欢迎来到陈光需课题组

课题组主要面向双碳目标和环境净化,致力于将基础研究转化为支撑“双碳”战略的产业动能。

依托自主构建的全智能机器人实验平台,我们实现了从材料 AI 筛选到工程化系统集成的全链条开发,重点突破电化学生物质增值转化的高值化利用、CO2 捕获-转化-利用(CCUS)的系统能效优化,以及复杂体系电分离的工程化装备研制,为环境净化与资源循环提供兼具经济性与可持续性的成套技术解决方案。

陈光需 教授

教授 / 博士生导师
环境与能源学院
华南理工大学

电化学反应工程 界面催化 生物质转化 CO2电还原 塑料升级再生 AI4Science
100+
SCI 论文
16,800+
总引用(Google Scholar)
50
H-index
13
ESI 高被引论文

最新动态

  • 2026论文ACS Nano 发表新论文:Accelerating Multi-Elemental Catalyst Discovery with Interpretable Machine Learning and Automated Experimentation10.1021/acsnano.5c20552)。
  • 2026论文关于废聚烯烃选择性高效升级转化的分级 ZSM-5 催化剂研究发表于 ChemSusChem
  • 2026论文Pt–O–Ti 界面低电压 HMF 电氧化研究发表于 Nano Letters
  • 2026论文碳酸根嵌入钴羟基化物促进 HMF 电氧化工作发表于 Nano Research
  • 2026论文电化学高效脱氧研究发表于 Chem. Commun.
  • 2025论文CO₂ 电还原用于城市污水脱氮的工作发表于 Nature Water
  • 2025论文集成式 CO₂ 还原与分离系统发表于 Nature Communications
  • 2025论文化学自主机器人纳米粒子合成平台发表于 Nature Communications
  • 2025论文PtZn-ZnOx 界面促进苄醇低电压电氧化工作发表于 JACS
  • 2024奖项获 2024 年广东省科技成果推广奖。
  • 2024项目科技部重点研发计划课题立项(循环经济方向),执行期为 2025–2028 年。
  • 2024项目国家自然科学基金面上项目获批,执行期为 2025–2028 年。
  • 2024论文Ni²⁺-O-Pd 界面增强生物质氧化研究发表于 Nature Communications
团队成员

陈光需

教授 / 博士生导师

华南理工大学
环境与能源学院

cgx08(at)scut.edu.cn

Google Scholar:Google Scholar
ORCID:Orcid

陈光需,华南理工大学环境与能源学院教授、博士生导师,入选 国家海外高层次青年人才项目(2018)。本科毕业于安徽大学,博士师从厦门大学郑南峰院士,随后在斯坦福大学崔屹院士课题组开展博士后研究。

课题组主要面向双碳目标和环境净化,致力于将基础研究转化为支撑“双碳”战略的产业动能;依托自主构建的全智能机器人实验平台,打通从材料 AI 筛选到工程化系统集成的全链条开发,重点推进电化学生物质增值转化、CO2 捕获-转化-利用(CCUS)系统能效优化以及复杂体系电分离工程化装备研制。

已主持国家海外高层次青年人才项目、科技部重点研发计划课题、国家自然科学基金面上项目、科技部外专项目以及广东省“珠江人才计划”等多项科研任务。

已发表 100 余篇 SCI 论文,包括 ScienceNature MaterialsNature CatalysisNature WaterNature CommunicationsJACSACS CatalysisNano LettersACS Nano 等,累计引用超过 16,800 次,H-index 为 50,ESI 高被引论文 13 篇。

曾获 2018 年度国家自然科学奖二等奖(项目“金属纳米材料的配位化学”,排名第四)和 2024 年广东省科技成果推广奖。已申请专利 25 项,其中授权 18 项,另有 2 项 PCT 专利和 2 项成果转化。

工作经历

2019/09 – 至今华南理工大学环境与能源学院,教授
2015/09 – 2019/06斯坦福大学材料科学与工程系,博士后(合作导师:崔屹院士)
2014/09 – 2015/09厦门大学能源材料化学协同创新中心,博士后(合作导师:郑南峰院士)

教育背景

2009/09 – 2014/07厦门大学,化学博士
2005/09 – 2009/07安徽大学,化学学士

* 学生信息直接展示在本页;各位同学的入学年份已体现在个人卡片中,因此不再按照年份二次分组。

研究方向

研究方向主要面向双碳目标与环境净化,围绕“基础研究—智能筛选—工程集成”开展全链条创新:通过全智能机器人实验平台实现材料 AI 筛选与系统开发协同推进,重点聚焦电化学生物质增值转化高值利用、CO2 捕获-转化-利用(CCUS)系统能效优化以及复杂体系电分离工程化装备研制,形成兼具经济性与可持续性的技术方案。

Electrocatalysis

电化学反应工程

醇、醛类小分子的电化学精准转化:面向 HMF、苄醇、甘油等生物质衍生平台分子,构建金属界面催化剂,实现高选择性氧化与还原转化。

CO₂ 电化学固定与直接利用:发展铜基及多相界面催化剂,实现 C2+ 产物高选择性制备,并与污水脱氮、CO₂ 捕集等过程耦合。

Electrochemical Recovery and Separation
🔋

电分离工程

基于电渗析的体系设计:开发面向离子与产物高效回收的电化学分离平台,实现反应与分离的一体化。

拓展应用:涵盖电化学合成与分离、废液中碱金属回收,以及多功能耦合电化学系统构建。

Resource Recycling
♻️

资源循环与升级再生

围绕聚乙烯、聚苯乙烯、PET 等塑料废弃物,发展热催化与电催化转化策略,将其升级为高附加值化学品,服务循环经济与低碳转型。

🤖

全智能机器人实验平台

开发自主机器人平台与 AI 辅助策略,实现纳米材料端到端自动化合成、高通量表征与智能催化剂筛选。

科研项目
🏆 国家级项目
2024 科技部重点研发计划“循环经济关键技术与装备”重点专项(2024YFC3908700)在研
芯片生产过程与废弃液晶化学品环境风险防控技术研发与应用示范,课题负责人,2025/01–2028/12
2024 国家自然科学基金面上项目(22471077)在研
电催化 CO₂ 高效转化:从催化剂可控制备到污水脱氮除磷应用,2025/01–2028/12
2020 科技部外专项目(G20200019024)已结题
功能纳米材料在可再生能源与环境中的应用研究
2019 国家自然科学基金面上项目(21971070)已结题
配位小分子调控铜基纳米材料的表界面结构及电催化选择性,2020/01–2024/12
2018 国家“海外高层次引进人才”青年项目已结题
🏛️ 省部级 / 地方项目
2024 广东省自然科学基金面上项目(2025A1515010458)在研
负载型铂团簇催化剂的设计合成及其界面催化氧化研究,2025/01–2026/12
2022 广东省自然科学基金面上项目(2022A1515012047)已结题
亚单层(氢)氧化物-金属纳米模型催化剂的精准构筑及其在水煤气反应中的界面效应研究
2021 广州市重点研发计划(202103040002)在研
基于金属双极板的高性能质子交换膜燃料电池电堆开发和验证,2021/04–2024/03
2020 广东省重点研发计划(2020B010188002)已结题
烷烃脱氢单原子催化剂的制备及其工程应用示范,2020/01–2022/12
2020 珠海市香洲区“香山创业英才”项目已结题,2020/01–2025/12
2019 “珠江人才计划”引进创新创业团队(2019ZT08L075)在研,2020/05–2025/05
2019 “珠江人才计划”青年拔尖项目(2019QN01L159)在研,2020/05–2025/05
🏫 校级项目
2019– 华南理工大学“兴华学者”人才计划
论文成果

