Alloying strategies have proven effective in enhancing the properties of metallic materials.However,conventional alloying strategies face significant limitations in preparing nanoscale multi-alloys and continuous opti...Alloying strategies have proven effective in enhancing the properties of metallic materials.However,conventional alloying strategies face significant limitations in preparing nanoscale multi-alloys and continuous optimizing surface-active sites.High-entropy alloys(HEAs)display a broader spectrum of unique properties due to their complex electron distribution and atomic-level heterogeneity arising from the stochastic mixing of multiple elements,which provides a diverse array of binding sites and almost continuous distribution of binding energies.This review aims to summarize recent research advancements in synthesis strategies and multi-field applications of nanoscale HEAs.It emphasizes several commonly employed synthesis strategies and significant challenges in synthesizing nanoscale HEAs.Finally,we present a comprehensive analysis of the advantages of HEAs for multi-field applications,emphasizing significant application trends related to nanosizing and multidimensionalization to develop more efficient nanoscale HEAs.展开更多
One-dimensional perovskites possess unique photoelectric properties that distinguish them from other perovskitetypes, making them a focal point in photoelectric research. In recent years, there has been a significant ...One-dimensional perovskites possess unique photoelectric properties that distinguish them from other perovskitetypes, making them a focal point in photoelectric research. In recent years, there has been a significant surge ininterest surrounding the synthesis and application of one-dimensional anisotropic perovskites, spurred by ad-vancementsin synthesis techniques and notable breakthroughs in novel methodologies and application proper-ties.This article provides a comprehensive review of the progress made in research on one-dimensionalanisotropic perovskites, detailing the synthesis mechanisms and potential pathways for performance enhance-mentin various applications. We highlight the crucial role of controllable synthesis and heterogeneous effect intailoring perovskite properties to boost application efficacy. Initially, this review examines the primary synthesismethods and mechanisms for creating heterogeneously induced one-dimensional anisotropic perovskites, cate-gorizingthem into two main approaches: the classical wet chemical synthesis, which utilizes selective ligands, andthe ligand-free, substrate-assisted method. The precision in controllable synthesis is essential for fabricatingheterogeneous structures, where the synthesized precursor, shape, and surface ligand significantly influence theinterfacial strength of the heterogenic interface. We also discuss the key features that must be improved for high-performanceapplications, exploring how heterogeneous effects can enhance performance and drive the devel-opmentof heterogeneous devices in various applications, such as photodetectors, solar cells, light-emitting di-odes,and photocatalysis. Conclusively, by highlighting the emerging potential and promising opportunitiesoffered by strategic heterogeneous construction, we forecast a dynamic and transformative future for their pro-ductionand application landscapes.展开更多
Device fabrication is increasing with the importance of functional materials for industrial applications.To fulfil increasing demands,rare earth elementbased materials have become important.In particular,lanthanum(La)...Device fabrication is increasing with the importance of functional materials for industrial applications.To fulfil increasing demands,rare earth elementbased materials have become important.In particular,lanthanum(La) and La-based materials have garnered attention in recent years due to their versatile properties and wide range of potential applications.This critical review provides a comprehensive overview of the advancements in the utilization of La and its compounds across various fields.In the realm of sensing and biosensing,La-based materials exhibit better sensitivity and selectivity,indicating their suitability for detecting environmental pollutants and biomolecules.The review also explores their role in supercapacitors,where their unique electrochemical properties contribute to enhanced performance and stability.Furthermore,the catalytic properties of La compounds are highlighted in water-splitting applications,emphasizing their efficiency in oxygen and hydrogen production.The biomedical applications of Labased materials are also examined,focusing on their biocompatibility and potential in drug delivery and medical imaging.This review aims to provide a critical analysis of the current state of research,identify challenges,and suggest future directions for the development and application of La and La-based materials in these diverse fields.展开更多
Lignin-based graphene quantum dots(L-GQDs)serve as a bridge between renewable biomass resources and functional carbon materials.This review begins with the molecular structure of lignin,exploring various synthesis met...Lignin-based graphene quantum dots(L-GQDs)serve as a bridge between renewable biomass resources and functional carbon materials.This review begins with the molecular structure of lignin,exploring various synthesis methods for L-GQDs.The precise elucidation of precursor-structure–property relationships could optimize their performance through the quantitative regulation of lignin unit properties and enable controllable synthesis.We elaborate on the photoluminescence mechanisms and fluorescence modulation strategies of L-GQDs,covering aspects such as structural design,synthesis pathways,and photophysical property optimization.Additionally,the review discusses the application prospects of L-GQDs in biology,energy conversion,and optoelectronics,and highlights the importance of synergistically aligning synthesis strategies with practical on-demand applications.We also propose that research paradigm should focus on in-situ unveiling of nucleation kinetics during L-GQDs formation,photoluminescence mechanism decoding,toxicity regulation to enable green,sustainable and multidisciplinary cutting-edge applications.展开更多
