Refine
Year of publication
Document type
- Article (peer-reviewed) (2057)
- Conference Proceeding (1797)
- Bachelor Thesis (1253)
- Contribution to a Periodical (942)
- Part of a Book (629)
- Other (565)
- Report (370)
- Book (249)
- Master's Thesis (164)
- Doctoral Thesis (77)
Language
- English (4245)
- German (3906)
- Multiple languages (14)
- French (6)
- Spanish (1)
Keywords
- Online-Ressource (197)
- Electrical impedance tomography (99)
- Patent (82)
- Fernsehbeitrag (75)
- Interview (67)
- Tageszeitung (63)
- Machine learning (48)
- CD-ROM (45)
- Poster (43)
- Mechanical ventilation (40)
Course of studies
- IBW - Internationale Betriebswirtschaft (756)
- IBM - International Business Management (357)
- BMP - Business Management and Psychology (113)
- IMM - International Management (81)
- MBA - International Business Management (55)
- APE - Advanced Precision Engineering (22)
- MZT - Mikromedizintechnik (16)
- EMBA - Executive Master of International Business Management (15)
- IEB - International Engineering (12)
- INM - Informatik (9)
Titanium implants are frequently used in dentistry and orthopedics due to their excellent biocompatibility and mechanical properties. The natural oxide layer that forms on the surface of these implants plays a crucial role in their biological performance. Studies have shown that anodization and nanostructuring can improve the bioactivity of titanium surfaces [1]. However, the ceramic rutile structure (TiO2) has a ceramic character due to its ionic and covalent bonds (Ionicity QTiO=59,4 %) and is, therefore, highly brittle. Additively manufactured lattice structures have a significantly higher surface area, which increases the proportion of ceramic rutile compounds.