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The chapter discusses the evolving architecture of the Internet of Things (IoT) to manage increased complexity, scalability, and performance requirements in enterprise-grade deployments. It describes a multi-layered architecture encompassing perception, network, data processing, application, and business layers, alongside design principles such as scalability, interoperability, and fault tolerance. Key considerations include low-power design and real-time responsiveness to ensure efficient and effective IoT systems.
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Term: Multilayered Architecture
Definition: A system design that divides responsibilities into layers for improved management, including perception, network, data processing, application, and business layers.
Term: ServiceOriented Architecture (SOA)
Definition: An architectural pattern that promotes the use of services (e.g., data storage, device management) often hosted on cloud or edge environments for interoperability.
Term: Scalability
Definition: The ability of an IoT system to support a growing number of devices and users without performance loss, achieved through techniques like distributed computing.
Term: Interoperability
Definition: The capability of diverse IoT devices and platforms to communicate and function together, facilitated by standards and protocols such as MQTT and CoAP.
Term: Fault Tolerance
Definition: The ability of an IoT system to continue operating smoothly in the event of a failure, commonly implemented through redundancy and failover systems.
Term: Lowpower Design
Definition: Design strategies that emphasize energy efficiency in IoT devices, such as using energy-efficient communication protocols and duty-cycling.
Term: Realtime Responsiveness
Definition: The immediate action response of IoT systems, often prioritized by using real-time operating systems (RTOS) to minimize delay.