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Tribocorrosion Wear Evaluation of Protective Coating

The tribocorrosion process of the DLC coatings on different types of steel substrates is simulated using the Nanovea Tribometer. In this study, we would like to showcase that Nanovea Tribometer equipped with the Tribocorrosion Module is an ideal tool for evaluating the performance of protective coatings used in wear and corrosion environment.

Tribocorrosion Wear Evaluation of Protective Coating

Pitting Corrosion density, area, volume, size and shape

In this application the Nanovea ST400 Profilometer is used to measure the surface of a corrosion pitted stainless steel coupon. The area measured was selected at random, and assumed large enough in that it could be extrapolated to make assumptions
about a much larger surface. Density, area, volume, size and shape will be used here to quantify the level of corrosion.

Pitting Corrosion Measurement Using 3D Profilometry

Here are examples of materials we tested this month:

mechanical-lab
Mechanical:

• Nanoindentation of wire cross sections
• Nanoindentation of Y2O3 thin films
• Nanoscratch of thin polymer films
• Nanoscratch of catheters
• Microindentation of oil-well cement

profilometry-lab
3D Non-Contact Profilometry:

• Roughness of catheters
• Finish of processed leather
• Topography of thin film particle contaminants
• Coplanarity of ball grid arrays
• Step height of microchannels

tribology-lab
Tribology:

• Stribeck Curve evaluation of various lubrication

Initial Plastic Deformation To Wear Analysis

The wear process of a metal sample (Cu 110) and a polymer sample (teflon) is simulated in controlled and monitored manner using the Nanovea Mechanical Tester. In this study, we would like to showcase that the controlling and measuring the load and depth is ideal for wear analysis.

The Critical Effect Of Initial Plastic Deformation To Wear Analysis

Extreme Low Speed Friction Evaluation On Rubber

The coefficient of friction, COF, of rubber against different materials is measured in a controlled and monitored manner using the Nanovea Tribometer. In this study, we would like to showcase the capacity of the Tribometer for measuring the coefficient of friction of different materials at extreme low speeds.

Rubber Friction Evaluation At Extreme Low Speeds Using Tribometer

Surface Finish Measurement of Processed Leather

In this application, the Nanovea ST400 Profilometer  is used to measure and compare the surface finish of 2 different but closely processed leather samples. Several surface parameters will be automatically calculated from the surface profile. Here we will focus on surface roughness, dimple depth, dimple pitch and dimple diameter for comparative evaluation.

Processed Leather Surface Finish Using 3D Profilometry

Here are examples of materials we tested this month:

mechanical-lab
Mechanical:

• Nanoindentation of nickel coatings
• Nanoindentation compression of adhesive
• Nanoscratch of ceramic coatings
• Microindentation of seawater aged rubber
• Microscratch of anodized coatings

profilometry-lab
3D Non-Contact Profilometry:

• Leather roughness measurement
• Form consistency of stamped metal
• Topography consistency of woven fabric
• Texture of molded plastic surfaces
• Depth of extrusion die pits

tribology-lab
Tribology:

• Wear rate of Ti-MoS2 and WC coatings in dry, liquid and high temp conditions

In-Situ Wear Measurement At High Temperature Using Tribometer

Wear measurement of alumina silicate ceramic is simulated at high temperature in a controlled and monitored manner using the Nanovea Tribometer. In this study, we would like to showcase the capacity of the Tribometer for in-situ monitoring the evolution of the wear process of materials at elevated temperatures.

In-Situ Wear Measurement At High Temperature Using Tribometer

Transparent Film on Transparent Substrate Measurement

The Nanovea PS50 Profilometer is used for roughness measurement, step height thickness and optical thickness of a thin transparent film on a transparent glass substrate. Step height will be obtained by measuring an area of the film and an area where the substrate is exposed for relative height difference, while optical thickness will be measured by using the Profilometer capability of measuring through the transparent film and detecting a reflecting both from the top surface of the film and the substrate simultaneously.

Transparent Film on Transparent Substrate Measurement Using 3D Profilometry

Here are examples of materials we tested this month:

mechanical-lab
Mechanical:

• Nanoindentation mapping of micro parts
• Nanoindentation fracture of ceramic samples
• Nano Scratch of coated glass
• Nano Scratch failure of implant coatings
• Macroindentation of anodized coatings
• Micro Scratch of acrylic urethane coatings
• Macro Scratch of rock samples

profilometry-lab
3D Non-Contact Profilometry:

• Roughness of micro channels
• Roughness of curved plastics
• Texture of micro emboss
• Finish of powder coatings
• Coplanarity of micro features
• Dimensions of micro parts

tribology-lab
Tribology:

• Linear Wear Testing of engine parts
• Rotative Wear Testing of ceramic samples