An autonomous combat aircraft is not simply a fighter with the pilot removed. From Tactical IMUs and GNSS-denied navigation to position feedback, temperature sensing, power monitoring and Edge AI, discover how the aircraft’s “nervous system” provides the reliable real-time data required for autonomy, fault detection and mission-aware decision-making.
Understanding gear module is essential for selecting the right gear. This guide explains what gear module is, how it affects tooth size, torque capacity, gear strength, and compatibility, how to estimate it from an existing gear, and why choosing the correct module is a critical engineering decision rather than a simple catalog selection.
A high-energy laser weapon is far more than a powerful beam. Its effectiveness depends on the seamless integration of power delivery, thermal management, and Line of Sight stabilization. This article explores the engineering behind modern laser interception systems and explains why reliable performance is determined not only by laser output, but by the ability to deliver energy, dissipate heat, and keep the beam precisely focused throughout every engagement.
Learn how to calculate gear ratio, understand its effect on speed, torque, and power, select the right gears for your application, and avoid common design mistakes. This guide also covers gear materials, case-hardened gears, practical selection tips, and essential gear terminology.
Most drivetrain problems are not caused by a single faulty component, but by the interaction between gears, gearboxes, couplings, shafts and bearings. Learn how system-level thinking leads to better motion control, higher accuracy and more reliable mechanical designs.
Most gearbox failures are not caused by poor manufacturing or incorrect gear ratios. They are caused by uncalculated radial loads, shock loads, peak torque, misalignment, and other real-world operating conditions. Learn why replacing the gearbox often doesn’t solve the problem – and how to select a gearbox based on engineering reality rather than catalog specifications.
Most engineers begin designing a worm gear transmission by selecting the required gear ratio. However, two worm gear sets with the same gear ratio can behave very differently depending on the number of worm starts. This article explains how the number of starts influences efficiency, lead angle, friction, back driving, self-locking, and overall transmission performance, helping engineers choose the right Worm & Wheel configuration for their application.
If your 28VDC system relies on a circuit breaker, a diode, and a TVS for protection, it may be prepared for yesterday’s threats—but not necessarily today’s.
Modern military electronics are exposed to reverse battery events, brownouts, ripple, EMI, and thousands of transient disturbances that never appear in qualification reports. This article explores why traditional protection schemes are no longer enough and why more engineers are moving toward Electronic Power Protection architectures.
Most engineers think of bevel gears as a simple way to transfer motion at 90°. In reality, bevel gears represent an entire family of solutions including miter gears, angular bevel gears, hypoid gears, precision motion systems, and high-torque drive technologies. This article explores ten applications that many designers overlook and explains how the right bevel gear selection can simplify mechanical systems, improve efficiency, reduce noise, and eliminate unnecessary components.
Most medical device engineers start by asking how accurate a motion system is. The more experienced ones ask a different question: how accurate will it still be after millions of motion cycles? That shift in thinking helps explain why Rack & Pinion remains a serious contender in some of the world’s most advanced medical systems.