Atomically precise metal nanoclusters are an emerging type of nanomaterial which has diverse interfacial metal-ligand coordination motifs that can significantly affect their physicochemical properties and functionalit...Atomically precise metal nanoclusters are an emerging type of nanomaterial which has diverse interfacial metal-ligand coordination motifs that can significantly affect their physicochemical properties and functionalities.Among that,Cu nanoclusters have been gaining continuous increasing research attentions,thanks to the low cost,diversified structures,and superior catalytic performance for various reactions.In this review,we first summarize the recent progress regarding the synthetic methods of atomically precise Cu nanoclusters and the coordination modes between Cu and several typical ligands and then discuss the catalytic applications of these Cu nanoclusters with some explicit examples to explain the atomical-level structure-performance relationship.Finally,the current challenges and future research perspectives with some critical thoughts are elaborated.We hope this review can not only provide a whole picture of the current advances regarding the synthesis and catalytic applications of atomically precise Cu nanoclusters,but also points out some future research visions in this rapidly booming field.展开更多
Covalent organic frameworks(COFs)are crystalline porous polymeric materials composed of organic monomers connected by strong covalent bonds and offer high stability,good crystallinity,a large specific surface area,and...Covalent organic frameworks(COFs)are crystalline porous polymeric materials composed of organic monomers connected by strong covalent bonds and offer high stability,good crystallinity,a large specific surface area,and controllable structures.COFs are widely used in the fields of adsorption and separation,catalysis,photovoltaics,and drug-delivery.The structural regulation and performance optimization of COFs can be realized through the modification of ligands and the selection of linkage methods.In which,the types of linkage are closely related to the stability and performance of COFs.In this review,nitrogencontaining linkage-bonds(NCLBs)in COFs are divided into N-containing double bonds,N-containing conjugated rings and N-containing unconjugated rings.The association between structure and performance of COFs is elaborated and the synthesis methods of COFs are systematically summarized.Moreover,the structural design,theoretical prediction and machinable application of COFs are prospected.展开更多
Microbial fabrication of metal nanoparticles(MNPs)has received significant attention due to the advantages of low toxicity,energy efficiency and ecological safety.Diverse groups of MNPs can be synthesized intracellula...Microbial fabrication of metal nanoparticles(MNPs)has received significant attention due to the advantages of low toxicity,energy efficiency and ecological safety.Diverse groups of MNPs can be synthesized intracellularly or extracellularly by various wild-type microorganisms,including bacteria,fungi,algae and viruses.Synthetic biology approaches,represented by genetic engineering,have been applied to overcome the shortcomings in productivity,stability,and controllability of biosynthetic MNPs.Scanning electron microscope(SEM),transmission electron microscope(TEM)and other characterization techniques assist in deciphering their unique properties.In addition,biosynthetic MNPs have been widely explored for the utilization in environmental remediation and contaminant detection.And machine learning contains a great potential for designing targeted MNPs and predicting their toxicity.This review provides a comprehensive overview of the research progress in the microbial synthesis of MNPs.An outlook on the current challenges and future prospects in the biologically controllable synthesis and engineering environmental applications of MNPs is also provided in this review.展开更多
Thanks to their remarkable mechanical, electrical, thermal, and barrier properties, graphene-based nanocomposites have been a hot area of research in the past decade. Because of their simple top-down synthesis, graphe...Thanks to their remarkable mechanical, electrical, thermal, and barrier properties, graphene-based nanocomposites have been a hot area of research in the past decade. Because of their simple top-down synthesis, graphene oxide (GO) and reduced graphene oxide (rGO) have opened new possibilities for gas barrier, membrane separation, and stimuli-response characteristics in nanocomposites. Herein, we review the synthesis techniques most commonly used to produce these graphene derivatives, discuss how synthesis affects their key material properties, and highlight some examples of nanocomposites with unique and impressive properties. We specifically highlight their performances in separation applications, stimuli-responsive materials, anti-corrosion coatings, and energy storage. Finally, we discuss the outlook and remaining challenges in the field of practical industrial-scale production and use of graphene-derivative-based polymer nanocomposites.展开更多
Synthesis of magnetic nanoparticles （MNPs） is one of the most active research areas in advanced materials. MNPs that have magnetic properties and other functionalities have been demonstrated to show great promise in...Synthesis of magnetic nanoparticles （MNPs） is one of the most active research areas in advanced materials. MNPs that have magnetic properties and other functionalities have been demonstrated to show great promise in nanomedical applications. This review summarizes the current MNPs preparation, functionalization and stabilization methods. It also analyzes the detailed features of MNPs. And furthermore it highlights some actual case analyses of these MNPs for disease therapy, drug delivery, hyperthermia, bioseparation and bioimaging applications.展开更多
The helical structures possess unique physical and chemical properties,such as superelasticity,high specific strength,chirality,and electromagnetic cross-polarization characteristics.With the development of nanoscienc...The helical structures possess unique physical and chemical properties,such as superelasticity,high specific strength,chirality,and electromagnetic cross-polarization characteristics.With the development of nanoscience and nanotechnology,helical structures with various scales have been discovered or synthesized artificially.Among them,the helical carbon materials receive much attention around the world.Herein,we present a brief review of the development of helical carbon materials in terms of structures,synthesis techniques and mechanisms,and applications.The controllable designing of catalysts,carbon sources and reaction parameters plays a key role to optimize the properties of the helical carbon materials.At the same time,the applications in microwave absorption devices,sensors,catalysts,energy conversions and storage devices,and solar cell are also presented.For the good chemical and physical properties,helical carbon materials have a good application prospect in many fields.The potential issues and future opportunities of the helical carbon materials are also proposed.展开更多
