1.Understanding the extracellular matrix.
Journal of Periodontal & Implant Science 2013;43(3):109-110
No abstract available.
Extracellular Matrix
2.New Equipment and Devices for Therapeutic Purpose.
International Neurourology Journal 2017;21(Suppl 1):S2-S3
No abstract available.
3.Extracellular Matrix Revisited: Roles in Tissue Engineering.
Youhwan KIM ; Hyojin KO ; Ik Keun KWON ; Kwanwoo SHIN
International Neurourology Journal 2016;20(Suppl 1):S23-S29
The extracellular matrix (ECM) is a heterogeneous, connective network composed of fibrous glycoproteins that coordinate in vivo to provide the physical scaffolding, mechanical stability, and biochemical cues necessary for tissue morphogenesis and homeostasis. This review highlights some of the recently raised aspects of the roles of the ECM as related to the fields of biophysics and biomedical engineering. Fundamental aspects of focus include the role of the ECM as a basic cellular structure, for novel spontaneous network formation, as an ideal scaffold in tissue engineering, and its essential contribution to cell sheet technology. As these technologies move from the laboratory to clinical practice, they are bound to shape the vast field of tissue engineering for medical transplantations.
Biomedical Engineering
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Biophysics
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Cellular Structures
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Collagen
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Cues
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Elastin
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Extracellular Matrix*
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Fibronectins
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Glycoproteins
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Homeostasis
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Morphogenesis
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Tissue Engineering*
4.Erratum: Author name correction. Extracellular Matrix Revisited: Roles in Tissue Engineering.
Youhwan KIM ; Hyojin KO ; Ik Keun KWON ; Kwanwoo SHIN
International Neurourology Journal 2016;20(2):168-168
In this article, the 3rd author's name was misprinted unintentionally. The name should be corrected from 'Ik Keun Kwon' to 'Il Keun Kwon'.
5.Future Research Directions in the Design of Versatile Extracellular Matrix in Tissue Engineering.
Agustina SETIAWATI ; Huong Thanh NGUYEN ; Yeongheon JUNG ; Kwanwoo SHIN
International Neurourology Journal 2018;22(Suppl 2):S66-S75
Native and artificial extracellular matrices (ECMs) have been widely applied in biomedical fields as one of the most effective components in tissue regeneration. In particular, ECM-based drugs are expected to be applied to treat diseases in organs relevant to urology, because tissue regeneration is particularly important for preventing the recurrence of these diseases. Native ECMs provide a complex in vivo architecture and native physical and mechanical properties that support high biocompatibility. However, the applications of native ECMs are limited due to their tissue-specificity and chemical complexity. Artificial ECMs have been fabricated in an attempt to create a broadly applicable scaffold by using controllable components and a uniform formulation. On the other hands, artificial ECMs fail to mimic the properties of a native ECM; consequently, their applications in tissues are also limited. For that reason, the design of a versatile, hybrid ECM that can be universally applied to various tissues is an emerging area of interest in the biomedical field.
Clothing
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Extracellular Matrix*
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Hand
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Recurrence
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Regeneration
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Tissue Engineering*
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Urology