{"title":"Mesoporous Biomaterials: a Lexicon and Structured Bibliography of Reviews","authors":"Elizabeth Kennedy, L. Canham, H. Santos","doi":"10.1515/mesbi-2016-0001","DOIUrl":null,"url":null,"abstract":"Accessing mesoporous and nanostructured biomaterial information can be particularly time-consuming and problematic due to the interdisciplinary nature of the field. Relevant papers can be found across a broad range of journals and various key words are needed to comprehensively retrieve information. A keyword lexicon and themed bibliography of over 250 review articles from more than 100 different journals has therefore been assembled to aid students and researchers in this expanding field. Reviews dedicated to fabrication of mesoporous materials and some key characterisation techniques are grouped together. Reviews focussed on specific medical issues like biocompatibility and toxicological testing are also provided. Medical applications that have been the focus of reviews include drug delivery, cancer therapy, medical imaging, orthopaedics, tissue engineering, biofiltration, biosensing and bioanalysis. The following mesoporous materials also have had dedicated reviews on biomedical uses: silica, silicon, silicates, metallic biomaterials, metal organic frameworks, carbonaceous materials, calcium phosphates, titania, and alumina. The academic literature, excluding textbook and textbook chapters, was searched using the lexicon shown in table 1 to capture the field, in conjunction with “review”. Searching was conducted via Google, PubMed, Scopus, Google Scholar and Web of Science. Reviews on mesoporous materials which focussed on non-medical applications were also excluded. Reviews based on nanoscale component structures with mesoporosity, like nanotubes, were included, whilst reviews solely on solid nanoparticles were not. The reviews found have been grouped as shown schematically in figure 1, depending on whether their emphasis is on fabrication, characterisation, medical testing or specific medical uses. General reviews which featured both medical and nonmedical applications have been included, but those focussed solely on non-medical applications have not. Reviewswhich discuss the applicability of various characterization techniques to mesoporous materials in general, or specific mesoporous materials, were included. Most of the reviews that focus on one specificmesoporousmaterial for one specific medical application were grouped within the medical application section, rather than the corresponding dedicated material section.","PeriodicalId":157396,"journal":{"name":"Open Material Sciences","volume":"365 1","pages":"0"},"PeriodicalIF":0.0000,"publicationDate":"2016-05-05","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"","citationCount":"5","resultStr":null,"platform":"Semanticscholar","paperid":null,"PeriodicalName":"Open Material Sciences","FirstCategoryId":"1085","ListUrlMain":"https://doi.org/10.1515/mesbi-2016-0001","RegionNum":0,"RegionCategory":null,"ArticlePicture":[],"TitleCN":null,"AbstractTextCN":null,"PMCID":null,"EPubDate":"","PubModel":"","JCR":"","JCRName":"","Score":null,"Total":0}
引用次数: 5
Abstract
Accessing mesoporous and nanostructured biomaterial information can be particularly time-consuming and problematic due to the interdisciplinary nature of the field. Relevant papers can be found across a broad range of journals and various key words are needed to comprehensively retrieve information. A keyword lexicon and themed bibliography of over 250 review articles from more than 100 different journals has therefore been assembled to aid students and researchers in this expanding field. Reviews dedicated to fabrication of mesoporous materials and some key characterisation techniques are grouped together. Reviews focussed on specific medical issues like biocompatibility and toxicological testing are also provided. Medical applications that have been the focus of reviews include drug delivery, cancer therapy, medical imaging, orthopaedics, tissue engineering, biofiltration, biosensing and bioanalysis. The following mesoporous materials also have had dedicated reviews on biomedical uses: silica, silicon, silicates, metallic biomaterials, metal organic frameworks, carbonaceous materials, calcium phosphates, titania, and alumina. The academic literature, excluding textbook and textbook chapters, was searched using the lexicon shown in table 1 to capture the field, in conjunction with “review”. Searching was conducted via Google, PubMed, Scopus, Google Scholar and Web of Science. Reviews on mesoporous materials which focussed on non-medical applications were also excluded. Reviews based on nanoscale component structures with mesoporosity, like nanotubes, were included, whilst reviews solely on solid nanoparticles were not. The reviews found have been grouped as shown schematically in figure 1, depending on whether their emphasis is on fabrication, characterisation, medical testing or specific medical uses. General reviews which featured both medical and nonmedical applications have been included, but those focussed solely on non-medical applications have not. Reviewswhich discuss the applicability of various characterization techniques to mesoporous materials in general, or specific mesoporous materials, were included. Most of the reviews that focus on one specificmesoporousmaterial for one specific medical application were grouped within the medical application section, rather than the corresponding dedicated material section.
由于该领域的跨学科性质,获取介孔和纳米结构生物材料信息可能特别耗时且存在问题。相关论文可以在广泛的期刊中找到,需要各种关键词来全面检索信息。因此,从100多个不同的期刊中收集了250多篇评论文章的关键词词典和主题参考书目,以帮助学生和研究人员在这个不断扩大的领域。综述了介孔材料的制备和一些关键表征技术。还提供了侧重于生物相容性和毒理学测试等具体医学问题的评论。医学应用已经成为评论的重点,包括药物输送,癌症治疗,医学成像,骨科,组织工程,生物过滤,生物传感和生物分析。以下介孔材料也对生物医学用途进行了专门的评论:二氧化硅、硅、硅酸盐、金属生物材料、金属有机框架、碳质材料、磷酸钙、二氧化钛和氧化铝。使用表1所示的词典检索学术文献,不包括教科书和教科书章节,并结合“review”进行检索。搜索通过Google、PubMed、Scopus、Google Scholar和Web of Science进行。对介孔材料的非医疗应用的评论也被排除在外。基于介孔的纳米级组分结构(如纳米管)的综述包括在内,而仅针对固体纳米颗粒的综述则不包括在内。所发现的审查按其重点是制造、特征、医学测试还是特定医疗用途,按图1所示进行了分组。包括医疗和非医疗应用的一般审查,但只侧重于非医疗应用的审查没有包括在内。综述了各种表征技术在一般介孔材料或特定介孔材料中的适用性。大多数侧重于一种特定介孔材料用于一种特定医疗应用的评论都归类在医疗应用部分,而不是相应的专用材料部分。