Iron oxide nanoparticles are the most popular magnetic nanoparticles used in biomedical applications due to their low cost, low toxicity, and unique magnetic property. Magnetic iron oxide nanoparticles, including magn...Iron oxide nanoparticles are the most popular magnetic nanoparticles used in biomedical applications due to their low cost, low toxicity, and unique magnetic property. Magnetic iron oxide nanoparticles, including magnetite （Fe304） and maghemite （γ-Fe203）, usually exhibit a superparamagnetic property as their size goes smaller than 20 nm, which are often denoted as superparamagnetic iron oxide nanoparticles （SPIONs） and utilized for drug delivery, diagnosis, therapy, and etc. This review article gives a brief introduction on magnetic iron oxide nanoparticles in terms of their fundamentals of magnetism, magnetic resonance imaging （MRI）, and drug delivery, as well as the synthesis approaches, surface coating, and application examples from recent key literatures. Because the quality and surface chemistry play important roles in biomedical applications, our review focuses on the synthesis approaches and surface modifications of iron oxide nanopar- ticles. We aim to provide a detailed introduction to readers who are new to this field, helping them to choose suitable synthesis methods and to optimize the surface chemistry of iron oxide nanoparticles for their interests.展开更多
Graphene and carbon nanotube(CNT) are representative carbon nanomaterials which have aroused numerous research interest due to their extraordinary material properties and promising application potentials,especially in...Graphene and carbon nanotube(CNT) are representative carbon nanomaterials which have aroused numerous research interest due to their extraordinary material properties and promising application potentials,especially in the energy storage and conversion areas.However,the agglomeration happening in these materials has largely blocked their applications.Hybridization of CNT with graphene can,on one hand,prevent the agglomeration behavior,on the other hand,generate a synergistic effect between them with enhanced physical and chemical properties.There have been many studies conducted to find out the suitable approaches to synthesize graphene/CNT composites,and realize the application potentials of these structures.Based on the recent advances,this paper reviews the current research progress that has been achieved in synthesizing graphene/CNT composites,and the energy-related applications.Through this review,we aim at stimulating more significant research on this subject.展开更多
Incorporation of heteroatoms into the framewo rk of zeolites has become a significant strategy to improve their performance in catalysis and adsorption,because the obtained heteroatom zeolites exhibit quite different ...Incorporation of heteroatoms into the framewo rk of zeolites has become a significant strategy to improve their performance in catalysis and adsorption,because the obtained heteroatom zeolites exhibit quite different properties from the conventional aluminosilicate zeolites in aspects of surface acidity,pore structures,particle size and so on.In this review,the progress on the heteroatom zeolites including their synthesis and application is highlighted.First,the recent advance on the design and synthesis of different heteroatom zeolites is summarized.Special emphasis is placed on the introduction and comparison of three typical methods,including the direct synthesis,post synthesis and improved direct synthesis,for the traditional heteroatom zeolites(such as TS-1,Sn-MFI,Sn-β) and newly-reported heteroatom zeolites(such as W-MFI,Mo-MFI).According to their intrinsic characteristics,the application of heteroatom zeolites in diverse fields,such as production of fine chemicals,air pollution control and biomass conversion is then discussed.Finally,the challenges and perspective on the future development of heteroatom zeolites in low-cost preparation and practical application are proposed.展开更多
Ammonium dinitramide(ADN)is considered as a potential substitute for ammonium perchlorate in energetic materials due to its high density,positive oxygen balance,and halogen-free characteristics.However,its application...Ammonium dinitramide(ADN)is considered as a potential substitute for ammonium perchlorate in energetic materials due to its high density,positive oxygen balance,and halogen-free characteristics.However,its application has been severely limited because of its strong hygroscopicity,difficult storage,and incompatibility with isocyanate curing agents.In order to better bloom the advantages of the highly energetic and environment-friendly ADN in the fields of energetic materials,an in-depth analysis of the current situation and discussion of key research points are particularly important.In this paper,a detailed overview on the synthesis,thermal decomposition,hygroscopic mechanism,and antihygroscopicity of ADN has been discussed,its application in powdes and explosives are also presented,and its future research directions are proposed.展开更多
Nitrogen-doped（N-doped） graphene has attracted increasing attentions because of the significantly enhanced properties in physic, chemistry, biology and material science, as compared with those of pristine graphene. ...Nitrogen-doped（N-doped） graphene has attracted increasing attentions because of the significantly enhanced properties in physic, chemistry, biology and material science, as compared with those of pristine graphene. By date, N-doped graphene has opened up an exciting new field in the science and technology of two-dimensional materials. From the viewpoints of chemistry and materials, this article presents an overview on the recent progress of N-doped graphene, including the typical synthesis methods, characterization techniques, and various applications in energy fields. The challenges and perspective of Ndoped graphene are also discussed. We expect that this review will provide new insights into the further development and practical applications of N-doped graphene.展开更多
A growing family of two-dimensional(2D)transition metal carbides or nitrides,known as MXenes,have received increasing attention because of their unique properties,such as metallic conductivity and good hydrophilicity....A growing family of two-dimensional(2D)transition metal carbides or nitrides,known as MXenes,have received increasing attention because of their unique properties,such as metallic conductivity and good hydrophilicity.The studies on MXenes have been widely pursued,given the composition diversity of the parent MAX phases.This review focuses on MXene fi lms,an important form of MXene-based materials for practical applications.We summarized the synthesis methods of MXenes,focusing on emerging synthesis strategies and reaction mechanisms.The advanced assembly technologies of MXene fi lms,including vacuum-assisted fi ltration,spin-coating methods,and several other approaches,were then highlighted.Finally,recent progress in the applications of MXene fi lms in electrochemical energy storage,membrane separation,electromagnetic shielding fi elds,and burgeoning areas,as well as the correlation between compositions,architecture,and performance,was discussed.展开更多
