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Item type:Publication, Access status: without files , Strategische Entwicklung modularer Produktfamilien - Methoden und Validierung(Springer, 2025-10-20); ; ; ; Modularisierung ist eine Schlüsselstrategie, mit der sich sowohl innovative Produktideen als auch neue individuelle Kundenanforderungen in bestehende Produktportfolios integrieren lassen. Aktuelle Forschungsergebnisse umschließen ein breites Themenfeld von der Auswirkung der Modularisierung bis zur Anwendung in Forschungsprojekten, Einbindung von Nutzern in die Entwicklung, sowie Adressierung von spezifischen Unternehmenszielgrößen. Gleichzeitig müssen diese methodischen Ansätze einer situationsgerechten Methodenvalidierung standhalten, die in der Grundlagenforschung am Institut untersucht wird.Publicationtype: Book Part42 - Some of the metrics are blocked by yourconsent settings
Item type:Publication, Access status: without files , Entwicklung und Anwendung medizinischer Simulationsmodelle(Springer, 2020-11); ; ; ; Medizinische Simulationsmodelle stellen reale Gegebenheiten der menschlichen oder tierischen Anatomie mithilfe von physischen Komponenten nach.Publicationtype: Book Part101 - Some of the metrics are blocked by yourconsent settings
Item type:Publication, Access status: without files , Neue Trends in der methodischen Entwicklung modularer Produktfamilien(Springer, 2020-11); ; ; ; In diesem Kapitel werden aktuelle Forschungstrends in der methodischen Entwicklung modularer Produktfamilien vorgestellt.Publicationtype: Book Part91 - Some of the metrics are blocked by yourconsent settings
Item type:Publication, Access status: without files , Evaluation of a modular in vitro neurovascular procedure simulation for intracranial aneurysm embolization(2020-02-01); ; ; ; Background Rapid development in endovascular aneurysm therapy continuously drives demand for suitable neurointerventional training opportunities. Objective To investigate the value of an integrated modular neurovascular training environment for aneurysm embolization using additively manufactured vascular models. Methods A large portfolio of 30 patient-specific aneurysm models derived from different treatment settings (eg, coiling, flow diversion, flow disruption) was fabricated using additive manufacturing. Models were integrated into a customizable neurointerventional simulator with interchangeable intracranial and cervical vessel segments and physiological circuit conditions ( € HANNES'; Hamburg ANatomic Neurointerventional Endovascular Simulator). Multiple training courses were performed and participant feedback was obtained using a questionnaire. Results Training for aneurysm embolization could be reliably performed using HANNES. Case-specific clinical difficulties, such as difficult aneurysm access or coil dislocation, could be reproduced. During a training session, models could be easily exchanged owing to standardized connectors in order to switch to a different treatment situation or to change from € treated' back to € untreated' condition. Among 23 participants evaluating hands-on courses using a five-point scale from 1 (strongly agree) to 5 (strongly disagree), HANNES was mostly rated as € highly suitable for practicing aneurysm coil embolization' (1.78±0.79). Conclusion HANNES offers a wide variability and flexibility for case-specific hands-on training of intracranial aneurysm treatment, providing equal training conditions for each situation. The high degree of standardization offered may be valuable for analysis of device behavior or assessment of physician skills. Moreover, it has the ability to reduce the need for animal experiments.Publicationtype: Journal Article174 - Some of the metrics are blocked by yourconsent settings
Item type:Publication, Access status: with files , Design for Mass Adaptation of the Neurointerventional Training Model HANNES with Patient-Specific Aneurysm Models(Cambridge University Press (CUP), 2019-07-26); ; ; ; A neurointerventional training model called HANNES (Hamburg ANatomical NEurointerventional Simulator) has been developed to replace animal models in catheter-based aneurysm treatment training. A methodical approach to design for mass adaptation is applied so that patient-specific aneurysm models can be designed recurrently based on real patient data to be integrated into the training system. HANNES’ modular product structure designed for mass adaptation consists of predefined and individualized modules that can be combined for various training scenarios. Additively manufactured, individualized aneurysm models enable high reproducibility of real patient anatomies. Due to the implementation of a standardized individualization process, order-related adaptation can be realized for each new patient anatomy with modest effort. The paper proves how the application of design for mass adaptation leads to a well-designed modular product structure of the neurointerventional training model HANNES, which supports quality treatment and provides an animal-free and patient-specific training environment.Publicationtype: Conference PaperScopus© Citations 13 259 228