SIMANRAJ SADANA

• Received SQMS grant from Fermilab, Chicago for conducting theoretical research in Quantum Information Science.
• Developed Quantum algorithms and designed circuits to test fundamental postulates of Quantum mechanics on quantum computers.
• Successfully tested the aforementioned theoretical research on real quantum computers provided by Rigetti.
• Demonstrated effects of noises on efficacy of quantum computers in exhibiting quantum behaviour. The noise-models used were provided by IBM's Qiskit platform.
• Collaborated with experimentalists working on search of Dark-matter (Axions) and its acceleration by harnessing Quantum Sensing. (in progress)
• Demonstrated that postulates of quantum mechanics can be derived using more fundamental concepts like optimizing Fisher information.
• Successfully completed USQIS Summer School at SQMS Center, Fermilab, Chicago with specialization in Quantum software, algorithms, applications.
• QSail conference in Italy held in May 2023. Lead a working group that worked on the idea of using Artificial Intelligence to detect Entangled Quantum States and also develop generative AI to design Quantum Circuits.
• SQMS conference in Padova held in January 2023: Highlighted the use of Quantum Sensing to optimize measurements of small displacements in an optical cavity specifically for Dark matter search experiments.
• Gathered and organized information for research purposes.

• Established quantitative relation between classical statistical correlations and measures of Quantum entanglement for a class of Quantum states useful for tracking entanglement in Quantum communications.
• Proposed and demonstrated the use of classical correlations to witness Bound-entangled quantum states.
• Collaborated with multiple theoretical groups and experimental labs.
• Wrote scientific papers published in academic journals.

• Conducted theoretical research in the fields of quantum optics and quantum information.
• Developed an innovative theoretical framework enabling higher-dimensional quantum computation using diffraction-based techniques.
• Collaborated with experimental physicists to validate and practically implement quantum information and computation theories.
• Formulated semi-classical models that enhanced the understanding of the boundary between classical and quantum behavior of light.
• Designed, simulated, and actively participated in hands-on experimental work, gaining practical insights into complex quantum systems.
• Applied rigorous statistical analysis techniques to experimental data, ensuring robust and reliable conclusions.
• Successfully published research findings in prestigious international journals with high impact factors.
• Presented research outcomes at numerous national and international conferences, contributing to the advancement of quantum research.
• Visiting researcher at the Institute of Quantum Science and Technology, University of Calgary, Canada.
• Awarded a full scholarship from the prestigious Queen Elizabeth II Diamond Jubilee Scholarship in support of the research endeavor.
• Contributed to research and data analysis within Quantum optics landscape.
• Analyzed acquired information and presented to professors.
• Coordinated with faculty members to develop course syllabi and materials.
• Updated departmental websites and social media accounts with relevant, engaging content.
• Led weekly seminars to discuss research findings and build ideas to progress projects.
• Presented relevant topics to graduate students for increased subject engagement.
• Built and maintained professional relationships with students and faculty members.
• Taught small groups of students focused on specific parts of coursework.

Queen Elizabeth II Diamond Jubilee Scholarship Simanraj Sadana