Dikici, Serkan
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serkandikici27@gmail.com
serkandikici@iyte.edu.tr
serkandikici@iyte.edu.tr
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03.01. Department of Bioengineering
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30
Citations
659
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15
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11
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29892/2164
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WoS Citation Count
196
Scopus Citation Count
203
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13.07
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8
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1
| Journal | Count |
|---|---|
| Soft Matter | 2 |
| Biomacromolecules | 1 |
| Biomaterials Advances | 1 |
| Biomaterials Science | 1 |
| Gazi University Journal of Science | 1 |
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Correction Development of Tissue-Engineered Vascular Grafts from Decellularized Parsley Stems (Vol 20, Pg 338, 2024)(Royal Society Chemistry, 2024) Cevik, Merve; Dikici, SerkanArticle Citation - WoS: 27Citation - Scopus: 27In Vivo Bone Regeneration Capacity of Multiscale Porous Polycaprolactone-Based High Internal Phase Emulsion (polyhipe) Scaffolds in a Rat Calvarial Defect Model(American Chemical Society, 2023) Aldemir Dikici, Betül; Chen, Min-Chia; Dikici, Serkan; Chiu, Hsien-Chung; Claeyssens, FrederikGlobally, one of the most common tissue transplantationproceduresis bone grafting. Lately, we have reported the development of polymerizedhigh internal phase emulsions (PolyHIPEs) made of photocurable polycaprolactone(4PCLMA) and shown their potential to be used as bone tissue engineeringscaffolds in vitro. However, it is essential to evaluatethe in vivo performance of these scaffolds to investigatetheir potential in a clinically more relevant manner. Therefore, inthis study, we aimed to compare in vivo performancesof macroporous (fabricated using stereolithography), microporous (fabricatedusing emulsion templating), and multiscale porous (fabricated usingemulsion templating and perforation) scaffolds made of 4PCLMA. Also,3D-printed macroporous scaffolds (fabricated using fused depositionmodeling) made of thermoplastic polycaprolactone were used as a control.Scaffolds were implanted into a critical-sized calvarial defect, animalswere sacrificed 4 or 8 weeks after implantation, and the new boneformation was assessed by micro-computed tomography, dental radiography,and histology. Multiscale porous scaffolds that include both micro-and macropores resulted in higher bone regeneration in the defectarea compared to only macroporous or only microporous scaffolds. Whenone-grade porous scaffolds were compared, microporous scaffolds showedbetter performance than macroporous scaffolds in terms of mineralizedbone volume and tissue regeneration. Micro-CT results revealed thatwhile bone volume/tissue volume (Bv/Tv) values were 8 and 17% at weeks4 and 8 for macroporous scaffolds, they were significantly higherfor microporous scaffolds, with values of 26 and 33%, respectively.Taken together, the results reported in this study showed the potentialapplication of multiscale PolyHIPE scaffolds, in particular, as apromising material for bone regeneration.Article Citation - WoS: 14Citation - Scopus: 14Development of Tissue-Engineered Vascular Grafts From Decellularized Parsley Stems(Royal Society of Chemistry, 2023) Çevik, Merve; Dikici, SerkanCardiovascular diseases are mostly associated with narrowing or blockage of blood vessels, and it is the most common cause of death worldwide. The use of vascular grafts is a promising approach to bypass or replace the blocked vessels for long-term treatment. Although autologous arteries or veins are the most preferred tissue sources for vascular bypass, the limited presence and poor quality of autologous vessels necessitate seeking alternative biomaterials. Recently, synthetic grafts have gained attention as an alternative to autologous grafts. However, the high failure rate of synthetic grafts has been reported primarily due to thrombosis, atherosclerosis, intimal hyperplasia, or infection. Thrombosis, the main reason for failure upon implantation, is associated with damage or absence of endothelial cell lining in the vascular graft's luminal surface. To overcome this, tissue-engineered vascular grafts (TEVGs) have come into prominence. Alongside the well-established scaffold manufacturing techniques, decellularized plant-based constructs have recently gained significant importance and are an emerging field in tissue engineering and regenerative medicine. Accordingly, in this study, we demonstrated the fabrication of tubular scaffolds from decellularized parsley stems and recellularized them with human endothelial cells to be used as a potential TEVG. Our results suggested that the native plant DNA was successfully removed, and soft tubular biomaterials were successfully manufactured via the chemical decellularization of the parsley stems. The decellularized parsley stems showed suitable mechanical and biological properties to be used as a TEVG material, and they provided a suitable environment for the culture of human endothelial cells to attach and create a pseudo endothelium prior to implantation. This study is the first one to demonstrate the potential of the parsley stems to be used as a potential TEVG biomaterial. © 2024 The Royal Society of Chemistry.Article Citation - WoS: 34Citation - Scopus: 34Decellularised Extracellular Matrix Decorated Pcl Polyhipe Scaffolds for Enhanced Cellular Activity, Integration and Angiogenesis(Royal