本页面按照两个子目录进行展示:论文(Papers)用于展示期刊论文成果,专利(Patents)用于展示知识产权成果。

* 通讯作者  ·  + 共同一作  ·  展示 2021 年以来代表性论文

2026
Accelerating Multi-Elemental Catalyst Discovery with Interpretable Machine Learning and Automated Experimentation ACS Nano
Liu F., Chen Z., Hu H., Li C., Zhang L., Liu Z.*, Chen G.*
ACS Nano, 2026 DOI →
Hierarchical ZSM-5 Catalysts With Engineered Surface Acid Sites for Selective and Efficient Upgradation of Waste Polyolefins
Dai J., Li Z., Tian S., Wang M., Wu Q., Huang R., Cheng K., Liu S., Chen G.*
ChemSusChem, 2026, 19, e202502489 DOI →
Heteropoly acid-mediated electrochemically efficient removal of oxygen
Sun P.+, Wang P.+, Chen Z.+, Pei A., Wu Q., Zhang G., Ji S., Liu D., Qin H., Chen G.*
Chem. Commun., 2026 DOI →
Efficient and Selective Electrooxidation of 5-Hydroxymethylfurfural at Low Voltage by the Pt–O–Ti Interface Nano Lett.
Zhou W.+, Fu S.+, Pei A.+, Zhang J., Jiang X., Liu R., Yang H., Huang W.-H., Liu S., Peng J., Zhao Y.*, Chen G.*
Nano Letters, 2026, 26, 7, 2769–2777 DOI →
Carbonate-incorporated cobalt hydroxides for enhanced performance in the electrocatalytic oxidation of 5-hydroxymethylfurfural
She X.+, Zhang J.+, Yang H.+, Tian H., Zhou W., Zhao Y., Zhang S., Tu R., Chen G.*, Peng J.*
Nano Research, 2026, 19(3): 94908223 DOI →
Efficient and Sustainable Electrochemical System for Alkali Ion Recovery from Alkaline Polyester Waste Hydrolysis
Chen Z., Wang P., Pei A., Zhang G., Liu D., Sun P., Chen G.*
Small Methods, 2026, 10(3), 2500962 DOI →
Electron-Enriched Pt-In Synergistic Sites for Highly Selective and Direct Photo-Reforming of PET Plastic Wastes into Acetic Acid
Yang C., Li W., Wang Y., Shang J., Kamegawa T., Chen G., Yamashita H.*
Angew. Chem. Int. Ed., 2026, 65(2), e21531 DOI →
Online monitoring of odor compounds in drinking water sources by an integrated robotic sample preparation platform coupled with a gas chromatography-mass spectrometry system
Wu M., Su Y., Chen Z., Zhao W.-W., Song N.*, Hu B.*, Chen G.*
Talanta, 2026, 297, 128529 DOI →
2025
Realizing the practical application of CO₂ electroreduction for urban wastewater denitrification Nature Water
Wu Q.+, Ji S.+, Chen J.+, Tan X.-Q., Ong W.-J., Du R., Wang P., Wang H., Qiu Y., Yan K., Zhao Y., Zhao W.-W.*, Peng K.-S., Chen Y.-Y., Hung S.-F.*, Zhou L., Wang X., Qiu G.*, Chen G.*
Nature Water, 2025, 3, 1291–1302 DOI →
Integrated system for electrolyte recovery, product separation, and CO₂ capture in CO₂ reduction Nat. Commun.
Wang P.+, Pei A.+, Chen Z.+, Sun P., Hu C., Wang X., Zheng N.*, Chen G.*
Nature Communications, 2025, 16, 731 DOI →
A chemical autonomous robotic platform for end-to-end synthesis of nanoparticles Nat. Commun.
Gao F.+, Li H.+, Chen Z.+, Yi Y., Nie S., Cheng Z., Liu Z.*, Liu S., Guo Y., Qin Q., Li Z., Zhang L., Hu H., Li C., Yang L., Wang Y., Chen G.*
Nature Communications, 2025, 16, 7558 DOI →
Low-Voltage Electrooxidation of Benzyl Alcohol to Benzoic Acid Enhanced by PtZn-ZnOx Interface JACS
Liu R.+, Tu W.+, Pei A.*, Huang W.-H., Jia Y.*, Wang P., Liu D., Wu Q., Qin Q., Zhou W., Zhou L., Yan K., Zhao Y.*, Chen G.*
J. Am. Chem. Soc., 2025, 147, 12, 10339–10348 DOI →
Two-Dimensional Submonolayer Pt Clusters with Optimal Pt⁰–Ptᵟ⁺ Sites for Efficient Methylcyclohexane Dehydrogenation
Li Z.+, Wang M.+, Yang H.+, Jia Y.*, Liu S., Yang S., Chen M., Wang P., Dai S., Zhou L., Zhao Y.*, Chen G.*
ACS Nano, 2025, ASAP DOI →
LiCoO₂-Derived Ni-Doped Catalysts for Electrochemical Upcycling of PET Waste to Formic Acid
Chen Z.+, Zhang G.+, Yang H.+, Zhao Y., Pei A., Wang P., Yang J., Zhang J., Sun P., Qin H., Zhan J., Peng J., Huang W.-H., Zhou L., Chen G.*
ACS Nano, 2025, 19, 29, 26572–26582 DOI →
Selective Biomass Valorization in Neutral Electrolyte by Lowering the O₂ Activation Energy via Tandem Catalysis
Zheng Y., Wu Q., Wang H., Wang P., Huang W.-H., Zhao Y., Chen G.*
ACS Catalysis, 2025, 15, 18155–18166 DOI →
Copper-Optimized Active Sites in Cobalt Oxide Nanocubes for Selective Electrooxidation of 5-Hydroxymethylfurfural
Zhang J., Pei A., Yang H., Zhou W., Feng Z., Tian H., Zhao Y.*, Chen G.*, Peng J.*
ACS Catalysis, 2025, 15(6), 4596–4604 DOI →
Transforming polystyrene wastes into aromatic products near ambient temperature with aluminium chloride
Tian S.+, Dai J.+, Li Z., Wu Q., Chen G.*
Green Chemistry, 2025, 27, 7908–7917 DOI →
Fine regulation of Ru species improved the polyethylene hydrogenolysis performance over Ru/Al₂O₃ catalyst
Dai J., Fang Z., Yang H., Li Z., Wang M., Tian S., Liu S., Jia Y., Chen M., Zhao Y., Chen G.*
Nano Research, 2025 DOI →
Li₂ZrF₆-based electrolytes for durable lithium metal batteries Nature
Xu Q., Li T., Ju Z., Chen G., Ye D., Waterhouse G.I.N., Lu Y., Lai X., Zhou G., Guo L.*, Yan K.*, Tao X.*, Li H.*, Qiu Y.
Nature, 2025, 637, 339–346 DOI →
Tuning *CO Adsorption via Cu⁺/Cu⁰ Interface Engineering for Enhanced Ethylene Selectivity in Electrochemical CO₂ Reduction
Wang H., Wu Q., Du R., Chen G.*
