Lauterbach Christl, Glaser Rupert, Savio Domnic, Schnell Markus, Weber Werner
Infineon Technologies AG, Corporate Research, Munich, Germany.
Stud Health Technol Inform. 2005;117:72-9.
The combination of textile fabrics with microelectronics will lead to completely new applications, thus achieving elements of ambient intelligence. The integration of sensor or actuator networks, using fabrics with conductive fibres as a textile motherboard enable the fabrication of large active areas. In this paper we describe an integration technology for the fabrication of a "smart textile" based on a wired peer-to-peer network of microcontrollers with integrated sensors or actuators. A self-organizing and fault-tolerant architecture is accomplished which detects the physical shape of the network. Routing paths are formed for data transmission, automatically circumventing defective or missing areas. The network architecture allows the smart textiles to be produced by reel-to-reel processes, cut into arbitrary shapes subsequently and implemented in systems at low installation costs. The possible applications are manifold, ranging from alarm systems to intelligent guidance systems, passenger recognition in car seats, air conditioning control in interior lining and smart wallpaper with software-defined light switches.
纺织面料与微电子技术的结合将带来全新的应用,从而实现环境智能的元素。利用带有导电纤维的织物作为纺织母板来集成传感器或执行器网络,能够制造出大面积的有源区域。在本文中,我们描述了一种基于带有集成传感器或执行器的微控制器有线对等网络来制造“智能纺织品”的集成技术。实现了一种自组织且容错的架构,该架构可检测网络的物理形状。形成用于数据传输的路由路径,自动避开有缺陷或缺失的区域。这种网络架构允许通过卷对卷工艺生产智能纺织品,随后切割成任意形状,并以较低的安装成本应用于系统中。其可能的应用多种多样,从报警系统到智能引导系统、汽车座椅中的乘客识别、内衬的空调控制以及带有软件定义光开关的智能壁纸。