<p>In this paper, we present a comprehensive first-principles investigation of the electronic structure of vanadium nitride (VN) using density functional theory. To characterize the chemical bonding, we employ multiple complementary approaches: Electron localization function (ELF), crystal orbital Hamilton population (COHP), crystal orbital bond index (COBI) and Löwdin charge analysis. These results collectively demonstrate a predominantly ionic bonding between vanadium (V) and <b>n</b>itrogen (N) atoms. Analysis of the band structure, density of states (DOS), and Fermi surface topolog<b>y c</b>onfirms the metallic character of VN. The phonon spectrum confirms dynamical stability, with no imaginary frequencies across the Brillouin zone. The calculated superconducting critical temperature (<i>T</i>_c), based on the McMillan–Allen–Dynes formula, agrees well with experiment, supporting the conventional phonon-mediated BCS mechanism in VN. Thermoelectric calculations reveal that VN exhibits exceptional electrical conductivity (<i>σ</i>/τ ≈ 6.1 × 10²⁰ Ω⁻¹.m^− 1.s^− 1, combined with intriguing carrier-type switching behavior. Notably, the spin Hall conductivity (SHC) of the VN system is approximately 5000 (ħ/e)Ω^<b>−1</b>.cm^{<b>− 1</b>}, significantly exceeding that of noble metals such as Pt and other 4d/5d transition metals. This combination of high charge/spin conductivity and thermoelectric responsiveness positions VN as a promising candidate for spintronic-thermoelectric hybrid devices.</p>