{"title":"添加纳米壳聚糖改性玻璃离聚物精液表面形态的评价犀甲纳米壳聚糖修饰玻璃离聚体水泥的表面形态评价","authors":"Deviyanti Pratiwi, Richentya Feiby Salim, Rosalina Tjandrawinata, Komariah Komariah","doi":"10.24198/jkg.v33i3.32231","DOIUrl":null,"url":null,"abstract":"Pendahuluan: Penambahan nanokitosan pada modifikasi bahan restorasi kedokteran gigi bertujuan untuk memperbaiki sifat mekanik. Sifat mekanik dari suatu bahan dipengaruhi oleh struktur permukaannya. Bahan restorasi yang banyak dilakukan modifikasi yaitu Semen Ionomer Kaca (SIK), salah satunya dengan menambahkan nanokitosan. Sumber nanokitosan dapat berasal dari eksoskeleton serangga kumbang tanduk (Xylotrupes gideon). Xylotrupes gideon memiliki kandungan kitin sebesar 47%. Penelitian ini bertujuan untuk menganalisis morfologi permukaan semen ionomer kaca dengan modifikasi penambahan nanokitosan kumang tanduk. Metode: Jenis penelitian yaitu eksperimental laboratorium. Sampel berbentuk silindris dengan ukuran 6 mm (tinggi) × 4 mm (diameter). Pengambilan sampel menggunakan teknik purposive sampling. Jumlah sampel minimal sebanyak 1 sampel untuk setiap kelompok yaitu kelompok (A) SIK konvensional (kontrol), (B) SIK modifikasi 10% vol/vol larutan nanokitosan, (C) SIK modifikasi 5% vol/vol larutan nanokitosan, (D) SIK modifikasi 10% weight/weight bubuk nanokitosan, dan (E) SIK modifikasi 5% weight/weight bubuk nanokitosan. Sampel yang telah dibuat disimpan dalam inkubator dengan suhu 37°C. Karakterisasi morfologi permukaan sampel menggunakan Scanning Electron Microscopy (SEM). Hasil: Karakterisasi SEM menunjukkan adanya variasi retakan pada permukaan sampel yang diperiksa dengan pembesaran 2000× dan 3500×. SIK modifikasi bubuk nanokitosan menunjukkan lebih banyak retakan pada permukaannya serta peningkatan rasio nanokitosan kumbang tanduk menunjukkan peningkatan keretakan pada morfologi permukaan SIK. Simpulan: Penambahan nanokitosan kumbang tanduk (Xylotrupes gideon) pada Semen Ionomer Kaca mengakibatkan perubahan morfologi permukaan SIK.Kata kunci: Semen ionomer kaca; kumbang tanduk; scanning electron microscopy ABSTRACTIntroduction: The addition of nanochitosan to the modification of dental restorative materials improves mechanical properties. Its surface structure influences the mechanical properties of a material. The restoration material that has been modified a lot is Glass Ionomer Cement (GIC), one of which is by adding nano chitosan. The source of nano chitosan can be derived from the exoskeleton of the rhinoceros beetle (Xylotrupes gideon). Rhinoceros beetle has a chitin content of 47%. This study aims to analyse the surface morphology of the glass ionomer cement with the modification of the addition of nano chitosan of rhinoceros beetle. Methods: This type of research was an experimental laboratory. The sample was cylindrical with 6 mm (height) × 4 mm (diameter). The sampling used was a purposive sampling technique. The minimum number of samples was one sample for each group, namely group (A) conventional (control) GIC, (B) modified GIC 10% vol/vol nanochitosan solution, (C) GIC modified 5% vol/vol nanochitosan solution, (D) GIC modification of 10% weight/weight of nanochitosan powder, and (E) modified GIC of 5% weight/weight of nanochitosan powder. Samples that have been made were stored in an incubator at 37°C. Characterisation of the surface morphology of the sample using Scanning Electron Microscopy (SEM). Results: SEM characterisation showed variations of cracks on the surface of the samples examined at 2000x and 3500x magnification. GIC modified nano chitosan powder showed more cracks on