Chapter 11: A Deep Dive

IoT in the Cloud

Exploring the powerful synergy between the Internet of Things and Cloud Computing, from foundational concepts to advanced service models and platforms.

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Presented By: Keshav Kannan

01

The Symbiotic Relationship

IoT applications generate a massive volume and velocity of data. Cloud computing provides the essential backbone for storing, processing, and analyzing this data, turning raw sensor readings into actionable insights.

Edge/Fog Computing

Initial, real-time processing of raw sensor data happens at the edge, close to the source. This is crucial for applications requiring low latency, like autonomous vehicles or industrial automation.

Cloud Computing

Data is sent to remote, powerful server networks for in-depth analysis, long-term storage, and access to a vast array of services like machine learning, security, and big data processing.

02

The Vision of Connected Living

IoT and the cloud are fundamentally reshaping our environments, creating a seamless ecosystem of "Connected Living" that spans our homes, workplaces, and cities.

Connected Houses

Home Automation, Energy Saving, Health Monitoring

Connected Work

Mobility, Mobile Working, Enterprise Networking

Connected City

Smart Transportation, E-learning, E-governance

Connected Living

Integrated Data Services

Providing ubiquitous connectivity and services anywhere, anytime by integrating a rich variety of data such as video, voice, and structured information.

03

Layers of the Cloud

Cloud services are delivered in different layers of abstraction, each providing a specific level of control and management. These models allow developers to choose the right tools for their IoT applications.

IaaS

Infrastructure-as-a-Service

Provides fundamental resources like virtual machines, storage, and networking. Offers maximum control.

e.g., AWS EC2, Google Compute Engine

PaaS

Platform-as-a-Service

Offers a platform for developers to build, deploy, and manage applications without worrying about the underlying infrastructure.

e.g., Google App Engine, Heroku, Azure App Service

SaaS

Software-as-a-Service

Delivers ready-to-use software applications over the internet, typically on a subscription basis.

e.g., Google Workspace, Salesforce, Office 365

04

A Framework for Integration

Integrating IoT with the cloud creates a powerful, scalable system. This framework highlights the key components working in concert to bridge the physical and digital worlds.

Instrumentation Edge technologies for sensors and actuators Communication Networking technologies for wire and wireless networking Intelligence Decision making application services with limited computational capacity Interconnection Interoperable service-oriented middleware and architecture for heterogeneous devices
05

Handling the Data Deluge

Specialized open-source platforms are essential for processing the massive datasets generated by IoT devices. These tools form the core of the cloud's data processing capabilities.

Hadoop Icon

Apache Hadoop

An ecosystem of tools for distributed storage (HDFS) and batch processing (MapReduce) of very large data sets across clusters of computers.

Spark Icon

Apache Spark

A fast, general-purpose cluster computing system that excels at in-memory data processing, making it ideal for streaming data, machine learning, and interactive analytics.

06

Specialized IoT Cloud Services

Beyond general computing, the cloud offers specialized services tailored for the unique needs of the Internet of Things, treating sensors and events as on-demand resources.

SEaaS: Sensing-as-a-Service

Provides on-demand access to sensing data collected by cloud-enabled sensors, allowing multiple applications to share and utilize the same data streams.

SAaaS: Sensing and Actuator-as-a-Service

Virtualizes physical sensors and actuators, offering them as services over the cloud. This enables remote control and interaction with physical devices.

SEaaS: Sensor Event-as-a-Service

Triggers actions or notifications based on specific events detected from real-time sensor data, such as temperature thresholds or traffic density changes.

07

Major IoT Cloud Platforms

Numerous providers offer end-to-end IoT cloud platforms, each with unique strengths in scalability, cost, and functionality. Here are some prominent examples.

Kaa IoT Platform

An open-source, multipurpose middleware platform for end-to-end IoT development, known for its modularity and flexibility.

Kaa Multitenancy Modular, customizable Application versioning Configuration Scalable, elastic, self-healing Open IoT protocol

ThingSpeak IoT Platform

An open-source platform focused on collecting, storing, and visualizing sensor data in the cloud, with strong integration with MATLAB for analysis.

Devices (Arduino, Pi) ThingSpeak Cloud Channels Analyze (MATLAB)

Google Cloud IoT

An end-to-end platform focused on easy connection, storage, and management of IoT data, known for its smart device integration and per-minute pricing.

Oracle Cloud IoT

A PaaS offering that provides real-time IoT data analysis, endpoint management, and high-speed messaging for critical business decisions.

08

REST APIs: The Language of IoT

Representational State Transfer (REST) is the preferred architectural style for IoT web services due to its simplicity, lightweight nature, and stateless communication over standard HTTP.

Client

(e.g., IoT Device, App)

HTTP Request (GET, POST)
HTTP Response (JSON, XML)

Server

(Cloud Application)

Key Principle: The interaction is stateless. Each request from the client contains all the information needed for the server to fulfill it, without relying on any stored context.

09

Thank You

Open for Questions

Thank you for your attention. I am now open for any questions you may have about the integration of IoT and Cloud Computing.