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دانلود کتاب Internet of Things and M2M Communication Technologies: Architecture and Practical Design Approach to IoT in Industry 4.0

دانلود کتاب اینترنت اشیا و فناوری‌های ارتباطی M2M: معماری و رویکرد طراحی عملی به اینترنت اشیا در صنعت 4.0

Internet of Things and M2M Communication Technologies: Architecture and Practical Design Approach to IoT in Industry 4.0

مشخصات کتاب

Internet of Things and M2M Communication Technologies: Architecture and Practical Design Approach to IoT in Industry 4.0

ویرایش: 1 
نویسندگان:   
سری:  
ISBN (شابک) : 3030792714, 9783030792718 
ناشر: Springer 
سال نشر: 2021 
تعداد صفحات: 303 
زبان: English 
فرمت فایل : PDF (درصورت درخواست کاربر به PDF، EPUB یا AZW3 تبدیل می شود) 
حجم فایل: 11 مگابایت 

قیمت کتاب (تومان) : 36,000



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در صورت تبدیل فایل کتاب Internet of Things and M2M Communication Technologies: Architecture and Practical Design Approach to IoT in Industry 4.0 به فرمت های PDF، EPUB، AZW3، MOBI و یا DJVU می توانید به پشتیبان اطلاع دهید تا فایل مورد نظر را تبدیل نمایند.

توجه داشته باشید کتاب اینترنت اشیا و فناوری‌های ارتباطی M2M: معماری و رویکرد طراحی عملی به اینترنت اشیا در صنعت 4.0 نسخه زبان اصلی می باشد و کتاب ترجمه شده به فارسی نمی باشد. وبسایت اینترنشنال لایبرری ارائه دهنده کتاب های زبان اصلی می باشد و هیچ گونه کتاب ترجمه شده یا نوشته شده به فارسی را ارائه نمی دهد.


توضیحاتی در مورد کتاب اینترنت اشیا و فناوری‌های ارتباطی M2M: معماری و رویکرد طراحی عملی به اینترنت اشیا در صنعت 4.0

این کتاب دیدگاه 360 درجه ای را در مورد طراحی اینترنت اشیا (IoT) و فرآیند ارتباط M2M در اختیار خوانندگان قرار می دهد. در نظر گرفته شده است که به عنوان یک راهنمای طراحی برای توسعه راه حل های IoT، پوشش معماری، طراحی و روش های توسعه استفاده شود. این کتاب به بررسی برنامه هایی مانند اتوماسیون صنعتی برای صنعت 4.0، اینترنت اشیاء پزشکی (IoMT) و اینترنت خدمات (IoS) می پردازد. بحث در مورد اصول مهندسی محدود به آنچه برای تحقق راه حل های اینترنت اشیا مورد نیاز است است.

اینترنت اشیا و فناوری های ارتباطی M2M: معماری و رویکرد طراحی عملی به اینترنت اشیا در صنعت 4.0 توسط یک کهنه کار صنعت با بیش از 30 سال سابقه نوشته شده است. تجربه عملی. این یک راهنمای ارزشمند برای مهندسین برق، الکترونیک، علوم کامپیوتر و علوم اطلاعات است که آرزو دارند طراحان اینترنت اشیا باشند و مرجع معتبری برای طراحان مجربی است که روی توسعه دستگاه های اینترنت اشیا کار می کنند.
  • ارائه می کند. رویکرد طراحی کامل برای توسعه راه‌حل‌های اینترنت اشیا؛
  • شامل طرح‌های مرجع و راهنمایی در مورد انطباق با استانداردهای مربوطه است؛
  • به طراحی برای قابلیت ساخت و مدل‌های تجاری می‌پردازد.
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توضیحاتی درمورد کتاب به خارجی

This book provides readers with a 360-degree perspective on the Internet of Things (IoT) design and M2M communication process. It is intended to be used as a design guide for the development of IoT solutions, covering architecture, design, and development methods. This book examines applications such as industry automation for Industry 4.0, Internet of Medical Things (IoMT), and Internet of Services (IoS) as it is unfolding. Discussions on engineering fundamentals are limited to what is required for the realization of IoT solutions. 

