We analyze key proteomic issues and cutting-edge technologies that will spe
arhead inroads into functional interpretations of human diseases and their
therapeutic rectification, following the availability of the predicted huma
n proteome. We contrast the distinctions between high quality data that are
low throughput, (e.g., 3-D proteomic reconstructions in embryogenic and ne
rvous system contexts, and multigenerational transgenic studies), versus au
tomated data harvesting that is more distant from human disease phenotypes
and currently fulfills a diagnostic role, (e.g., molecular portraits of hum
an diseases via transcriptomic analyses). We examine the extent to which th
ese approaches impinge upon a realistic understanding of human diseases, na
mely how close they come to revealing the causal events involved in the ini
tiation of disease. While tissue sources from human embryogenesis, foetal d
evelopment and the brain remain the absolute priority, the pragmatic approa
ches utilize judicious data integration from selected proteomic studies of
model organisms. The role of genome-wide disease-related screens, "humanize
d" transgenic analyses, multigenerational gene interference methods, and an
alyses of post-translational modifications in epigenetic contexts from Dros
ophila will be crucial, since these avenues are far too slow and transgenic
ally cumbersome in mammals. Finally, the implementation of multi compartmen
t electrolyzers (MCE) and multi photon detection (MPD) systems will be pivo
tal for the proteomic profiling of human tissue samples.