Fusiometer

Fusiometers are instruments designed to measure the physical properties of materials, such as hardness, strength, elasticity, etc. They are used in various industries, such as mechanical engineering, metallurgy, construction, etc., where it is necessary to control the quality of materials and their properties.

The operating principle of fusiometers is based on measuring the force required to deform a material. Depending on the type of device, this may be deformation in the form of compression, tension or bending. The data obtained is then processed by software, which allows us to determine the physical properties of the material and its compliance with specified requirements.

There are several types of fusiometers, each of which has its own advantages and disadvantages. For example, mechanical fusiometers can be more accurate but require higher maintenance and repair costs. Electronic fusiometers, on the other hand, are easier to use and maintain, but less accurate.

In general, fusiometers are an important tool for monitoring the quality of materials and determining their physical properties. They enable manufacturers and engineers to make informed decisions about product quality and performance, which in turn ensures product reliability and durability.



A fusiometer is an instrument that is used to measure the amount of liquid contained in various materials such as plastics, rubber, glass, etc. It is based on the principle of measuring the volume of liquid that evaporates when a material is heated.

Fusiometers are used in various industries such as plastics, rubber, glass, ceramics and other materials. They allow you to control product quality and identify problems with the quality of materials.

The principle of operation of a fusiometer is based on measuring the amount of liquid that evaporates when a sample of material is heated. The device consists of a chamber containing a sample of material, a heater and a sensor that measures the amount of liquid that evaporates during the heating process.

One of the main advantages of fusiometers is their high accuracy and sensitivity. They allow the measurement of liquids in very small quantities, making them indispensable for quality control of materials in various industries.

However, fusiometers also have their disadvantages. For example, they can be expensive to purchase and maintain, and require specific skills to set up and use correctly. Additionally, some materials may have a low heat capacity, which can make it difficult to measure the amount of liquid.

In general, fusiometry is an important tool for product quality control in various industries and allows the identification of material quality problems in the early stages of production.