TCIL-5A Silicon Steel Sheet Iron Loss Tester

Product Overview:

Iron Loss TesterTCIL-5AUsed for detecting the iron loss value of single silicon steel sheets. Suitable for silicon steel sheet production and sales manufacturers, motors, transformers, and other silicon steel sheet incoming inspection, processing monitoring, and other production processes, with simple and convenient operation.

Overcoming the traditional testing requirements for the shape of silicon steel during inspection, there is no need to specially make test specimens.

increased50Hz-400HzBroadband testing requirements fully meet the high-frequency testing needs of ordinary silicon steel and new energy silicon steel materials.

The use of color LCD display modules enhances the intuitiveness of the product.

equipRS232Serial interface, which can be used with a micro printer orUSBInterface enables real-time data output(Additional optional).

Key Features:

This product has added broadband testing settings to meet the high-frequency detection needs of sexual energy materials

No need to specially cut test samples, flexible testing of single silicon steel sheets

Can detect irregular samples of different widths and thicknesses at different frequencies

The design of the AC sine test power supply has improved the stability and anti-interference performance of the instrument

Optimize air compensation and test probe compensation design to improve the accuracy of instrument testing

4.3The inch color LCD display and bilingual design in Chinese and English enhance the intuitiveness of the product

equipRS232Serial interface, capable of real-time data output using a micro printer(Additional optional)

equipUThe function of directly storing data on the disk can be utilizedUThe disk directly stores data asExcelformat(Additional optional)

Technical parameters:

Test object: Single piece silicon steel sheet (cold-rolled, hot-rolled, oriented, non oriented)

Size range:

1.Thickness0.10-0.99mm

2.Width: ≥3mm

3.Length: ≥25mm

Test scope:

1.Magnetic flux density（B）：0.5-1.7TAdjustable within the range

2.Iron damage（P）：0-160W/kg

3.Test frequency（F）：50Hz-400HZswitch freely

Magnetization method: AC sine current magnetization method

Test accuracy: ±5%(Compared with the square circle method)

power supply90-240V

Maximum power consumption:50W

Ambient temperature15-45℃

Relative humidity: ≤80%RH

Size:210*130*280mm

Weight: Approximately3.5kg

Standard configuration:

Tester host1a

Test probe1a

Silicon steel sheet calibration plate(Oriented and non oriented plates)Each1block

Power cord, probe connection cable……each1root

Equipment fuse1only

One user manual and one simple operation manual each

Aluminum alloy box1only

Mini Printer(Optional accessories)………………………1only

UDisk data storage(Optional accessories)………………………1only

Testing principle:

It will be wound with excitation coils and magnetic beam detection linesUThe type magnet is placed on the tested sample to open a closed magnetic circuit

If theUWhen the cross-sectional area of the magnetic circuit of a type magnet is much larger than that of the magnetic circuit inside the test piece, the product of the excitation current generated by applying voltage to the excitation coil and the voltage generated on the magnetic flux detection coil is the loss inside the test piece

This measuring device is equipped with a test piece and a magnetic energy density selection switch for measurement. After selection and setting, the iron loss value of the test piece can be immediately read out. The iron loss value can be obtained from this formula:=Loss within the test piece/Effective weight of the magnetic circuit part inside the test piece

Application Tip:

1.The data marked on the attached standard board is only used as a reference for the normal daily use of the instrument and is not an absolute standard value.

2.It is advisable to use multi-point testing and take the average value for testing large-area boards; The same applies to the same batch of materials.

3.Single piece testing with curved shapes, rough surfaces, and complex shapes can cause significant deviations in test data.

4.Complex shaped stamping sheets are compared with test data using the same settings and conditions.

5.The width of the stamped sheet with complex shapes is set based on the effective width of the rectangular area covered by the probe.