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Chinese Scientific Paper Citation & BibTeX Generator

Specially calibrated for Western researchers, graduate students, and R&D teams citing Chinese peer-reviewed journals, CAS preprints, and technological disclosures. Generates perfectly formatted APA 7, BibTeX, MLA 9, Chicago, Harvard, and RIS (Zotero/EndNote) in one click.

Quick Test Samples:
Formatted Academic Citation
Yang, Bingwang, Zhang, Lixin, Liu, Chen, & Wang, Zhiqiang (2025). A Sulfobetaine Polyurethane for Substitutable Meniscus Implant with Excellent Mechanical, Tribological, and Biocompatible Properties. Journal of Central South University (Advanced Materials), 32(3), 108-124. https://doi.org/10.1007/s11771-024-5734-0
Style: APA• Ready for LaTeX, Word, Overleaf & Zotero
Active Paper Details

A Sulfobetaine Polyurethane for Substitutable Meniscus Implant with Excellent Mechanical, Tribological, and Biocompatible Properties

具有优异力学、摩擦学及生物相容性的磺酸基甜菜碱聚氨酯人工半月板假体材料研究

Authors: Yang, Bingwang, Zhang, Lixin, Liu, Chen, Wang, Zhiqiang

Journal: Journal of Central South University (Advanced Materials)

Year: 2025 • Vol. 32, Issue 3

Pages: 108-124

DOI: 10.1007/s11771-024-5734-0

Verified Pinyin Author Matching100% Calibrated

Best Practices for Citing Chinese Scientific Literature

A comprehensive editorial guide compiled by the SinoGreenTech Bibliographic Standards Committee for authors publishing in Nature, Science, IEEE, Elsevier, and Springer journals.

1Pinyin Author Naming Conventions

Chinese names typically follow the Surname First, Given Name Second structure (e.g. 张伟 $\rightarrow$ Zhang Wei). When publishing in international journals using APA 7 or Chicago styles:

  • Surname first in citation list: Zhang, W. or Zhang, Wei
  • Two-character given names: Should be joined without spaces or hyphenated according to the author's preferred English imprint (e.g. Wang, Xiao-Ming or Wang, Xiaoming).
  • Ambiguous multi-authors: Always retain full romanized given names in the initial BibTeX entry to prevent indexing collisions on Google Scholar.

2Standard Chinese Research Institution Codes

Major Chinese national laboratories have standardized international abbreviations recognized by Thomson Reuters / Clarivate Web of Science:

CAS: Chinese Academy of Sciences (中国科学院)
CASC: China Aerospace Science & Tech (航天科技)
CETC: China Electronics Tech Group (中国电科)
CAEP: China Academy of Engineering Physics (中物院)
IHEP: Institute of High Energy Physics (高能所)

Citing Translated and English-Editions of Chinese Journals

When citing papers translated from Chinese or published in dual-edition journals (such as Acta Metallurgica Sinica (English Letters) or Journal of Central South University), best practice dictates citing the verified English translation while referencing the original DOI or Chinese title in square brackets. This citation tool automatically embeds the canonical DOI and persistent archive link to guarantee digital provenance.

Supported Citation Formats Comparison Table

Citation StylePrimary Target FieldSoftware CompatibilityExport Format
APA 7th EditionPsychology, Social Sciences, Clean EnergyMicrosoft Word, Google Docs, ScrivenerRich Text / Plain Text
BibTeX (.bib)Computer Science, AI, Mathematics, PhysicsOverleaf, TeXmaker, LaTeX, Typst.bib file download
MLA 9th EditionHumanities, Literature, East Asian StudiesWord, Pages, ScrivenerRich Text / Plain Text
Chicago 17thHistory, Economics, Policy, MultidisciplinaryEndNote, Word, ZoteroAuthor-Date / Notes
RIS FormatUniversal Bibliographic Data ExchangeZotero, EndNote, Mendeley, Citavi.ris file download
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Explore Peer-Reviewed Chinese Research Papers

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2026 Research Article

Ammonium Vanadate Cathodes in Aqueous Zinc-Ion Batteries: Design Strategies and Research Progress

