Glasses in xV₂O₅–(100-x)P₂O₅ system within x range from 35 to 95 mol% are obtained by a melt-quenching method and characterized by X-ray powder diffraction, atomic emission spectroscopy and red-ox titration. The dependences of density and molar volume of glasses on V₂O₅ concentration are linear up to 90 mol% of vanadium oxide and can be expressed via formulas: ρ = 2.64 + 0.36·xV₂O₅ g cm⁻¹ and V_mol = 54.17 + 6.36·xV₂O₅ cm³ mol⁻¹. The electronic conductivity of glasses is measured by both impedance spectroscopy and direct current methods. The glass composition of 95V₂O₅·5P₂O₅ shows the highest electrical conductivity value of ~1.0 × 10⁻⁴ S cm⁻¹ at 50 °C. The concentration dependence of the conductivity is described at a qualitative level with non-constant force field molecular dynamics.

通过熔融猝灭法获得x V ₂ O ₅ –（100- x）P ₂ O ₅体系中x范围为35到95 mol％的玻璃，并通过X射线粉末衍射，原子发射光谱和红色荧光对玻璃进行表征。牛滴定。玻璃的密度和摩尔体积对V ₂ O ₅浓度的线性关系高达90 mol％的氧化钒，可以通过以下公式表示：ρ= 2.64 + 0.36· x V ₂ O ₅ g cm ^{- 1}和V _mol  = 54.17 + 6.36· x V₂ O ₅ cm ³  mol ^{- 1}。眼镜的电子电导率可通过阻抗光谱法和直流电法进行测量。的95V的玻璃组合物₂ ö ₅ ·5P ₂ ö ₅示出了〜1.0×10的最高电导率值^{- 4} 小号厘米^{- 1}在50℃下。电导率的浓度依赖性在定性水平下用非恒定力场分子动力学描述。