the surface, and an increase in the ratio of rhinoceros beetle nano chitosan showed an increase in cracks in the surface morphology of the GIC. Conclusions: The addition of nano chitosan of rhinoceros beetle to the GIC resulted in changes in the surface morphology.Keywords: Glass ionomer cement; rhinoceros beetle; scanning electron microscopy","PeriodicalId":32748,"journal":{"name":"Jurnal Kedokteran Gigi Universitas Padjadjaran","volume":" ","pages":""},"PeriodicalIF":0.0000,"publicationDate":"2021-12-27","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"","citationCount":"1","resultStr":"{\"title\":\"Evaluasi morfologi permukaan semen ionomer kaca dengan modifikasi penambahan nanokitosan kumbang tanduk Surface morphology evaluation of glass ionomer cement modified with nano chitosan of rhinoceros beetle\",\"authors\":\"Deviyanti Pratiwi, Richentya Feiby Salim, Rosalina Tjandrawinata, Komariah Komariah\",\"doi\":\"10.24198/jkg.v33i3.32231\",\"DOIUrl\":null,\"url\":null,\"abstract\":\"Pendahuluan: Penambahan nanokitosan pada modifikasi bahan restorasi kedokteran gigi bertujuan untuk memperbaiki sifat mekanik. Sifat mekanik dari suatu bahan dipengaruhi oleh struktur permukaannya. Bahan restorasi yang banyak dilakukan modifikasi yaitu Semen Ionomer Kaca (SIK), salah satunya dengan menambahkan nanokitosan. Sumber nanokitosan dapat berasal dari eksoskeleton serangga kumbang tanduk (Xylotrupes gideon). Xylotrupes gideon memiliki kandungan kitin sebesar 47%. Penelitian ini bertujuan untuk menganalisis morfologi permukaan semen ionomer kaca dengan modifikasi penambahan nanokitosan kumang tanduk. Metode: Jenis penelitian yaitu eksperimental laboratorium. Sampel berbentuk silindris dengan ukuran 6 mm (tinggi) × 4 mm (diameter). Pengambilan sampel menggunakan teknik purposive sampling. Jumlah sampel minimal sebanyak 1 sampel untuk setiap kelompok yaitu kelompok (A) SIK konvensional (kontrol), (B) SIK modifikasi 10% vol/vol larutan nanokitosan, (C) SIK modifikasi 5% vol/vol larutan nanokitosan, (D) SIK modifikasi 10% weight/weight bubuk nanokitosan, dan (E) SIK modifikasi 5% weight/weight bubuk nanokitosan. Sampel yang telah dibuat disimpan dalam inkubator dengan suhu 37°C. Karakterisasi morfologi permukaan sampel menggunakan Scanning Electron Microscopy (SEM). Hasil: Karakterisasi SEM menunjukkan adanya variasi retakan pada permukaan sampel yang diperiksa dengan pembesaran 2000× dan 3500×. SIK modifikasi bubuk nanokitosan menunjukkan lebih banyak retakan pada permukaannya serta peningkatan rasio nanokitosan kumbang tanduk menunjukkan peningkatan keretakan pada morfologi permukaan SIK. Simpulan: Penambahan nanokitosan kumbang tanduk (Xylotrupes gideon) pada Semen Ionomer Kaca mengakibatkan perubahan morfologi permukaan SIK.Kata kunci: Semen ionomer kaca; kumbang tanduk; scanning electron microscopy ABSTRACTIntroduction: The addition of nanochitosan to the modification of dental restorative materials improves mechanical properties. Its surface structure influences the mechanical properties of a material. The restoration material that has been modified a lot is Glass Ionomer Cement (GIC), one of which is by adding nano chitosan. The source of nano chitosan can be derived from the exoskeleton of the rhinoceros beetle (Xylotrupes gideon). Rhinoceros beetle has a chitin content of 47%. This study aims to analyse the surface morphology of the glass ionomer cement with the modification of the addition of nano chitosan of rhinoceros beetle. Methods: This type of research was an experimental laboratory. The sample was cylindrical