Faculty of Dentistry, National University of Singapore, Singapore; Craniofacial Research and Innovation Center, National University of Singapore, Singapore.
The N.1 Institute for Health (N.1), Institute for Digital Medicine (WisDM), Department of Biomedical Engineering, and Department of Pharmacology, National University of Singapore, Singapore.
Dent Mater. 2021 Mar;37(3):496-507. doi: 10.1016/j.dental.2020.12.004. Epub 2021 Jan 10.
Viruses on environmental surfaces, in saliva and other body fluids represent risk of contamination for general population and healthcare professionals. The development of vaccines and medicines is costly and time consuming. Thus, the development of novel materials and technologies to decrease viral availability, viability, infectivity, and to improve therapeutic outcomes can positively impact the prevention and treatment of viral diseases.
Herein, we discuss (a) interaction mechanisms between viruses and materials, (b) novel strategies to develop materials with antiviral properties and oral antiviral delivery systems, and (c) the potential of artificial intelligence to design and optimize preventive measures and therapeutic regimen.
The mechanisms of viral adsorption on surfaces are well characterized but no major breakthrough has become clinically available. Materials with fine-tuned physical and chemical properties have the potential to compromise viral availability and stability. Emerging strategies using oral antiviral delivery systems and artificial intelligence can decrease infectivity and improve antiviral therapies.
Emerging viral infections are concerning due to risk of mortality, as well as psychological and economic impacts. Materials science emerges for the development of novel materials and technologies to diminish viral availability, infectivity, and to enable enhanced preventive and therapeutic strategies, for the safety and well-being of humankind.
环境表面、唾液和其他体液中的病毒代表了一般人群和医护人员感染的风险。疫苗和药物的开发既昂贵又耗时。因此,开发新型材料和技术来降低病毒的可用性、生存能力、传染性,并改善治疗效果,可以积极影响病毒疾病的预防和治疗。
本文讨论了 (a) 病毒与材料之间的相互作用机制,(b) 具有抗病毒特性和口服抗病毒递药系统的新型材料开发策略,以及 (c) 人工智能在设计和优化预防措施和治疗方案方面的潜力。
病毒在表面上的吸附机制已得到很好的描述,但尚未有重大突破成为临床应用。具有精细物理和化学性质的材料具有降低病毒可用性和稳定性的潜力。新兴的使用口服抗病毒递药系统和人工智能的策略可以降低传染性并改善抗病毒治疗。
新兴的病毒感染令人担忧,因为它们有死亡风险,以及对心理和经济的影响。材料科学的出现是为了开发新型材料和技术,以降低病毒的可用性、传染性,并为人类的安全和福祉提供增强的预防和治疗策略。