A5100449327- Advanced Sensor and Energy Harvesting Materials
- Supercapacitor Materials and Fabrication
- Conducting polymers and applications
- Advancements in Battery Materials
- Organic Electronics and Photovoltaics
- Advanced battery technologies research
- Advanced Battery Materials and Technologies
- Advanced Photocatalysis Techniques
- Advanced Battery Technologies Research
- Perovskite Materials and Applications
- TiO2 Photocatalysis and Solar Cells
- Organic Light-Emitting Diodes Research
- Electrocatalysts for Energy Conversion
- Thin-Film Transistor Technologies
- Solar Thermal and Photovoltaic Systems
- Extraction and Separation Processes
- Hydraulic Fracturing and Reservoir Analysis
- Advanced Materials and Mechanics
- Dielectric materials and actuators
- Drilling and Well Engineering
- Phase Change Materials Research
- HVDC Systems and Fault Protection
- Catalytic Processes in Materials Science
- Neuroscience and Neural Engineering
- Nanowire Synthesis and Applications
Collaborative Innovation Center of Advanced Microstructures
2020-2025
Nanjing University
2015-2025
University of South China
2021-2025
Soochow University
2015-2025
Shanghai Electric (China)
2020-2025
China Southern Power Grid (China)
2018-2025
Zhejiang Lab
2024-2025
Xi'an Medical University
2025
Fudan University
2013-2024
Xi'an University of Science and Technology
2022-2024
A flexible and weaveable electric double-layer capacitor wire is developed by twisting two aligned carbon nanotube/ordered mesoporous composite fibers with remarkable mechanical electronic properties as electrodes. This exhibits high specific capacitance long life stability. Compared the conventional planar structure, also lightweight can be integrated into various textile structures that are particularly promising for portable wearable devices. As a service to our authors readers, this...
Abstract Single atom nonmetal 2D nanomaterials have shown considerable potential in cancer nanomedicines, owing to their intriguing properties and biocompatibility. Herein, ultrathin boron nanosheets (B NSs) are prepared through a novel top‐down approach by coupling thermal oxidation etching liquid exfoliation technologies, with controlled nanoscale thickness. Based on the PEGylated B NSs, new photonic drug delivery platform is developed, which exhibits multiple promising features for...
Antimonene (AM) is a recently described two-dimensional (2D) elemental layered material. In this study, novel photonic drug-delivery platform based on 2D PEGylated AM nanosheets (NSs) developed. The platform's multiple advantages include: i) excellent photothermal properties, ii) high drug-loading capacity, iii) spatiotemporally controlled drug release triggered by near-infrared (NIR) light and moderate acidic pH, iv) superior accumulation at tumor sites, v) deep penetration both extrinsic...
A stretchable wire-shaped lithium-ion battery is produced from two aligned multi-walled carbon nanotube/lithium oxide composite yarns as the anode and cathode without extra current collectors binders. The can be well paired to obtain a safe with superior electrochemical properties, such energy densities of 27 Wh kg(-1) or 17.7 mWh cm(-3) power 880 W 0.56 cm(-3), which are an order magnitude higher than reported for lithium thin-film batteries. These batteries flexible light, 97 % their...
An electrochromic fiber-shaped super-capacitor is developed by winding aligned carbon nanotube/polyaniline composite sheets on an elastic fiber. The supercapacitors demonstrate rapid and reversible chromatic transitions under different working states, which can be directly observed the naked eye. They are also stretchable flexible, woven into textiles to display designed signals in addition storing energy.
The fabrication of flexible, stretchable and rechargeable devices with a high energy density is critical for next-generation electronics. Herein, fiber-shaped Zn-air batteries, are realized the first time by designing aligned, cross-stacked porous carbon nanotube sheets simultaneously that behave as gas diffusion layer, catalyst current collector. combined remarkable electronic mechanical properties aligned endow good electrochemical properties. They display excellent discharge charge...
Abstract Wearable sensing technologies have received considerable interests due to the promising use for real‐time monitoring of health conditions. The part is typically made into a thin film that guarantees high flexibility with different materials as functional units at locations. However, thin‐film sensor easily breaks during because it cannot adapt soft or irregular body surfaces, and, moreover, not breathable comfortable wearable application. Herein, new and general strategy making...
