Quantum mechanics, through the Heisenberg uncertainty principle, imposes limits on the precision of measurement. Conventional measurement techniques typically fail to reach these limits. Conventional bounds to the precision of measurements such as the shot noise limit or the standard quantum limit are not as fundamental as the Heisenberg limits and can be beaten using quantum strategies that employ "quantum tricks" such as squeezing and entanglement
Quantum-enhanced measurements use quantum mechanical effects to enhance the sensitivity of the measu...
These lectures will focus on quantum metrology, which aims to determine the ultimate precision limit...
The role of the Uncertainty Principle is examined through the examples of squeezing, information cap...
Quantum mechanics, through the Heisenberg uncertainty principle, imposes limits on the precision of ...
Two generalizations of a known approach to the joint measurement of position and momentum to the joi...
The accuracies of measurements of almost all fundamental physical constants have increased by factor...
Questions about quantum limits on measurement precision were once viewed from the perspective of how...
A common knowledge suggests that trajectories of particles in quantum mechanics always have quantum ...
For the last 20 years, the question of what are the fundamental capabilities of quantum precision me...
In quantum mechanics, the Heisenberg uncertainty relations and the Cramer-Rao inequalities typically...
As an essential intermediary between theories and their experimental proofs, measurement is meaningf...
We point out a general framework that encompasses most cases in which quantum effects enable an incr...
We point out a general framework that encompasses most cases in which quantum effects enable an incr...
The statistical error in any estimation can be reduced by repeating the measurement and averaging th...
In quantum mechanics, the Heisenberg uncertainty relations and the Cramer-Rao inequalities typically...
Quantum-enhanced measurements use quantum mechanical effects to enhance the sensitivity of the measu...
These lectures will focus on quantum metrology, which aims to determine the ultimate precision limit...
The role of the Uncertainty Principle is examined through the examples of squeezing, information cap...
Quantum mechanics, through the Heisenberg uncertainty principle, imposes limits on the precision of ...
Two generalizations of a known approach to the joint measurement of position and momentum to the joi...
The accuracies of measurements of almost all fundamental physical constants have increased by factor...
Questions about quantum limits on measurement precision were once viewed from the perspective of how...
A common knowledge suggests that trajectories of particles in quantum mechanics always have quantum ...
For the last 20 years, the question of what are the fundamental capabilities of quantum precision me...
In quantum mechanics, the Heisenberg uncertainty relations and the Cramer-Rao inequalities typically...
As an essential intermediary between theories and their experimental proofs, measurement is meaningf...
We point out a general framework that encompasses most cases in which quantum effects enable an incr...
We point out a general framework that encompasses most cases in which quantum effects enable an incr...
The statistical error in any estimation can be reduced by repeating the measurement and averaging th...
In quantum mechanics, the Heisenberg uncertainty relations and the Cramer-Rao inequalities typically...
Quantum-enhanced measurements use quantum mechanical effects to enhance the sensitivity of the measu...
These lectures will focus on quantum metrology, which aims to determine the ultimate precision limit...
The role of the Uncertainty Principle is examined through the examples of squeezing, information cap...