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Makale detayı · 2024 · article

Innovative Surface Improvement of GFRC Using Hydrothermally Produced Ch-TiO2-CuO Nanohybrid Composite Additives

YÖKSİS OpenAlex Açık erişim · hybrid
Yıl2024
Atıf6OpenAlex
Yüzdelik%61,8
FWCI0,531,00 = dünya ortalaması
Scopus (SJR)Q1
WoS (JCR)Q1

Veri kaynağı ayrımı

  • YÖKSİSYÖKSİS makale kaydı
  • YÖKSİS dergi adıConstruction and Building Materials
  • Katalog eşleşmesi (ISSN)Construction and Building Materials
  • OpenAlexOpenAlex zenginleştirmesi (özet, atıf, konular)
  • Semantic Scholaratıf sayısı (OpenAlex ile birleştirilmez)

Özet

OpenAlex İngilizce

This study examines the impact of the Ch-TiO 2 -CuO nanohybrid composite on the surface properties and antimicrobial effects of Glass fiber-reinforced concrete (GFRC) panels. GFRC panels are known for their durability and aesthetic compatibility, making them suitable for exterior facades and historic restoration work. However, their porosity and hydrophilic nature make them susceptible to microbial colonization , affecting their durability and visual appeal. To address this, antimicrobial nanohybrid crystals (Ch-TiO 2 -CuO) were developed using a hydrothermal method and incorporated into GFRC panels. This integration offers significant advantages, including reduced maintenance, long-term structural integrity, and preserved aesthetic properties. Additionally, this approach aligns with sustainability goals by enhancing the environmental friendliness of GFRC over its lifetime. The study concludes that incorporating antimicrobial agents into GFRC production supports smart city initiatives by providing long-term protection against microbial degradation while maintaining aesthetic standards, thus contributing to cleaner, safer urban environments.

Konular

Atıflar

OpenAlex cited_by_count. WoS veya Scopus atıf sayısı değildir; o kaynaklar için ayrı kolon yoktur.

6atıfOpenAlex · cited_by_count (önbellek / veritabanı)

Yerel katalogda bu makaleye atıf yapan 14 yayın (OpenAlex referans eşleşmesi; tam dünya listesi değildir).

  1. 2025 Multifunctional SnO2-@ doped glass fiber‐reinforced concrete: Improved microstructure, mechanical, dielectric, and energy storage characteristicsAtıf 7 · OpenAlex
  2. 2025 Multifunctional SnO2-@ doped glass fiber‐reinforced concrete: Improved microstructure, mechanical, dielectric, and energy storage characteristicsAtıf 7 · OpenAlex
  3. 2025 Multifunctional SnO2-@ doped glass fiber‐reinforced concrete: Improved microstructure, mechanical, dielectric, and energy storage characteristicsAtıf 7 · OpenAlex
  4. 2025 Multifunctional SnO2-@ doped glass fiber-reinforced concrete: Improved microstructure, mechanical, dielectric, and energy storage characteristicsAtıf 7 · OpenAlex
  5. 2025 Enhancing antimicrobial performance and surface characteristics of glass fiber reinforced composites using chitosan-ZnO-CuO nanohybridsAtıf 6 · OpenAlex
  6. 2025 Dielectric property enhancement of glass fiber-reinforced concrete via TiO₂ nanocompositesAtıf 4 · OpenAlex
  7. 2025 Dielectric property enhancement of glass fiber-reinforced concrete via TiO2 nanocompositesAtıf 4 · OpenAlex
  8. 2025 Dielectric property enhancement of glass fiber-reinforced concrete via TiO₂ nanocompositesAtıf 4 · OpenAlex
  9. 2025 Dielectric property enhancement of glass fiber-reinforced concrete via TiO₂ nanocompositesAtıf 4 · OpenAlex
  10. 2026 Electrical and dielectric tailoring of glass fiber-reinforced concrete using ZnO-based hybrid nanocompositesAtıf 3 · OpenAlex

Yazarlar

3
  1. DOĞU RAMAZANOĞLU İSTANBUL GEDİK ÜNİVERSİTESİ 1
  2. SERKAN SUBAŞI DÜZCE ÜNİVERSİTESİ 2
  3. Muhammed Maraşlı 3