Internet of Things and M2M Communication Technologies: Architecture and Practical Design Approach to IoT in Industry 4.0 is written by an industry veteran with more than 30 years of hands-on experience. It is an invaluable guide for electrical, electronic, computer science, and information science engineers who aspire to be IoT designers and an authoritative reference for practicing designers working on IoT device development.
  • Provides complete design approach to develop IoT solutions;
  • Includes reference designs and guidance on relevant standards compliance;
  • Addresses design for manufacturability and business models.


فهرست مطالب

Foreword
Foreword
Preface
Contents
Abbreviations
About the Author
Chapter 1: Internet of Things: An Introduction
	1.1 Industry 4.0
	1.2 A Brief History of Industrial Revolutions
	1.3 Technology Enablers
	1.4 Internet of Things
	1.5 IoT Concept
	1.6 Characteristics of Internet of Things
	1.7 Industrial Internet of Things
	1.8 Scope of Internet of Things (IoT) Technology
	1.9 IoT Technologies
		1.9.1 Sensor Technology
		1.9.2 Actuator Technology
		1.9.3 Signal and Data Processing
		1.9.4 User Interface and Machine Learning
		1.9.5 Artificial Intelligence (AI)
		1.9.6 Machine to Machine (M2M) Communication Technology
		1.9.7 Internet Technology
		1.9.8 Embedded System/PCB/System Design
		1.9.9 Integrated Development Environment for System Software Development
	1.10 Architectural Framework of IoT
	1.11 IoT and Open Systems Interconnection (OSI)
	1.12 M2M Communication Technologies
		1.12.1 In-Vehicle Telemetry Services
		1.12.2 Smart Meters
		1.12.3 Smart Asset Tracking Services
		1.12.4 Supply Chain Management (SCM) Solutions
		1.12.5 Wearable Technologies
	References
Chapter 2: Internet of Things (IoT) Design Methodology
	2.1 Architecture Framework of the IoT System Solution
	2.2 Three-Layer Architecture
		2.2.1 Thing or Device Layer
		2.2.2 Network Layer
		2.2.3 Application Layer
	2.3 Five-Layer Architecture
		2.3.1 IoT Network Management Layer
		2.3.2 IoT Data Processing Layer
	2.4 Fog-Based IoT Architecture
	2.5 Edge Computing Architecture
	2.6 Hybrid Cloud-Fog-Edge Architecture
	2.7 IoT Design Flow
		2.7.1 Requirement Study
		2.7.2 Deriving Specifications
		2.7.3 Identifying IoT Architecture
		2.7.4 Identify Layer Functions and Interfaces
		2.7.5 Identify Sensor Needs
		2.7.6 Identify Processor Needs
		2.7.7 Classify Processor Needs
		2.7.8 Proof-of-Concept Development
		2.7.9 Validation of PoC
		2.7.10 Derive IoT Product Requirement
		2.7.11 Derive IoT Design Requirement
		2.7.12 Product Design
		2.7.13 Product Validation
		2.7.14 Integration to Cloud Gateway
		2.7.15 IoT System Validation
	2.8 Choice of Technologies
		2.8.1 Hardware Development Platforms
		2.8.2 Embedded Software Development: IDE
		2.8.3 Custom Hardware Development
		2.8.4 Product Design
	2.9 Standard Compliance
	2.10 Regulatory Requirements
	2.11 IoT Device Development Platforms
	2.12 IoT Device Data Management Platforms
	2.13 Product-Hardware-Software Partitioning
	2.14 IoT Software Development
	2.15 Communication Technologies
	References
Chapter 3: Industrial IoT (IIoT) Design Methodology
	3.1 Introduction to Industrial IoT
	3.2 Challenges of Industrial IoT
