Plastic surface deformation in Mixed Lubrication and Seizure, consistent result names, clearer comparisons and a smoother setup-to-results workflow.
Understand your tribology problem
Explore contact, adhesion, temperature, lubrication and wear in a guided desktop workflow. Set your inputs, run a calculation and inspect the results—locally on your computer.
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Watch the introductory workflow, recorded with TriboSolver 3.1
This earlier introduction demonstrates the general workflow. The homepage screenshots show the current 3.3 version.
Core calculations and licence checks run locally. Model assumptions and application-specific validation remain essential.
A guided calculation workflow
From surfaces to reports
Local calculations. Offline access.
Dry Contact
Explore contact pressure, real contact area and deformation. Supported workflows include rough surfaces, layered materials and subsurface stresses.
Contact Temperature
Examine frictional heating and the predicted temperature response of contacting bodies under your selected loading and sliding conditions.
Mixed Lubrication
Study full-film and mixed point or line contacts. Inspect lubricant film and load sharing using the supported contact and lubricant models.
Adhesion
Explore surface adhesion and electroadhesion within one simulation family, with independently selectable laws. Interpret forces within the assumptions of the selected model.
Wear
Explore Archard wear in supported workflows. Use application-specific wear coefficients and validate predictions against suitable reference data.
Seizure
Screen a configured thermal/adhesive threshold under the selected conditions. This model is not a universal prediction of seizure or component failure.
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News & Updates
Watch the TriboSolver webinar recording and learn how simulation connects experimental friction and wear data with local pressure, deformation, surface gaps and real contact area.
Start with a guided tutorial

Smooth Hertz contact
Build a smooth contact from scratch, inspect the pressure map and compare key outputs with the Hertz analytical solution.
Follow the tutorial →
Rough contact
Generate a reproducible rough surface, calculate the contact pressure and learn how to interpret and export the results.
Follow the tutorial →Research Applications
Explore how published research used TriboSolver and its earlier generations to investigate real contact problems. Each article explains the physical problem, model inputs, findings and limitations. Historical research is distinguished from capabilities and verification of the current release.

How TriboSolver Helped Explain Roughness-Dependent Ice Friction
Why can one object slide easily on ice while another grips or scrapes? This application note examines a 2021 study that combined friction experiments with contact calculations to connect measured…
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How TriboSolver Helped Explain Capillary Adhesion and Friction
Polishing does not always reduce friction. In humid air, smoother surfaces can support larger regions of condensed water, creating an attractive force around the microscopic solid-contact spots. This application note…
Read the research note →
Running-In Wear: How TriboSolver Helped Interpret Changing Asperities
A new sliding contact changes as its highest asperities deform or wear away. This application note explains how a silicon carbide–silicon study connected measured surface changes with calculated pressure, real…
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Optical Contact Measurements: What TriboSolver Helped Compare and Calibrate
An optical contact image does not automatically reveal local pressure. This application note explains how a 2024 study combined a pressure-sensitive fluorescent probe with TriboSolver calculations for a rough polymer…
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Interfacial Shear Strength: How Contact Area Helps Explain Lubrication
Lower friction can reflect a smaller contact area or an interface that is easier to shear. This note explains how a polypropylene–glass study separated those possibilities using fluorescence measurements and…
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Rough Fracture Flow: How Contact Mechanics Supplies the Missing Aperture Map
A rough fracture is a network of contacts and openings rather than a uniform water channel. This note explains how experiments on shaped Carrara marble surfaces were connected to a…
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Low-Voltage Electroadhesion: How Nanoscale Gaps Become Measurable Forces
Electrical attraction between rough surfaces depends strongly on the smallest gaps around their contact patches. This note explains how a silicon-contact study combined a TriboSolver mechanical gap field with a…
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Ceramic Roughness and Wear: What a Contact-Pressure Calculation Adds
Surface roughness can change wear much more strongly than it changes friction. This note examines a ceramic-bead and alumina comparison in which TriboSolver supplied contact-pressure estimates for three surface finishes.…
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Tribofilm Growth: How Contact Stress and Film Removal Work Together
Protective tribofilms can grow and wear at the same time. This note explains a historical model that combined layered contact mechanics with stress-activated chemical growth and film removal. Comparisons covered…
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