710 |
Putrantyo I., Anilbhai N., Vanjani R., De Vega B. |
57268843400;57268843500;57268728700;57222467939; |
Tantalum as a novel biomaterial for bone implant: A literature review |
2021 |
Journal of Biomimetics, Biomaterials and Biomedical Engineering |
52 |
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55 |
65 |
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1 |
https://www.scopus.com/inward/record.uri?eid=2-s2.0-85115443615&doi=10.4028%2fwww.scientific.net%2fJBBBE.52.55&partnerID=40&md5=23de679861db060839b35e7a1cc36b26 |
Division of Surgery and Interventional Science, University College London, Royal Free Hospital Campus, London, United Kingdom; Faculty of Medicine Universitas Indonesia, Dr Cipto Mangunkusumo Hospital, Jakarta, Indonesia; Cell & Tissue Bank, Dr Soetomo General Hospital, Surabaya, Indonesia |
Putrantyo, I., Division of Surgery and Interventional Science, University College London, Royal Free Hospital Campus, London, United Kingdom, Faculty of Medicine Universitas Indonesia, Dr Cipto Mangunkusumo Hospital, Jakarta, Indonesia; Anilbhai, N., Division of Surgery and Interventional Science, University College London, Royal Free Hospital Campus, London, United Kingdom; Vanjani, R., Division of Surgery and Interventional Science, University College London, Royal Free Hospital Campus, London, United Kingdom; De Vega, B., Division of Surgery and Interventional Science, University College London, Royal Free Hospital Campus, London, United Kingdom, Cell & Tissue Bank, Dr Soetomo General Hospital, Surabaya, Indonesia |
Titanium (Ti) has been used in metallic implants since the 1950s due to various biocompatible and mechanical properties. However, due to its high Young’s modulus, it has been modified over the years in order to produce a better biomaterial. Tantalum (Ta) has recently emerged as a new potential biomaterial for bone and dental implants. It has been reported to have better corrosion resistance and osteo-regenerative properties as compared to Ti alloys which are most widely used in the bone-implant industry. Currently, Tantalum cannot be widely used yet due to its limited availability, high melting point, and high-cost production. This review paper discusses various manufacturing methods of Tantalum alloys, including conventional and additive manufacturing and also discusses their drawbacks and shortcomings. Recent research includes surface modification of various metals using Tantalum coatings in order to combine bulk material properties of different materials and the porous surface properties of Tantalum. Design modification also plays a crucial role in controlling bulk properties. The porous design does provide a lower density, wider surface area, and more immense specific strength. In addition to improved mechanical properties, a porous design could also escalate the material's biological and permeability properties. With current advancement in additive manufacturing technology, difficulties in processing Tantalum could be resolved. Therefore, Tantalum should be considered as a serious candidate material for future bone and dental implants. © 2021 Trans Tech Publications Ltd, Switzerland. |
Bone implant; Porous metal; Porous structure; Surface coating; Tantalum |
3D printers; Additives; Biocompatibility; Coatings; Corrosion resistant alloys; Dental alloys; Dental prostheses; Mechanical permeability; Metal implants; Porosity; Tantalum alloys; Titanium alloys; Bone implant; High costs; High melting point; Literature reviews; Metallic implants; Porous metal; Porous structures; Property; Surface coatings; Titanium (alloys); Corrosion resistance |
Trans Tech Publications Ltd |
22969837 |
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Article |
Q4 |
183 |
20493 |
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748 |
Karina K., Ekaputri K., Biben J.A., Purwoko R.H., Sibuea T.P., Astuti S.L., Loho A.M., Limengka Y., Nelfidayani, Agustini S., Krisandi G., Maryam A., Rosadi I., Rosliana I., Sobariah S., Subroto W.R., Afini I., Widyastuti T., Zakiyah A., Ernanda D., Aini N., Jusryanti, Sulaeha A.D., Prestiani S.I., Donna I.M., Habibi, Mutiara M.S. |
57212146678;57285088000;55947833300;57286031400;57286487800;57285797400;57223264641;37029815800;57286487900;57286488000;57225009844;57286260300;57204720098;57186671400;57203547382;57218940654;57211068324;57211074403;57226293808;57226273639;57226289464;57286944600;57226286645;57283770100;57284210300;57285797500;57284210400; |
Evaluating the Safety of Intravenous Delivery of Autologous Activated Platelet-rich Plasma |
2021 |
Journal of Health Sciences |
11 |
2 |
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61 |
65 |
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2 |
https://www.scopus.com/inward/record.uri?eid=2-s2.0-85111033469&doi=10.17532%2fjhsci.2021.1276&partnerID=40&md5=b0a026ecaccc92d972564c5dfd1f4824 |
