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Quantum information transfer is fundamental for scalable quantum computing inany potential platform and architecture. Hole spin qubits, owing to theirintrinsic spin-orbit interaction (SOI), promise fast quantum operations whichare fundamental for the implementation of quantum gates. Yet, the influence ofSOI in quantum transfer protocols remains an open question. Here, weinvestigate, using Shortcuts to Adiabaticity, the long-range transfer of holespin states and quantum distribution of entangled pairs in a semiconductorquantum dot array. We demonstrate that electric field manipulation allowsdynamical control of the SOI, enabling simultaneous implementation of quantumgates during the transfer, with the potential to significantly acceleratequantum algorithms. By harnessing the ability to perform quantum gates inparallel with the transfer, we employ dynamical decoupling schemes to focus andpreserve the spin state, leading to higher transfer fidelity.

Simultaneous Quantum Information Transfer and Quantum Operations in Quantum Dot Arrays Mediated by Spin-Orbit Interaction