ACS Applied Materials & Interfaces, 2025, 17(39), 55003–55012 DOI →
Quenching-induced Fe doping on spent cathode materials enhances the oxygen evolution reaction performance
Zhang G., Ye C., Li T., Liu S., Huang W.-H., Chen Z., Ren X., Lin J., Yang J., Chen G.*
Energy Storage Materials, 2025, 80, 104430 DOI →
Surface structure engineering of PtCu clusters enhances the performance of propane dehydrogenation
Lin J., Yang J., Li T., Zhao S., Huang W.-H., Chen C.-L., Zhao Y., Liu S., Gu L., Chen G.*
Nano Research, 2025, 18(5), 94907357 DOI →
2D Plasmonic Photocatalyst Enables Highly Efficient Hot-Electron-Mediated Surface Reactions under Red Light Irradiation
Gan Y., Kalantari Osgouei A., Ahrens B., Wang B., Zhou J., Zhan J.Z., Deng Z., Chen G.
ACS Nano, 2025, 19(17), 17006–17013 DOI →
Pt Nanoparticles Supported on Graphitic Carbon Nitride/CeO₂ Nanocomposite as a Catalyst for the Oxidation of Toluene
Zhong M., Chong Y., Li Y., Zeng Z., Duan C., Liu S., Qiu Y., Ye D., Chen G.*
ACS Applied Nano Materials, 2025, 8(13), 6554–6562 DOI →
Structural engineering of core–shell PtCu alloy catalysts for propane dehydrogenation: a DFT study
Jiang F., Zhang S., Liu D., Lin J., Yang H., Li H., Wang H., Chen G., Zhao Y.*
Physical Chemistry Chemical Physics, 2025, 27(22), 12032–12040 DOI →
2024
Enhanced electrocatalytic biomass oxidation at low voltage by Ni²⁺-O-Pd interfaces Nat. Commun.
Pei A.+, Wang P.+, Zhang S., Zhang Q., Jiang X., Chen Z., Zhou W., Qin Q., Liu R., Du R., Li Z., Qiu Y., Yan K., Gu L.*, Ye J., Waterhouse G.I.N., Huang W.-H., Chen C.-L., Zhao Y.*, Chen G.*
Nature Communications, 2024, 15, 5899 DOI →
Pt–ZnOx Interfacial Effect on the Performance of Propane Dehydrogenation and Mechanism Study
Liu D., Jiang F., Zhang Q., Huang W.-H., Zheng Y., Chen M., Wu L., Qin R., Wang M., Zhang S., Chen L., Yan K., Zhou L., Zhao Y.*, Gu L.*, Chen G.*
ACS Nano, 2024, 18, 51, 34671–34682 DOI →
Unveiling the Gold Facet Effect in Selective Oxidation of 5-Hydroxymethylfurfural and Hydrogen Production
Qin Q., Li T.*, Sun X., Pei A., Jia Y., He H., Gao F., Wang P., Wu Q., Liu R., Dai S., Lin H., Zhang Q., Zhao Y., Chen G.*
Nano Letters, 2024, 24, 51, 16351–16359 DOI →
Modulating Adsorption–Redox Sites of Cs₃Bi₂Br₉₋ₓ@AgBr Core–Shell Heterostructure for Selective Toluene Photooxidation
Zhou B., Fan K., Chong Y., Xu S., Wei J., Wei J., Sergeev A.A., Wong K.S., Li T.*, Chen G.*, Ye D.*, Yan K.*
ACS Energy Letters, 2024, 9, 4, 1743–1752 DOI →
Multistep Quenching of a Rust-Derived Catalyst for Enhanced VOC Catalytic Oxidation
Chong Y., Chen T., Zhou B., Li Y., Huang W.-H., Chen C.-L., Wei J., Yan K., Qiu Y.*, Chen G.*, Ye D.
ACS Catalysis, 2024, 14, 9, 7201–7212 DOI →
Efficient photothermal catalytic oxidation enabled by three-dimensional nanochannel substrates
Li Y., Zhang Q., Chong Y., Huang W.-H., Chen C.-L., Jin X., Chen G.*, Fan Z.*, Qiu Y.*, Ye D.
Environmental Science & Technology, 2024, 58, 11, 5153–5161 DOI →
Heterostructured metal oxides realized by quenching-induced structural transformation
Ye C., Pan Z., Zhang Q., Yin F., Wang Y., Li Y., Chen G., Li J., Qiu Y.*, Waterhouse G.I.N., Gu L.*, Lin Z., Guo L.*
Energy & Environmental Science, 2024, 17, 332–343 DOI →
Hydrogen Spillover Induced PtCo/CoOx Interfaces for Enhanced CO Oxidation at Low Temperatures in Humid Conditions
Lin J., Zhao S., Yang J., Huang W.-H., Chen C.-L., Chen T., Zhao Y., Chen G.*, Qiu Y.*, Gu L.
Small, 2024, 20, 2309181 DOI →
CuCl₂/FeCl₃ Bimetallic Photocatalyst for Sustainable Ethylene Production from Ethanol via Recoverable Redox Cycles
Xu S., Li M., Zhou B., Duan C., Zou F., Zou S., Long X., Chen G.*, Yan K.*
J. Phys. Chem. Lett., 2024, 15, 17, 4640–4646 DOI →
Automated pretreatment of environmental water samples and non-targeted intelligent screening of organic compounds based on machine experiments
Qiao Y., Wu M., Song N., Ge F., Yang T., Wang Y., Chen G.*
Environment International, 2024, 193, 109072 DOI →
Metal-Organic Framework Nanozyme Enabling Dual-Functional Photo-Induced Charge Transfer and Biomimetic Precipitation for Advanced Organic Photoelectrochemical Transistor
Xu K.X., Yuan C., Lou H., Chen F.Z., Zhang L., Chen G., Han D.M., Zhao W.W.*
Chinese Journal of Chemistry, 2024, 42(17), 1999–2004 DOI →
Metal-organic polymer enables efficient organic photoelectrochemical transistor biosensing
Yuan C., Wu Q., Xu K.X., Liu X.S., Lou H., Xu Y.T., Li Z., Meng Y., Li T., Ban R., Chen G., Zhao W.W.*
Biosensors and Bioelectronics, 2024, 257, 116346 DOI →
Online sequential analysis of volatile and semivolatile organic compounds in water matrices by double robotic sample preparations and dual-channel comprehensive two-dimensional GC
Wu M., Ma Q., Li M., Zhou J., Xu J., Waterhouse G.I.N., Song N., Zhao W.W., Chen G.*
Journal of Chromatography A, 2024, 1726, 464963 DOI →
Photoresponsive hydrogen-bonded organic frameworks-enabled organic photoelectrochemical transistors for sensitive bioanalysis
