Extending inner-ear anatomical concepts in the Foundational Model of Anatomy (FMA) ontology

Yasar Khan, Muntazir Mehdi, Alokkumar Jha, Saleem Raza, André Freitas, Marggie Jones, Ratnesh Sahay
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Abstract

The inner ear is physically inaccessible in living humans, which leads to unique difficulties in studying its normal function and pathology as in other human organs. Recently, biosimulation model has gained a significant attention to understand the exact causative factors that give rise to impairment in human organs. However, to build a biosimulation model for human organ concepts and their topological relationships from multiple and semantically overlapping domains such as biology, anatomy, geometrical, mathematical, physical models are required. In this paper, we focus on modelling the inner-ear macro anatomical concepts and their topological relationships. We extended the Foundational Model of Anatomy (FMA) ontology to cover micro-level version of human inner-ear anatomy where connection between simulating tissues, liquids, soft tissues and connecting adjacent (e.g. hair cells, perilymph) parts studied in detail, included and implemented.
在解剖学基础模型(FMA)本体中扩展内耳解剖概念
人类的内耳在物理上是不可接近的,这导致了研究其正常功能和病理的独特困难,就像研究其他人体器官一样。近年来,生物模拟模型得到了广泛的关注,以了解引起人体器官损伤的确切病因。然而,建立人体器官概念及其拓扑关系的生物仿真模型需要从多个和语义重叠的领域,如生物学,解剖学,几何,数学,物理模型。本文主要对内耳宏观解剖概念及其拓扑关系进行建模。我们扩展了解剖学基础模型(FMA)本体,以涵盖人类内耳解剖学的微观版本,其中模拟组织,液体,软组织和连接邻近(例如毛细胞,淋巴管周围)部分之间的连接进行了详细的研究,包括和实现。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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