Indeed, the unpaired electrons can interact antiferromagnetically through the exchange pathway with no resistance. Considering the current evidence, the graphene nanosheet is presented as a platform able to act as an amplifier of the magnetic response that directs/conducts the spin transfer through its structure. However, it is necessary to decipher if the current magnetic behavior is part of structural changes, spin-transfer phenomenon, or this behavior results from the synergistic effect between the properties mentioned above. With this purpose, the magnetic properties of copper corroles retaining the geometry of C-G hybrids were evaluated and marked with the "*" symbol. Besides, the change in the coupling constant (ΔJ) and magnetic moment variation (ΔS) were calculated as follow: ΔJ = J-J*; ΔS = S-S* (Table ). These descriptors are addressed to evaluate the effect of the interaction between graphene nanosheet and the CuC. For example, if ΔS=0, no magnetic reversion occurs, while ΔS=1 indicates a reversion of the magnetic nature. Moreover, if ΔJ = 0, no magnetic changes occur; ΔJ > 0 implies a ferromagnetic contribution, and ΔJ < 0 reveals antiferromagnetic contribution due to the interaction with graphene nanosheet. With this in mind, the magnetic properties of copper corroles showed a ferromagnetic contribution of graphene for C1-G, C2-G, C4-G, C5-G, and C7-G hybrids, suggesting an amplification of the magnetic response rising to ΔJ = 3216 cm -1 . Whereas the C3-G hybrid presented an antiferromagnetic contribution of -1505 cm -1 , the C6-G hybrid is almost not affected by the interaction with graphene. Lastly, the reversion of the magnetic nature only occurs in C7-G since this hybrid becomes ferromagnetic due to the interaction with graphene. Therefore, the graphene nanosheet can affect the magnetic response in two ways: (i) affecting the structural array during the adsorption process and inducing planarity to copper corroles; (ii) offering an electronic platform to amplify the magnetic response by spin transfer. Thus, graphene actively stabilizes the hybrids and modifies the structural, electronic, and magnetic properties of C-G hybrids.