Structural stiffness and deformation
Review equipment deformation and relative position changes caused by gravity, vacuum, fastening, and operating loads.
SEMICONDUCTOR EQUIPMENT CAE
Semiconductor equipment performance depends on stiffness, temperature uniformity, and minute thermal deformation. UGPIA is designed to manage structural and thermal conditions and results for chambers, chucks, heaters, and wafer stages in a shared Analysis Model.
ANALYSIS SCOPE
Review equipment deformation and relative position changes caused by gravity, vacuum, fastening, and operating loads.
Evaluate temperature distribution across chucks and stages under heater and cooling conditions.
Combine structural and thermal results to assess wafer flatness, alignment error, and joint stress.
PROCESS
Semiconductor equipment performance depends on stiffness, temperature uniformity, and minute thermal deformation. UGPIA is designed to manage structural and thermal conditions and results for chambers, chucks, heaters, and wafer stages in a shared Analysis Model.
Organize chambers, chucks, heaters, stages, fasteners, and contacts for the analysis objective.
Define vacuum pressure, bolt loads, heat generation, cooling, ambient temperature, and supports.
Perform structural and thermal analysis and transfer temperature fields when required.
Compare deformation and temperature uniformity with process targets, tolerances, and measurement locations.
APPLICATIONS
FAQ
A structure can have sufficient static stiffness while nonuniform temperature still causes precision errors. Both responses must be connected to evaluate process accuracy.
In addition to allowable stress, use performance criteria such as wafer flatness, relative displacement, temperature uniformity, and assembly tolerances.
CONTACT UGPIA
Contact UGPIA about CAE workflows and technical collaboration.