Intelligent Fiber Resistance Furnace

The intelligent fiber resistance furnace converts electrical energy into thermal energy through electric heating elements to heat-treat fiber materials. It is used for ashing, carbonization, or heat treatment of fiber samples in laboratories, commonly applied in the composition analysis of the textile and paper industries.
Selection
When selecting, consider matching the heating temperature range with sample requirements, ensuring the furnace chamber size accommodates the sample volume, the temperature control accuracy meets experimental needs, energy consumption aligns with usage frequency, safety protection features are complete, maintenance is convenient, and the equipment dimensions fit the laboratory space.

Terms

Standards

Instruments

Pottery and porcelain fiber liner excellent thermal insulation performance, intelligent controller to achieve +/- 2 ℃ temperature control accuracy, with over-temperature protection and power-off recovery function, LCD LCD display temperature time paraMeters.

$ 1555.00

Pottery and porcelain fiber liner insulation performance is good, intelligent PID controller temperature control accuracy +/- 2 ℃, with over-temperature protection, timing function and power-off recovery, LED large screen display temperature time paraMeters.

$ 1913.00

Pottery and porcelain fiber liner with excellent thermal insulation performance, equipped with microcomputer P.I.D controller to achieve +/- 2 ℃ temperature control accuracy, with over-temperature protection, power failure recovery and multiple safety protection functions, Furnace volume 7.2L to meet a variety of heating needs.

$ 2475.00

The ceramic fiber Furnace body has excellent thermal insulation performance, temperature control accuracy +/- 2 ℃, with over-temperature protection, timing function and automatic recovery of power failure, LCD LCD display temperature and time paraMeters.

$ 1122.00

Adopt aluminum silicate ceramic fiber Furnace, heating rate ≤ 45 ℃/min, temperature control accuracy +/- 1 ℃, support multi-stage programmable control, with over-temperature protection and abnormal alarm function, Furnace body double-decked design with chill down fan.

$ 3038.00

Pottery and porcelain fiber liner with excellent thermal insulation performance, temperature control accuracy of +/- 2 ℃, with over-temperature protection and power-off recovery function, LCD LCD real-time display temperature time paraMeters, support 1-9999 minutes timing settings.

$ 5153.00

Pottery and porcelain fiber liner with good thermal insulation performance, intelligent PID controller temperature control accuracy +/- 2 ℃, with over-temperature protection, timing function and power failure recovery and other safety protection design.

$ 2103.00

The integrated structure saves space, intelligent PID control realizes Power loss-free, heating to 1200 ° C for less than 30 minutes, temperature control accuracy +/- 1 ° C, and the ceramic fiber insulation material makes the shell surface temperature only about 50 ° C.

$ 975.00

Ceramic fiber Furnace to achieve multi-faceted heating, Temperature uniformity less than +/- 5 ℃, heating rate ≥ 10 ℃/min, with nitrogen filling device to slow down oxidation and flue discharge of harmful gases.

$ 1937.00

Use refractory brick Furnace and good wirecoil for heater heating, maximum temperature 1000 ℃, Power 4KW, with intelligent PID control and multiple Safety protection to ensure uniform heating and operation safety.

$ 938.00

16L Pottery and porcelain fiber Furnace insulation performance, temperature control accuracy +/- 2 ℃, with over-temperature protection, timing function and power-off recovery, to ensure safe and reliable experiment.

$ 2652.00

Pottery and porcelain fiber liner with excellent thermal insulation performance, equipped with microcomputer P.I.D temperature controller temperature control accuracy of +/- 2 ℃, with over-temperature alarm and power failure recovery and other safety protection functions, Furnace volume 80L to meet a variety of experimental needs.

$ 6331.00

Pottery and porcelain fiber Furnace and multi-faceted heating technology, Temperature Fluctuation +/- 2 ℃, energy saving rate of 40%, with 30 program settings and over-temperature protection function.

$ 2744.00

Operating temperature up to 1700 ℃, Furnace volume 80L, aluminum oxide fiber Furnace and double chill down system, support inert and reducing atmosphere environment material sintering treatment.

$ 7867.00

Integrated structure saves space, intelligent PID temperature control accuracy +/- 1 ℃, heating up to 1200 ℃ for less than 30 minutes, using ceramic fiber insulation material, surface temperature as low as about 50 ℃, less heat pollution.