Aqueous zinc-ion batteries (AZIBs) offer a compelling combination of high safety, environmental compatibility, and abundant zinc resources, positioning them as viable candidates for grid-scale energy storage. Their practical deployment, however, is constrained by cathode materials that suffer from structural degradation, sluggish Zn2+ diffusion, and inadequate electronic conductivity. Ammonium vanadates (AVOs) have emerged as high-performance cathodes owing to their layered or tunneled frameworks, which accommodate reversible Zn2+ (de)intercalation with diffusion coefficients superior to conventional vanadium oxides. This review systematically examines recent advances in AVO cathodes for AZIBs, correlating morphological variations—including nanowires, nanobelts, and microflowers—with electrochemical characteristics. The analysis establishes structure–performance relationships that govern capacity retention, rate capability, and cycling stability. Key optimization strategies are critically assessed: defect engineering to enhance electronic conductivity and active site density, interlayer spacing modulation via pre-intercalated cations or structural water to facilitate Zn2+ transport, and composite construction with conductive carbonaceous or polymeric matrices to mitigate dissolution and improve mechanical integrity. Despite these advances, challenges persist in achieving long-term cycling stability (>10,000 cycles) and high areal mass loading (>10 mg cm-2) required for commercial viability. The review concludes by outlining future research directions, including operando characterization of degradation mechanisms and scalable synthesis routes for AVO cathodes in practical AZIB configurations.

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2026 Research Article

Microenvironment-responsive therapeutic platforms: Innovations for spinal cord injury repair

Spinal cord injury (SCI) remains a formidable clinical challenge due to the complex, dynamic lesion microenvironment that impedes axonal regeneration and functional recovery. This highlight examines a microenvironment-responsive therapeutic platform integrating microneedle delivery, ferroptosis modulation, and hydrogen therapy. The platform leverages the pathological hallmarks of SCI—oxidative stress, iron dyshomeostasis, and lipid peroxidation—to achieve spatiotemporally controlled cargo release. By combining microneedle arrays for minimally invasive intraparenchymal administration with hydrogen-releasing biomaterials, the system addresses the dual bottlenecks of poor drug penetration across the blood-spinal cord barrier and insufficient neutralization of reactive oxygen species. Ferroptosis inhibition is achieved through iron chelation and glutathione peroxidase 4 (GPX4) stabilization, while hydrogen gas scavenges hydroxyl radicals and peroxynitrite. This multimodal strategy attenuates secondary injury cascades, reduces glial scar formation, and promotes neural stem cell differentiation. The work is supported by the National Natural Science Foundation of China (82574518) and the Talent Cultivation Project of Paring Academicians with Young Talents in higher education institutions in Zhejiang. The authors declare no conflict of interest. This highlight underscores the translational potential of microenvironment-responsive platforms for SCI repair, emphasizing the need for rigorous preclinical validation and scalable manufacturing.

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2026 Research Article

Dual-Site Adsorption over Phosphorus-Doped Copper Oxide for Efficient CO2 Electroreduction to Ethylene

Electroreduction of CO2 to ethylene offers a promising route for renewable electricity storage, yet achieving high ethylene selectivity at industrial current densities remains challenging due to the large energy barrier for C–C coupling. Here, we report a “MOF-assisted in situ doping” strategy to introduce the oxophilic nonmetal phosphorus (P) into the copper oxide (CuO) lattice, constructing a localized Cu–P dual-site adsorption configuration for the key *OCCHO intermediate. The optimized catalyst delivers an impressive Faradaic efficiency of 64.6% for ethylene with a partial current density of 646 mA cm-2. Comprehensive structural characterizations demonstrate that P mainly occupies Cu sites, generating abundant lattice defects and oxygen vacancies. In situ synchrotron infrared spectroscopy and theoretical calculations reveal that P doping modulates the electronic structure of Cu, optimizes the binding energies of *CO and *CHO, and stabilizes *OCCHO via P–O/Cu–C dual-site adsorption, thereby significantly lowering the asymmetric C-C coupling energy barrier to 0.74 eV. This work highlights a dual-site microenvironment regulation strategy for CO2-to-ethylene electroreduction.

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