  Several decades of debate have centered around the nature of the enigmatic
pseudo-gap state in high temperature superconducting copper oxides. Recently,
we reported polarized neutron diffraction measurements that suggested the
existence of a magnetic texture bound to the pseudo-gap phase [Bounoua, {\it et
al}. Communications Physics 5, 268 (2022)]. Such a magnetic texture is likely
to involve the spontaneous appearance of loop currents within the CuO$_2$ unit
cells, which give birth to complex correlated patterns. In the underdoped ${\rm
YBa_{2}Cu_{3}O_{6.6}}$, the magnetic structure factor of such an orbital
magnetic texture gives rise to two distinct magnetic responses at {\bf q}=0 and
{\bf q}=1/2. As this pattern alters the lattice translation invariance, such a
state of matter could contribute to an instability of the Fermi surface. Here,
we report polarized neutron scattering measurements on a nearly optimally doped
high quality single crystal of ${\rm YBa_{2}Cu_{3}O_{6.9}}$ that exhibits the
same {\bf q}=1/2 magnetism and a weakly overdoped ${\rm YBa_{2}Cu_{3}O_{7}}$
sample where this signal is no longer sizeable. The in-plane and out-of-plane
magnetic neutron scattering intensities in ${\rm YBa_{2}Cu_{3}O_{6.9}}$ (at
{\bf q}=1/2) and ${\rm YBa_{2}Cu_{3}O_{6.85}}$ (at {\bf q}=0), reported
previously, display the same temperature dependent hallmarks. The magnitudes of
both {\bf q}=0 and {\bf q}=1/2 magnetic signals further exhibit the same trends
upon doping in ${\rm YBa_{2}Cu_{3}O_{6+x}}$, confirming that they are likely
intertwined.