Klinik Hayandra, Yayasan Hayandra Peduli, Jakarta, Indonesia; Hayandra Lab, Yayasan Hayandra Peduli, Jakarta, Indonesia; Faculty of Medicine, University of Indonesia, Jakarta, Indonesia; Faculty of Medicine, Universitas Pembangunan Nasional Veteran Jakarta, Jakarta, Indonesia; Pusat Kajian Stem Cell, Universitas Pembangunan Nasional Veteran Jakarta, Jakarta, Indonesia; Department of Biology, Faculty of Mathematics and Natural Sciences, Mulawarman University, Indonesia |
Karina, K., Klinik Hayandra, Yayasan Hayandra Peduli, Jakarta, Indonesia, Hayandra Lab, Yayasan Hayandra Peduli, Jakarta, Indonesia, Faculty of Medicine, University of Indonesia, Jakarta, Indonesia, Faculty of Medicine, Universitas Pembangunan Nasional Veteran Jakarta, Jakarta, Indonesia, Pusat Kajian Stem Cell, Universitas Pembangunan Nasional Veteran Jakarta, Jakarta, Indonesia; Ekaputri, K., Klinik Hayandra, Yayasan Hayandra Peduli, Jakarta, Indonesia; Biben, J.A., Klinik Hayandra, Yayasan Hayandra Peduli, Jakarta, Indonesia; Purwoko, R.H., Klinik Hayandra, Yayasan Hayandra Peduli, Jakarta, Indonesia; Sibuea, T.P., Klinik Hayandra, Yayasan Hayandra Peduli, Jakarta, Indonesia; Astuti, S.L., Klinik Hayandra, Yayasan Hayandra Peduli, Jakarta, Indonesia; Loho, A.M., Klinik Hayandra, Yayasan Hayandra Peduli, Jakarta, Indonesia; Limengka, Y., Klinik Hayandra, Yayasan Hayandra Peduli, Jakarta, Indonesia; Nelfidayani, Klinik Hayandra, Yayasan Hayandra Peduli, Jakarta, Indonesia; Agustini, S., Klinik Hayandra, Yayasan Hayandra Peduli, Jakarta, Indonesia; Krisandi, G., Hayandra Lab, Yayasan Hayandra Peduli, Jakarta, Indonesia, Faculty of Medicine, University of Indonesia, Jakarta, Indonesia; Maryam, A., Klinik Hayandra, Yayasan Hayandra Peduli, Jakarta, Indonesia; Rosadi, I., Hayandra Lab, Yayasan Hayandra Peduli, Jakarta, Indonesia, Department of Biology, Faculty of Mathematics and Natural Sciences, Mulawarman University, Indonesia; Rosliana, I., Hayandra Lab, Yayasan Hayandra Peduli, Jakarta, Indonesia; Sobariah, S., Hayandra Lab, Yayasan Hayandra Peduli, Jakarta, Indonesia; Subroto, W.R., Hayandra Lab, Yayasan Hayandra Peduli, Jakarta, Indonesia; Afini, I., Hayandra Lab, Yayasan Hayandra Peduli, Jakarta, Indonesia; Widyastuti, T., Hayandra Lab, Yayasan Hayandra Peduli, Jakarta, Indonesia; Zakiyah, A., Hayandra Lab, Yayasan Hayandra Peduli, Jakarta, Indonesia; Ernanda, D., Hayandra Lab, Yayasan Hayandra Peduli, Jakarta, Indonesia; Aini, N., Hayandra Lab, Yayasan Hayandra Peduli, Jakarta, Indonesia; Jusryanti, Klinik Hayandra, Yayasan Hayandra Peduli, Jakarta, Indonesia; Sulaeha, A.D., Klinik Hayandra, Yayasan Hayandra Peduli, Jakarta, Indonesia; Prestiani, S.I., Klinik Hayandra, Yayasan Hayandra Peduli, Jakarta, Indonesia; Donna, I.M., Klinik Hayandra, Yayasan Hayandra Peduli, Jakarta, Indonesia; Habibi, Klinik Hayandra, Yayasan Hayandra Peduli, Jakarta, Indonesia; Mutiara, M.S., Klinik Hayandra, Yayasan Hayandra Peduli, Jakarta, Indonesia |
Introduction: Autologous platelet-rich plasma (PRP) has been a growing trend in the field of medicine due to its broad range of application and is considered safe from bloodborne diseases. Furthermore, various studies have tried to optimize the use of autologous PRP through various preparation protocols, including PRP activation. However, most of the studies available have not evaluated the safety for intravenous delivery of PRP, especially autologous activated PRP (aaPRP). Therefore, this study aimed to evaluate the safety of intravenous delivery of aaPRP. Methods: Blood was drawn from each patient and aaPRP was isolated through calcium activation and light irradiation. Each aaPRP was administered intravenously to all patients. Adverse events were documented and analyzed. Results: Six hundred eleven patients participated in this study with a total of 4244 aaPRP therapies. Quality control of autologous aaPRP showed no platelets present after both calcium activation and light irradiation. No adverse events such as allergic reaction, infection, and coagulation problems were observed on all patients over the course of the study. Conclusion: Our results showed that intravenous administration of autologous aaPRP is safe even in patients with various pathological conditions. © 2021. Karina Karina, et al.; licensee University of Sarajevo - Faculty of Health Studies. This is an Open Access article distributed under the terms of the Creative Commons Attribution License (https://creativecommons.org/licenses/by/4.0/), which permits unrestricted use, distribution, and reproduction in any medium, provided the original work is properly cited. |
Intravenous infusion; platelet-rich plasma; safety |
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University of Sarajevo - Faculty of Health Studies |
22327576 |
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Article |
Q4 |
112 |
28273 |
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