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GIDINGS&LEWIS M.1301.9806热电偶

发布时间:2025-09-01人气:
  • GIDINGS&LEWIS M.1301.9806热电偶
  • GIDINGS&LEWIS M.1301.9806热电偶
  • GIDINGS&LEWIS M.1301.9806热电偶

 GIDINGS&LEWIS M.1301.9806热电偶

1.产 品 资 料 介 绍:

Giddings & Lewis M.1301.9806 热电偶输入模块介绍

一、产品概述

Giddings & Lewis M.1301.9806 热电偶输入模块,是 PiC 系列控制系统中实现 “工业温度精准采集” 的核心组件,堪称温度监测与控制的 “信号转换专家”。其核心功能聚焦于热电偶信号的处理与转换:一方面,接收热电偶传感器输出的微弱电压信号(通常为毫伏级,随温度变化而波动);另一方面,通过内置的信号放大、冷端补偿及模数转换电路,将微弱电压信号精准转换为 PiC 控制器可识别的标准数字信号(如 4-20mA 电流信号或数字量信号),为温度监测、自动控制提供精准数据支撑。


在高精度加工设备与工业自动化系统中,该模块是保障温度参数稳定的关键 —— 无论是数控机床的主轴温度监控、自动化生产线的设备温控,还是过程系统的炉温管理,都依赖其精准的信号转换能力,为工业生产的安全性、稳定性与精度提供重要保障。

二、产品特点

(一)高精度温度采集

  1. 多类型热电偶适配:模块具备广泛的热电偶兼容性,支持 K 型(镍铬 - 镍硅,测温范围 -270℃~1372℃)、J 型(铁 - 康铜,测温范围 -210℃~1200℃)、T 型(铜 - 康铜,测温范围 -270℃~400℃)等多种常用类型热电偶输入。不同类型热电偶对应不同的测温范围与精度特性,模块可根据工业场景的测温需求灵活适配,例如,K 型热电偶适用于高温加工场景(如机床主轴、工业炉),T 型热电偶适用于低温环境(如冷藏设备、低温反应),无需更换模块即可满足多样化测温需求,降低设备选型与维护成本。
  2. 冷端补偿保精度:内置高精度冷端补偿电路,有效解决热电偶测温的核心误差来源。热电偶的测温原理基于 “热端(测量端)与冷端(参考端)的温差产生电压”,若冷端温度波动,会直接导致测量误差。模块通过内置温度传感器实时监测冷端温度,自动计算并补偿冷端温度变化带来的误差,将温度测量精度控制在 ±0.1℃~±0.5℃(视热电偶类型而定)。例如,在数控机床主轴测温中,冷端补偿可避免环境温度变化导致的主轴温度误判,确保加工精度不受温度偏差影响。

英文资料:

Introduction to Giddings&Lewis M.1301.9806 Thermocouple Input Module

1、 Product Overview

The Giddings&Lewis M.1301.9806 thermocouple input module is the core component of the PiC series control system for achieving "precise industrial temperature acquisition", and can be regarded as the "signal conversion expert" for temperature monitoring and control. Its core function focuses on the processing and conversion of thermocouple signals: on the one hand, it receives weak voltage signals (usually in the millivolt range, fluctuating with temperature changes) output by thermocouple sensors; On the other hand, through built-in signal amplification, cold end compensation, and analog-to-digital conversion circuits, weak voltage signals are accurately converted into standard digital signals (such as 4-20mA current signals or digital signals) that can be recognized by PiC controllers, providing precise data support for temperature monitoring and automatic control.

In high-precision machining equipment and industrial automation systems, this module is the key to ensuring stable temperature parameters - whether it is spindle temperature monitoring for CNC machine tools, equipment temperature control for automated production lines, or furnace temperature management for process systems, they all rely on their precise signal conversion capabilities, providing important guarantees for the safety, stability, and accuracy of industrial production.

2、 Product Features

(1) High precision temperature acquisition

Multi type thermocouple adaptation: The module has a wide range of thermocouple compatibility and supports various commonly used types of thermocouple inputs, such as K-type (nickel chromium nickel silicon, temperature range -270 ℃~1372 ℃), J-type (iron constantan, temperature range -210 ℃~1200 ℃), T-type (copper constantan, temperature range -270 ℃~400 ℃), etc. Different types of thermocouples correspond to different temperature measurement ranges and accuracy characteristics. Modules can be flexibly adapted according to the temperature measurement needs of industrial scenarios. For example, K-type thermocouples are suitable for high-temperature processing scenarios (such as machine tool spindles and industrial furnaces), while T-type thermocouples are suitable for low-temperature environments (such as refrigeration equipment and low-temperature reactions). They can meet diverse temperature measurement needs without replacing modules, reducing equipment selection and maintenance costs.

Cold end compensation ensures accuracy: Built in high-precision cold end compensation circuit effectively solves the core error source of thermocouple temperature measurement. The temperature measurement principle of thermocouples is based on the "voltage generated by the temperature difference between the hot end (measuring end) and the cold end (reference end)". If the temperature of the cold end fluctuates, it will directly lead to measurement errors. The module monitors the cold end temperature in real-time through a built-in temperature sensor, automatically calculates and compensates for errors caused by changes in cold end temperature, and controls the temperature measurement accuracy within ± 0.1 ℃~± 0.5 ℃ (depending on the type of thermocouple). For example, in CNC machine tool spindle temperature measurement, cold end compensation can avoid spindle temperature misjudgment caused by environmental temperature changes, ensuring that machining accuracy is not affected by temperature deviation.

 2.产      品      展      示      

kollmorgen_giddings_lewis_m_1301_9806_input_j-k_thermocouple_module_m1301_9806_1 (1).jpg

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The content is from Ruichang Mingsheng Automation Equipment Co., LTD

Contact: +86 15270269218

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