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If you work with any of the critical mechanical applications found in the modern world - including mobile construction equipment, and fuel pumps for example - it is likely you also manage hydraulic systems. Because these systems use liquids in various forms to generate power, you know that the inherent pressure feature of hydraulics has to be managed properly. In the best-case scenario, a lack of sufficient management of pressure levels in a system could lead to inferior output. In the worst cases, it could cause damage to equipment or physical harm to system operators. Hydraulic pressure gauges play a critical role in regulating pressure by monitoring levels in either a specified part or the entire system to ensure things are operating normally. So how do you know which pressure gauge will work best in your hydraulic system? Just know what you’re looking for and choose carefully! Sounds simple, right? As a pressure gauge product lead at Ashcroft - a recognized authority in temperature and pressure solutions - I have seen many scenarios where the wrong pressure gauges were selected and the impact that decision had on operations. In this article, you will learn about the five pressure gauge features I consider most important for hydraulic applications so you can be confident about selecting the best option to meet your specific needs. Let’s get started.

Vulcanizing – the process of molding and hardening rubber with chemical treatments at a high temperature – is a critical step in the process of manufacturing quality, reliable tires for everyday use. A typical vulcanizer uses several hydraulic pressure systems to cure tires. These systems help power multiple parts of the machine, from molding the tire to transferring it to the next step in the manufacturing process. As raw tire rubber is molded into a shape that closely resembles its f

Hydraulic machinery exceeds nearly every other mechanical form of power transmission when it comes to working in extreme environments. Excavators, tree harvesters, mining and tow trucks and other hydraulic vehicles perform the harshest tasks on uneven terrains with heavy loads that apply tremendous forces on hydraulic systems. These tasks can generate extreme shock and vibrations, as well as dramatic changes in temperature, dust and moisture. In addition, pressure spikes/impulses generated within hydraulic systems can present a significant challenge to the reliability of internal components like pressure instruments. So, how can you optimize the performance of your mobile hydraulics against hazards?