Authors :
Debopam Ghosh
Volume/Issue :
Volume 8 - 2023, Issue 12 - December
Google Scholar :
http://tinyurl.com/u9hmebej
Scribd :
http://tinyurl.com/4963bu4x
DOI :
https://doi.org/10.5281/zenodo.10374569
Abstract :
The research article presents a mathematical
framework for calculation of arithmetic mean and
associated standard deviation of a set of replicate
measurements, based on assignment of data point
weightage as diagonal entries of the Density matrix
descriptions generated from the set of data points under
consideration. The framework presented provides
flexibility in choice of the assigned weightage
distributions by allowing for evolution of these weightage
contributions under the effect of completely positive
trace preserving transformations implemented through
Unitary Quantum de-coherence channels [1, 8, 10, 11, 12,
14, 15, 17]. The presented formulation contains the
conventional calculation procedure as a special case
which involve the tuning parameter ‘θ’ being set equal to
zero. Numerical case studies presented in the paper
provide appropriate illustration of the mathematical
constructs and terminology introduced.
Keywords :
Arithmetic mean and Standard deviation of a set of measurements, Density Matrix description associated with mathematical constructs, Completely Positive Trace Preserving transformations, Kraus operators, Quantum Channels and Quantum de-coherence, Obliqueness factor associated with mean-variance partitioning of a set of measurements.
The research article presents a mathematical
framework for calculation of arithmetic mean and
associated standard deviation of a set of replicate
measurements, based on assignment of data point
weightage as diagonal entries of the Density matrix
descriptions generated from the set of data points under
consideration. The framework presented provides
flexibility in choice of the assigned weightage
distributions by allowing for evolution of these weightage
contributions under the effect of completely positive
trace preserving transformations implemented through
Unitary Quantum de-coherence channels [1, 8, 10, 11, 12,
14, 15, 17]. The presented formulation contains the
conventional calculation procedure as a special case
which involve the tuning parameter ‘θ’ being set equal to
zero. Numerical case studies presented in the paper
provide appropriate illustration of the mathematical
constructs and terminology introduced.
Keywords :
Arithmetic mean and Standard deviation of a set of measurements, Density Matrix description associated with mathematical constructs, Completely Positive Trace Preserving transformations, Kraus operators, Quantum Channels and Quantum de-coherence, Obliqueness factor associated with mean-variance partitioning of a set of measurements.