  The design of correlated materials challenges researchers to combine the
maturing, high throughput framework of DFT-based materials design with the
rapidly-developing first-principles theory for correlated electron systems. We
review the field of correlated materials, distinguishing two broad classes of
correlation effects, static and dynamics, and describe methodologies to take
them into account. We introduce a material design workflow, and illustrate it
via examples in several materials classes, including superconductors, charge
ordering materials and systems near an electronically driven metal to insulator
transition, highlighting the interplay between theory and experiment with a
view towards finding new materials. We review the statistical formulation of
the errors of currently available methods to estimate formation energies.
Correlation effects have to be considered in all the material design steps.
These include bridging between structure and property, obtaining the correct
structure and predicting material stability. We introduce a post-processing
strategy to take them into account.