		3.2.1 Heterogeneous Process Flows and Machineries
		3.2.2 Process Security
		3.2.3 IIoT-Based Automation
		3.2.4 Oil and Gas Automation
	3.3 Automation Framework Using IIoT System Solution
		3.3.1 PLCs/RTUs with IIoT Devices
		3.3.2 Single-Board Computers (SBC)
		3.3.3 Data Servers
		3.3.4 Human Machine Interface (HMI) and Supervisory System
		3.3.5 SCADA Software
	3.4 Technologies in IIoT Solution
		3.4.1 Sensor and Actuator Technology
		3.4.2 Distributed Ledger Technologies (DLTs)
		3.4.3 User Interface (UI) and Machine Learning (ML)
		3.4.4 Artificial Intelligence
			3.4.4.1 High-Performance Computing
			3.4.4.2 Embedded Systems
			3.4.4.3 Application Software Development
	3.5 IIoT Development Platforms
		3.5.1 Commercial IoT Platforms
	3.6 IIoT Subsystems
	3.7 Communication Technologies
	References
Chapter 4: IoT Product Design: A Case Study
	Introduction to Design Case
	4.1 Design Case Study: Smart Environment Monitoring
	4.2 A Case Study: Product Requirements
	4.3 Proof of Concept
		4.3.1 IoT Device
		4.3.2 IoT Device Firmware
			4.3.2.1 Firmware Code
			4.3.2.2 Prototype Design
			4.3.2.3 Cloud Storage and Analytics Setup
			4.3.2.4 Registration to ThingSpeak Cloud
			4.3.2.5 ThingSpeak Cloud Server Access
			4.3.2.6 Product Design
			4.3.2.7 Product Validation and Testing
				Functionality Test
				Compatibility Test
				Stress and Scalability Test
				Data Integrity Test
				Security Test
				Performance Test
			4.3.2.8 Safety and Environment Tests
				IoT Testing on the Internet
	4.4 IoT Device Using VLSI System on Chip (SoC)
	References
Chapter 5: Sensors, Actuators, and Hardware Accelerators
	5.1 Introduction to Sensors and Actuators
		5.1.1 Sensor
		5.1.2 Classification of Sensors
			5.1.2.1 Flow Sensors
			5.1.2.2 Force Sensors
			5.1.2.3 Humidity Sensors
			5.1.2.4 Pressure Sensors
			5.1.2.5 Photo Optic Sensors
			5.1.2.6 Water Level Sensors
			5.1.2.7 Ultrasonic Sensors
		5.1.3 Actuators
	5.2 Signal Conditioning of Sensor Output
	5.3 Electrical Isolation
		5.3.1 Amplification
		5.3.2 Filtering
			5.3.2.1 Power Consumption of IoT
			5.3.2.2 Storage in IoT Devices
	5.4 Hardware Accelerators
	References
Chapter 6: Capturing Modules
	6.1 Introduction
		6.1.1 Cameras
			6.1.1.1 CCD Cameras
			6.1.1.2 CMOS Cameras
	6.2 Smartphone Camera Modules
		6.2.1 Specifications of Camera Modules
			6.2.1.1 Videos
		6.2.2 Commercial Image Processing Modules
			6.2.2.1 STMicroelectronics VG*640: 1.3 Megapixel High-Dynamic-Range Image Sensor
			6.2.2.2 Raspberry Pi Camera Module V2(SKU)
		6.2.3 Camera Modules for Arduino
	References
Chapter 7: IoT Software Design Methodologies
	7.1 Introduction to IoT Software
	7.2 Selection of Hardware
	7.3 Operating System or Bare Metal Architecture
		7.3.1 IoT Software Footprint
		7.3.2 Communication Device
		7.3.3 Power Management
		7.3.4 Firmware Upgrade
		7.3.5 IoT Security
	7.4 IoT Embedded System Software
		7.4.1 Embedded Software Development Platforms
			7.4.1.1 Arduino IDE
			7.4.1.2 Simulator
		7.4.2 Embedded Program for an Application
			7.4.2.1 Device Boot Loader
			7.4.2.2 Operating Systems
			7.4.2.3 Hardware Configurations and Initializations Setup
				Signal Processing Algorithms
				Computation Functions