Yin P., Li Z., Wu Q., Hu J., Chen F.Z., Chen G., Lin P., Han D.M., Zhao W.W.*
Analytical Chemistry, 2024, 96(5), 2135–2141 DOI →
The reaction mechanism and kinetics of H₂O₂ production on graphene modified by oxygen functional groups: the effect of an aqueous environment
Zhang S., Jiang F., Zheng Y., Tu W., Fu S., Chen G., Zhao Y.*
New Journal of Chemistry, 2024, 48(40), 17436–17444 DOI →
2023
Solar-driven efficient heterogeneous subminute water disinfection nanosystem assembled with fingerprint MoS₂ Nature Water
Wu T., Liu B., Liu C., Wan J., Yang A., Liu K., Shi F., Zhao J., Lu Z., Chen G., Pei A., Hwang H.Y., Cui Y.*
Nature Water, 2023, 1(5), 462–470
Toward more efficient carbon-based electrocatalysts for H₂O₂ synthesis: roles of cobalt and carbon defects in two-electron ORR
Zheng Y., Wang P., Huang W.-H., Chen C.-L., Jia Y., Dai S., Li T., Zhao Y., Qiu Y., Waterhouse G.I.N., Chen G.*
Nano Letters, 2023, 23, 3, 1100–1108 DOI →
Nanograin-Boundary-Abundant Cu₂O-Cu Nanocubes with High C2+ Selectivity during Electrochemical CO₂ Reduction at 500 mA/cm²
Wu Q., Du R., Wang P., Waterhouse G.I.N., Li J., Qiu Y., Yan K., Zhao Y., Zhao W.-W., Tsai H.-J., Chen M.-C., Hung S.-F.*, Wang X.*, Chen G.*
ACS Nano, 2023, 17, 13, 12884–12894 DOI →
Quenching-induced defect-rich platinum/metal oxide catalysts promote catalytic oxidation
Chong Y., Chen T., Li Y., Lin J., Huang W.-H., Chen C.-L., Jin X., Fu M., Zhao Y., Chen G.*, Wei J.*, Qiu Y.*, Waterhouse G.I.N., Ye D., Lin Z., Guo L.
Environmental Science & Technology, 2023, 57, 14, 5831–5840 DOI →
Cu-C(O) Interfaces Deliver Remarkable Selectivity for CO₂ Reduction to C2+ Products at 500 mA/cm²
Du R., Wu Q., Zhang S., Wang P., Li Z., Qiu Y., Yan K., Waterhouse G.I.N., Wang P., Li J., Zhao Y.*, Zhao W.-W.*, Wang X.*, Chen G.*
Small, 2023, 19, 28, 2301289 DOI →
CeO₂/Cu₂O/Cu Tandem Interfaces for Efficient Water–Gas Shift Reaction Catalysis
Li Z., Wang M., Jia Y., Du R., Li T., Zheng Y., Chen M., Qiu Y., Yan K., Zhao W.-W., Wang P., Waterhouse G.I.N., Dai S.*, Zhao Y.*, Chen G.*
ACS Applied Materials & Interfaces, 2023, 15, 26, 31584–31594 DOI →
Atomic-Interface Effect of Single-Atom Ru/CoOx for Selective Electrooxidation of 5-Hydroxymethylfurfural
Gu W., Pei A.*, Zhang S., Jiang F., Jia Y.*, Qin Q., Du R., Li Z., Liu R., Qiu Y., Yan K., Zhao Y., Liang C.*, Chen G.*
ACS Applied Materials & Interfaces, 2023, 15, 23, 28036–28043 DOI →
Hydride-doped Ag₁₇Cu₁₀ nanoclusters as high-performance electrocatalysts for CO₂ reduction
Sun X., Wang P., Yan X., Guo H., Wang L., Xu Q., Yan B., Li S., He J.*, Chen G.*, Shen H.*, Zheng N.
iScience, 2023, 26, 10, 107850
Theoretical and experimental study on the dehydrogenation of propane by oxygen vacancy caused by γ-Al₂O₃ with the assistance of S
Chen T., Zhao S., Lin J., Chong Y., Li Y., Zhao Y., Chen G.*, Qiu Y.
Surfaces and Interfaces, 2023, 42, 103399 DOI →
Reversible Stacking of 2D ZnIn₂S₄ Atomic Layers for Enhanced Photocatalytic Hydrogen Evolution
Wu L., Li M., Zhou B., Xu S., Yuan L., Wei J., Wang J., Zou S., Xie W., Qiu Y., Chen G., Yan K.*
Small, 2023, 19(42), 2303821 DOI →
Synergistic effects of heterointerface and surface Br vacancies in ultrathin 2D/2D H₂WO₄/Cs₂AgBiBr₆ for efficient CO₂ photoreduction to CH₄
Zhou B., Xu X., Li M., Wu L., Xu S., Yuan L., Chong Y., Xie W., Liu P., Ye D., Chen G., Qiu Y.*, Yan K.*
Chemical Engineering Journal, 2023, 468, 143754 DOI →
Strain-Engineering of Mesoporous Cs₃Bi₂Br₉/BiVO₄ S-Scheme Heterojunction for Efficient CO₂ Photoreduction
Zhou B., Xu S., Wu L., Li M., Chong Y., Qiu Y., Chen G., Zhao Y., Feng C., Ye D., Chen G.*, Yan K.*
Small, 2023, 19(29), 2302058 DOI →
Functional metal–organic frameworks for maximizing transconductance of organic photoelectrochemical transistor at zero gate bias and biological interfacing application
Gao G., Chen J.H., Jing M.J., Hu J., Xu Q., Wang C.S., Zhou H., Lin P., Chen G., Zhao W.W.*
Advanced Functional Materials, 2023, 33(22), 2300580 DOI →
Polymer dot-gated accumulation-type organic photoelectrochemical transistor for urea biosensing
Yuan C., Xu Y.T., Huang Y.T., Zhou H., Jiang X.W., Ju P., Zhu Y.C., Zhang L., Chen G., Zhao W.W.*
ACS Sensors, 2023, 8(4), 1835–1840 DOI →
Photodehydration of Ethanol Mediated by CuCl₂–Ethanol Complex
Tang H., Xu S., Li M., Wu L., Duan C., Luo H., Zhou B., Rao M., Qiu Y., Chen G.*, Yan K.*
J. Phys. Chem. Lett., 2023, 14(11), 2750–2757 DOI →
Biomolecules-incorporated metal-organic frameworks gated light-sensitive organic photoelectrochemical transistor for biodetection
Li C.J., Hu J., Gao G., Chen J.H., Wang C.S., Zhou H., Chen G., Qu P., Lin P., Zhao W.W.*
Advanced Functional Materials, 2023, 33(8), 2211277 DOI →
2022
Molecular Assembled Electrocatalyst for Highly Selective CO₂ Fixation to C2+ Products
Wang P., Li T., Wu Q., Du R., Zhang Q., Huang W.-H., Chen C.-L., Fan Y., Chen H., Jia Y., Dai S., Qiu Y., Yan K., Meng Y., Waterhouse G.I.N., Gu L.*, Zhao Y.*, Zhao W.-W.*, Chen G.*
