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Thermal Analysis Series
Joule Heat Rapid-Firing Furnace
High-Temperature Water-Oxygen Corrosion Testing Series
Box-Type Electric Furnace Series
Tubular Electric Furnace Series
Vacuum Brazing Furnace
Degreasing furnace
Automatic Feeding Rotary Sintering Furnace
Industrial Furnace Series
Non-standard customization
Paper Award – Contact Angle
Paper Award – Deformation Instrument
Paper Award – PECVD
Paper Award – Water-Oxygen Corrosion
Common Faults and Solutions for High-Temperature Laboratory Electric Furnaces
Common Faults and Troubleshooting Methods for High-Temperature Laboratory Electric Furnaces As an indispensable piece of laboratory equipment in fields such as materials science, metallurgical engineering, and chemical analysis, the high-temperature laboratory electric furnace’s stability and reliability directly affect the accuracy and safety of experimental results. However, during prolonged operation, electric furnaces may encounter a variety of malfunctions. The following section lists seven common faults along with their corresponding troubleshooting methods, designed to help laboratory personnel quickly diagnose issues and restore the equipment to normal operation.
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Buying Guide for 1800°C High-Temperature Box Furnaces
1800°C high-temperature box furnaces are widely used in laboratories and industrial production for heat treatment, sintering, and other processes involving metallic and ceramic materials. When purchasing a 1800°C high-temperature box furnace, several factors must be considered to ensure that the selected product meets your specific needs and delivers stable performance. The following is a detailed purchasing guide:
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What precautions should be taken when using a box-type resistance furnace, and at what temperature must the door not be opened?
Box-type resistance furnaces are a common type of electric furnace and are widely used in various industries, including ceramics, metallurgy, electronics, glass manufacturing, chemical processing, and mechanical engineering. During operation, when the furnace temperature rises above 200°C, the significant temperature difference between the inside and outside of the furnace can cause damage to the furnace lining and heating elements if the door is opened for rapid cooling at this stage. Therefore, to protect the equipment and ensure safety, it is stipulated that the furnace door must not be opened for rapid cooling when the temperature exceeds 200°C. When using a box-type resistance furnace, the following precautions should be observed to ensure safe operation and proper equipment performance:
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How to Choose a Suitable High-Temperature Contact Angle Meter
Selecting the appropriate contact angle goniometer requires a comprehensive consideration of application requirements, performance specifications, ease of use, budget, and the supplier’s reputation. It is essential to make an informed choice based on actual needs to achieve reliable results in materials research and experimentation. Below are some key selection criteria:
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Rotary kilns and rotating furnaces differ markedly in their definitions, applications, operating principles, and structural features.
Rotary kilns and rotary furnaces differ in their definitions, applications, operating principles, and structural characteristics. Rotary kilns are primarily used for calcination, roasting, and drying of materials, whereas rotary furnaces are mainly employed in metallurgical processes for the production of iron or steel. Although both types of equipment involve rotational motion in their operation, the purposes of rotation and the methods of control differ significantly. In addition, each type has its own distinctive features in terms of structural design and automated control.
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What is the maximum temperature that a box-type muffle furnace can reach?
The maximum temperature that a box-type muffle furnace can achieve depends on the specific furnace model, the materials used for the furnace body, and the performance of the resistance heating elements. In general, box-type muffle furnaces offer a wide temperature range, typically reaching above 1,000°C, with some models capable of even higher temperatures. Specifically, a variety of box-type muffle furnace models are available on the market; among them, high-end or specially designed models—such as 1,800°C high-temperature box-type muffle furnaces—can attain or exceed a maximum temperature of 1,800°C. These furnaces are commonly used in experiments or production processes that require extremely high-temperature environments, such as material heat treatment, metal smelting, and chemical reactions.
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Maintenance and Usage Precautions for Rotary Tube Atmosphere Furnaces
Maintenance and Operational Precautions for Rotary Tube Atmosphere Furnaces I. Daily Maintenance As an essential piece of equipment in both research and industrial production, the rotary tube atmosphere furnace requires diligent daily maintenance to ensure optimal performance, extend its service life, and guarantee the accuracy of experimental results. The following are several key daily maintenance practices:
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Paper Award—Warm Congratulations to Professor Huang Shaoming’s Research Group at Guangdong University of Technology for Publishing a Paper in an International Journal Using Our Company’s PECVD System
The paper “Anion-Regulated Sulfur Conversion in High-Content Carbon Layer Confined Sulfur Cathode Maximizes Voltage and Rate Capability of K–S Batteries” by the research group of Professor Huang Shaoming at Guangdong University of Technology has been published in Advanced Materials, a top-tier journal with an impact factor of 29.4. This paper was awarded the Second Prize under our company’s Paper Award Program.
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Paper Award—Warm Congratulations to Professor Fan Bingbing’s Research Group for Publishing a Paper in an International Journal Using Our Company’s Visualized High-Temperature Deformation Analyzer
Professor Fan Bing’s research group has published the paper “Rapid densification mechanism and properties of h-BN/ZrO2 composites with oxide additives by spark plasma sintering” in the Journal of the European Ceramic Society, which is classified as a Q1 journal with an impact factor of 6.364. This paper was awarded the Second Prize under our company’s Paper Award Program.
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Paper Award—Warm Congratulations to Professor Wang Hongjie’s Research Group at Xi’an Jiaotong University on the Publication of Their Paper in an International Journal Using Our Company’s Visual High-Temperature Deformation Analyzer
Professor Wang Hongjie’s research group has published the paper “Ultrastrong, elastic, and fatigue-resistant SiC nanowires network” in the Journal of the American Ceramic Society, which is classified as a Q2 journal with an impact factor of 3.78. This paper has been awarded third prize under our company’s paper reward program.