Academic Journal
Q1Advanced Functional Materials
About Advanced Functional Materials
Advanced Functional Materials is a scholarly journal published by John Wiley and Sons Inc. SCImago 2025 places it in Q1 with an SJR of 5.022 and an H-index of 459.
Its listed coverage is 2000-2026 and its research categories include Biomaterials (Q1); Chemistry (miscellaneous) (Q1); Condensed Matter Physics (Q1); Electrochemistry (Q1); Electronic, Optical and Magnetic Materials (Q1); Materials Science (miscellaneous) (Q1); Nanoscience and Nanotechnology (Q1). The 2025 dataset reports 5850 documents and 193730 citations across the latest three-year reporting window.
Advanced Functional Materials (AFMs) are revolutionizing industries by offering innovative solutions that go beyond traditional materials. These high-performance materials are designed to exhibit specific, often extraordinary, properties—such as conductivity, flexibility, responsiveness to stimuli, or bio-compatibility—that make them ideal for use in cutting-edge technologies.
With applications in electronics, energy, healthcare, and environmental science, advanced functional materials are driving progress in sectors where performance, efficiency, and sustainability are key.
What Are Advanced Functional Materials?
Advanced functional materials are substances engineered to perform specific functions beyond mechanical support. Unlike conventional materials, which mainly serve structural purposes, AFMs offer unique physical, chemical, or biological characteristics that respond to external stimuli like temperature, pressure, light, or magnetic fields.
Examples include:
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Nanomaterials like graphene and carbon nanotubes
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Smart materials such as shape memory alloys and piezoelectric materials
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Conductive polymers used in flexible electronics
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Biomaterials for medical implants and drug delivery
These materials are essential for developing responsive systems that adapt to changing conditions, enabling smarter, more efficient products.
Key Applications of Advanced Functional Materials
1. Electronics and Semiconductors
AFMs are integral to the development of flexible displays, wearable devices, and high-speed transistors. Materials like graphene and organic semiconductors offer exceptional electrical properties, improving the performance of consumer electronics.
2. Energy Storage and Conversion
In the energy sector, AFMs are transforming battery technology and renewable energy systems. Lithium-ion batteries, fuel cells, and solar panels benefit from materials that enhance conductivity, capacity, and lifespan.
3. Biomedical Applications
Advanced functional biomaterials are used in tissue engineering, prosthetics, and targeted drug delivery. Smart hydrogels and bioactive coatings improve compatibility with the human body and offer innovative healthcare solutions.
4. Environmental Solutions
AFMs contribute to environmental sustainability by enabling water purification, air filtration, and pollution reduction. Photocatalytic materials, for example, break down harmful substances in water and air when exposed to sunlight.
5. Smart Textiles and Wearables
Wearable technologies rely on lightweight, durable, and responsive materials. Conductive fibers and shape-changing fabrics powered by AFMs are paving the way for intelligent clothing and health-monitoring systems.
Emerging Trends and Future Outlook
The field of advanced functional materials is advancing rapidly, fueled by nanotechnology, AI-driven materials design, and increasing demand for sustainable solutions. Current research focuses on developing multi-functional and recyclable materials, reducing environmental impact while enhancing performance.
Looking ahead, AFMs will play a critical role in next-generation technologies such as quantum computing, autonomous systems, space exploration, and biocompatible robotics. The ability to customize material properties at the molecular level opens up nearly limitless possibilities for innovation
Journal Metrics
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Aims & Scope
The scope of advanced functional materials (AFMs) is rapidly expanding, driving groundbreaking innovations across a variety of industries. These materials are specially engineered to provide properties and functions beyond traditional structural applications, enabling smarter, more efficient, and more sustainable technologies. From flexible electronics to next-generation medical devices, the impact of advanced functional materials is profound and far-reaching.
As global demand for high-performance, eco-friendly, and adaptive materials grows, understanding the scope of AFMs is crucial for researchers, engineers, and industry leaders alike.
What Are Advanced Functional Materials?
Advanced functional materials are a class of materials designed to offer specific, enhanced functionalities. Unlike conventional materials, AFMs can respond to environmental stimuli, conduct electricity or heat, change shape, or interact with biological systems. These unique features make them essential in creating innovative solutions for the modern world.
