EKO thermal conductivity meterThe advantages of are reflected in high-precision measurement, fast testing, convenient operation, wide applicability, intelligent evaluation and data management, portable design, and high stability, as follows:
High precision measurement:
EKO thermal conductivity meterUsing the heat flux meter method, the thermal conductivity is calculated by directly measuring the heat flow rate and temperature gradient, which has high accuracy and reliability. For example, the HC-10 model has a measurement range of 0.001~0.015 W/m · K for VIP vacuum insulation materials, and 0.03~10.00 W/m · K for homogeneous solid materials, with a repeatability error controlled within ± 5%.
Some models, such as the HC-110 series, are also equipped with advanced temperature control systems that can maintain constant temperature conditions during the measurement process. The temperature measurement accuracy can reach ± 0.01 ℃, further improving the accuracy of measurement results.
Rapid testing capability:
The EKO thermal conductivity meter can complete measurements in a short period of time, usually taking only 1 minute to obtain results. This advantage makes it significantly advantageous in scenarios that require rapid acquisition of thermal conductivity data, such as material research and development, production line quality control, etc.
Compared to traditional measurement methods such as steady-state method, GHP method, or laser flash method, the rapid measurement capability of EKO thermal conductivity meter significantly saves time and cost.
Convenience of operation:
The operation interface design of EKO thermal conductivity meter is simple and intuitive, and users can easily master its usage method. For example, the HC-10 model only requires placing the sensor on the object to be measured and pressing the switch to perform measurements, without the need for special knowledge or complex settings.
Some models are also equipped with CPUs and large screen displays, which can directly display measurement values, making it convenient for users to observe and manage data.
Wide applicability:
The EKO thermal conductivity meter is suitable for measuring the thermal conductivity of various materials, including solids, liquids, gases, and composite materials. For example, the HC-10 model can be used for measuring VIP vacuum insulation materials, homogeneous solid materials (such as rubber, ceramics, glass, metal, plastic, etc.), as well as special forms of materials such as powders and pastes.
Some models, such as the HC-110 series, also support measurement at different temperatures, further expanding their application range.
Intelligent evaluation and data management functions:
EKO thermal conductivity meters usually have data storage functions, which can save multiple measurement data for users to view and analyze in the future. For example, the HC-10 model can store 99 measurement data and 20 test curves.
Some models also support data transfer function, and users can export measurement data to computers or mobile devices through USB or other interfaces for further processing and analysis. In addition, the EKO thermal conductivity meter is equipped with an evaluation function, where users can input reference values to compare measurement results and determine whether they are qualified or unqualified through display indicator lights, achieving on-site product quality evaluation.
Portable design:
The EKO thermal conductivity meter adopts a small and portable design, which is convenient for users to carry to the site for measurement. For example, the main body of the HC-10 model is B5 size, and the main body and probe sensors can be carried around in a specially designed box.
Some models also support battery powered options, further enhancing their portability and flexibility.
High stability and repeatability:
The EKO thermal conductivity meter has good stability and repeatability, and can accurately measure under different environmental temperature and humidity conditions. This helps to reduce errors introduced by changes in environmental factors and improve the accuracy and reliability of test results.