Developing classes of Ag@C composites stand out for their one of a kind structure and novel physicochemical properties in later a long time.This review explores the current state-of-the-art progress in the preparation...Developing classes of Ag@C composites stand out for their one of a kind structure and novel physicochemical properties in later a long time.This review explores the current state-of-the-art progress in the preparation methods and the novel properties of Ag@C composites.We provide a definition of the stability of Ag@C composites,and propose strategies to improve the stability.Based on the later inquire,a summary and outlook toward the synthesis and applications of Ag@C composites are presented,aiming to accelerate the exploration of Ag@C composites and further stimulate the applications in various fields.展开更多
Molten salt synthesis （MSS） method has advantages of the simplicity in the process equipment, versatile and large-scale synthesis, and friendly environment, which provides an excellent approach to synthesize high pu...Molten salt synthesis （MSS） method has advantages of the simplicity in the process equipment, versatile and large-scale synthesis, and friendly environment, which provides an excellent approach to synthesize high pure oxide powders with controllable compositions and morphologies. Among these oxides, perovskite oxides with a composition of ABO3 exhibit a broad spectrum of physical properties and functions （e.g. ferroelectric, piezoelectric, magnetic, photovoltaic and photocatalytic properties）. The downscaling of the spatial geometry of perovskite oxides into nanometers result in novel properties that are different from the bulk and film counterparts. Recent interest in nanoscience and nanotechnology has led to great efforts focusing on the synthesis of low-dimensional perovskite oxide nanostructures （PONs） to better understand their novel physical properties at nanoscale. Therefore, the low-dimensional PONs such as perovskite nanoparticles, nanowires, nanorods, nanotubes, nanofibers, nanobelts, and two dimensional oxide nanostructures, play an important role in developing the next generation of oxide electronics. In the past few years, much effort has been made on the synthesis of PONs by MSS method and their structural characterizations. The functional applications of PONs are also explored in the fields of storage memory, energy harvesting, and solar energy conversion. This review summarizes the recent progress in the synthesis of low-dimensional PONs by MSS method and its modified ways. Their structural char- acterization and physical properties are also scrutinized. The potential applications of low-dimensional PONs in different fields such as data memory and storage, energy harvesting, solar energy conversion, are highlighted. Perspectives concerning the future research trends and challenges of low-dimensional PONs are also outlined. ~ 2017 Published by Elsevier Ltd on behalf of The editorial office of Journal of Materials Science ＆ Technology.展开更多
High-entropy alloys(HEAs) are an important research direction in the materials science field and engineering field.Different from traditional alloys which usually contain only one basic element and infrequently two,HE...High-entropy alloys(HEAs) are an important research direction in the materials science field and engineering field.Different from traditional alloys which usually contain only one basic element and infrequently two,HEAs are made up of many major elements in much larger numbers.With impressive mechanical properties,impressive corrosion resistance and superior thermal stability,HEAs offer overwhelming advantages over conventional alloys.HEAs have received a lot of attention due to its unique concept and performance.In recent years,many researchers have prepared HEAs at the nanometer level,and the obtained high-entropy nanoparticles(HEA-NPs) have been extensively used in multifarious fields.This paper reviews the main characteristics,core effects,conventional synthesis methods and their applications in various fields of HEA-NPs.Furthermore,the vast space to be explored is discussed and the future development direction and outlook are outlined productively.展开更多
The production. characteristics. and commercialization of monolithic and composite titanium aluminides are summanzed with emphasis on use in the demanding aerospace industry. The attractive elevated temperature proper...The production. characteristics. and commercialization of monolithic and composite titanium aluminides are summanzed with emphasis on use in the demanding aerospace industry. The attractive elevated temperature properties combined with alow density make these materials of great interest, but inherently low 'forgiveness', and environmental concerns, must be overcome before widespread use will occur One synthesis method for the production of monolithic titanium aluminides-mechanical alloying- will be discussed in detail展开更多
基金supported by the National Natural Science Foundation of China(No.52273110(GGB)and 52372271(STL))the National Ten Thousand Talent Program of China(GGB)the Youth Top Talent Project of Hubei Provence of China(GGB).
文摘Alloying strategies have proven effective in enhancing the properties of metallic materials.However,conventional alloying strategies face significant limitations in preparing nanoscale multi-alloys and continuous optimizing surface-active sites.High-entropy alloys(HEAs)display a broader spectrum of unique properties due to their complex electron distribution and atomic-level heterogeneity arising from the stochastic mixing of multiple elements,which provides a diverse array of binding sites and almost continuous distribution of binding energies.This review aims to summarize recent research advancements in synthesis strategies and multi-field applications of nanoscale HEAs.It emphasizes several commonly employed synthesis strategies and significant challenges in synthesizing nanoscale HEAs.Finally,we present a comprehensive analysis of the advantages of HEAs for multi-field applications,emphasizing significant application trends related to nanosizing and multidimensionalization to develop more efficient nanoscale HEAs.
