Research topic
Report
Detailed summary
The literature search found significant contributions to the experimental realizations of routing or shuttling trapped ions in three dimensions in quantum computing, particularly highlighted in references [1] and [2].
- [1] presents a high success rate in shuttling Mg$^{+}$ ions across multiple sites in a 3D trap-array, preserving qubit coherence during the process, which is critical for scalable quantum architectures.
- [2] introduces and simulates a novel ion trap design specifically for vertical (3D) ion shuttling, which underlines the practical implementation of 3D spatial control over ions during quantum operations.
- These findings address both the experimental validation and technological design aspects for 3D ion shuttling, serving as milestones in building operational three-dimensional quantum computing systems.
Categories of papers
Given the specified interest in experimental three-dimensional ion routing and shuttling in quantum computing architectures, it's essential to focus most prominently on studies that explicitly discuss these techniques with practical implementations and experimental results. Supporting this, secondary consideration can be given to works that delve into the relevant operating mechanisms and technologies that enable these 3D implementations, even if they do not focus on shuttling and routing directly.
Title 1: "Experimental Realizations of 3D Ion Shuttling in Quantum Computing" Description: This category includes papers that explicitly discuss the experimental methodologies and results related to the 3D routing or shuttling of trapped ions for quantum computing applications. References: [1, 2]
Title 2: "Technological Advancements for 3D Ion Trap Architectures" Description: Includes papers proposing or discussing three-dimensional trap designs and their feasibility, essential technologies for realizing intricate 3D architectures but not directly experimental routing or shuttling. References: [3, 12, 13, 14, 23, 24]
Title 3: "Contributions to Scalability and Coherence in 3D Ion Trapping" Description: This category covers studies that address key factors like decoherence and scalability in the context of 3D ion trapping relevant to quantum computing even if they don't focus on actual routing/shuttling. References: [5, 7, 21, 22]
Title 4: "Conceptual and Theoretical Insights into 3D Ion Dynamics and Shuttling" Description: Focuses on theoretical analyses, simulations, and frameworks that provide foundational understanding for 3D ion dynamics and shuttling, facilitating future experimental ventures. References: [8, 11]
These categories help streamline access to the most relevant studies while capturing the breadth of ongoing research efforts relevant to the development and operationalization of 3D ion routing/shuttling in quantum computing frameworks.