By exploiting the response-spectrum-based procedure for predicting the response envelopes in linear structures formulated by Menun and Der Kiureghian (2000a), algorithms are developed for the seismic margin assessment of reinforced concrete shell finite elements.
Meanwhile, recently developed T-cell based procedures are showing promise for predicting potential immunogenicity with some biologics including monoclonal antibodies.
Ultimately, a study involving 45 models was conducted based on FEA modelling, and a procedure for predicting the elastic critical moment of composite beams with sinusoidal-web steel profiles was proposed.
Based on a microstructure model, a procedure for predicting the permeability of high strength silica fume cement concrete is developed by considering water-to-binder ratio, silica fume replacement ratio and degree of hydration as major influencing factors.
Based on the test results, a hysteric model and a procedure for predicting the ultimate energy dissipation capacity and failure of the new damper are proposed.
A procedure for predicting probability density function (PDF) of the peaks of the corresponding intermittent response is outlined as based on parabolic approximation for the parameter variation in the vicinity of its peaks.
The methane molecule, CH4, can be used to illustrate the procedure for predicting molecular shape.
A procedure for predicting precipitate facet planes is demonstrated.
A procedure for predicting the stability is presented.
AutoDock is an automated procedure for predicting the interaction of ligands with biomacromolecular targets.
Finite element (FA) numerical procedure for predicting the buckling load was developed.