Common types include:
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Nanomaterials (e.g., graphene, carbon nanotubes)
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Smart materials (e.g., piezoelectric materials, shape memory alloys)
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Conductive polymers
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Biomaterials
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Metamaterials
Expanding Scope Across Key Sectors
1. Electronics and Optoelectronics
The use of AFMs in electronics is transforming device capabilities. Flexible displays, high-speed processors, and next-gen sensors rely on materials with superior electrical, thermal, and optical properties. The scope includes:
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Organic semiconductors for lightweight, flexible devices
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Transparent conductors for touchscreens
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Light-emitting materials for OLEDs
2. Energy Generation and Storage
AFMs are key to the future of renewable energy. They enable more efficient solar panels, longer-lasting batteries, and advanced fuel cells. The growing scope involves:
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Perovskite materials for high-efficiency solar cells
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Solid-state electrolytes for safe lithium-ion batteries
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Supercapacitors for rapid energy storage
3. Healthcare and Biomedicine
In the biomedical field, the scope of advanced functional materials includes:
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Biocompatible implants that integrate with tissue
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Responsive hydrogels for drug delivery systems
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Bioactive materials for bone and tissue regeneration
4. Environmental Protection
AFMs contribute to sustainability by enabling technologies that address pollution, water scarcity, and energy efficiency. Applications include:
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Photocatalytic materials for water purification
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Membranes for gas separation and carbon capture
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Materials for environmental sensing and monitoring
5. Smart Infrastructure and Textiles
Smart materials are used in self-healing concrete, responsive coatings, and wearable technology. These applications demonstrate the growing scope in construction, fashion, and defense industries.
Future Potential and Research Directions
The future scope of advanced functional materials is limitless, with ongoing research focusing on:
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Multifunctional composites that combine several properties in one material
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Scalable and sustainable manufacturing methods
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Integration with AI and machine learning for material discovery
As technology advances, AFMs will continue to evolve, becoming more accessible and adaptable across sectors.
Recent Research Articles
Latest publications matched automatically by ISSN.
Near‐Surface Reconstruction of Sb 2 Se 3 Absorber for Defect‐Tolerant Solar Cells with Modified Surface Energetics
Bingxin Yang, Anming Mo, Xinzhou Lu, Xiaoyang Liang et al.
2026-09-09 · DOI: 10.1002/adfm.78342Molecular Riveting Stabilizes Wide‐Bandgap Perovskites by Reinforcing Cation‐Octahedron Coupling
Jingxin Liu, Hanguang Fu, Jiyao Wei, Yehui Wen et al.
2026-09-09 · DOI: 10.1002/adfm.78276Time‐Varying Mosaic Metasurface Architecture Enabling Programmable Multi‐Tone Pseudo‑Doppler Spectral Engineering
Fan Wu, Chang Ding, Huilin Mu, Zhuoluo Wang et al.
2026-09-09 · DOI: 10.1002/adfm.78306Large‐Format Room‐Temperature Visible‐to‐Mid‐Infrared Broadband Imaging Enabled by a Single 2D Active Material
Yue Zhang, Fakun Wang, Cong Zhang, Ruihuan Duan et al.
2026-09-09 · DOI: 10.1002/adfm.78267Host‐Guest Recognition‐Enabled Covalent Organic Framework Artificial Interphase for Anion Regulation and Selective Li + Transport in Lithium Metal Batteries
Cuiping Luo, Wenwei Li, Qi An, Kun Zeng et al.
2026-09-09 · DOI: 10.1002/adfm.78250Ultrathin Amphipathic Dual‐Polymer Networks: Unlocking Hyper‐Permeable CO 2 Capture via Solvent‐Mediated Poly(Ethylene Oxide) Amorphization
Ji Wu, Fan Feng, Baiwang Zhao, Jordan Yuan Zhe Ng et al.
2026-09-09 · DOI: 10.1002/adfm.78278Structurally Stabilized Hydrogen‐Bonded Bridging Networks for Defect‐Passivated Cesium Lead Iodide Perovskite Quantum Dot Photovoltaics
Minju Yang, Dong Gyu Lee, Seon Joong Kim, Hyungju Ahn et al.
