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We carried out the measurements of magnetoresistance, magnetic susceptibilityand specific heat on crystals of the low-dimensional transition metal tellurideTa$_4$Pd$_3$Te$_{16}$. Our results indicate that Ta$_4$Pd$_3$Te$_{16}$ is ananisotropic type-II superconductor with the extracted Ginzburg-Landau parameter$\kappa_{\text{GL}}=$ 84. The upper critical field $H_{c2}$($T$) shows a lineardependence at low temperature and the anisotropy of $H_{c2}$($T$) is strongly$T$-dependent, both of which indicate a multiband scenario. A detailed analysisreveals that the electronic specific heat $C_{\text{el}}$($T$) can beconsistently described by a two-gap ($s$+$d$ waves) model from the basetemperature $T/T_c\sim$ 0.12 up to $T_c$. Our data suggests multibandsuperconductivity in Ta$_4$Pd$_3$Te$_{16}$ with anisotropic gap structure.

Multiband superconductivity in Ta$_4$Pd$_3$Te$_{16}$ with anisotropic gap structure