  The complexity of competing orders in cuprates has recently been multiplied
by a number of bulk evidences of charge ordering with wavevector that connects
the antinodal region of the Fermi surface. This results contradicts many
spectroscopic results of the nodal nesting. To resolve this issue, we carry out
a unified study of the resulting electronic fingerprints of both nodal and
antinodal nestings (NNs/ANs), and compare with angle-resolved photoemission,
scanning tunneling spectroscopic data, as well as bulk sensitive Hall effect
measurements. Our result makes several definitive distinctions between them in
that while both nestings gap out the antinodal region, AN induces an additional
quasiparticle gap {\em below the Fermi level along the nodal direction}, which
is so far uncharted in spectroscopic data. Furthermore, we show that the Hall
coefficient in the AN state obtains a discontinuous jump at the phase
transition from an electron-like nodal pocket (negative value) to a large
hole-like Fermi surface (positive value), in contrast to a continuous
transition in the available data. Finally, we write down a Ginzburg-Landau
functional to study the stability of the two phases, and discuss an interesting
possibility of disorder pinned `chiral' charge ordering.
