Cloud Computing and the Internet of Things

Cloud Computing and the Internet of Things

  • Instructor: Azhar Merchant

  • Course: BCIS 3610

  • All rights reserved. This presentation may not be scanned, copied or duplicated, or posted to a publicly accessible website, in whole or in part.

Cloud Computing

  • Definition: A computing environment where software and storage are provided as an Internet service and accessed using a web browser.

  • Deployment Models:

    • Public Cloud Computing: Services offered over the public Internet, with infrastructure owned and managed by service providers.

    • Private Cloud Computing: Infrastructure used exclusively by one organization, providing greater control over data and security.

    • Hybrid Cloud Computing: A combination of public and private clouds, allowing for greater flexibility and optimization.

Internet of Things (IoT)

  • Definition: A network of physical objects (termed "things") that are embedded with sensors, processors, software, and connectivity capabilities, enabling data exchange between devices, manufacturers, and operators.

  • Components:

    • Sensors: Devices capable of sensing environmental data, such as pressure, temperature, humidity, pH level, motion, vibration, or light levels.

Importance of Learning Cloud Computing and IoT

  • Relevance in the Workforce: Many organizations operate within a cloud-computing environment where software, data storage, and services are accessed over the Internet using another organization's hardware.

  • Ease of Access: Both software and data are easily accessible, resulting in increased efficiency and operational capabilities.

Public Cloud Computing

  • Ownership and Management:

    • Infrastructure is owned by the service provider.

    • Users (tenants) access shared hardware resources via the Internet.

  • Features:

    • Delivering increasing amounts of computing, network, and storage capacity on demand.

    • No required capital investment from cloud users.

Benefits of Public Cloud Computing

  • Reduced Costs:

    • Organizations can avoid significant upfront investments in hardware.

  • Flexible Computing Capacity:

    • Service providers can adjust capacity based on changing computing needs.

  • Increased Redundancy:

    • Multiple geographically distributed data centers help enhance disaster recovery.

Types of Cloud Computing Services

  1. Infrastructure as a Service (IaaS):

    • Organizations outsource hardware and equipment used for data processing.

  2. Platform as a Service (PaaS):

    • Users receive a computing platform, often including operating systems, programming languages, databases, and web servers.

  3. Software as a Service (SaaS):

    • Software is delivered remotely through a web-based service, allowing users access without local installation.

Issues Associated with Public Cloud Computing

  • Complex Pricing Arrangements:

    • Difficulties in understanding the overall cost due to varying usage and service levels.

  • Variability in Performance:

    • Performance can fluctuate over time, impacting user experience.

  • Inadequate Data Security:

    • Concerns about data protection and compliance when using public infrastructure.

  • Vendor Lock-In:

    • Difficulty in migrating away from a service provider due to proprietary tools or complicated data transfer processes.

Private Cloud Computing

  • Characteristics:

    • A single-tenant cloud environment owned and operated exclusively by one organization.

  • Types of Private Clouds:

    • On-premises Private Cloud: Built and maintained within the organization's facilities.

    • Service Provider-Managed Private Cloud (Virtual Private Cloud): A cloud service provider optimally manages resources exclusive to the organization.

Hybrid Cloud Computing

  • Definition: A cloud computing environment integrating both private and public clouds, interconnected through private networks.

  • Usage Expectations:

    • Organizations may use public cloud services for non-sensitive applications with fluctuating usage needs while keeping critical applications on private infrastructure.

Autonomic Computing

  • Definition: The capability of IT systems to self-manage and adapt to modifications in the environment or business policies.

  • Goal: To create complex systems that operate independently while concealing complexity from users.

  • Key Functions:

    • Self-Configuring: Systems reconfigure themselves without manual intervention.

    • Self-Healing: Systems automatically recover from failures.

    • Self-Optimizing: Systems enhance their performance autonomously.

    • Self-Protecting: Systems proactively defend against security threats.

Examples of Internet of Things (IoT) Applications

  • Home Automation: Devices that automate household tasks.

  • Wearable Devices: Technology worn on the body, such as fitness trackers.

  • Smart Cities: Urban areas utilizing IoT for traffic management, energy consumption, etc.

  • Autonomous Vehicles: Vehicles that navigate and operate independently.

Enabling Connectivity with 5G

  • Definition: The latest generation of mobile communication technology.

  • Capabilities:

    • High data transfer speeds, minimal latency, low energy requirements, and use of millimeter waves for enhanced connectivity.

    • Allows multiple devices to rapidly transmit data to cloud services.

Business Benefits of the Internet of Things

  • Cost Reduction: Enables companies to reduce expenses, enhancing competitive advantages.

  • Consumer Insights: Deepens understanding of consumer behavior and preferences.

  • Enhanced Customer Service: Improves overall customer experience with timely interventions and service personalization.

  • Workplace Safety Improvements: Implements monitoring tools that improve safety in business environments.

Types of Internet of Things Applications

  1. Connect and Monitor:

    • Individual devices collect minimal data, facilitating basic monitoring.

  2. Control and React:

    • Engages automatic monitoring coupled with remote control and trend analysis via data collection.

  3. Predict and Adapt:

    • Combines sensor data with external inputs for predictive analysis and proactive operations.

  4. Transform and Explore:

    • Facilitates new business model creations using combined data insights for innovation.

Issues in the Internet of Things

  • Data Usability and Security Issues:

    • Challenges with the reception and application of sensor data, particularly regarding security concerns.

Summary

  • Access to Cutting-Edge Technology: Cloud computing offers advanced services at a fraction of traditional ownership costs and minimizes acquisition delays.

  • IoT Data Processing: Organizations leverage IoT to capture and analyze sensor data for real-time pattern detection, greatly influencing event outcomes.