基金supported by the National Natural Science Foundation of China(22272065)the Natural Science Foundation of Jiangsu Province(BK20211530)+1 种基金the Fundamental Research Funds for the Central Universities(JUSRP62218)the Key Research and Development Special Project of Yi'chun City,Jiangxi Province,China(2023ZDYFZX06).
文摘One-dimensional perovskites possess unique photoelectric properties that distinguish them from other perovskitetypes, making them a focal point in photoelectric research. In recent years, there has been a significant surge ininterest surrounding the synthesis and application of one-dimensional anisotropic perovskites, spurred by ad-vancementsin synthesis techniques and notable breakthroughs in novel methodologies and application proper-ties.This article provides a comprehensive review of the progress made in research on one-dimensionalanisotropic perovskites, detailing the synthesis mechanisms and potential pathways for performance enhance-mentin various applications. We highlight the crucial role of controllable synthesis and heterogeneous effect intailoring perovskite properties to boost application efficacy. Initially, this review examines the primary synthesismethods and mechanisms for creating heterogeneously induced one-dimensional anisotropic perovskites, cate-gorizingthem into two main approaches: the classical wet chemical synthesis, which utilizes selective ligands, andthe ligand-free, substrate-assisted method. The precision in controllable synthesis is essential for fabricatingheterogeneous structures, where the synthesized precursor, shape, and surface ligand significantly influence theinterfacial strength of the heterogenic interface. We also discuss the key features that must be improved for high-performanceapplications, exploring how heterogeneous effects can enhance performance and drive the devel-opmentof heterogeneous devices in various applications, such as photodetectors, solar cells, light-emitting di-odes,and photocatalysis. Conclusively, by highlighting the emerging potential and promising opportunitiesoffered by strategic heterogeneous construction, we forecast a dynamic and transformative future for their pro-ductionand application landscapes.
基金financially supported by the Nanomaterial Technology Development Program(Nos.RS-202300234581)the Basic Science Research Program(Nos.2020-NR049321,RS-2019-NR040077)through the National Research Foundation of Korea(NRF)funded by the Ministry of Science,ICT,&Future Planning and the Ministry of Education
文摘Device fabrication is increasing with the importance of functional materials for industrial applications.To fulfil increasing demands,rare earth elementbased materials have become important.In particular,lanthanum(La) and La-based materials have garnered attention in recent years due to their versatile properties and wide range of potential applications.This critical review provides a comprehensive overview of the advancements in the utilization of La and its compounds across various fields.In the realm of sensing and biosensing,La-based materials exhibit better sensitivity and selectivity,indicating their suitability for detecting environmental pollutants and biomolecules.The review also explores their role in supercapacitors,where their unique electrochemical properties contribute to enhanced performance and stability.Furthermore,the catalytic properties of La compounds are highlighted in water-splitting applications,emphasizing their efficiency in oxygen and hydrogen production.The biomedical applications of Labased materials are also examined,focusing on their biocompatibility and potential in drug delivery and medical imaging.This review aims to provide a critical analysis of the current state of research,identify challenges,and suggest future directions for the development and application of La and La-based materials in these diverse fields.
基金support from National Natural Science Foundation of China(Nos.22208376,UA22A20429)Qingdao New Energy Shandong Laboratory Open Project(QNESL OP 202303)+1 种基金Shandong Provincial Natural Science Foundation(Nos.ZR2024QB175,ZR2023LFG005)Fundamental Research Funds for the Central Universities(No.25CX07002A).
文摘Lignin-based graphene quantum dots(L-GQDs)serve as a bridge between renewable biomass resources and functional carbon materials.This review begins with the molecular structure of lignin,exploring various synthesis methods for L-GQDs.The precise elucidation of precursor-structure–property relationships could optimize their performance through the quantitative regulation of lignin unit properties and enable controllable synthesis.We elaborate on the photoluminescence mechanisms and fluorescence modulation strategies of L-GQDs,covering aspects such as structural design,synthesis pathways,and photophysical property optimization.Additionally,the review discusses the application prospects of L-GQDs in biology,energy conversion,and optoelectronics,and highlights the importance of synergistically aligning synthesis strategies with practical on-demand applications.We also propose that research paradigm should focus on in-situ unveiling of nucleation kinetics during L-GQDs formation,photoluminescence mechanism decoding,toxicity regulation to enable green,sustainable and multidisciplinary cutting-edge applications.
基金supported by the open funds of Key Laboratory of Functional Inorganic Material Chemistry (Heilongjiang University), Ministry of Education, Chinathe funding from Guangdong Natural Science Funds (No. 2023A0505050107)。
文摘Atomically precise metal nanoclusters are an emerging type of nanomaterial which has diverse interfacial metal-ligand coordination motifs that can significantly affect their physicochemical properties and functionalities.Among that,Cu nanoclusters have been gaining continuous increasing research attentions,thanks to the low cost,diversified structures,and superior catalytic performance for various reactions.In this review,we first summarize the recent progress regarding the synthetic methods of atomically precise Cu nanoclusters and the coordination modes between Cu and several typical ligands and then discuss the catalytic applications of these Cu nanoclusters with some explicit examples to explain the atomical-level structure-performance relationship.Finally,the current challenges and future research perspectives with some critical thoughts are elaborated.We hope this review can not only provide a whole picture of the current advances regarding the synthesis and catalytic applications of atomically precise Cu nanoclusters,but also points out some future research visions in this rapidly booming field.
