A5011657849- Advancements in Battery Materials
- Advanced Battery Materials and Technologies
- Advanced Battery Technologies Research
- Supercapacitor Materials and Fabrication
- Additive Manufacturing and 3D Printing Technologies
- Advanced Sensor and Energy Harvesting Materials
- Advanced battery technologies research
- Graphene research and applications
- Dielectric materials and actuators
- Manufacturing Process and Optimization
- Carbon Nanotubes in Composites
- Thermal Expansion and Ionic Conductivity
- Conducting polymers and applications
- Photopolymerization techniques and applications
- MXene and MAX Phase Materials
- Bone Tissue Engineering Materials
- Advanced Materials and Mechanics
- 3D Printing in Biomedical Research
- Electrospun Nanofibers in Biomedical Applications
- Thermal properties of materials
- Advanced Cellulose Research Studies
- Advanced materials and composites
- Luminescence and Fluorescent Materials
- Electrocatalysts for Energy Conversion
- Polymer composites and self-healing
University of Delaware
2019-2025
Composite Components (Czechia)
2025
Hainan Medical University
2022-2024
Nanjing Drum Tower Hospital
2024
China Pharmaceutical University
2024
Beijing University of Chemical Technology
2024
Technical University of Munich
2023-2024
Southeast University
2023
Southwest University of Science and Technology
2022
Hebei University of Technology
2012-2021
Significance This work describes a flexible, solid-state, lithium-ion–conducting membrane based on 3D ion-conducting network and polymer electrolyte for lithium batteries. The is percolative garnet-type Li 6.4 La 3 Zr 2 Al 0.2 O 12 solid-state nanofibers, which enhance the ionic conductivity of at room temperature improve mechanical strength electrolyte. has shown superior electrochemical stability to high voltage effectively block dendrites. represents significant breakthrough enable performance
Strategy to change the wettability of solid-state electrolyte against Li and reduce interface resistance.
All-component 3D-printed lithium-ion batteries are fabricated by printing graphene-oxide-based composite inks and solid-state gel polymer electrolyte. An entirely full cell features a high electrode mass loading of 18 mg cm−2, which is normalized to the overall area battery. This all-component can be extended fabrication multidimensional/multiscale complex-structures more energy-storage devices. As service our authors readers, this journal provides supporting information supplied authors....
All-solid-state Li-batteries using solid-state electrolytes (SSEs) offer enhanced safety over conventional Li-ion batteries with organic liquid due to the nonflammable nature of SSEs. The superior mechanical strength SSEs can also protect against Li dendrite penetration, which enables use highest specific capacity (3861 mAh/g) and lowest redox potential (-3.04 V vs standard hydrogen electrode) anode: metal. However, contact between metal presents a major challenge, where large polarization...
Substantial efforts are underway to develop all‐solid‐state Li batteries (SSLiBs) toward high safety, power density, and energy density. Garnet‐structured solid‐state electrolyte exhibits great promise for SSLiBs owing its Li‐ion conductivity, wide potential window, sufficient thermal/chemical stability. A major challenge of garnet is that the contact between Li‐metal anodes poor due rigidity garnet, which leads limited active sites large interfacial resistance. This study proposes a new...
A solid electrolyte framework with porous and dense layers for high-energy safe Li-metal batteries.
Wood, an earth-abundant material, is widely used in our everyday life. With its mesoporous structure, natural wood comprised of numerous long, partially aligned channels (lumens) as well nanochannels that stretch along growth direction. This mesostructure suitable for a range emerging applications, especially membrane/separation material. Here, we report mesoporous, three-dimensional (3D) membrane decorated with palladium nanoparticles (Pd NPs/wood membrane) efficient wastewater treatment....
Transient technology is an emerging field that requires materials, devices, and systems to be capable of disappearing with minimal or non-traceable remains over a period stable operation. Electronics the capability disintegrating vanishing after operation are becoming interesting research topic have attracted increasing attentions. In recent years, transience has been extended intelligence applications, bioelectronics environmental monitoring systems, energy harvesters storage. Although...
Li metal anodes have attracted considerable research interest due to their low redox potential (-3.04 V vs standard hydrogen electrode) and high theoretical gravimetric capacity of 3861 mAh/g. Battery technologies using shown much higher energy density than current Li-ion batteries (LIBs) such as Li-O2 Li-S systems. However, issues related dendritic formation Coulombic efficiency prevented the use anode technology in many practical applications. In this paper, a thermally conductive...
Abstract Conventional bulky and rigid power systems are incapable of meeting flexibility breathability requirements for wearable applications. Despite the tremendous efforts dedicated to developing various 1D energy storage devices with sufficient flexibility, challenges remain pertaining fabrication scalability, cost, efficiency. Here, a scalable, low‐cost, high‐efficiency 3D printing technology is applied fabricate flexible all‐fiber lithium‐ion battery (LIB). Highly viscous polymer inks...
Space cooling is a predominant part of energy consumption in people's daily life. Although the whole building an effective way to provide personal comfort hot weather, it energy-consuming and high-cost. Personal technology, being able thermal by directing local heat thermally regulated environment, has been regarded as one most promising technologies for cost savings. Here, we demonstrate textile using conductive highly aligned boron nitride (BN)/poly(vinyl alcohol) (PVA) composite (denoted...
Abstract The solid‐state Li battery is a promising energy‐storage system that both safe and features high energy density. A main obstacle to its application the poor interface contact between solid electrodes ceramic electrolyte. Surface treatment methods have been proposed improve of electrolytes, but they are generally limited low‐capacity or short‐term cycling. Herein, an electron/ion dual‐conductive framework by partially dealloying Li–Mg alloy anode on garnet‐type serves as host during...
Garnet-type solid state electrolyte (SSE) is a promising candidate for high performance lithium (Li)-metal batteries due to its good stability and ionic conductivity. One of the main challenges garnet poor solid–solid contact between electrodes, which results in interfacial resistance, large polarizations, low efficiencies batteries. To address this challenge, work gel used as an interlayer electrodes improve their reduce resistance. The has soft structure, conductivity, wettability. Through...
The interface between solid electrolytes and Li metal is a primary issue for solid-state batteries. Introducing interlayer to conformally coat can improve the wettability of reduce interfacial resistance, but mechanism unknown. In this work, we used magnesium (Mg) as model investigate effect coating on resistance electrolyte anode. Li-Mg alloy has low overpotential, leading lower resistance. Our motivation understand how behaves at promote increased Li-metal surface Surprisingly, found that...
With their impressive properties such as remarkable unit tensile strength, modulus, and resistance to heat, flame, chemical agents that normally degrade conventional macrofibers, high-performance macrofibers are now widely used in various fields including aerospace, biomedical, civil engineering, construction, protective apparel, geotextile, electronic areas. Those with a diameter of tens hundreds micrometers typically derived from polymers, gel spun fibers, modified carbon carbon-nanotube...
Aligned carbon nanotube sheets provide an engineered scaffold for the deposition of a silicon active material lithium ion battery anodes. The are low-density, allowing uniform thin films while alignment allows unconstrained volumetric expansion silicon, facilitating stable cycling performance. flat sheet morphology is desirable construction.