FAQ

ePOP (Electrified Propulsion Optimisation Process) is a simulation-based approach that helps identify the optimal powertrain architecture for a given vehicle.

It works by virtually screening a wide range of electrified powertrain combinations early in the development cycle, ensuring they meet vehicle-level requirements without the need for costly prototypes.

By using ePOP, customers can quickly understand trade-offs between key attributes—such as efficiency, mass, and cost—for a specific application or family of vehicles.

ePOP (Electrified Propulsion Optimisation Process) is a simulation-based approach that helps identify the optimal powertrain architecture for a given vehicle.

It works by virtually screening a wide range of electrified powertrain combinations early in the development cycle, ensuring they meet vehicle-level requirements without the need for costly prototypes.

By using ePOP, customers can quickly understand trade-offs between key attributes—such as efficiency, mass, and cost—for a specific application or family of vehicles.

ePOP (Electrified Propulsion Optimisation Process) is a simulation-based approach that helps identify the optimal powertrain architecture for a given vehicle.

It works by virtually screening a wide range of electrified powertrain combinations early in the development cycle, ensuring they meet vehicle-level requirements without the need for costly prototypes.

By using ePOP, customers can quickly understand trade-offs between key attributes—such as efficiency, mass, and cost—for a specific application or family of vehicles.

ePOP (Electrified Propulsion Optimisation Process) is a simulation-based approach that helps identify the optimal powertrain architecture for a given vehicle.

It works by virtually screening a wide range of electrified powertrain combinations early in the development cycle, ensuring they meet vehicle-level requirements without the need for costly prototypes.

By using ePOP, customers can quickly understand trade-offs between key attributes—such as efficiency, mass, and cost—for a specific application or family of vehicles.

ePOP (Electrified Propulsion Optimisation Process) is a simulation-based approach that helps identify the optimal powertrain architecture for a given vehicle.

It works by virtually screening a wide range of electrified powertrain combinations early in the development cycle, ensuring they meet vehicle-level requirements without the need for costly prototypes.

By using ePOP, customers can quickly understand trade-offs between key attributes—such as efficiency, mass, and cost—for a specific application or family of vehicles.

ePOP (Electrified Propulsion Optimisation Process) is a simulation-based approach that helps identify the optimal powertrain architecture for a given vehicle.

It works by virtually screening a wide range of electrified powertrain combinations early in the development cycle, ensuring they meet vehicle-level requirements without the need for costly prototypes.

By using ePOP, customers can quickly understand trade-offs between key attributes—such as efficiency, mass, and cost—for a specific application or family of vehicles.

ePOP (Electrified Propulsion Optimisation Process) is a simulation-based approach that helps identify the optimal powertrain architecture for a given vehicle.

It works by virtually screening a wide range of electrified powertrain combinations early in the development cycle, ensuring they meet vehicle-level requirements without the need for costly prototypes.

By using ePOP, customers can quickly understand trade-offs between key attributes—such as efficiency, mass, and cost—for a specific application or family of vehicles.

ePOP (Electrified Propulsion Optimisation Process) is a simulation-based approach that helps identify the optimal powertrain architecture for a given vehicle.

It works by virtually screening a wide range of electrified powertrain combinations early in the development cycle, ensuring they meet vehicle-level requirements without the need for costly prototypes.

By using ePOP, customers can quickly understand trade-offs between key attributes—such as efficiency, mass, and cost—for a specific application or family of vehicles.

ePOP (Electrified Propulsion Optimisation Process) is a simulation-based approach that helps identify the optimal powertrain architecture for a given vehicle.

It works by virtually screening a wide range of electrified powertrain combinations early in the development cycle, ensuring they meet vehicle-level requirements without the need for costly prototypes.

By using ePOP, customers can quickly understand trade-offs between key attributes—such as efficiency, mass, and cost—for a specific application or family of vehicles.

ePOP (Electrified Propulsion Optimisation Process) is a simulation-based approach that helps identify the optimal powertrain architecture for a given vehicle.

It works by virtually screening a wide range of electrified powertrain combinations early in the development cycle, ensuring they meet vehicle-level requirements without the need for costly prototypes.

By using ePOP, customers can quickly understand trade-offs between key attributes—such as efficiency, mass, and cost—for a specific application or family of vehicles.

ePOP (Electrified Propulsion Optimisation Process) is a simulation-based approach that helps identify the optimal powertrain architecture for a given vehicle.

It works by virtually screening a wide range of electrified powertrain combinations early in the development cycle, ensuring they meet vehicle-level requirements without the need for costly prototypes.

By using ePOP, customers can quickly understand trade-offs between key attributes—such as efficiency, mass, and cost—for a specific application or family of vehicles.

ePOP (Electrified Propulsion Optimisation Process) is a simulation-based approach that helps identify the optimal powertrain architecture for a given vehicle.

It works by virtually screening a wide range of electrified powertrain combinations early in the development cycle, ensuring they meet vehicle-level requirements without the need for costly prototypes.

By using ePOP, customers can quickly understand trade-offs between key attributes—such as efficiency, mass, and cost—for a specific application or family of vehicles.

ePOP (Electrified Propulsion Optimisation Process) is a simulation-based approach that helps identify the optimal powertrain architecture for a given vehicle.

It works by virtually screening a wide range of electrified powertrain combinations early in the development cycle, ensuring they meet vehicle-level requirements without the need for costly prototypes.

By using ePOP, customers can quickly understand trade-offs between key attributes—such as efficiency, mass, and cost—for a specific application or family of vehicles.

ePOP (Electrified Propulsion Optimisation Process) is a simulation-based approach that helps identify the optimal powertrain architecture for a given vehicle.

It works by virtually screening a wide range of electrified powertrain combinations early in the development cycle, ensuring they meet vehicle-level requirements without the need for costly prototypes.

By using ePOP, customers can quickly understand trade-offs between key attributes—such as efficiency, mass, and cost—for a specific application or family of vehicles.

ePOP (Electrified Propulsion Optimisation Process) is a simulation-based approach that helps identify the optimal powertrain architecture for a given vehicle.

It works by virtually screening a wide range of electrified powertrain combinations early in the development cycle, ensuring they meet vehicle-level requirements without the need for costly prototypes.

By using ePOP, customers can quickly understand trade-offs between key attributes—such as efficiency, mass, and cost—for a specific application or family of vehicles.

ePOP (Electrified Propulsion Optimisation Process) is a simulation-based approach that helps identify the optimal powertrain architecture for a given vehicle.

It works by virtually screening a wide range of electrified powertrain combinations early in the development cycle, ensuring they meet vehicle-level requirements without the need for costly prototypes.

By using ePOP, customers can quickly understand trade-offs between key attributes—such as efficiency, mass, and cost—for a specific application or family of vehicles.