基金supported by the National Key Research and Development Program of China(Nos.2022YFD1700800 and 2023YFC3905903)the Science and Technology Project of Education Department of Jiangxi Province(No.GJJ2201103)+2 种基金the Fund of Nanchang Hangkong University(Nos.EA202201110 and EA202201065)National Undergraduate Innovation and Entrepreneurship Training Program(No.202310406023)the National Natural Science Foundation of China(No.52470149)。
文摘Covalent organic frameworks(COFs)are crystalline porous polymeric materials composed of organic monomers connected by strong covalent bonds and offer high stability,good crystallinity,a large specific surface area,and controllable structures.COFs are widely used in the fields of adsorption and separation,catalysis,photovoltaics,and drug-delivery.The structural regulation and performance optimization of COFs can be realized through the modification of ligands and the selection of linkage methods.In which,the types of linkage are closely related to the stability and performance of COFs.In this review,nitrogencontaining linkage-bonds(NCLBs)in COFs are divided into N-containing double bonds,N-containing conjugated rings and N-containing unconjugated rings.The association between structure and performance of COFs is elaborated and the synthesis methods of COFs are systematically summarized.Moreover,the structural design,theoretical prediction and machinable application of COFs are prospected.
基金supported by National Key Research and Development Program of China(No.2020YFC1808204-01)Nanchang“Double Hundred Plan”Project(Innovative Talents-Talent Introduction)+1 种基金the State Key Laboratory of Urban Water Resource and Environment(Harbin Institute of Technology)(No.2021TS11)Heilongjiang Provincial Key Laboratory of Environmental Biotechnology and Heilongjiang Touyan Innovation Team Program。
文摘Microbial fabrication of metal nanoparticles(MNPs)has received significant attention due to the advantages of low toxicity,energy efficiency and ecological safety.Diverse groups of MNPs can be synthesized intracellularly or extracellularly by various wild-type microorganisms,including bacteria,fungi,algae and viruses.Synthetic biology approaches,represented by genetic engineering,have been applied to overcome the shortcomings in productivity,stability,and controllability of biosynthetic MNPs.Scanning electron microscope(SEM),transmission electron microscope(TEM)and other characterization techniques assist in deciphering their unique properties.In addition,biosynthetic MNPs have been widely explored for the utilization in environmental remediation and contaminant detection.And machine learning contains a great potential for designing targeted MNPs and predicting their toxicity.This review provides a comprehensive overview of the research progress in the microbial synthesis of MNPs.An outlook on the current challenges and future prospects in the biologically controllable synthesis and engineering environmental applications of MNPs is also provided in this review.
基金sponsored by the National Science Foundation (NSF, CMMI-1562907)the GAANN Fellowship for financial support (No. P200A150330)the Navy STEM Fellowship and the GAANN Fellowship for financial support
文摘Thanks to their remarkable mechanical, electrical, thermal, and barrier properties, graphene-based nanocomposites have been a hot area of research in the past decade. Because of their simple top-down synthesis, graphene oxide (GO) and reduced graphene oxide (rGO) have opened new possibilities for gas barrier, membrane separation, and stimuli-response characteristics in nanocomposites. Herein, we review the synthesis techniques most commonly used to produce these graphene derivatives, discuss how synthesis affects their key material properties, and highlight some examples of nanocomposites with unique and impressive properties. We specifically highlight their performances in separation applications, stimuli-responsive materials, anti-corrosion coatings, and energy storage. Finally, we discuss the outlook and remaining challenges in the field of practical industrial-scale production and use of graphene-derivative-based polymer nanocomposites.
基金financial support from the National Natural Science Foundation of China(No. 81773642)Guangdong-Hong Kong Technology Cooperation Fund(No. 2017A050506016)+4 种基金the Science and Technology Planning Program of Guangzhou City, China (No. 2017A020214012)Natural Science Foundation of the Jiangsu Higher Education Institutions (No. 17KJB430019)Natural Science Foundation of the Jiangsu Province (No. SBK2018041659)Jiangsu Key Laboratory of Green Process Equipment (No. GPE201702)GF Scientific Research Project of Nanjing Tech University
文摘Synthesis of magnetic nanoparticles （MNPs） is one of the most active research areas in advanced materials. MNPs that have magnetic properties and other functionalities have been demonstrated to show great promise in nanomedical applications. This review summarizes the current MNPs preparation, functionalization and stabilization methods. It also analyzes the detailed features of MNPs. And furthermore it highlights some actual case analyses of these MNPs for disease therapy, drug delivery, hyperthermia, bioseparation and bioimaging applications.
基金financially supported by National Natural Science Foundation of China(No.51972045)the Fundamental Research Funds for the Central Universities of China(No.ZYGX2019J025)the Sichuan Science and Technology Program(Nos.2020JDRC0015 and 2020JDRC0045)。
文摘The helical structures possess unique physical and chemical properties,such as superelasticity,high specific strength,chirality,and electromagnetic cross-polarization characteristics.With the development of nanoscience and nanotechnology,helical structures with various scales have been discovered or synthesized artificially.Among them,the helical carbon materials receive much attention around the world.Herein,we present a brief review of the development of helical carbon materials in terms of structures,synthesis techniques and mechanisms,and applications.The controllable designing of catalysts,carbon sources and reaction parameters plays a key role to optimize the properties of the helical carbon materials.At the same time,the applications in microwave absorption devices,sensors,catalysts,energy conversions and storage devices,and solar cell are also presented.For the good chemical and physical properties,helical carbon materials have a good application prospect in many fields.The potential issues and future opportunities of the helical carbon materials are also proposed.
