The phrase "accurate values for the" is correct and usable in written English.
You can use it when discussing the importance of precision in data or measurements in various contexts, such as scientific research, statistics, or financial analysis.
Example: "In order to make informed decisions, we need to ensure that we have accurate values for the data we are analyzing."
Alternatives: "precise figures for the" or "correct data for the".
The successful measurement of stellar parallaxes gave for the first time accurate values for the distances of stars other than the Sun.
Later Greek astronomers, especially Hipparchus and Ptolemy, refined Aristarchus's methods and arrived at very accurate values for the size and distance of the Moon.
His observations from South Africa of the Moon, Venus, and Mars, in conjunction with similar observations already made in the Northern Hemisphere, led to the calculation of more accurate values for the distances of these bodies.
This implies that accurate values for the molecular second-order hyperpolarizability γ have to be available.
Accurate values for the concentration profiles and current are obtained with minimal computational effort.
More accurate values for the dielectric permittivity of different wetland sediments have been calculated, allowing the response of GPR in wetland contexts to be predicted.
Determining accurate values for these parameters is inconsequential to the behavior of the biochemical reaction system at hand.
Gerald Gabrielse of Harvard University and colleagues used quantum electrodynamics the theory that describes the electromagnetic interaction between electrically charged particles and an experiment based on observations of an electron in a single-electron cyclotron to determine a more accurate value for the fine-structure constant.
Simulation based algorithms are often used to calculate an accurate value for the system reliability of complex systems.
A more accurate value for the Hubble constant could also aid researchers who are searching for dark energy and dark matter, the mysterious components of the universe that remain invisible to Earthbound instruments.