				Interface Module Configurations
				Communication Functions
				Communication Functions
	7.5 Embedded Software Architecture Guidelines
		7.5.1 Embedding the Software onto Hardware
		7.5.2 RTOS and Mbed OS
	7.6 Most Used IDEs
	7.7 Software Development for Communication
	7.8 Cloud Computing
		7.8.1 Expandable Storage
		7.8.2 Device Connectivity to Cloud Service
		7.8.3 User Access Management
		7.8.4 Data Analytics
			7.8.4.1 Data Reporting and Visualization
			7.8.4.2 Cloud Application Program Development
		7.8.5 Access to Cloud Servers
	7.9 Edge Development Platforms
		7.9.1 Protocols Supported Depending on Connectivity Technology Chosen
		7.9.2 Access to Cloud Services
		7.9.3 IoT Mobile Application Development Platforms
	References
Chapter 8: IoT Security
	8.1 Need for IoT Security
	8.2 Security, Privacy and Interoperability Challenges in IoT Systems
		8.2.1 Challenges of Privacy
		8.2.2 Challenges of Security
		8.2.3 Challenges of Interoperability
	8.3 Terminology
	8.4 Vulnerabilities in IoT Network
	8.5 Cryptographic Algorithms for IoT Security
	8.6 IoT Security Platforms
	8.7 Layer-Wise Security of IP Stack for IoT
		8.7.1 Transport Layer Security (TLS)
		8.7.2 IPsec for IoT
		8.7.3 Cryptography Keys
	8.8 IoT Security Tomography and Layered Attacker Model
		8.8.1 Layer 1: Physical or Device Layer
		8.8.2 Layer 2: Network Layer Attack
		8.8.3 Layer 3: Application Layer Attack
	8.9 Best Practices in Monitoring IoT Security
	References
Chapter 9: IoT Application Technologies for Constrained Devices
	9.1 Introduction to IoT Application Layer and External Interface
		9.1.1 CoAP Application Protocol
		9.1.2 Message Queueing Telemetry Transfer (MQTT) Application Protocol
	9.2 Extensible Messaging and Presence Protocol (XMPP)
		9.2.1 WebSocket
		9.2.2 Simple Object Access Protocol (SOAP)
	9.3 Representational State Transfer (REST)
		9.3.1 RESTful and HTTP APIs
			9.3.1.1 Application Development Platforms
	References
Chapter 10: M2M Communication and Technologies
	10.1 M2M Communication
		10.1.1 Cellular Technology
		10.1.2 Satellite Communication
		10.1.3 Short-Range Technologies
		10.1.4 LPWAN Technology
		10.1.5 GPS/GNSS and Positioning Technology
	10.2 Standards and Protocols
	10.3 Applications Using M2M Communication
	References
Chapter 11: M2M Communication Protocols
	11.1 Internet Protocol Stack and M2M Communication
	11.2 Internet Protocol (IP) Stack
		11.2.1 Version
		11.2.2 Length
		11.2.3 Type of Service
		11.2.4 Identity, Flags, and Fragment Offset
		11.2.5 Time
		11.2.6 Source IP Address and Destination IP Address
	11.3 IPv6 and IoT
		11.3.1 User Datagram Protocol (UDP)
		11.3.2 Transmission Control Protocol (TCP)
		11.3.3 TCP Segment Format
			11.3.3.1 Source Port and Destination Port
			11.3.3.2 Code
			11.3.3.3 Options
			11.3.3.4 Offset
			11.3.3.5 Urgent Pointer
		11.3.4 Reliable Transmission in TCP Link
		11.3.5 Transactional Transmission Control Protocol (T/TCP)
		11.3.6 Internet Protocol (IPv4 and IPv6)
	11.4 Application Protocols
		11.4.1 HTTP Application Protocol
			11.4.1.1 The Client
			11.4.1.2 Uniform Resource Identifier (URI)
				Uniform Resource Locator (URL)
				Uniform Resource Name (URN)
				Uniform Resource Citation (URC)
