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High-temperature superconductivity in the copper-oxide ceramics remains anunsolved problem because we do not know what the propagating degrees of freedomare in the normal state. As a result, we do not know what are the weaklyinteracting degrees of freedom which pair up to form the superconductingcondensate. That the electrons are not the propagating degrees of freedom inthe cuprates is seen most directly from experiments that show spectral weightredistributions over all energy scales. Of course, the actual propagatingdegrees of freedom minimize such spectral rearrangements. This review focuseson the range of epxerimental consequences such UV-IR mixings have on the normalstate of the cuprates, such as the pseudogap, mid-infrared band, temperaturedependence of the Hall number, the superfluid density, and a recent theoreticaladvance which permits the identification of the weakly interacting degrees offreedom in a doped Mott insulator. Within this theory, we show how the widerange of phenomena which typify the normal state of the cuprates arisesincluding $T-$linear resistivity.

Mottness: Identifying the Propagating Charge Modes in doped Mott Insulators