B. K. Sahoo

activity

20242026

most citedCabibbo-Kobayashi-Maskawa unitarity deficit reduction via finite nuclear size

8 citations · 9 across the 6 of their papers we have counts for

collaborators

Showing 2025 · physics.atom-phShow all

3 papers · 2 filters

physics.atom-ph2025★ 1 cited

Investigating the $4 D_{3/2} ∣3, \pm 2 ⟩$ -- $4 D_{5/2} ∣3, \pm 2 ⟩$ transition in Nb $^{4 +}$ for a THz atomic clock

Jyoti, A. Chakraborty, Zhiyang Wang +4

In this work, the $4 D_{3/2} ∣3, \pm 2 ⟩ \to 4 D_{5/2} ∣3, \pm 2 ⟩$ transition in the Nb $^{4 +}$ ion is identified as a promising candidate for a terahertz (THz) atomic cl…

physics.atom-ph2025

Precise Determination of Electric Quadrupole Moments and Isotope Shift Constants of Yb $^{+}$ in Pursuance of Probing Fundamental Physics and Nuclear Radii

B. K. Sahoo

Contemplating to register signature of a new vector boson unambiguously from the measured non-linear isotope shift (IS) effects in three recent experiments [Phys. Rev. X {\bf 12},…

physics.atom-ph2025

Application of General-order Relativistic Coupled-cluster Theory to Estimate Electric-field Response Clock Properties of Ca $^{+}$ and Yb $^{+}$

YanMei Yu, B. K. Sahoo

Accurate calculations of electric dipole polarizabilities ( $α_{d}$ ), quadrupole moments ( $Θ$ ), and quadrupole polarizabilities ( $α_{q}$ ) for the clock states of the singly charged calc…

Investigating the 4D3/2​∣3,±2⟩--4D5/2​∣3,±2⟩ transition in Nb4+ for a THz atomic clock

Precise Determination of Electric Quadrupole Moments and Isotope Shift Constants of Yb+ in Pursuance of Probing Fundamental Physics and Nuclear Radii

Application of General-order Relativistic Coupled-cluster Theory to Estimate Electric-field Response Clock Properties of Ca+ and Yb+

Investigating the $4 D_{3/2} ∣3, \pm 2 ⟩$ -- $4 D_{5/2} ∣3, \pm 2 ⟩$ transition in Nb $^{4 +}$ for a THz atomic clock

Precise Determination of Electric Quadrupole Moments and Isotope Shift Constants of Yb $^{+}$ in Pursuance of Probing Fundamental Physics and Nuclear Radii

Application of General-order Relativistic Coupled-cluster Theory to Estimate Electric-field Response Clock Properties of Ca $^{+}$ and Yb $^{+}$