Society of Chemistry, 2021) Dikici, Serkan; Aldemir Dikici, Betül; MacNeil, Sheila; Claeyssens, FrederikWound healing involves a complex series of events where cell-cell and cell-extracellular matrix (ECM) interactions play a key role. Wounding can be simple, such as the loss of the epithelial integrity, or deeper and more complex, reaching to subcutaneous tissues, including blood vessels, muscles and nerves. Rapid neovascularisation of the wounded area is crucial for wound healing as it has a key role in supplying oxygen and nutrients during the highly demanding proliferative phase and transmigration of inflammatory cells to the wound area. One approach to circumvent delayed neovascularisation is the exogenous use of pro-angiogenic factors, which is expensive, highly dose-dependent, and the delivery of them requires a very well-controlled system to avoid leaky, highly permeable and haemorrhagic blood vessel formation. In this study, we decorated polycaprolactone (PCL)-based polymerised high internal phase emulsion (PolyHIPE) scaffolds with fibroblast-derived ECM to assess fibroblast, endothelial cell and keratinocyte activity in vitro and angiogenesis in ex ovo chick chorioallantoic membrane (CAM) assays. Our results showed that the inclusion of ECM in the scaffolds increased the metabolic activity of three types of cells that play a key role in wound healing and stimulated angiogenesis in ex ovo CAM assays over 7 days. Herein, we demonstrated that fibroblast-ECM functionalised PCL PolyHIPE scaffolds appear to have great potential to be used as an active wound dressing to promote angiogenesis and wound healing.Master Thesis Development of a Natural Tubular Scaffold From Decellularized Parsley Stems To Be Used in Vascular Tissue Engineering Applications(01. Izmir Institute of Technology, 2024) Çevik, Merve; Dikici, Serkan; Özçivici, EnginCardiovascular diseases (CVD) are usually associated with narrowing or blockage of blood vessels and are the leading cause of death globally. By 2030, the annual incidence of CVD-related deaths is estimated to increase 23.3 million. Considering the advancements in endovascular surgery, the use of vascular grafts in cardiovascular surgery is becoming increasingly common. Autografts are the gold standard but have limitations, including limited tissue availability and complications from vessel isolation. Recently, synthetic grafts have emerged as alternatives, though they often fail due to thrombosis, atherosclerosis, intimal hyperplasia, or infection. Thrombosis, the main cause of post-implantation failure, is associated with damage or absence of the endothelial cell lining on the luminal surface of the vascular graft. To overcome the limitations mentioned so far, tissue-engineered vascular grafts (TEVG) have come into prominence. The use of decellularized plant tissues in tissue engineering applications has recently gained great importance. Accordingly, in this study, we fabricated tubular scaffolds from decellularized parsley stems and evaluated them in vitro as potential TEVGs. Our results demonstrated that native plant DNA was successfully removed, and biocompatible tubular biomaterials were successfully fabricated via chemical decellularization of parsley stems. The decellularized parsley stems showed suitable mechanical and biological properties for use as TEVG material. Finally, they were found to provide a convenient environment to form a pseudo-endothelium by recellularization with human endothelial cells prior to implantation. This study is the pioneer in the literature that reports on the potential of parsley stems to be used as a potential TEVG biomaterial.Article Citation - WoS: 8Citation - Scopus: 9Enhancing Wound Regeneration Potential of Fibroblasts Using Ascorbic Acid-Loaded Decellularized Baby Spinach Leaves(Springer, 2024) Dikici, SerkanDecellularization of plant tissues is an emerging route to fabricate scaffolds for tissue engineering and regenerative medicine. Although significant progress has been made in the field of plant tissue decellularization, functionalization of plant scaffolds is still an emerging field, and loading them with L-ascorbic acid to promote skin regeneration has not yet been reported. L-ascorbic acid is an antioxidant that plays a key role in collagen synthesis as a cofactor of lysyl hydroxylase and prolyl hydroxylase. It has been shown to have significant importance in physiological wound healing by stimulating fibroblasts to produce collagen at both the molecular and the genetic levels. In this work, we aimed to fabricate an ascorbic acid-releasing bioactive scaffold by introducing a stable form of ascorbic acid, L-ascorbic acid 2-phosphate (AA2P), into decellularized baby spinach leaves and investigated its biological activity in vitro. Our results demonstrated that AA2P could be easily introduced into decellularized baby spinach leaf scaffolds and subsequently released within the effective dose range. AA2P-releasing baby spinach leaves were found to increase metabolic activity and enhance collagen synthesis in L929 fibroblasts after 21 days. In conclusion, this study demonstrated the fabrication of a novel functionalized skin tissue engineering scaffold and made a significant contribution to the fields of plant decellularization and skin tissue engineering.Article Citation - WoS: 7Citation - Scopus: 8Ascorbic Acid Enhances the Metabolic Activity, Growth and Collagen Production of Human Dermal Fibroblasts Growing in Three-Dimensional (3D) Culture(Gazi Üniversitesi, 2023) Dikici, SerkanTissue engineering (TE) enables the development of functional synthetic substitutes to be replaced with damaged tissues and organs instead of the