  Effective information transmission is a central element in quantum
information protocols, but the quest for optimal efficiency in channels with
symmetrical characteristics remains a prominent challenge in quantum
information science. In light of this challenge, we introduce a hybrid channel
that encompasses thermal, magnetic, and local components, each simultaneously
endowed with characteristics that enhance and diminish quantum correlations. To
investigate the symmetry of this hybrid channel, we explore the quantum
correlations of a simple two-qubit Heisenberg spin state, quantified using
measures such as negativity, $\ell_1$-norm coherence, entropic uncertainty, and
entropy functions. Our findings reveal that the hybrid channel can be adeptly
tailored to preserve quantum correlations, surpassing the capabilities of its
individual components. We also identify optimal parameterizations to attain
maximum entanglement from mixed-entangled/separable states, even in the
presence of local dephasing. Notably, various parameters and quantum features,
including non-Markovianity, exhibit distinct behaviors in the context of this
hybrid channel. Ultimately, we discuss potential experimental applications of
this configuration.
