David B. MacManus, Majid Akbarzadeh Khorshidi, Mazdak Ghajari, Hamid M. Sedighi
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The micro-scale mechanics of biological tissues is a multidisciplinary and rapidly expanding area of research, which deals with the lower-scale effects on the mechanical behaviour of biological tissues, such as bone, brain, muscle, vasculature, skin, etc. In fact, there are different micro-scale deformations, interactions, and movements within these tissues (e.g. microstructural or bi-phasic properties) affecting the mechanical response of the materials. The micromechanical characteristics of a material are key to find how it interacts with its physical environment, which eventually modulates the functionality of the material. Such micro-biomechanical effects stem from the structural and architectural arrangements and the hierarchical nature of biological tissues. This Virtual Collection presents the latest and cutting-edge experimental, computational, and theoretical research on the mechanical properties/behaviours of biological tissues and therapeutics to take into account the micro-scale effects, such as microstructures deformations, micro-scale inhomogeneity, micro-damage, micro-porosity, etc., and the mechanics of cells and cell-substrate interactions.</p><p>In this Virtual Collection, we received six manuscripts, six of which underwent peer review. Of these six manuscripts, three have been accepted for publication in the Virtual Issue demonstrating a high quality and novel insights into Micromechanics in Biology and Medicine.</p><p>Rostami et al. characterised folic acid-functionalised PLA-PEG nanomicelles to deliver Letrozole for the effective treatment of cancer. In silico methods including docking approach, molecular dynamics simulation, and free energy calculations were used for the characterisation studies of PEG-FA and PLA-PEG nanocarriers in delivering Letrozole as an aromatase inhibitor in cancer cells. It was demonstrated the PLA-PEG-FA can be considered a versatile nanocarrier that can increase the effectiveness of aromatase inhibitors while reducing the side effects of the drug.</p><p>Alahdal et al. presented a ‘green’ approach to synthesise iron/gold Auroshell nanoparticles and tested with normal HUVEC cells and glioblastoma cancer cells. The Auroshell nanoparticles were found to have minimal toxicity within a safe range for normal cells. When transferred to the tumour tissue, these nanoparticles demonstrated a uniform heating (hyperthermia treatment) of malignant tumours.</p><p>Alzahrani et al. used a MEMS microcantilever-based biosensor functionalised with the UL83-antibody of Human Cytomegalovirus to detect the UL83-antigen of Human Cytomegalovirus at different concentrations. The effective detection of the UL83-antigen was demonstrated with a high selectivity of the antigen. This technique shows the potential for the fabrication of portable, low-cost biosensors for real-time diagnostics.</p><p>The articles published in this Virtual Collection demonstrate the importance of micromechanics in biology and medicine. The importance of micromechanics in the study of biological phenomena and effective treatments using state-of-the-art nanotechnology is clearly demonstrated opening the door for further exploration and research in this exciting area.</p><p><b>David B. 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引用次数: 0
摘要