with 6 mm (height) × 4 mm (diameter). The sampling used was a purposive sampling technique. The minimum number of samples was one sample for each group, namely group (A) conventional (control) GIC, (B) modified GIC 10% vol/vol nanochitosan solution, (C) GIC modified 5% vol/vol nanochitosan solution, (D) GIC modification of 10% weight/weight of nanochitosan powder, and (E) modified GIC of 5% weight/weight of nanochitosan powder. Samples that have been made were stored in an incubator at 37°C. Characterisation of the surface morphology of the sample using Scanning Electron Microscopy (SEM). Results: SEM characterisation showed variations of cracks on the surface of the samples examined at 2000x and 3500x magnification. GIC modified nano chitosan powder showed more cracks on the surface, and an increase in the ratio of rhinoceros beetle nano chitosan showed an increase in cracks in the surface morphology of the GIC. Conclusions: The addition of nano chitosan of rhinoceros beetle to the GIC resulted in changes in the surface morphology.Keywords: Glass ionomer cement; rhinoceros beetle; scanning electron microscopy\",\"PeriodicalId\":32748,\"journal\":{\"name\":\"Jurnal Kedokteran Gigi Universitas Padjadjaran\",\"volume\":\" \",\"pages\":\"\"},\"PeriodicalIF\":0.0000,\"publicationDate\":\"2021-12-27\",\"publicationTypes\":\"Journal Article\",\"fieldsOfStudy\":null,\"isOpenAccess\":false,\"openAccessPdf\":\"\",\"citationCount\":\"1\",\"resultStr\":null,\"platform\":\"Semanticscholar\",\"paperid\":null,\"PeriodicalName\":\"Jurnal Kedokteran Gigi Universitas Padjadjaran\",\"FirstCategoryId\":\"1085\",\"ListUrlMain\":\"https://doi.org/10.24198/jkg.v33i3.32231\",\"RegionNum\":0,\"RegionCategory\":null,\"ArticlePicture\":[],\"TitleCN\":null,\"AbstractTextCN\":null,\"PMCID\":null,\"EPubDate\":\"\",\"PubModel\":\"\",\"JCR\":\"\",\"JCRName\":\"\",\"Score\":null,\"Total\":0}","platform":"Semanticscholar","paperid":null,"PeriodicalName":"Jurnal Kedokteran Gigi Universitas Padjadjaran","FirstCategoryId":"1085","ListUrlMain":"https://doi.org/10.24198/jkg.v33i3.32231","RegionNum":0,"RegionCategory":null,"ArticlePicture":[],"TitleCN":null,"AbstractTextCN":null,"PMCID":null,"EPubDate":"","PubModel":"","JCR":"","JCRName":"","Score":null,"Total":0}
引用次数: 1
摘要
引言:对牙齿修复材料进行纳米生长,目的是改善机械性能。物质的机械特性受到其表面结构的影响。许多修饰后的成分是玻璃电离层水泥(SIK),其中之一是纳米毒素。一种纳米毒素的来源可能来自甲虫的外骨骼(吉迪恩·希斯特鲁普斯)。吉迪恩的基特鲁比有47%的基特宁。这项研究的目的是分析玻璃电气化表面的形态学,并对角中纳米微粒的添加进行修正。方法:一种研究类型,即实验实验室。散光型样本大小的6毫米(高)×4毫米(直径)。采样技术采用采样技术。每个组的样本数量至少相当于1个样本,即常规组(控制)、(B)模板10%的vol/vol nanokitosan溶液、(C)模板5%的xl /vol nanokitosan粉末,(D)修饰10%的nanokitosan粉末,和(E)修饰5%的nanokitosan粉末重量/重量。样本被保存在孵化器里的温度37°C。样本表面形态的分类使用扫描显微镜(SEM)。结果:闪描述显示变化的样本表面裂缝增大2000×和3500×检查。受改造的纳米虫粉显示其表面有更多的裂缝,角甲虫纳米虫比也显示其表面形态学的断裂增加。结:在玻璃电解质中加入甲壳虫(木质素),导致其表面形态发生变化。关键词:玻璃电离层水泥;甲虫;扫描电子显微潜质:纳米微生物修复材料改进特性的加法。它表面的结构影响着一种物质的机械特性。修复了很多玻璃电气化的材料,其中一种是由纳米空间星形添加而成的。纳米资源可以从甲壳虫的外骨骼中提取。犀牛甲虫有47%的欲望。这是一项研究,分析玻璃电离再膨胀的表面形态,以及犀牛甲虫纳米分子式的修饰。方法:这是一种研究实验。样品是和6毫米(cylindrical高地)×4毫米(直径)。采样技术是一种采样技术。最小的样本编号是每个小组的样本,namely group (A)接受GIC 10%纳米微生物解决方案,(B) GIC修正了5%的功利纳米纳米溶液,样本那已被制造在stored in an incubator 37°C。样本表面形态的特点,使用扫描电子显微镜(SEM)。推荐:2000x和3500x magnification表层有各种裂纹。吉尔改良的纳米虫粉在表面表现出更多的裂缝,而犀牛甲虫纳米颗粒的数量也在吉尔表面形态的裂缝中增加。结论:犀牛的纳米虫的加法在表面形态的变化中不断变化。主音:玻璃发射;头犀牛甲虫;扫描电子显微镜
Evaluasi morfologi permukaan semen ionomer kaca dengan modifikasi penambahan nanokitosan kumbang tanduk Surface morphology evaluation of glass ionomer cement modified with nano chitosan of rhinoceros beetle
