Electrification Systems for Next-Generation Construction Vehicles

Moog Construction supports global OEMs from the earliest design stages, providing advanced electrification components—modular power electronics, precision actuation, and a unified hardware/software architecture—that form the foundation of modern electrified vehicle platforms.

With proven, production‑ready solutions and deep engineering insight, we enable manufacturers to move confidently from diesel‑only to hybrid and fully electrified machines while maintaining reliability, serviceability, and speed to market.

The Complexity of Construction Vehicle Electrification

Electrifying heavy construction vehicles introduces system-level challenges that extend far beyond swapping out components. OEM engineering teams are often tasked with electrifying legacy platforms while simultaneously meeting strict cost, reliability, and production timelines. Without a unified architecture to guide the process, the risk multiplies at every stage.

System Integration Challenges

  • Multi-axis electric motion systems with competing demands
  • Complex power distribution architectures
  • Excessive wiring and cabling across platforms
  • Hardware/software integration failures across vendors

What Happens Without a Unified Approach

  • Unplanned downtime and costly field failures
  • Supplier inconsistency that creates schedule risk
  • Longer development and market launch cycles
  • Troubleshooting that is slow, expensive, and reactive

Introducing the Adaptive Electrification Management System (AEMS)

AEMS is Moog’s modular electrification platform, purpose-built for the complexity of heavy construction vehicles. It brings together power electronics, motion control, and control software into one unified, OEM-configurable architecture.

What AEMS Integrates

  • Modular power electronics and inverters
  • Configurable motion control modules
  • Unified control software with OEM interoperability
  • Remote diagnostics and over-the-air updates
  • Factory-to-field data connectivity
  • Integrated BusBar to reduce wiring cost and complexity

What AEMS Enables for Your Program

  • Component self-configuration across machine families
  • Modular reuse that accelerates development timelines
  • Fleet-level scalability from a single architecture
  • Reduced system complexity and wiring overhead
  • Increased uptime and lower total cost of ownership

Electronics

Adaptive Electrification Management System simplifies power management and enables automated features. Includes controllers, inverters, and high-voltage distribution modules.
Electronics

Linear Actuation

Replace hydraulic cylinders with electric linear actuators for improved efficiency and reduced maintenance.
Linear Actuation

Motors

Our Drive Train and Traction Motors deliver high torque and durability for wheeled and tracked vehicles. Compact, lightweight, and optimized for electrification.
Motors

Where Motion Control and Power Electronics Converge

Electrified construction vehicles demand tight, real-time coordination between power systems and motion control. Fragmented, multi-vendor architectures introduce integration risk at every interface, slowing development, multiplying failure points, and complicating field support.

Moog eliminates that risk by engineering hardware and software together, under one platform.

Unified Hardware and Software Architecture

  • Motion control modules designed to work together from day one
  • Integrated power distribution with no external dependencies
  • Embedded control software developed alongside hardware
  • Remote software update capability across deployed fleets

Built for the Demands of Electrification at Scale

  • Advanced diagnostics for large, multi-axis electric vehicles
  • High-reliability architectures designed for field durability
  • Scalable across machine platforms with minimal re-engineering

Designed for Global OEM Electrification Programs

Moog Construction supports electrification initiatives with OEMs across North America, Europe, Japan, and Korea. Our engineering teams engage during the early design phase, before problems arise, to shape scalable system architecture, improve long-term serviceability, and accelerate time to market.

By becoming a system-level partner from the start, Moog helps OEMs avoid the costly redesigns that come from solving integration challenges late in the development cycle.

Early-Stage System Architecture Partnership

We engage during the design phase to shape scalable system architecture, improve serviceability, and ensure faster market introduction. This collaborative approach reduces risk before it becomes cost.

Reducing Risk Across the Electrification Lifecycle

Poor system integration doesn’t just slow development. It creates cascading risk across the entire product lifecycle. The consequences show up as costly rework, missed delivery deadlines, field downtime, supplier quality escapes, and loss of market competitiveness.

A Unified Platform Instead of Fragmented Vendors

Rather than patching together components from disconnected suppliers, Moog provides a unified platform that controls risk at the system level:

  • Modular system efficiency that reduces wiring, parts count, and assembly time
  • Integrated hardware/software control that eliminates multi-vendor interface failures
  • Remote diagnostics that replace expensive on-site service visits
  • Simplified inventory through reusable, standardized components
  • Predictable scalability across full machine line portfolios

Start with the System Challenge

Electrification success begins with system clarity. Whether you’re transitioning a legacy diesel platform, simplifying a complex wiring architecture, integrating software across hardware ecosystems, or scaling electrification across an entire program, the starting point is a clear-eyed look at the system as a whole.

Moog Construction evaluates system architecture, integration risk, and fleet scalability to develop a unified electrification strategy tailored to your program goals.

Common starting points include:

  • Electrifying legacy diesel platforms
  • Simplifying complex wiring architectures
  • Integrating software across hardware ecosystems
  • Scaling electrification across multiple vehicle programs