微观力学是研究材料在其成分水平上描述微观结构和其他微观尺度效应的相互作用。由于生物组织的性质和微型生物医学装置的大小,微机械方法在生物学和医学中有着广泛的应用。微力学实验、连续微力学和材料的计算多尺度模型,强调材料特性和微米尺度上的机械响应之间的联系,对于设计和制造微生物医学设备的机械部件以及理解生物组织的行为至关重要。生物组织的微观力学是一个多学科和快速发展的研究领域,它涉及生物组织,如骨,脑,肌肉,脉管系统,皮肤等的机械行为的低尺度效应。事实上,在这些组织中存在不同的微观尺度变形、相互作用和运动(例如微观结构或双相特性),影响材料的机械响应。材料的微机械特性是发现它如何与物理环境相互作用的关键,而物理环境最终会调节材料的功能。这种微生物力学效应源于生物组织的结构和结构安排以及等级性质。这个虚拟集合展示了生物组织和治疗的力学特性/行为的最新和前沿的实验,计算和理论研究,考虑到微观尺度效应,如微观结构变形,微观尺度不均匀性,微损伤,微孔隙等,以及细胞和细胞-基质相互作用的力学。在这个虚拟馆藏中,我们收到了六份手稿,其中六份经过了同行评审。在这六篇手稿中,有三篇已经被接受在虚拟问题上发表,展示了对生物和医学微力学的高质量和新颖的见解。Rostami等人描述了叶酸功能化的PLA-PEG纳米胶束,用于递送来曲唑,以有效治疗癌症。采用对接方法、分子动力学模拟和自由能计算等方法,对PEG-FA和PLA-PEG纳米载体在癌细胞中递送来曲唑作为芳香酶抑制剂的特性进行了研究。结果表明,PLA-PEG-FA可以被认为是一种多功能纳米载体,可以增加芳香化酶抑制剂的有效性,同时减少药物的副作用。Alahdal等人提出了一种“绿色”方法来合成铁/金aurroshell纳米颗粒,并在正常HUVEC细胞和胶质母细胞瘤癌细胞中进行了测试。研究发现,在正常细胞的安全范围内,Auroshell纳米颗粒的毒性很小。当转移到肿瘤组织时,这些纳米颗粒表现出对恶性肿瘤的均匀加热(热疗治疗)。Alzahrani等人利用人巨细胞病毒ul83抗体功能化的MEMS微悬臂生物传感器检测不同浓度的人巨细胞病毒ul83抗原。结果表明,该抗原具有较高的选择性,能有效地检测到ul83抗原。这项技术显示了制造便携式、低成本的实时诊断生物传感器的潜力。在这个虚拟集合中发表的文章展示了微力学在生物学和医学中的重要性。微力学在研究生物现象和使用最先进的纳米技术进行有效治疗方面的重要性被清楚地证明,为这一令人兴奋的领域的进一步探索和研究打开了大门。David B. MacManus:概念化;项目管理;写作——原稿;写作-回顾&;编辑。Majid Akbarzadeh Khorshidi:概念化;项目管理;写作——原稿;写作-回顾&;编辑。Mazdak Ghajari:项目管理;写作——原稿;写作-回顾&;编辑。Hamid M. Sedighi:概念化;写作——原稿;写作-回顾&;编辑。
Micromechanics is the study of materials at the level of their constituents to describe the interactions of the microstructures and other micro-scale effects. Micromechanical approaches have wide applications in biology and medicine due to the nature of biological tissues and the size of micro-biomedical devices. Micromechanical experiments, continuum micromechanics, and computational multi-scale models of materials with an emphasis on the connections between material properties and mechanical responses at a micron length scale are significantly essential to design and manufacture the mechanical components of micro-biomedical devices and comprehend the behaviour of biological tissues. The micro-scale mechanics of biological tissues is a multidisciplinary and rapidly expanding area of research, which deals with the lower-scale effects on the mechanical behaviour of biological tissues, such as bone, brain, muscle, vasculature, skin, etc. In fact, there are different micro-scale deformations, interactions, and movements within these tissues (e.g. microstructural or bi-phasic properties) affecting the mechanical response of the materials. The micromechanical characteristics of a material are key to find how it interacts with its physical environment, which eventually modulates the functionality of the material. Such micro-biomechanical effects stem from the structural and architectural arrangements and the hierarchical nature of biological tissues. This Virtual Collection presents the latest and cutting-edge experimental, computational, and theoretical research on the mechanical properties/behaviours of biological tissues and therapeutics to take into account the micro-scale effects, such as microstructures deformations, micro-scale inhomogeneity, micro-damage, micro-porosity, etc., and the mechanics of cells and cell-substrate interactions.
In this Virtual Collection, we received six manuscripts, six of which underwent peer review. Of these six manuscripts, three have been accepted for publication in the Virtual Issue demonstrating a high quality and novel insights into Micromechanics in Biology and Medicine.
Rostami et al. characterised folic acid-functionalised PLA-PEG nanomicelles to deliver Letrozole for the effective treatment of cancer. In silico methods including docking approach, molecular dynamics simulation, and free energy calculations were used for the characterisation studies of PEG-FA and PLA-PEG nanocarriers in delivering Letrozole as an aromatase inhibitor in cancer cells. It was demonstrated the PLA-PEG-FA can be considered a versatile nanocarrier that can increase the effectiveness of aromatase inhibitors while reducing the side effects of the drug.