ACS Nano, 2022, 16, 10, 17021–17032 DOI →
In Situ Engineering of the Cu⁺/Cu⁰ Interface to Boost C2+ Selectivity in CO₂ Electroreduction
Du R., Li T.*, Wu Q., Wang P., Yang X., Fan Y., Qiu Y., Yan K., Wang P., Zhao Y.*, Zhao W.-W.*, Chen G.*
ACS Applied Materials & Interfaces, 2022, 14, 32, 36527–36535 DOI →
Engineering cobalt oxide with coexisting cobalt defects and oxygen vacancies for enhanced catalytic oxidation of toluene
Li Y., Chen T., Zhao S., Wu P., Chong Y., Li A., Zhao Y., Chen G., Jin X.*, Qiu Y.*, Ye D.
ACS Catalysis, 2022, 12, 9, 4906–4917 DOI →
Perovskite Cs₃Bi₂I₉ Hexagonal Prisms with Ordered Geometry for Enhanced Photocatalytic Hydrogen Evolution
Li M., Xu S., Wu L., Tang H., Zhou B., Xu J., Yang Q., Zhou T., Qiu Y., Chen G., Waterhouse G.I.N., Yan K.*
ACS Energy Letters, 2022, 7, 10, 3370–3377 DOI →
Unveiling the water-resistant mechanism of Cu(I)-O-Co interfaces for catalytic oxidation
Zhao S., Wu P., Lin J., Li Y., Li A., Jin X., Chen Y., Zhao B., Zhao Y.*, Chen G., Qiu Y.*, Ye D., Yang S.
Chemical Engineering Journal, 2022, 429, 132219 DOI →
Alkaline Phosphatase-Mediated Bioetching of CoOOH/BiVO₄ for Signal-On Organic Photoelectrochemical Transistor Bioanalysis
Ban R., Li C.J., Xu Y.T., Zhu Y.Y., Ju P., Li Y.M., Du H.J., Hu J., Chen G., Lin P., Zhao W.W.*
Analytical Chemistry, 2022, 95(2), 1454–1460 DOI →
A dual plasmonic core–shell Pt/[TiN@TiO₂] catalyst for enhanced photothermal synergistic catalytic activity of VOCs abatement
Li A., Zhang Q., Zhao S., Chong Y., Wu P., Li Y., Jin X., Chen G., Qiu Y.*, Yang S.*
Nano Research, 2022, 15(8), 7071–7080 DOI →
Conformal surface-nanocoating strategy to boost high-performance film cathodes for flexible zinc-ion batteries as an amphibious soft robot
Yang J., Yang H., Ye C., Li T., Chen G., Qiu Y.*
Energy Storage Materials, 2022, 46, 472–481 DOI →
Light-Fueled Organic Photoelectrochemical Transistor for Probing Membrane Protein in an H-Cell
Li Z., Xu Y.T., Hu J., Liu X.N., Chen F.Z., Jia H.M., Zhou H., Chen G., Lin P., Zhao W.W.*
Advanced Materials Interfaces, 2022, 9(3), 2102040 DOI →
2021
Organic wastewater treatment by a single-atom catalyst and electrolytically produced H₂O₂
Xu J., Zheng X., Feng Z., Lu Z., Zhang Z., Huang W., Li Y., Vuckovic D., Li Y., Dai S., Chen G., Wang K., Wang H., Chen J.K., Mitch W., Cui Y.*
Nature Sustainability, 2021, 4, 233–241 DOI →
Activating metal oxide nanocatalysts for electrocatalytic water oxidation by quenching-induced near-surface metal atom functionality
Ye C., Liu J., Zhang Q., Jin X., Zhao Y.*, Pan Z., Chen G., Qiu Y.*, Ye D., Gu L., Waterhouse G.I.N., Guo L.*, Yang S.
J. Am. Chem. Soc., 2021, 143, 35, 14169–14177 DOI →
A Hydrothermally Stable Single-Atom Pt Catalyst on High-Entropy Oxide/Al₂O₃ for Enhanced Catalytic Activity
Zhao S., Lin J., Wu P., Ye C., Li Y., Li A., Jin X., Zhao Y., Chen G., Qiu Y.*, Ye D.
ACS Applied Materials & Interfaces, 2021, 13, 41, 48764–48773 DOI →
Engineering Co³⁺-rich crystal planes on Co₃O₄ hexagonal nanosheets for CO and hydrocarbons oxidation
Zhao S., Li T., Lin J., Wu P., Li Y., Li A., Chen T., Zhao Y., Chen G., Yang L., Meng Y., Jin X., Qiu Y.*, Ye D.
Chemical Engineering Journal, 2021, 420, 130448 DOI →
Regulating Light-Sensitive Gate of Organic Photoelectrochemical Transistor toward Sensitive Biodetection at Zero Gate Bias
Lu M.J., Chen F.Z., Hu J., Zhou H., Chen G., Yu X.D., Ban R., Lin P., Zhao W.W.*
Small Structures, 2021, 2(11), 2100087 DOI →
2020
A universal seeding strategy to synthesize single atom catalysts on 2D materials for electrocatalytic applications
Zhao S., Chen G., Zhou G., Yin L.-C., Veder J.-P., Johannessen B., Saunders M., Yang S.-Z.*, De Marco R., Liu C.*, Jiang S.P.*
Advanced Functional Materials, 2020, 30(6), 1906157 DOI →
Membrane‐Free Zn/MnO₂ Flow Battery for Large‐Scale Energy Storage
Li G., Chen W., Zhang H., Gong Y., Shi F., Wang J., Zhang R., Chen G., Jin Y., Wu T., Tang Z., Cui Y.*
Advanced Energy Materials, 2020, 10(9), 1902085 DOI →
Interfacial effects in hierarchically porous α-MnO₂/Mn₃O₄ heterostructures promote photocatalytic oxidation activity
Wu P., Dai S., Chen G., Zhao S., Xu Z., Fu M., Chen P., Chen Q., Jin X.*, Qiu Y.*, Yang S., Ye D.
Applied Catalysis B: Environmental, 2020, 268, 118418 DOI →
Cu²⁺-Decorated Porous Co₃O₄ Nanosheets for Photothermocatalytic Oxidation of Toluene
Zhao S., Jin X.*, Wu P., Zhao Y., Chen G., Li Y., Li A., Ye D., Qiu Y.*
ACS Applied Nano Materials, 2020, 3, 10, 10454–10461 DOI →
A synchronous nucleation and passivation strategy for controllable synthesis of Au₃₆(PA)₂₄
Ma X., Ma G., Qin L., Chen G., Chen S.*, Tang Z.*
Science China Chemistry, 2020, 63, 1777–1784 DOI →
2019
Wrinkled graphene cages as hosts for high-capacity Li metal anodes shown by cryogenic electron microscopy
Wang H., Li Y., Li Y., Liu Y., Lin D., Zhu C., Chen G., Yang A., Yan K., Chen H., Zhu Y., Li J., Liu J., Zhao J., Pei A., Kim K., Cui Y.*
Nano Letters, 2019, 19(2), 1326–1335 DOI →