2026-09-09 · DOI: 10.1002/adfm.78300Plant‐Inspired Symbiotic Atmospheric Water Sorption–Evaporation for High Efficiency Adaptive Passive Cooling
Huaxu Liang, Hanyang Ye, Jin Yao Ho
2026-09-09 · DOI: 10.1002/adfm.78213Balanced Charge Mobility and Boosted Exciton Dissociation via SnSe 2 ‐Modified Interface for >20% Efficiency in Layer‐by‐Layer Organic Solar Cells
Yang Zhang, Fenghua Zhang, Xiong Li, Yang Liu et al.
2026-09-09 · DOI: 10.1002/adfm.78352Low‐Temperature Sodium‐Ion Batteries: Interfacial and Bulk Perspectives on Performance Limitations and Improvement Strategies
Yan Wang, Liluo Shi, Zhaoyu Chu, Yuhan Zhang et al.
2026-09-09 · DOI: 10.1002/adfm.78218Fluorinated Gel Polymer Electrolyte With Dynamically Reconfigurable Hydrogen‐Bond Networks for High‐Voltage and Wide‐Temperature Lithium Metal Batteries
Qingjie Zhou, Qingsong Liu, Kai Feng, Shilin Xu et al.
2026-09-09 · DOI: 10.1002/adfm.78272Ultraviolet‐Induced Band Engineering in Black Phosphorus/Gallium Nitride Heterojunction Toward High‐Performance Broadband Photodetection
Zhenyu Liu, Shi Fang, Zhixiang Gao, Zhanpeng Su et al.
2026-09-09 · DOI: 10.1002/adfm.78320Amino‐Acid‐Assisted Interfacial Polymerization Enables Reaction‐Diffusion of COF Membranes for High‐Performance Desalination
Zeyu Yang, Guishan Hu, Tiantian Liu, Junke Qiu et al.
2026-09-09 · DOI: 10.1002/adfm.78372Orientation‐Programmed Effective Fields in FeCo@N‐rGO Magnetic Chains for Multifunctional Electromagnetic Materials
Kaiyuan Fan, Binggang Liu, Huimin Zhou, Yufeng Hu et al.
2026-09-09 · DOI: 10.1002/adfm.78336Photothermal CO 2 and H 2 O Reduction via Pulsed Near‐IR Activation of Transition Metals
Hyojin Nam, Sy Khiem Nguyen, Seon Young Hwang, Hyeonji Lee et al.
2026-09-09 · DOI: 10.1002/adfm.78294Achieving Centimeter‐Sized Mn‐Based Hybrid Metal Halides with Anisotropic Emission, Scintillation, and Anti‐Thermal‐Quenching Photoluminescence for Linearly Polarized UV Light, X‐Ray, and Temperature Sensing
Qingyi Liu, Junliang Li, Xiaodong Yi, Rongrong Zhang et al.
2026-09-09 · DOI: 10.1002/adfm.78159Photo‐Switchable Molecular Module Programming PET Biodegradation in Aquatic Environments
Mohammad Asif Ali, Jixin Zheng, Satoshi Wakai, Jie Liu et al.
2026-09-09 · DOI: 10.1002/adfm.78280On Damage Degree and Evolution of Mechanical and Electromagnetic Properties for SiC f /Si 3 N 4 Composites in Rain Erosion Process
Haodong Wang, Weilong Liu, Nuo Chen, Fahao Xiang et al.
2026-09-09 · DOI: 10.1002/adfm.78282Interfacial Superspreading‐Induced Underoil Adhesive via Adaptive Displacement and Assembly
Shaofan He, Maolin Sun, Jiajian Zhang, Longge Bai et al.
2026-09-09 · DOI: 10.1002/adfm.78382Novel Stress‐Evolution Model for NaNi 1/3 Fe 1/3 Mn 1/3 O 2 Cathodes: Determining Localized Accumulation and Diffusive Transfer Based on Tension‐Compression Asymmetry
Lingfeng Shi, Fanbo Wu, Ziwei Liu, Yehang Dou et al.
2026-09-08 · DOI: 10.1002/adfm.78231Reviews
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April 21, 2025 at 2:09 pm
April 20, 2025