How do you choose the right gearbox?
An incorrect gearbox selection can lead to vibration, loss of accuracy, overheating, and premature wear. This article reviews the most common engineering mistakes in gearbox selection and explains which parameters truly matter – from a system-level integration perspective, not a catalog-driven one.
Gyro and IMU selection is often driven by static datasheet parameters, yet modern precision systems operate in a fully dynamic environment. Latency, timing, sampling determinism, and noise behavior inside a control loop directly affect system stability and long-term performance. This article explains why gyros and IMUs are no longer just measurement devices, but critical control components, and how the boundary between control-grade and navigation-grade inertial sensing is increasingly becoming a continuum rather than a clear separation.
Wireless foot switches are increasingly used in medical equipment, but they introduce system-level considerations that go far beyond convenience.
This article explains how wireless foot switches should be evaluated in medical systems, focusing on fail-safe behavior, redundancy, regulatory implications, and correct system integration.
Written for medical device engineers, it highlights common design mistakes, proper RFQ definition, and real-world architectural choices to ensure predictable behavior and regulatory clarity.
In many systems, the choice between a simple thermal switch and a temperature sensor combined with electronic logic is often seen as a matter of accuracy. In reality, it is a much deeper system-level decision – involving reliability, safety, failure modes, and the ability of the system to survive edge-case scenarios.
This article examines when the simpler solution is actually the correct engineering choice.
How commercial and industrial electronics can be upgraded for airborne military platforms, meeting stringent power and EMC standards such as MIL-STD-704 and EN/EC 461 – without redesign, without interface changes, and while preserving full Form, Fit & Function
A practical engineering guide to selecting gears, racks, worm drives, and bevel gears based on load, speed, efficiency, and real-world operating conditions. Designed for engineers and technical procurement teams involved in industrial and defense-related motion systems.
Selecting a circuit breaker is not about rated current or cross-reference tables.
In industrial and military systems, reliable protection depends on trip curves, inrush behavior, and system-level dynamics. This article presents a practical engineering framework for using cross-reference correctly, avoiding common replacement mistakes, and selecting hydraulic-magnetic circuit breakers based on real operating conditions – not assumptions.
Spring-loaded linear position sensors remain a proven solution for space-limited and rugged mechanical systems.
The KTP Series from VARIOHM combines compact design, stable resistive output, and long mechanical life, making it well suited for demanding long-term position feedback applications.
Circuit breaker selection in industrial and military power systems is a system-level decision, not a catalog exercise. Factors such as inrush current, trip characteristics, environmental conditions, and variant-level configuration play a critical role in preventing nuisance tripping and ensuring reliable operation in harsh environments.
Choosing a pressure sensor for harsh industrial and mobile environments requires more than matching a pressure range. Real-world conditions such as pressure spikes, temperature drift, vibration, media compatibility, and installation constraints often determine long-term reliability. VARIOHM pressure sensors, supplied by Amironic, cover ranges from ultra-low pressure up to 5000 bar and include solutions for hydrogen systems, functional safety (SIL2 / PLd), mobile equipment, IoT, and high-volume OEM applications- designed for stability, durability, and real operating conditions.