$ 1098.00

Articles

Heat Deflection Temperature Tester for Measuring the Thermal Resistance of Carbon Fiber Reinforced Plastics
This article introduces the method of testing the heat resistance of carbon fiber-reinforced plastics using a heat deflection temperature tester. The instrument applies a fixed load to the material while increasing the temperature, measuring the temperature at which the material reaches a specified deformation, thereby evaluating its short-term resistance to thermal deformation.
Charpy Impact Tester Evaluates Brittle Fracture of Carbon Fiber Plates
This article explains how to use a simply supported beam impact testing machine to evaluate the brittle fracture characteristics of carbon fiber plates. During the test, a pendulum impacts the sample, and the energy absorbed by the material during fracture is calculated based on the energy difference, which helps determine its tendency toward toughness or brittleness.
Selection of Wear Testing Machine: Types of Abrasion Wheels and Load Setting Methods
The test results of the wear testing machine primarily depend on the type of grinding wheel and the load setting. Grinding wheels include rubber wheels, abrasive wheels, wire wheels, and fiber wheels, among others. The selection should be matched based on the material characteristics and the actual wear scenario.
Universal Testing Machine evaluates the mechanical properties of carbon fiber reinforced resin.
This article introduces how to use a universal material testing machine to test the mechanical properties of carbon fiber-reinforced resin. Carbon fiber-reinforced resin is widely used in aerospace and other fields due to its lightweight and high strength.
IGT Printability Tester Evaluates Paper Surface Pick Resistance
This article introduces how to use the IGT printability tester to evaluate the surface pick resistance of paper. Picking refers to the phenomenon where the tack force of the ink is too high during printing, causing the surface fibers of the paper to be lifted, which affects print quality.
The laboratory pulp wet disintegrator is used for pulp disintegration treatment.
The laboratory pulp wet disintegrator is a device used to simulate the industrial pulping process. It disperses pulp fibers into individual fibers or small fiber bundles through mechanical action, while simultaneously promoting fiber swelling and fibrillation, thereby providing standardized samples for subsequent performance evaluation.
Application of Dry Pulp Zero-Span Tensile Strength Tester
The dry pulp zero-span tensile strength tester is a device used to measure the intrinsic strength of pulp fibers. It directly determines the tensile properties of fibers by clamping and stretching them to the point of rupture at an extremely close distance, thereby avoiding the influence of fiber length and bonding forces.
Zero-span tensile strength tester measures the tensile strength of wet pulp.
This article introduces the method of measuring the tensile strength of wet pulp using a zero-span tensile strength tester. Traditional testing is often conducted after the pulp is dried, but testing in the wet state can more directly reflect the bonding potential between fibers.
Application of Valley Beater in Pulp Laboratory Beating
The Valley beater is a device used in laboratories to simulate industrial beating processes. It modifies the morphology of pulp fibers through mechanical action, thereby influencing paper properties. During operation, parameters such as beating pressure, pulp consistency, and beating time must be controlled, with the beating degree serving as a quantitative measure of the effect.
Standard Method for Determining the Beating Degree of Pulp Using a PFI Mill
This article introduces the standard method for measuring the degree of pulp beating using a PFI mill. The beating degree is a key indicator of the extent of pulp fiber processing and directly affects paper quality.
Bauer-McNett Classifier Method and Fiber Fractionation Principle of Pulp Fiber Classifier
The Bauer-McNett classifier is a standard method that separates fibers by length and morphology through the sequential screening of pulp suspensions using sieves with different aperture sizes.
Application of Paper Absorbency Tester in Sizing Process
The paper absorbency tester evaluates the absorption performance of paper by measuring the penetration of liquid on the paper. In the sizing process, sizing agents alter the hydrophilicity of the paper fiber surface, thereby affecting the paper's resistance to liquids.
Correlation Analysis between Puncture Strength and Bursting Strength of Paperboard
This article analyzes the correlation between the puncture strength and burst strength of cardboard. The two properties respectively measure the ability of cardboard to resist dynamic impact and static pressure. Although their testing principles differ, both are closely related to factors such as the fiber structure and lamination process of the cardboard.
Application of Zero-Span Tensile Strength Tester in Pulp Strength Evaluation
The zero-span tensile strength tester measures the tensile strength of materials at an extremely short clamping distance, directly reflecting the inherent strength of the pulp fibers themselves, eliminating interference from factors such as fiber bonding.
Analysis of the Influence of Beating Degree on the Physical Strength of Paper
This article explores the impact of beating degree on the physical strength of paper. The beating degree is a key indicator of the extent of fiber processing, which influences paper strength by altering fiber morphology and bonding forces.