基金Project supported by Start-up Grant of Nanyang Technological UniversityTier 1 Grant of Ministry of Education,Singapore(RGT8/13)
文摘Iron oxide nanoparticles are the most popular magnetic nanoparticles used in biomedical applications due to their low cost, low toxicity, and unique magnetic property. Magnetic iron oxide nanoparticles, including magnetite （Fe304） and maghemite （γ-Fe203）, usually exhibit a superparamagnetic property as their size goes smaller than 20 nm, which are often denoted as superparamagnetic iron oxide nanoparticles （SPIONs） and utilized for drug delivery, diagnosis, therapy, and etc. This review article gives a brief introduction on magnetic iron oxide nanoparticles in terms of their fundamentals of magnetism, magnetic resonance imaging （MRI）, and drug delivery, as well as the synthesis approaches, surface coating, and application examples from recent key literatures. Because the quality and surface chemistry play important roles in biomedical applications, our review focuses on the synthesis approaches and surface modifications of iron oxide nanopar- ticles. We aim to provide a detailed introduction to readers who are new to this field, helping them to choose suitable synthesis methods and to optimize the surface chemistry of iron oxide nanoparticles for their interests.
文摘Graphene and carbon nanotube(CNT) are representative carbon nanomaterials which have aroused numerous research interest due to their extraordinary material properties and promising application potentials,especially in the energy storage and conversion areas.However,the agglomeration happening in these materials has largely blocked their applications.Hybridization of CNT with graphene can,on one hand,prevent the agglomeration behavior,on the other hand,generate a synergistic effect between them with enhanced physical and chemical properties.There have been many studies conducted to find out the suitable approaches to synthesize graphene/CNT composites,and realize the application potentials of these structures.Based on the recent advances,this paper reviews the current research progress that has been achieved in synthesizing graphene/CNT composites,and the energy-related applications.Through this review,we aim at stimulating more significant research on this subject.
基金supported by the National Natural Science Foundation of China(Nos.21875044,21673048)Key Basic Research Program of Science and Technology Commission of Shanghai Municipality(No.17JC1400100)+2 种基金the support by the state key laboratory of Transducer Technology of China(No.SKT1904)Program of Shanghai Academic Research Leader(No.19XD1420300)Research Supporting Project(No.RSP-2019/155)by King Saud University。
文摘Incorporation of heteroatoms into the framewo rk of zeolites has become a significant strategy to improve their performance in catalysis and adsorption,because the obtained heteroatom zeolites exhibit quite different properties from the conventional aluminosilicate zeolites in aspects of surface acidity,pore structures,particle size and so on.In this review,the progress on the heteroatom zeolites including their synthesis and application is highlighted.First,the recent advance on the design and synthesis of different heteroatom zeolites is summarized.Special emphasis is placed on the introduction and comparison of three typical methods,including the direct synthesis,post synthesis and improved direct synthesis,for the traditional heteroatom zeolites(such as TS-1,Sn-MFI,Sn-β) and newly-reported heteroatom zeolites(such as W-MFI,Mo-MFI).According to their intrinsic characteristics,the application of heteroatom zeolites in diverse fields,such as production of fine chemicals,air pollution control and biomass conversion is then discussed.Finally,the challenges and perspective on the future development of heteroatom zeolites in low-cost preparation and practical application are proposed.
基金financially supported by the National Natural Science Foundation of China (Project No. 21805139, 12102194, 22005144 and 22005145)the Joint Funds of the National Natural Science Foundation of China (No. U2141202)+1 种基金Natural Science Foundation of Jiangsu Province (No. BK20200471)the Fundamental Research Funds for the Central Universities (No. 30920041106, 30921011203)
文摘Ammonium dinitramide(ADN)is considered as a potential substitute for ammonium perchlorate in energetic materials due to its high density,positive oxygen balance,and halogen-free characteristics.However,its application has been severely limited because of its strong hygroscopicity,difficult storage,and incompatibility with isocyanate curing agents.In order to better bloom the advantages of the highly energetic and environment-friendly ADN in the fields of energetic materials,an in-depth analysis of the current situation and discussion of key research points are particularly important.In this paper,a detailed overview on the synthesis,thermal decomposition,hygroscopic mechanism,and antihygroscopicity of ADN has been discussed,its application in powdes and explosives are also presented,and its future research directions are proposed.
基金supported by the National Key R&D Program of China(2017YFA0208200,2016YFB0700600,2015CB659300)Projects of NSFC(21403105,21573108)+2 种基金Anhui Provincial Key Research and Development Program(1704A0902022)Natural Science Foundation of Jiangsu Province(BK20150583,BK20160647)the Fundamental Research Funds for the Central Universities(020514380107)
文摘Nitrogen-doped（N-doped） graphene has attracted increasing attentions because of the significantly enhanced properties in physic, chemistry, biology and material science, as compared with those of pristine graphene. By date, N-doped graphene has opened up an exciting new field in the science and technology of two-dimensional materials. From the viewpoints of chemistry and materials, this article presents an overview on the recent progress of N-doped graphene, including the typical synthesis methods, characterization techniques, and various applications in energy fields. The challenges and perspective of Ndoped graphene are also discussed. We expect that this review will provide new insights into the further development and practical applications of N-doped graphene.