Cryo-EM structures of atomic surfaces and host-guest chemistry in metal-organic frameworks
Li Y., Wang K., Zhou W., Li Y., Vila R., Huang W., Wang H., Chen G., Wu G.-H., Tsao Y., Li H., Cui Y., Bao Z.*, Wu H.W.*
Matter, 2019, 1(2), 428–438 DOI →
Self-selective catalyst synthesis for CO₂ reduction
Wang H., Liang M., Tang M., Chen G., Li Y., Chen W., Lin D., Zhang Z., Zhou G., Li J., Lu Z., Liu Y., Liu N., Zhao J., Cui Y.*
Joule, 2019, 3(8), 1927–1936 DOI →
Bismuth-containing semiconductors for photoelectrochemical sensing and biosensing
Yu S.Y., Zhang L., Zhu L.B., Gao Y., Fan G.C., Han D.M., Chen G., Zhao W.W.*
Coordination Chemistry Reviews, 2019, 393, 9–20 DOI →
Improved Oxygen Reduction Reaction Activity of Nanostructured CoS₂ through Electrochemical Tuning
Zhao W.W., Bothra P., Lu Z., Li Y., Mei L.P., Liu K., Zhao Z., Chen G., Back S., Siahrostami S., Nørskov J.K., Zheng G.*
ACS Applied Energy Materials, 2019, 2(12), 8605–8614 DOI →
Liposome-mediated in situ formation of AgI/Ag/BiOI Z-scheme heterojunction on foamed nickel electrode for cathodic liposomal photoelectrochemical bioanalysis
Yu S.Y., Mei L.P., Xu Y.T., Xue T.Y., Fan G.C., Han D.M., Chen G., Zhao W.W.*
Analytical Chemistry, 2019, 91(6), 3800–3804 DOI →
Unravelling degradation mechanisms and atomic structure of organic-inorganic halide perovskites by cryo-EM
Li Y., Zhou W., Li Y., Huang W., Zhang Z., Chen G., Wang H., Wu G.-H., Zhu Y., Cui Y.*, Yang Y.*
Joule, 2019, 3(11), 2854–2866 DOI →
2018
High-efficiency oxygen reduction to hydrogen peroxide catalysed by oxidized carbon materials Nature Catal.
Lu Z.+, Chen G.+, Siahrostami S.+, Chen Z., Liu K., Xie J., Liao L., Wu T., Lin D., Liu Y., Jaramillo T.F., Nørskov J.K., Cui Y.*
Nature Catalysis, 2018, 1(2), 156–162 DOI →
Efficient electrocatalytic CO₂ reduction on a three-phase interface Nature Catal.
Li J., Chen G., Zhu Y., Liang Z., Pei A., Wu C.-L., Wang H., Lee H.R., Liu K., Chu S., Cui Y.*
Nature Catalysis, 2018, 1(8), 592–600 DOI →
A manganese–hydrogen battery with potential for grid-scale energy storage Nature Energy
Chen W., Li G., Pei A., Li Y., Liao L., Wang H., Wan J., Liang Z., Chen G., Zhang H., Wang J., Cui Y.*
Nature Energy, 2018, 3(5), 428–435 DOI →
Solubility-mediated sustained release enabling nitrate additive in carbonate electrolytes for stable lithium metal anode Nat. Commun.
Liu Y., Lin D., Li Y., Chen G., Pei A., Nix O., Li Y., Cui Y.*
Nature Communications, 2018, 9, 3656 DOI →
Interfacing with silica boosts the catalysis of copper Nat. Commun.
Xu C.+, Chen G.+, Zhao Y., Liu P., Duan X., Gu L., Fu G., Yuan Y., Zheng N.*
Nature Communications, 2018, 9, 3367 DOI →
Lithium electrochemical tuning for electrocatalysis
Lu Z., Jiang K., Chen G., Wang H., Cui Y.*
Advanced Materials, 2018, 30(48), 1800978 DOI →
Shell-protective secondary silicon nanostructures as pressure-resistant high-volumetric-capacity anodes for lithium-ion batteries
Wang J., Liao L., Li Y., Zhao J., Shi F., Yan K., Pei A., Chen G., Li G., Lu Z., Cui Y.*
Nano Letters, 2018, 18(11), 7060–7065 DOI →
Bulk heterojunction quasi-two-dimensional perovskite solar cell with 1.18 V high photovoltage
Wang H., Cheng G., Xie S., Zhao M., Qin S., Chan C.C.S., Qiu Y., Chen G., Wong K.S.*
ACS Applied Materials & Interfaces, 2018, 11(3), 2935–2943 DOI →
Synthesis and performance characterizations of transition metal single atom catalyst for electrochemical CO₂ reduction
Jiang K., Chen G., Wang H.
Journal of Visualized Experiments, 2018, 57380 DOI →
2017
Identifying the Active Surfaces of Electrochemically Tuned LiCoO₂ for Oxygen Evolution Reaction
Lu Z., Chen G., Li Y., Wang H., Xie J., Liao L., Liu C., Liu Y., Wu T., Li Y., Luntz A.C., Bajdich M., Cui Y.*
J. Am. Chem. Soc., 2017, 139(17), 6270–6276 DOI →
Surface fluorination of reactive battery anode materials for enhanced stability
Zhao J., Liao L., Shi F., Lei T., Chen G., Pei A., Sun J., Yan K., Zhou G., Xie J., Liu C., Li Y., Liang Z., Bao Z., Cui Y.*
J. Am. Chem. Soc., 2017, 139(33), 11550–11558 DOI →
Transition-metal single atoms in a graphene shell as active centers for highly efficient artificial photosynthesis
Jiang K., Siahrostami S., Akey A.J., Li Y., Lu Z., Lattimer J., Hu Y., Stokes C., Zhu M., Chen G., Nørskov J.K., Bao Z., Wang H.*
Chem, 2017, 3(6), 950–960 DOI →
2016
Interfacial electronic effects control the reaction selectivity of platinum catalysts Nature Mater.
Chen G.+, Xu C.+, Huang X., Ye J., Gu L., Li G., Tang Z., Wu B., Yang H., Zhao Z., Zhou Z., Fu G.*, Zheng N.*
Nature Materials, 2016, 15(5), 564–569 DOI →
Photochemical route for synthesizing atomically dispersed palladium catalysts Science
Liu P., Zhao Y., Qin R., Mo S., Chen G., Gu L., Chevrier D.M., Zhang P., Guo Q., Zang D., Wu B., Fu G.*, Zheng N.*
Science, 2016, 352(6287), 797–800 DOI →
Two distinctive energy migration pathways of monolayer molecules on metal nanoparticle surfaces