Pendahuluan: Penambahan nanokitosan pada modifikasi bahan restorasi kedokteran gigi bertujuan untuk memperbaiki sifat mekanik. Sifat mekanik dari suatu bahan dipengaruhi oleh struktur permukaannya. Bahan restorasi yang banyak dilakukan modifikasi yaitu Semen Ionomer Kaca (SIK), salah satunya dengan menambahkan nanokitosan. Sumber nanokitosan dapat berasal dari eksoskeleton serangga kumbang tanduk (Xylotrupes gideon). Xylotrupes gideon memiliki kandungan kitin sebesar 47%. Penelitian ini bertujuan untuk menganalisis morfologi permukaan semen ionomer kaca dengan modifikasi penambahan nanokitosan kumang tanduk. Metode: Jenis penelitian yaitu eksperimental laboratorium. Sampel berbentuk silindris dengan ukuran 6 mm (tinggi) × 4 mm (diameter). Pengambilan sampel menggunakan teknik purposive sampling. Jumlah sampel minimal sebanyak 1 sampel untuk setiap kelompok yaitu kelompok (A) SIK konvensional (kontrol), (B) SIK modifikasi 10% vol/vol larutan nanokitosan, (C) SIK modifikasi 5% vol/vol larutan nanokitosan, (D) SIK modifikasi 10% weight/weight bubuk nanokitosan, dan (E) SIK modifikasi 5% weight/weight bubuk nanokitosan. Sampel yang telah dibuat disimpan dalam inkubator dengan suhu 37°C. Karakterisasi morfologi permukaan sampel menggunakan Scanning Electron Microscopy (SEM). Hasil: Karakterisasi SEM menunjukkan adanya variasi retakan pada permukaan sampel yang diperiksa dengan pembesaran 2000× dan 3500×. SIK modifikasi bubuk nanokitosan menunjukkan lebih banyak retakan pada permukaannya serta peningkatan rasio nanokitosan kumbang tanduk menunjukkan peningkatan keretakan pada morfologi permukaan SIK. Simpulan: Penambahan nanokitosan kumbang tanduk (Xylotrupes gideon) pada Semen Ionomer Kaca mengakibatkan perubahan morfologi permukaan SIK.Kata kunci: Semen ionomer kaca; kumbang tanduk; scanning electron microscopy ABSTRACTIntroduction: The addition of nanochitosan to the modification of dental restorative materials improves mechanical properties. Its surface structure influences the mechanical properties of a material. The restoration material that has been modified a lot is Glass Ionomer Cement (GIC), one of which is by adding nano chitosan. The source of nano chitosan can be derived from the exoskeleton of the rhinoceros beetle (Xylotrupes gideon). Rhinoceros beetle has a chitin content of 47%. This study aims to analyse the surface morphology of the glass ionomer cement with the modification of the addition of nano chitosan of rhinoceros beetle. Methods: This type of research was an experimental laboratory. The sample was cylindrical with 6 mm (height) × 4 mm (diameter). The sampling used was a purposive sampling technique. The minimum number of samples was one sample for each group, namely group (A) conventional (control) GIC, (B) modified GIC 10% vol/vol nanochitosan solution, (C) GIC modified 5% vol/vol nanochitosan solution, (D) GIC modification of 10% weight/weight of nanochitosan powder, and (E) modified GIC of 5% weight/weight of nanochitosan powder. Samples that have been made were stored in an incubator at 37°C. Characterisation of the surface morphology of the sample using Scanning Electron Microscopy (SEM). Results: SEM characterisation showed variations of cracks on the surface of the samples examined at 2000x and 3500x magnification. GIC modified nano chitosan powder showed more cracks on the surface, and an increase in the ratio of rhinoceros beetle nano chitosan showed an increase in cracks in the surface morphology of the GIC. Conclusions: The addition of nano chitosan of rhinoceros beetle to the GIC resulted in changes in the surface morphology.Keywords: Glass ionomer cement; rhinoceros beetle; scanning electron microscopy