2DOF Motion Platforms

Antenna Testing Motion Platform Systems

Learn how an antenna testing motion platform improves RF measurement accuracy, repeatability, payload control, and integration in test programs.

Antenna Testing Motion Platform Systems Read More »

Flight Training Device – Motion Base Basics

Learn how a flight training device motion base affects cueing, fidelity, payload, and FAA readiness in professional simulator design.

Flight Training Device – Motion Base Basics Read More »

Servo Driven Motion Platform Systems: The Basics

Learn how a servo driven motion platform improves fidelity, payload control, and integration for aviation, defense, VR, and R&D simulators.

Servo Driven Motion Platform Systems: The Basics Read More »

ROI/Cost – Digital Servo vs Hydraulic Motion Platform System

The Real Cost Difference Shows Up Over Time When teams compare motion platform designs, the conversation often starts—and ends—with upfront cost. Hydraulic systems can appear less expensive at first glance, especially when comparing actuators alone. But for 6DOF and 7DOF motion platforms, this narrow view hides the costs that matter most over the life of the

ROI/Cost – Digital Servo vs Hydraulic Motion Platform System Read More »

Engineering Precision Motion Base Platforms

Introduction  The six degrees of freedom (6DOF) motion base platforms are the foundation of high-fidelity simulation when accurate motion cueing, repeatability, and long-term stability are required. At Servos & Simulation, Inc., our 6DOF motion base platforms are engineered for professional environments where performance must remain stable and consistent across the years—and often decades—of continuous operation.  This article provides a technical overview of

Engineering Precision Motion Base Platforms Read More »

Motion Base Platform: Understanding Non-Linear Dynamics

A non-linear motion base platform math model refers to the mathematical representation of a motion platform which is typically a Stewart platform or similar 6DOF system—where the relationship between actuator lengths and platform position/orientation is non-linear. This means that small changes in actuator length do not result in proportional changes in platform position or rotation, and the system’s behavior cannot

Motion Base Platform: Understanding Non-Linear Dynamics Read More »

Scroll to Top