Li J., Qian H., Chen H., Zhao Z., Yuan K., Chen G., Miranda A., Guo X., Chen Y., Zheng N., Wong M.S.*, Lienau C.*
Nature Communications, 2016, 7, 10749 DOI →
Interfacial effects in PdAg bimetallic nanosheets for selective dehydrogenation of formic acid
Hu C., Mu X., Fan J., Ma H., Zhao X., Chen G., Zhou Z., Zheng N.*
ChemNanoMat, 2016, 2(1), 28–32 DOI →
2015
A nanoparticulate polyacetylene-supported Pd(II) catalyst combining the advantages of homogeneous and heterogeneous catalysts
Li H., Chen G., Duchesne P.N., Zhang P., Dai Y., Yang H., Wu B., Liu S., Xu C., Zheng N.*
Chinese Journal of Catalysis, 2015, 36(9), 1560–1572 DOI →
Corrections to Surface Reconstruction and Reactivity of Platinum–Iron Oxide Nanoparticles
Duchesne P.N., Chen G., Zhao X., Zheng N., Zhang P.
J. Phys. Chem. C, 2015, 119(2), 1269–1269 DOI →
2014
Interfacial effects in iron-nickel hydroxide–platinum nanoparticles enhance catalytic oxidation Science
Chen G., Zhao Y., Fu G.*, Duchesne P.N., Gu L.*, Zheng Y., Weng X., Chen M., Zhang P., Pao C.-W., Lee J.-F., Zheng N.*
Science, 2014, 344(6183), 495–499 DOI →
Electrostatic self-assembling formation of Pd superlattice nanowires from surfactant-free ultrathin Pd nanosheets
Hu C., Lin K., Wang X., Liu S., Yi J., Tian Y., Wu B., Chen G., Yang H., Dai Y., Li H., Zheng N.
J. Am. Chem. Soc., 2014, 136, 37, 12856–12859 DOI →
Mechanisms for CO oxidation on Fe(iii)–OH–Pt interface: a DFT study
Zhao Y., Chen G., Zheng N., Fu G.
Faraday Discussions, 2014, 176, 381–392 DOI →
A hydride-induced-reduction strategy for fabricating palladium-based core–shell bimetallic nanocrystals
Wang X., Wu B., Chen G., Zhao Y., Liu P., Dai Y., Zheng N.*
Nanoscale, 2014, 6(12), 6798–6804 DOI →
Surface reconstruction and reactivity of platinum–iron oxide nanoparticles
Duchesne P.N., Chen G., Zhao X., Zheng N., Zhang P.*
J. Phys. Chem. C, 2014, 118(49), 28861–28867 DOI →
2013
Shape-Controlled Synthesis of Surface-Clean Ultrathin Palladium Nanosheets by Simply Mixing a Dinuclear PdI Carbonyl Chloride Complex with H₂O
Li H., Chen G., Yang H., Wang X., Liang J., Liu P., Chen M., Zheng N.*
Angewandte Chemie International Edition, 2013, 52(32), 8368–8372 DOI →
Local structure, electronic behavior, and electrocatalytic reactivity of CO-reduced platinum–iron oxide nanoparticles
Duchesne P.N., Chen G., Zheng N., Zhang P.*
J. Phys. Chem. C, 2013, 117(49), 26324–26333 DOI →
Supported monodisperse Pt nanoparticles from Pt₃(CO)₆ clusters for investigating support–Pt interface effect in catalysis
Chen G., Yang H., Wu B., Zheng Y., Zheng N.*
Dalton Transactions, 2013, 42(35), 12699–12705 DOI →
Synthesis of ultrathin nitrogen-doped graphitic carbon nanocages as advanced electrode materials for supercapacitor
Tan Y., Xu C., Chen G., Liu Z., Ma M., Xie Q., Zheng N., Yao S.*
ACS Applied Materials & Interfaces, 2013, 5(6), 2241–2248 DOI →
Surfactant-Concentration-Dependent Shape Evolution of Au–Pd Alloy Nanocrystals from Rhombic Dodecahedron to Trisoctahedron and Hexoctahedron
Zhang J., Hou C., Huang H., Zhang L., Jiang Z., Chen G., Jia Y., Kuang Q., Xie Z.*, Zheng L.*
Small, 2013, 9(4), 538–544 DOI →
Solvent effect on the synthesis of monodisperse amine-capped Au nanoparticles
Wu B., Yang H., Huang H., Chen G., Zheng N.*
Chinese Chemical Letters, 2013, 24(6), 457–462 DOI →
2012
Facile synthesis of manganese-oxide-containing mesoporous nitrogen-doped carbon for efficient oxygen reduction
Tan Y., Xu C., Chen G., Fang X., Zheng N., Xie Q.*
Advanced Functional Materials, 2012, 22(21), 4584–4591 DOI →
Carbon monoxide-controlled synthesis of surface-clean Pt nanocubes with high electrocatalytic activity
Chen G., Tan Y., Wu B., Fu G., Zheng N.*
Chemical Communications, 2012, 48(22), 2758–2760 DOI →
A graphene–platinum nanoparticles–ionic liquid composite catalyst for methanol-tolerant oxygen reduction reaction
Tan Y., Xu C., Chen G., Zheng N., Xie Q.*
Energy & Environmental Science, 2012, 5(5), 6923–6927 DOI →
Controlled synthesis and enhanced catalytic and gas-sensing properties of tin dioxide nanoparticles with exposed high-energy facets
Wang X., Han X., Xie S., Kuang Q., Jiang Y., Zhang S., Mu X., Chen G., Xie Z.*, Zheng L.*
Chemistry – A European Journal, 2012, 18(8), 2283–2289 DOI →
Synthesis of spatially uniform metal alloys nanocrystals via a diffusion controlled growth strategy: the case of Au-Pd alloy trisoctahedral nanocrystals with tunable composition
Zhang J., Zhang L., Jia Y., Chen G., Wang X., Kuang Q., Xie Z.*, Zheng L.*
Nano Research, 2012, 5(9), 618–629 DOI →
2011
Freestanding palladium nanosheets with plasmonic and catalytic properties Nature Nanotech.
Huang X., Tang S., Mu X., Dai Y., Chen G., Zhou Z., Ruan F., Yang Z., Zheng N.*
Nature Nanotechnology, 2011, 6(1), 28–32 DOI →
Au/Pt and Au/Pt₃Ni nanowires as self-supported electrocatalysts with high activity and durability for oxygen reduction
Tan Y., Fan J., Chen G., Zheng N., Xie Q.*
Chemical Communications, 2011, 47(42), 11624–11626 DOI →

