隨著替代能源的發展，光學自旋電子器件的注入已針對環保應用進行了大幅嘗試，光學自旋電子將自旋光電子與分解水產氫結合為最強大和有前途的裝置，並研究表面電漿子共振（SPR）在自旋電子傳輸過程中的實際應用。在本文中，通過同時操作和有效控制半導體奈米結構中的自旋電流並結合光電子的自旋來分解水產氫。我們展示了一種全新自旋電子光電化學（SPEC）分解水產氫裝置，該裝置由金或銀奈米粒子（NPs）塗覆在TM：ZnO（TM：Fe，Co）奈米棒（NRs）上形成，並在相干ħ/ −ħ角動量圓偏振光照射下產生自旋電子表面電漿子共振能量轉移。此外，自旋注入表示為在半導體中透過光學和電路兩種路徑去調節自旋電子在界面上的傳輸過程。利用相干ħ/ −ħ角動量圓偏振光照射Au / Fe：ZnO 奈米棒並透過自旋電子表面電漿子共振能量轉移來獲得自旋電子光電化學分解水產氫效率和最大產氫量分別增強為188.36％和1.83×10-3 L / s·m2，比純ZnO奈米棒的分解水產氫效率高約5倍。另一方面，自旋電子也阻止了表面電漿子共振的熱電子傳遞，並在自旋電子光電化學分解水產氫效率的增強中展示了自旋-表面電漿子-電子相互作用中兩個量子位的量子糾纏。在研究中，具有兩個量子位的系統中代表著四個不同位元的任意疊加，這是首次利用量子力學現象來提高自旋電子光電化學分解水產氫效率。最後，我們提供了一種新的方法來挑戰強自旋-表面電漿子-電子相互作用的實用性，並已實現自旋電子技術應用在現實生活的重要里程碑。

The injection of optical spintronics in semiconductors is a prospect issue as the development of renewable energy application. The spintronics integrating spin-hydrogen generation is the most strong and hopeful device to aim how the utility of surface plasmon resonance (SPR) affects the spintronics transport processes from practical applications. In the study, the effective modulation the spin photocurrent in device by integrating spin-hydrogen generation. We reveal a spintronic-photoelectrochemical (SPEC) hydrogen evolution device composed of gold or silver NPs (nanoparticles) coated on TM:ZnO (TM: Fe, Co) NRs (nanorods) to generate spintronic SPR resonance energy transfer under the circular polarization light of coherent ħ / −ħ radiation. Furthermore, the spin injection is shown in semiconductors through optical and electrical paths to modulate spintronic transport processes across the interface. The SPEC hydrogen evolution efficiency and corresponding maximum hydrogen generation of Au/Fe:ZnO NRs under the circular polarization light of coherent ħ / −ħ radiation are successfully improved up to 188.76% and 1.83×10-3 L/s·m2, respectively, by utilization with the spintronic SPR resonance energy transfer, about five of times as big as pure ZnO NRs. On the other hand, the spintronic also prevent the SPR hot electrons transfer and shows the quantum entanglement of the two qubits during spin-plasmon-electron interactions in the increasement of the SPEC hydrogen evolution efficiency. Here we report the device exploit quantum-mechanical phenomena have 2-Qubits Multiple Superimpose to enhance SPCE hydrogen evolution efficiency. Finally, we supply a new way to challenge the practicality of the strong spin-plasmon-electron interactions and has applied these techniques to achieve an important milestone for developing spintronics to real life.

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