use of auto or allografts. A wide range of biomaterials is currently in use as TE scaffolds. Among these materials, naturally sourced ones are favorable due to being highly biocompatible and supporting cell growth and function, whereas synthetic ones are advantageous because of the high tunability on mechanical and physical properties as well as being easy to process. Alongside the advantages of synthetic polymers, they mostly show hydrophobic behavior that limits biomaterial-cell interaction and, consequently, the functioning of the developed TE constructs. In this study, we assessed the impact of L-Ascorbic acid 2-phosphate (AA2P) on improving the culture conditions of human dermal fibroblasts (HDFs) growing on a three-dimensional (3D) scaffold made of polycaprolactone (PCL) using emulsion templating. Our results demonstrated that AA2P enhances the metabolic activity and growth of HDFs as well as collagen deposition by them when supplemented in their growth medium at 50 µg/mL concentration. It showed a great potential to be used as a growth medium supplement to circumvent the disadvantages of culturing human cells on a synthetic biomaterial that is not favored in default. AA2P's potential to improve cell growth and collagen deposition may prove an effective way to culture human cells on 3D PCL PolyHIPE scaffolds for various TE applications.Conference Object Construction of the Living Networks in Artificial Tissues: Vascularization in Tissue Engineering(Wiley, 2025) Dikici, SerkanArticle Citation - WoS: 6Citation - Scopus: 8A “sweet” Way To Increase the Metabolic Activity and Migratory Response of Cells Associated With Wound Healing: Deoxy-Sugar Incorporated Polymer Fibres as a Bioactive Wound Patch(TÜBİTAK, 2022) Dikici, SerkanThe selection of a wound dressing is crucial for successful wound management. Conventional dressings are preferable for the treatment of simple wounds. However, a bioactive wound dressing that supports wound management and accelerates the healing process is required when it comes to treating non-self-healing wounds. 2-deoxy-D-ribose (2dDR) is a small deoxy sugar that naturally occurs in human body. Although we have previously demonstrated that 2dDR can be used to induce neovascularisation and accelerates wound healing in vitro and in vivo, the literature on small sugars is conflicting, and the knowledge on how 2dDR achieves its biological activity is very limited. In this study, several small sugars including D-glucose (DG), 2-deoxy-D-glucose (2dDG), 2deoxy-L-ribose (2dLR) were compared to 2dDR by investigating their effects on the metabolic activities of both human dermal microvascular endothelial cells (HDMECs) and human dermal fibroblasts (HDFs). Then, for the first time, a two-dimensional (2D) scratch wound healing model was used to explore the migratory response of HDFs in response to 2dDR treatment. Finally, 2dDR was incorporated into Poly(3-hydroxybutyrate-co3-hydroxyvalerate) (PHBV) polymer fibres via electrospinning, and the metabolic activity of both types of cells in vitro was investigated in response to sugar release via Alamar Blue assay. The results demonstrated that 2dDR was the only sugar, among others, that enhances the metabolic activity of both HDMECs and HDFs and the migratory response of HDFs in a 2D scratch assay in a dose-dependent manner. In addition to direct administration, 2dDR was also found to increase the metabolic activity of HDMECs and HDFs over 7 days when released from polymer fibres. It is concluded that 2dDR is a potential pro-angiogenic agent that has a positive impact not only on endothelial cells but also fibroblasts, which take a key role in wound healing. It could easily be introduced into polymeric scaffolds to be released quickly to enhance the metabolic activity and the migratory response of cells that are associated with angiogenesis and wound healing.Article Citation - WoS: 46Citation - Scopus: 46Thiolene- and Polycaprolactone Methacrylate-Based Polymerized High Internal Phase Emulsion (polyhipe) Scaffolds for Tissue Engineering(American Chemical Society, 2022) Aldemir Dikici, Betül; Malayeri, Atra; Sherborne, Colin; Dikici, Serkan; Paterson, Thomas; Dew, Lindsey; Claeyssens, FrederikHighly porous emulsion templated polymers (PolyHIPEs) provide a number of potential advantages in the fabrication of scaffolds for tissue engineering and regenerative medicine. Porosity enables cell ingrowth and nutrient diffusion within, as well as waste removal from, the scaffold. The properties offered by emulsion templating alone include the provision of high interconnected porosity, and, in combination with additive manufacturing, the opportunity to introduce controlled multiscale porosity to complex or custom structures. However, the majority of monomer systems reported for PolyHIPE preparation are unsuitable for clinical applications as they are nondegradable. Thiol-ene chemistry is a promising route to produce biodegradable photocurable PolyHIPEs for the fabrication of scaffolds using conventional or additive manufacturing methods; however, relatively little research has been reported on this approach. This study reports the groundwork to fabricate thiol- and polycaprolactone (PCL)-based PolyHIPE materials via a photoinitiated thiolene click reaction. Two different formulations, either three-arm PCL methacrylate (3PCLMA) or four-arm PCL methacrylate (4PCLMA) moieties, were used in the PolyHIPE formulation. Biocompatibility of the PolyHIPEs was investigated using human dermal fibroblasts (HDFs) and human osteosarcoma cell line (MG-63) by DNA quantification assay, and developed PolyHIPEs were shown to be capable of supporting cell attachment and viability.