Alahdal et al. presented a ‘green’ approach to synthesise iron/gold Auroshell nanoparticles and tested with normal HUVEC cells and glioblastoma cancer cells. The Auroshell nanoparticles were found to have minimal toxicity within a safe range for normal cells. When transferred to the tumour tissue, these nanoparticles demonstrated a uniform heating (hyperthermia treatment) of malignant tumours.
Alzahrani et al. used a MEMS microcantilever-based biosensor functionalised with the UL83-antibody of Human Cytomegalovirus to detect the UL83-antigen of Human Cytomegalovirus at different concentrations. The effective detection of the UL83-antigen was demonstrated with a high selectivity of the antigen. This technique shows the potential for the fabrication of portable, low-cost biosensors for real-time diagnostics.
The articles published in this Virtual Collection demonstrate the importance of micromechanics in biology and medicine. The importance of micromechanics in the study of biological phenomena and effective treatments using state-of-the-art nanotechnology is clearly demonstrated opening the door for further exploration and research in this exciting area.
David B. MacManus: Conceptualization; project administration; writing – original draft; writing – review & editing. Majid Akbarzadeh Khorshidi: Conceptualization; project administration; writing – original draft; writing – review & editing. Mazdak Ghajari: Project administration; writing – original draft; writing – review & editing. Hamid M. Sedighi: Conceptualization; writing – original draft; writing – review & editing.
期刊介绍:
Electrical and electronic engineers have a long and illustrious history of contributing new theories and technologies to the biomedical sciences. This includes the cable theory for understanding the transmission of electrical signals in nerve axons and muscle fibres; dielectric techniques that advanced the understanding of cell membrane structures and membrane ion channels; electron and atomic force microscopy for investigating cells at the molecular level.
Other engineering disciplines, along with contributions from the biological, chemical, materials and physical sciences, continue to provide groundbreaking contributions to this subject at the molecular and submolecular level. Our subject now extends from single molecule measurements using scanning probe techniques, through to interactions between cells and microstructures, micro- and nano-fluidics, and aspects of lab-on-chip technologies. The primary aim of IET Nanobiotechnology is to provide a vital resource for academic and industrial researchers operating in this exciting cross-disciplinary activity. We can only achieve this by publishing cutting edge research papers and expert review articles from the international engineering and scientific community. To attract such contributions we will exercise a commitment to our authors by ensuring that their manuscripts receive rapid constructive peer opinions and feedback across interdisciplinary boundaries.
IET Nanobiotechnology covers all aspects of research and emerging technologies including, but not limited to:
Fundamental theories and concepts applied to biomedical-related devices and methods at the micro- and nano-scale (including methods that employ electrokinetic, electrohydrodynamic, and optical trapping techniques)
Micromachining and microfabrication tools and techniques applied to the top-down approach to nanobiotechnology
Nanomachining and nanofabrication tools and techniques directed towards biomedical and biotechnological applications (e.g. applications of atomic force microscopy, scanning probe microscopy and related tools)
Colloid chemistry applied to nanobiotechnology (e.g. cosmetics, suntan lotions, bio-active nanoparticles)
Biosynthesis (also known as green synthesis) of nanoparticles; to be considered for publication, research papers in this area must be directed principally towards biomedical research and especially if they encompass in vivo models or proofs of concept. We welcome papers that are application-orientated or offer new concepts of substantial biomedical importance
Techniques for probing cell physiology, cell adhesion sites and cell-cell communication
Molecular self-assembly, including concepts of supramolecular chemistry, molecular recognition, and DNA nanotechnology
Societal issues such as health and the environment
Special issues. Call for papers:
Smart Nanobiosensors for Next-generation Biomedical Applications - https://digital-library.theiet.org/files/IET_NBT_CFP_SNNBA.pdf
Selected extended papers from the International conference of the 19th Asian BioCeramic Symposium - https://digital-library.theiet.org/files/IET_NBT_CFP_ABS.pdf