Abstract The construction of lightweight, flexible and stretchable power systems for modern electronic devices without using elastic polymer substrates is critical but remains challenging. We have developed a new general strategy to produce both freestanding, stretchable, supercapacitors lithium‐ion batteries with remarkable electrochemical properties by designing novel carbon nanotube fiber springs as electrodes. These springlike electrodes can be stretched over 300 %. In addition, the...
Nitrogen-doping represents a general and effective method in adjusting the physical chemical properties of carbon nanomaterials. The recent progress synthesis nitrogen-doped nanomaterials their applications batteries are carefully discussed with focus on electrochemical properties.
Inspired by the fantastic and fast-growing wearable electronics such as Google Glass Apple iWatch, matchable lightweight weaveable energy storage systems are urgently demanded while remaining a bottleneck in whole technology. Fiber-shaped devices that can be woven into electronic textiles may represent general effective strategy to overcome above difficulty. Here coaxial fiber lithium-ion battery has been achieved sequentially winding aligned carbon nanotube composite yarn cathode anode onto...
Abstract Owing to the high theoretical energy density of metal–air batteries, aluminum–air battery has been proposed as a promising long‐term power supply for electronics. However, available from is far that anticipated and limited by current electrode materials. Herein we described creation new family all‐solid‐state fiber‐shaped batteries with specific capacity 935 mAh g −1 an 1168 Wh kg . The synthesis composed cross‐stacked aligned carbon‐nanotube/silver‐nanoparticle sheets contributes...
Spurred by recent progress in medicinal chemistry, numerous lead compounds have sprung up the past few years, although majority are hindered hydrophobicity, which greatly challenges druggability. In an effort to assess potential of platinum (Pt) candidates, nanosizing approach alter pharmacology hydrophobic Pt(IV) prodrugs discovery and development settings is described. The construction a self-assembled nanoparticle (NP) platform, composed amphiphilic lipid-polyethylene glycol (PEG) for...
It is highly desirable to develop flexible and efficient energy-storage systems for widely used wearable electronic products. To this end, fiber-shaped lithium-ion batteries (LIBs) attract increasing interest due their combined superiorities of miniaturization, adaptability, weavability, compared with conventional bulky planar structures. Recent advances in the fabrication, structure, mechanism, properties LIBs are summarized here, a focus on electrode material. Remaining challenges future...
Abstract Flexible lithium‐ion batteries are critical for the next‐generation electronics. However, during practical application, they may break under deformations such as twisting and cutting, causing their failure to work or even serious safety problems. A new family of all‐solid‐state flexible aqueous lithium ion that can self‐heal after breaking has been created by designing aligned carbon nanotube sheets loaded with LiMn 2 O 4 LiTi (PO ) 3 nanoparticles on a self‐healing polymer...
Abstract The lithium–air battery has been proposed as the next‐generation energy‐storage device with a much higher energy density compared conventional lithium‐ion battery. However, batteries currently suffer enormous problems including parasitic reactions, low recyclability in air, degradation, and leakage of liquid electrolyte. Besides, they are designed into rigid bulk structure that cannot meet flexible requirement modern electronics. Herein, for first time, new family fiber‐shaped high...
Stretchable lithium-ion batteries (LIBs) consisting of an arch structure and a stretchable anode cathode are developed using general strategy. The LIB maintains remarkable stable electrochemical performance after hundreds stretching cycles at strain 400%. Compared with other LIBs, which stretch the device level, but whose components (electrodes) remain rigid, component-level stretchability is here design key to LIB's highly performance.
Enhancing the p-orbital delocalization of a Bi catalyst (termed as POD-Bi) via layer coupling short inter-layer Bi-Bi bond facilitates adsorption intermediate *OCHO CO2 and thus boosts reduction reaction (CO2 RR) rate to formate. X-ray absorption fine spectroscopy shows that POD-Bi has shortened after catalysts are electrochemically reduced in situ from original BiOCl nanosheets. The on glassy carbon electrode exhibits record current density 57 mA cm-2 (twice state-of-the-art catalyst) at...
Supercapacitor fibers are rapidly produced in minutes by an integrated one-step fabrication process. This method is simple and efficient for large production. A variety of pseudocapacitive active materials including graphene oxide, metal conducting polymers can be incorporated. The resulting all-solid-state supercapacitor show remarkable energy-storage capabilities with both high power energy densities.