
Georgiy Zemlevskiy developed and delivered the Classical Shadows for Quantum State Prediction feature in the Classiq/classiq-library repository, focusing on scalable quantum state estimation. He implemented an end-to-end data acquisition and prediction pipeline using Python, applying advanced data analysis and quantum computing concepts. His approach enabled more accurate modeling and evaluation of quantum circuits, supporting faster design iterations and improved confidence in downstream decisions. Throughout the month, Georgiy maintained code quality and collaborated via git-based workflows, demonstrating depth in both technical implementation and repository maintenance. The work addressed the challenge of efficient quantum state prediction, enhancing the library’s predictive capabilities.

December 2025 monthly summary for the Classiq/classiq-library work stream. Key feature delivered: Classical Shadows for Quantum State Prediction, implementing end-to-end data acquisition and prediction methodologies. This work provides a scalable approach to estimating quantum states, enabling more accurate modeling and evaluation of quantum circuits. No major bugs reported this month; ongoing maintenance and code quality improvements were performed. Overall impact: enhances predictive capabilities for quantum state estimation, enabling faster design iterations, improved modeling, and stronger confidence in downstream decision-making. Technologies/skills demonstrated: quantum computing concepts, implementation of classical shadows, data acquisition pipelines, prediction model development, git-based collaboration and repository maintenance.
December 2025 monthly summary for the Classiq/classiq-library work stream. Key feature delivered: Classical Shadows for Quantum State Prediction, implementing end-to-end data acquisition and prediction methodologies. This work provides a scalable approach to estimating quantum states, enabling more accurate modeling and evaluation of quantum circuits. No major bugs reported this month; ongoing maintenance and code quality improvements were performed. Overall impact: enhances predictive capabilities for quantum state estimation, enabling faster design iterations, improved modeling, and stronger confidence in downstream decision-making. Technologies/skills demonstrated: quantum computing concepts, implementation of classical shadows, data acquisition pipelines, prediction model development, git-based collaboration and repository maintenance.
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