基金This work was supported by the National Natural Science Foundation of China(21878062)the Natural Science Foundation of Heilongjiang Province for Distinguished Young Scholars(JQ2020B001)State Key Laboratory of Urban Water Resource and Environment(Harbin Institute of Technology)(No.2020DX02).
文摘A growing family of two-dimensional(2D)transition metal carbides or nitrides,known as MXenes,have received increasing attention because of their unique properties,such as metallic conductivity and good hydrophilicity.The studies on MXenes have been widely pursued,given the composition diversity of the parent MAX phases.This review focuses on MXene fi lms,an important form of MXene-based materials for practical applications.We summarized the synthesis methods of MXenes,focusing on emerging synthesis strategies and reaction mechanisms.The advanced assembly technologies of MXene fi lms,including vacuum-assisted fi ltration,spin-coating methods,and several other approaches,were then highlighted.Finally,recent progress in the applications of MXene fi lms in electrochemical energy storage,membrane separation,electromagnetic shielding fi elds,and burgeoning areas,as well as the correlation between compositions,architecture,and performance,was discussed.
基金Projects(2018YFC1802204,2020YFC1909200)supported by the National Key R&D Program of China。
文摘Developing classes of Ag@C composites stand out for their one of a kind structure and novel physicochemical properties in later a long time.This review explores the current state-of-the-art progress in the preparation methods and the novel properties of Ag@C composites.We provide a definition of the stability of Ag@C composites,and propose strategies to improve the stability.Based on the later inquire,a summary and outlook toward the synthesis and applications of Ag@C composites are presented,aiming to accelerate the exploration of Ag@C composites and further stimulate the applications in various fields.
基金the financial support from the National Natural Science Foundation of China(Grant Nos.11674161,11174122 and 11134004)the Six Big Talent Peak Project from Jiangsu Province(Grant No.XCL-004)open project of National Laboratory of Solid State Microstructures,Nanjing University(Grant No.M28026)
文摘Molten salt synthesis （MSS） method has advantages of the simplicity in the process equipment, versatile and large-scale synthesis, and friendly environment, which provides an excellent approach to synthesize high pure oxide powders with controllable compositions and morphologies. Among these oxides, perovskite oxides with a composition of ABO3 exhibit a broad spectrum of physical properties and functions （e.g. ferroelectric, piezoelectric, magnetic, photovoltaic and photocatalytic properties）. The downscaling of the spatial geometry of perovskite oxides into nanometers result in novel properties that are different from the bulk and film counterparts. Recent interest in nanoscience and nanotechnology has led to great efforts focusing on the synthesis of low-dimensional perovskite oxide nanostructures （PONs） to better understand their novel physical properties at nanoscale. Therefore, the low-dimensional PONs such as perovskite nanoparticles, nanowires, nanorods, nanotubes, nanofibers, nanobelts, and two dimensional oxide nanostructures, play an important role in developing the next generation of oxide electronics. In the past few years, much effort has been made on the synthesis of PONs by MSS method and their structural characterizations. The functional applications of PONs are also explored in the fields of storage memory, energy harvesting, and solar energy conversion. This review summarizes the recent progress in the synthesis of low-dimensional PONs by MSS method and its modified ways. Their structural char- acterization and physical properties are also scrutinized. The potential applications of low-dimensional PONs in different fields such as data memory and storage, energy harvesting, solar energy conversion, are highlighted. Perspectives concerning the future research trends and challenges of low-dimensional PONs are also outlined. ~ 2017 Published by Elsevier Ltd on behalf of The editorial office of Journal of Materials Science ＆ Technology.
基金financially supported by the National Natural Science Foundation of China (No. U1904215)the Natural Science Foundation of Jiangsu Province (No. BK20200044)Changjiang Scholars Program of the Ministry of Education (No. Q2018270)。
文摘High-entropy alloys(HEAs) are an important research direction in the materials science field and engineering field.Different from traditional alloys which usually contain only one basic element and infrequently two,HEAs are made up of many major elements in much larger numbers.With impressive mechanical properties,impressive corrosion resistance and superior thermal stability,HEAs offer overwhelming advantages over conventional alloys.HEAs have received a lot of attention due to its unique concept and performance.In recent years,many researchers have prepared HEAs at the nanometer level,and the obtained high-entropy nanoparticles(HEA-NPs) have been extensively used in multifarious fields.This paper reviews the main characteristics,core effects,conventional synthesis methods and their applications in various fields of HEA-NPs.Furthermore,the vast space to be explored is discussed and the future development direction and outlook are outlined productively.
文摘The production. characteristics. and commercialization of monolithic and composite titanium aluminides are summanzed with emphasis on use in the demanding aerospace industry. The attractive elevated temperature properties combined with alow density make these materials of great interest, but inherently low 'forgiveness', and environmental concerns, must be overcome before widespread use will occur One synthesis method for the production of monolithic titanium aluminides-mechanical alloying- will be discussed in detail
