flagעברית
flagEnglish
3 Rabinovich St., Petah-Tikva, Israel
+972 3 9047744
office@amironic.co.il
LinkedIn
YouTube
Product was added to your cart

Cart

waze

Tag: Variohm

Home Posts Tagged "Variohm"

How Do You Know If a Liquid Cooling System Is Really Working? Pressure and Temperature Tell the Story

How do you know if a liquid cooling system is really working as designed? From AI Data Centers to Radar, EW and Power Electronics, pressure monitoring can reveal changes inside the cooling circuit before temperature alone tells the full story. Discover how Variohm Pressure Sensors and Combined Pressure + Temperature Transducers can support smarter cooling system monitoring, condition monitoring and system protection.

Why a Standard Pressure Sensor Isn’t Always Suitable for Hydrogen Systems

Hydrogen presents unique challenges for pressure measurement – from material compatibility and Hydrogen Embrittlement to high operating pressures and demanding environmental conditions. This article explains how to select a pressure sensor for hydrogen systems, the differences between Nominal Pressure, Overpressure, and Burst Pressure, and how the EPT92H2 with EC79 and EC406 approvals supports hydrogen applications up to 1,000 bar.

Why Every Battery Pack Needs a Temperature Sensor – Not Just Electric Vehicles

Temperature monitoring in Battery Packs is not limited to electric vehicles. An NTC sensor mounted directly on a battery cell can help the BMS detect Hot Spots, monitor temperature differences and support effective thermal management. This article examines the Variohm Eurosensor ETP-ST-21-35-B57861S0103A039, an NTC 10K Sleeve Temperature Sensor designed for cylindrical cells, and explores its relevance to UAVs, robotics, defense systems, ESS and industrial applications.

Your PT100 Sensor Isn’t Reading the Wrong Temperature – Your Wiring Might Be

Think your PT100 sensor has failed because your PLC is displaying the wrong temperature? The problem may not be the sensor at all. This article explains the differences between RTD, PT100, PT1000, thermocouples, and thermistors, compares 2-wire, 3-wire, and 4-wire RTD connections, and demonstrates how cable resistance alone can introduce temperature errors of several degrees. Learn how to select the right RTD sensor, probe construction, and wiring method for accurate and reliable temperature measurement.

Why a Dual-Channel Rotary Position Sensor Is Not Just a Backup Sensor

When engineers hear the term Redundant Rotary Position Sensor, many assume it simply provides a backup in case one channel fails. In reality, modern Redundant Output sensors offer far more than redundancy. By continuously comparing two independent output channels from a single sensor, control systems can detect developing faults, validate position feedback in real time, and improve overall system reliability. This article explains how dual-channel rotary position sensors support early fault detection, why they are increasingly used in industrial automation, medical equipment, and mission-critical systems, and how they help engineers move from reactive maintenance to proactive diagnostics.

Why Programming a Rotary Position Sensor to 360° Is Sometimes the First Design Mistake

A 360° rotary position sensor may seem like the safest choice, but if the mechanism only moves through 60°, 85°, or 120°, that assumption can reduce the effectiveness of the entire measurement system. This article explains why matching the sensor’s programmed measurement range to the mechanism’s actual travel can improve effective sensitivity, simplify calibration, and make better use of the available electrical output, all without changing the mechanics, electronics, or control software. Using a real-world AM-RSS application as a case study, we demonstrate how a simple configuration change can significantly improve overall system performance.

Your Pressure Sensor May Be Accurate. Your Measurement May Not Be – Why a ±0.5% Accuracy Specification Doesn’t Guarantee a ±0.5% Measurement

A pressure sensor’s Accuracy specification is only part of the story.
In real-world applications, measurement quality is also affected by temperature, installation, pressure spikes, vibration, electrical noise, and the entire measurement chain. This guide explains why selecting the right pressure sensor requires more than comparing datasheets – it requires understanding the application.

Your System Has Powered Up – But Does It Know Where It Is? Absolute Position Sensors vs. Homing

What happens after a power interruption if your system no longer knows where the mechanism actually is? In many motion control applications, an incremental encoder requires a homing sequence before normal operation can resume. This article explains how Absolute Position Sensors eliminate that dependency, enabling faster startup, reducing system complexity, and providing immediate position feedback after power-up.

Why a Linear Position Sensor Shouldn’t Be Selected by Stroke Alone

Most engineers start by asking, “What stroke do I need?” In reality, that’s only the beginning. Choosing the right linear position sensor requires far more than matching the measurement range. This article explains why operating conditions, mechanical design, installation constraints and expected service life often have a greater impact than stroke alone – and how to choose the right sensor family for your application.