电感式位移传感器测量缸胀 涡流传感器被广泛应用于各种工业领域及实验室。它具有体积小,可靠性高,非接触测量等优点,适用于各种涡轮机械,可测量例如轴振动和轴位移等物理量。epro 公司给客户提供多种型号的涡流传感器,能满足各种测量方案。可测量下列物理量:-旋转部分和固定部分之间的间隙轴的振动和偏心-轴弯曲轴的径向及轴向位移轴瓦的磨损油膜的厚度轴与轴承的相对热膨胀-轴承的热膨胀-阀]位置传感器的制造及使用符合多种通用标准,例如: API 670. DIN 45670和ISO 10817-1。 在加装安全栅后,传感器和前置器也可以在需要防爆的环境下工作,符合相关的欧洲标准EN 50014/50020。位移传感器 转速探头: 电涡流传感器和速度式传感器的监测原理电涡流传感器是根据涡流效应原理工作的,涡流传感器的线圈与一个电容C并联,构成一个并联谐振电路。 由前置器内的品体振荡器供给稳定的高频电流来激励,在线罔周围产生高频交变磁场俑当被测主轴靠近次交流磁场中用范围时,在被测主轴表面产生电涡流,而此电涡流又产生一个新交变磁场来阻碍主磁场的变化,这一 过程将消耗能量因而使线圈的Q值发生变化。在被测主轴与传感器之间的间隙d改变时,传感器线圈的Q值也随之变化。
Inductive displacement sensor for measuring cylinder expansion Eddy current sensors are widely used in various industrial fields and laboratories. It has the advantages of small size, high reliability, and non-contact measurement, and is suitable for various turbomachinery. It can measure physical quantities such as shaft vibration and displacement. EPRO provides customers with various models of eddy current sensors that can meet various measurement schemes. The following physical quantities can be measured: - Clearance between the rotating and fixed parts - Vibration and eccentricity of the shaft - Radial and axial displacement of the crankshaft - Thickness of the wear oil film of the bearing shell - Relative thermal expansion of the shaft and bearing - Thermal expansion of the bearing - Valve] The manufacturing and use of position sensors comply with multiple common standards, such as API 670 DIN 45670 and ISO 10817-1. After installing safety barriers, sensors and proximitors can also operate in environments that require explosion protection, in accordance with relevant European standards EN 50014/50020. Displacement sensor Speed probe: The monitoring principle of eddy current sensors and velocity sensors is based on the principle of eddy current effect. The coil of the eddy current sensor is connected in parallel with a capacitor C, forming a parallel resonant circuit. Excited by a stable high-frequency current supplied by the product oscillator in the front end, a high-frequency alternating magnetic field is generated around the wire. When the measured spindle is close to the range of the secondary alternating magnetic field, an eddy current is generated on the surface of the measured spindle, which in turn generates a new alternating magnetic field to hinder the change of the main magnetic field. This process consumes energy and causes the Q value of the coil to change. When the gap d between the measured spindle and the sensor changes, the Q value of the sensor coil also changes accordingly.