以下内容用于概览课题组的知识产权布局,便于与论文成果一并浏览。

25专利申请
10已授权专利
1PCT 申请
2成果转化

电催化与反应系统

课题组围绕电化学氧化/还原体系、催化剂-电极集成以及反应-分离耦合过程,形成了可持续化学制造相关的专利布局。

资源回收与循环利用

专利工作还覆盖废液碱金属回收、塑料升级再生、污水处理以及面向能源与环境场景的循环经济工艺设计。

知识产权成果概览

  • 多项发明专利已获得授权。
  • 布局中包含 1 项国际 PCT 申请。
  • 已有 2 项技术完成转化落地。

合作联系

如需获取详细专利清单、技术许可或产学研合作信息,请联系陈光需老师:cgx08(at)scut.edu.cn

专利清单(部分)

以下列出目前已整理到网站中的 18 项代表性专利 / 申请,按您提供的顺序展示。

  1. 陈光需;吴祺祺;杜瑞安;王鹏;李正健;丘勇才;严克友;一种共轭导电聚合物改性铜基催化剂及其制备方法与应用,发明专利,2021115356288。
  2. 丘勇才;邬鹏;陈光需;严克友;一种光-热催化空气净化装置,发明专利,2020104815810。
  3. 吴曼曼;陈光需;刘淑敏;一种用于吹扫捕集中高效消泡装置及方法,发明专利,2023105286409。
  4. 陈光需;赵伟伟;杜瑞安;李正健;宾宇良;一种 CuO 纳米片及其自上而下的制备方法与应用,发明专利,2019111558601。
  5. 吴曼曼;陈光需;刘淑敏;一种在线多基质内 VOCs 分析装置及方法,发明专利,2022111086886。
  6. 陈光需;陈阳东;杜瑞安;郑远杰;吴祺祺;一种燃料电池气体扩散层及其制备方法与应用,发明专利,2023103750827。
  7. 陈光需;古雯蕾;梁程;李正健;丘勇才;严克友;一种负载型功能金属纳米团簇的低温冷冻光化学制备方法及得到的产品与应用,发明专利,2022109955648。
  8. 陈光需;裴安;李正健;丘勇才;严克友;一种用于生物质升级和塑料降解的电催化剂及其制备方法与应用,PCT 或外国申请,PCT/CN2023/095893。
  9. 陈光需;郑远杰;一种含有 3d 金属单原子和氮、氧共掺杂的碳材料的制备方法与应用,发明专利,2021113490526。
  10. 陈光需;裴安;李正健;丘勇才;严克友;一种用于生物质升级和塑料降解的电催化剂及其制备方法与应用,发明专利,2023104960894。
  11. 陈光需;杜瑞安;吴祺祺;王鹏;李正健;丘勇才;严克友;用于大电流二氧化碳电催化产乙烯的石墨烯量子点负载 CuO 催化剂及其制备方法与应用,发明专利,2023103073272。
  12. 陈光需;吴祺祺;杜瑞安;王鹏;李正健;丘勇才;严克友;一种富含 Cu0/Cu+ 界面活性位点的铜基催化剂及其制备方法与应用,发明专利,2023101582935。
  13. 陈光需;张改草;陈兆熙;赵文静;汪晓雪;一种草酸循环与氢氧化锂联产的废旧锂电正极材料回收方法,发明专利,202511663992.0。
  14. 陈光需;刘人凤;裴安;严克友;用于低电位产苯甲酸的富含 PtZn-ZnOx 界面活性位点的催化剂及其制备方法与应用,发明专利,202411994785.9。
  15. 陈光需;刘淑敏;裴安;周维玮;江逍逸;一种多元金属界面结构纳米催化剂 NM1NM2/C 及其制备方法与应用,发明专利,202510516554.5。
  16. 陈光需;王鹏;裴安;陈兆熙;用于碱性电化学合成中的电解质回收、产品分离和 CO₂ 捕获集成系统及其制备方法,发明专利,202411185786.9。
  17. 胡韩;胡泽凯;罗卓辉;蔡嘉标;陈欣婷;李存金;黄玉生;张礼松;陈光需;电镜样品制备系统及控制方法,发明专利,202410219362.3。
  18. 柳泽明;李宏强;陈光需;高繁;一种基于强化学习的金纳米棒 AuNRs 合成方法、系统,发明专利,202310426195.5。
教学

📘 无机化学

面向环境学科本科生,32 学时。课程内容涵盖无机化学基本原理、元素化学以及无机功能材料基础。

🧪 无机化学实验(I)

本科实验课程,32 学时。重点训练学生的基本实验技能、规范操作能力与科学探究方法。

🎓 环境与能源学科前沿讲座

研究生课程,3 学时。介绍环境与能源方向最新研究进展,覆盖电催化、热催化、纳米材料与可持续化学等前沿主题。

实验室生活

我们相信,支持性强、协作顺畅的科研环境是产出优秀成果的重要基础。课题组重视好奇心、开放交流和成员间的相互尊重。

📚 每周组会

定期进行科研进展汇报、文献分享和学术交流,帮助每位成员保持高效协作与持续成长。

🎂 课题组活动

通过生日会、聚餐和年度团建等活动增强团队凝聚力,营造积极向上的实验室氛围。

🏃 运动与健康

组内成员会组织羽毛球、篮球、徒步等活动,在科研之外保持良好的身心状态。

📷 实验室相册即将上线!
招生招聘

🔬 博士后招募(长期有效)

电催化方向(2–3 名):电化学醇醛精准转化、电化学 CO₂ 固定与应用、电催化反应与分离耦合系统。

热催化方向(2–3 名):小分子化学储氢/放氢、环境催化 VOCs 治理、塑料废弃物升级再生。

AI + 材料合成 + 催化(1–2 名):AI 辅助材料合成与催化发现基础研究。

类别条件年薪
至臻博后博士毕业单位世界前 10040 万元/年
A 类博后博士毕业单位世界前 20035 万元/年
B 类博后已获得博士学位30 万元/年
  • 学校综合年薪最高可达 57 万元
  • 按规定缴纳社会保险和住房公积金,并享受相关福利待遇
  • 可申请博士后公寓或租房补贴
  • 子女可入读学校附属优质幼儿园和实验学校
  • 依托广州国际校区招收的博士后可额外获得 20 万元 科研启动费
  • 出站后留粤工作且符合政策者,省财政可额外给予 40 万元住房补贴(3 年)

🎓 博士 / 硕士研究生招募

欢迎有志于从事电催化、热催化及纳米材料研究的优秀同学报考课题组博士生或硕士生。请将个人简历和成绩单发送至下方邮箱与陈老师联系。

📬 联系方式

请发送个人简历、成绩单以及研究兴趣说明至:cgx08(at)scut.edu.cn(陈光需老师)

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联系方式

联系课题组

👤

陈光需
教授 / 博士生导师
华南理工大学
环境与能源学院

✉️
📍

地址:广州市番禺区广州大学城外环东路 382 号,邮编 510006。

中国广东省广州市番禺区广州大学城外环东路 382 号
华南理工大学(510006)

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