1. Humanized interaction design

Touch screen operation and graphical interface: Supports touch functions such as gesture zooming, drag and drop positioning, and can complete measurement scheme settings without professional programming. Novice training time is less than 2 hours (traditional devices require 1 week).

Automatic calibration function: Built in standard hardness blocks (such as Vickers hardness standard blocks HV0.01~HV10) can perform force and displacement calibration with one click, reducing manual calibration errors (such as force deviation>2% for manual calibration).

2. Low maintenance cost

Non contact optical measurement: No need to frequently replace the indenter (traditional mechanical hardness tester indenter has a lifespan of about 10 ^ 4 times), the optical system only needs to be cleaned regularly (recommended once every quarter), reducing maintenance costs by more than 60%.

Remote diagnostic support: Connected to the manufacturer's cloud platform through Ethernet interface, real-time instrument status data can be transmitted, remote troubleshooting (such as software parameter abnormalities) can be carried out, and downtime can be reduced.

2、 Core values in typical application scenarios

1. Semiconductor and Electronic Manufacturing

Nanoindentation technology: measures the nanohardness of metal interconnect layers (such as copper wires) and dielectric layers (SiO ₂) in integrated circuits (ICs), and evaluates process reliability (such as the impact of etching damage on material mechanical properties).

Failure analysis: By locating interface cracks, solder joint detachment, and other defects in chip packaging through micro hardness anomalies, the troubleshooting cycle can be shortened (such as from the traditional 24 hours to 4 hours).

2. Research and development of aerospace materials

Characterization of high-temperature alloy micro regions: Testing the hardness evolution of turbine blade coatings (such as thermal barrier coatings TBC) in a high-temperature environment chamber (optional) at 500 ℃~1000 ℃, providing data support for predicting the service life of materials.

Quality control of additive manufacturing (3D printing): Hardness mapping is performed on different scanning path areas of the laser cladding layer, and printing parameters are optimized to eliminate microstructural inhomogeneity (such as reducing the hardness fluctuation range from ± 20HV to ± 5HV).

3. Biomedical Engineering

Biocompatibility material testing: Measure the microhardness of hydroxyapatite coating on medical titanium alloy (such as Ti6Al4V) surface, evaluate the bonding strength and wear resistance between the coating and substrate (such as the hardness retention rate after simulated body fluid immersion>95%).

Biological tissue mechanics research: Using a spherical indenter (radius of 50 μ m) to measure the elastic modulus of soft tissues such as cartilage and cornea, providing mechanical parameters for artificial organ design (such as error<8% vs traditional compression testing).