LOAD CELL BRINELL HARDNESS TESTER LCB-1000
Smart Load. Superior Strength. Brinell Perfected.
Experience unmatched precision with our Load Cell Brinell Hardness Tester, engineered for modern metallurgical and industrial quality control. This advanced hardness testing machine uses state-of-the-art load cell technology to ensure high accuracy, repeatability, and digital force application—eliminating the need for conventional dead weights. Ideal for testing hard metals, forged components, and castings, it offers user-friendly automation, touch-screen interface, and real-time digital readouts.
Compliant with ASTM E10 and ISO 6506 standards, this tester is a must-have for any lab seeking reliable Brinell hardness testing with minimal operator dependency. Boost your productivity with a robust, maintenance-free, and high-performance solution designed for today's smart factories.
COMPLETE BRINELL HARDNESS TESTING
Highly accurate in determining Brinell Hardness values of materials which are used to evaluate its resistance to deformation, scratching, indentation, or penetration
FEATURES - Main Tester
1) Innovative closed-loop load cell technology
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Eliminates the need for handling heavy weights or high-maintenance hydraulic load systems
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Absence of mechanical weights eliminates friction and makes the tester less sensitive to misalignments caused by vibrations
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Highly accurate measurements within 0.5% for all test loads
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Approximately 50% less weight than the traditional dead type tester.
2) Can be supplied with a built-in digital microscope, tablet PC with integrated automatic image analysis software, and/or automated test cycle.
3) The built-in Touch Screen will guide the operator through the selection process of proper Brinell scale for different materials and will inform the operator of what indenter needs to be utilised for the selected Brinell scale.
4) Selectable dwell time can be set via the Touch Screen Display.
5) Automatic test cycle
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Load application, dwelling, and unloading is performed automatically.
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Improves the accuracy and reproducibility of test results by reducing human operator interaction.
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The optional stepper motor can be supplied to automate the lifting and positioning of the test anvil prior to load application.
6) The fully automatic image analysis software can be installed on most modern desktop or laptop.
PCs and offers the following features:
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USB camera capture the indentation image, and powerful image analysis software measures the size of the indentation and automatically calculates the Brinell hardness value based on the applied load.
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USB connection to PC and supports Windows.
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A large number of results can be stored including the image from each test.
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Data can be exported to MS Excel or other software.
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Can perform measurements for all test loads between 62.5 kgf and 3000 kgf, for indenters 2.5 mm, 5mm, and 10mm, and for Brinell hardness values between 3.18 HBW and 658 HBW.
ADVANTAGES
Greatly simplifies the indentation and measurement process, allowing for more accurate results more quickly than traditional testers.
Can eliminate the need for separate microscope and PC.
Market leading price-performance ratio.
THEORY AND METHOD
As explained in ASTM E10-18:
“The Brinell hardness test provides useful indentation information about metallic materials. This information may correlate to tensile strength, wear resistance, ductility, or other physical characteristics of metallic materials, and may be useful in quality control and selection of materials. Brinell hardness tests are considered satisfactory for acceptance testing of commercial shipments.
An indenter of known diameter is pressed into a material with a known force load, typically measured in kilogram-force (kgf). The diameter of the indentation after the load is measured, and these values are input into the following formula:
Where
BHN = Brinell Hardness No.
P = Force load in kgf
D = Diameter of ball indenter (in mm)
d = Diameter of indentation (in mm)
TECHNICAL SPECIFICATIONS
Highly accurate in determining Brinell Hardness values of materials which are used to evaluate its resistance to deformation, scratching, indentation, or penetration
