Scale factor error quietly distorts motion data long before a system completely fails.
In MEMS IMUs, even small scaling inaccuracies can degrade:
* Navigation accuracy
* EO/IR stabilization
* Dead reckoning
* GPS-denied performance
In high-end inertial systems, accuracy starts at the sensor level.
Miniature spur gears are not simply smaller versions of standard gears. As tooth count and module decrease, backlash, tooth deflection, vibration, manufacturing tolerances, and material behavior begin to dominate system performance. This article explains the hidden engineering challenges behind small spur gears and why miniature motion systems require a completely different design approach.
Microelectronics packaging is not just about enclosing a component – it is about ensuring long-term system reliability under real-world conditions.
This engineering guide explores how to select the right packaging solution based on environmental threats, material behavior, hermetic sealing requirements, and system-level constraints. From Kovar and ceramic packages to hermetic feedthrough integration, this article provides a structured decision-making approach for engineers working in defense, aerospace, RF, and high-reliability industrial systems.
SNAPAK circuit protectors redefine traditional circuit protection by combining switching, protection, and user interface into a single compact device. With multiple actuator styles, illumination options, and strong immunity to inrush currents, SNAPAK offers engineers a practical and cost-effective alternative to legacy thermal breakers and obsolete series such as 203 and MS3320.
Linear position sensors are widely used across industrial, automotive, and control systems – but selecting the right one is more complex than choosing a stroke length. In this article, we explore how mechanical design, environmental conditions, and system-level integration affect sensor performance, and why many real-world failures are caused by installation and application mistakes rather than the sensor itself.
Wireless footswitches are often perceived as a convenience feature – removing cables, improving ergonomics, and simplifying system integration.
But in medical and mission-critical environments, the decision between wired and wireless control is not about convenience. It is about latency, determinism, safety architecture, and regulatory compliance.
In this article, we examine when Bluetooth footswitches actually make sense – and when a wired solution remains the better engineering choice.
Bias Stability is often the first specification engineers look at when selecting a gyro or IMU, but it does not tell the full story. Bias Instability plays a critical role in short-term precision, stabilization performance, and small motion detection. This article explains the difference between the two parameters, how each affects system behavior, and why modern high-performance MEMS solutions – including those developed by Gladiator Technologies – are engineered to optimize both short-term stability and long-term accuracy.
Choosing the right circuit breaker is critical in aerospace, defense, and rugged electronic systems. Engineers must often decide between Airpax AP circuit breakers (M39019), IUL/IUG hydraulic-magnetic breakers (MIL-PRF-55629), and commercial thermal breakers. The differences impact trip curve stability, temperature sensitivity, vibration resistance, and performance under inrush currents. Hydraulic-magnetic technology offers predictable protection and consistent behavior across harsh environments, making it a preferred choice in mission-critical applications. Understanding when to use each solution enables better system reliability, reduced nuisance tripping, and optimized lifecycle cost in demanding electrical systems.
Gear backlash is often treated as a simple clearance between teeth, but in reality it is influenced by gear geometry, module, pressure angle, and manufacturing quality. Under load, its behavior becomes dynamic and directly affects accuracy, vibration, and system stability. Understanding backlash at the gear level is essential for designing reliable and precise motion systems.
Designing power systems for military vehicle platforms operating under MIL-STD-1275E/F is far more complex than simply selecting a DC/DC converter. Military 28V vehicle buses are exposed to severe electrical conditions including surge pulses up to 100V, voltage collapse during engine cranking, ground shifts, and electromagnetic interference. This article examines how engineers design robust power architectures for such environments, why multiple rugged DC/DC modules are often required, and how proper system architecture can ensure reliable operation in harsh military platforms.
