Unveiling the potential of nanosheet-based NiTe₂@MnTe hollow nanospheres in hybrid supercapacitor technology

Abstract

Nanosheets constructed NiTe2@MnTe hollow nanospheres are synthesized for hybrid supercapacitor.

One-Step Solid Phase Synthesis of NiCo2Se4/Carbon Nanotube Nanocomposites for Hybrid Supercapacitors and Sodium-Ion Batteries

“…The peaks at binding energies of 855.2 and 874.8 eV correspond to the Ni 2p3/2 and Ni 2p1/2. The broad peaks around 861 and 879.9 eV correspond to the satellite peaks of Ni. − Figure c presents the high-resolution XPS spectra of the Co 2p orbit, with peaks at binding energies of 778.5 and 793.7 eV corresponding to the Co 2p3/2 and Co 2p1/2 orbitals of Co 3+ , respectively, and those at binding energies of 781.5 and 797.5 eV attributed to the Co 2p3/2 and Co 2p1/2 orbitals of Co 2+ . The broad peaks around 785.7 and 802.3 eV represent the satellite peaks of Co. , For the Se 3d orbit (Figure d), peaks at binding energies of 54.3 and 55.3 eV correspond to the Se 3d 5/2 and Se 3d 3/2 orbitals, indicating the presence of metal–selenium bonds.…”

Review of Battery-type Transition Metal (Cu, Co, and Ni) Oxide Based Electrodes: From Fundamental Science to Fabrication of a Hybrid Supercapacitor Device

“…Davarani et al recently developed mixed metal (Ni, Mn) tellurite, (Mn, Co) sulfide, and (Cu, Ni) phosphides and played around with their synergistic interactions to deliver exceptional electrochemical properties. The devices showed a great rate capability along with high stability. − …”

Exploring the potential of CuCoFeTe@CuCoTe yolk-shelled microrods in supercapacitor applications

“…16,17 They offer high electronic conductivity, diverse valences, and remarkable electrochemical activities, making them suitable for supercapacitors, batteries, and even catalysts. [26][27][28] Bimetal tellurides show enhanced electrochemical activity due to richer redox reactions and faster electronic conduction. 27,28 Furthermore, trimetal tellurides are anticipated to exhibit even better electrical conductivity and performance due to their synergistic effects and more flexible structures.…”

“…[26][27][28] Bimetal tellurides show enhanced electrochemical activity due to richer redox reactions and faster electronic conduction. 27,28 Furthermore, trimetal tellurides are anticipated to exhibit even better electrical conductivity and performance due to their synergistic effects and more flexible structures. 17 Iron (Fe)-based materials have gained attention for supercapacitors thanks to their abundant availability and rich redox chemistry.…”