sustainability

What does Practical Sustainability mean for automotive engineering at Magna?

Practical Sustainability means addressing sustainability as both a product and process challenge. Magna connects material choices, product design, manufacturing efficiency and lifecycle considerations to develop responsible automotive solutions that perform in the real world.

This includes improving how products are designed and made, reducing waste, enhancing efficiency in use and supporting more responsible lifecycle outcomes. The goal is to improve impact and performance while meeting the real-world requirements OEMs face.

How does Magna help OEMs balance sustainability, performance, cost and scalability?

Magna considers sustainability together with the technical and commercial requirements of a vehicle program. Material selection, lightweighting, product architecture and manufacturing processes are evaluated alongside performance, functionality, cost, quality and production feasibility.

This helps OEMs identify solutions that can reduce environmental impact while continuing to meet the requirements needed for reliable, scalable automotive production.

How is Magna advancing sustainable automotive materials?

Magna explores recycled, renewable and lower-impact materials together with new approaches to product and process design. Materials are evaluated in the context of real automotive applications, including their performance, weight, durability, manufacturability and potential lifecycle impact.

By connecting materials expertise with engineering and manufacturing, Magna can help move more responsible material solutions from development into scalable vehicle applications.

How does Magna integrate sustainability across the vehicle lifecycle?

Magna considers sustainability from early product design and material selection through manufacturing, vehicle use and broader lifecycle considerations. Decisions related to lightweighting, materials, battery systems and production efficiency can influence both the impact of manufacturing and vehicle performance in use.

Looking across these stages helps identify trade-offs and opportunities at vehicle level rather than optimizing individual components in isolation.

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