		11.4.2 Hypertext Markup Language
	11.5 Constrained Application Protocols (CoAP)
		11.5.1 CoAP Protocol Stack
		11.5.2 CoAP Data Format
	11.6 MQTT Application Protocol
		11.6.1 Retained Messages
		11.6.2 Durable and Non-durable Sessions
		11.6.3 Will Message
		11.6.4 Protocol Stack
		11.6.5 MQTT Tools
			11.6.5.1 Command Line Tools
				Command Line Tools
				Browser Tools: Chrome
				Android Tools: Smartphone and Tablet
	11.7 Notes on Standard Defining Bodies
	References
Chapter 12: M2M Communication in Constrained Devices
	12.1 Constrained Network and Constrained Devices
	12.2 Internet Access
	12.3 M2M Gateway Device
	12.4 Network Domain
		12.4.1 Access Network
		12.4.2 Core Network
			12.4.2.1 M2M Service Capabilities
			12.4.2.2 M2M Applications
			12.4.2.3 Network Management Functions
			12.4.2.4 M2M Management Functions
	12.5 Personal Area Network (PAN)
	12.6 Constrained Device and Its Architecture
	12.7 Wireless Sensor Network (WSN)
		12.7.1 Smart Utility Network (SUN)
		12.7.2 Rail Communications and Control (RCC)
		12.7.3 Television White Space (TVWS)
		12.7.4 Radio Frequency Identification (RFID)
		12.7.5 Low-Energy, Critical Infrastructure Monitoring (LECIM)
		12.7.6 Medical Body Area Network (MBAN) Services
	12.8 Multi-PHY Management (MPM) of the SUN WPAN
	12.9 Network Architecture of WPAN
	12.10 Routing Protocols for Sensor Networks
	12.11 Constrained Application Protocol (CoRE)
		12.11.1 6LoWPAN
		12.11.2 Working Group 6Lo
		12.11.3 Bluetooth Low Energy (BT-LE)
		12.11.4 DECT Ultra Low Energy
		12.11.5 Z-Wave IETF
		12.11.6 Power Line Communication (PLC)
		12.11.7 G3-PLC
		12.11.8 Near-Field Communications (NFC)
		12.11.9 BACNET Master-Slave/Token-Passing (MS/TP)
		12.11.10 802.15.4e Time Slotted Channel Hopping (TSCH): The IEEE 802.15.4e
			12.11.10.1 IEEE 802.11ah
			12.11.10.2 Low-Power Wide-Area Network (LPWAN)
				12.11.10.2.1 LoRaWAN
				12.11.10.2.2 Cellular LTE
				12.11.10.2.3 Sigfox
		12.11.11 Industrial Automation and the Internet
	References
Chapter 13: IoT Database Management and Analytics
	13.1 IoT Database Analysis Framework
	13.2 Big Data Life Cycle
		13.2.1 Data Generation
		13.2.2 Data Acquisition
		13.2.3 Data Validation
		13.2.4 Storage Operations
		13.2.5 Querying
		13.2.6 Production
		13.2.7 Collection
		13.2.8 Aggregation/Compression
		13.2.9 Delivery
		13.2.10 Pre-processing
		13.2.11 Stored Data Update-Archiving
		13.2.12 Processing/Analysis
	13.3 IoT Data Framework
	13.4 Data Framework for WPAN
	13.5 Industrial Data Life Cycle
	13.6 Industrial Data Management System (IDMS) Framework
		13.6.1 Physical Layer
		13.6.2 Communication Layer
		13.6.3 Middleware Layer
			13.6.3.1 Resource Management
			13.6.3.2 Event Management
			13.6.3.3 Data Management
			13.6.3.4 Database Layer
				13.6.3.4.1 Database Management System
				13.6.3.4.2 ACID Rules of DDBMS
				13.6.3.4.3 Distributed Database (DDB)
				13.6.3.4.4 Consistency, Availability, and Partition (CAP) Tolerance
				13.6.3.4.5 Consistency, Availability, and Partition (CAP) Tolerance Theorem
				13.6.3.4.6 Query Processing [1]
				13.6.3.4.7 Relational Algebra
					Projection
					Selection
					Union
					Intersection
					Minus
					Join
					Branch
		13.6.4 Application and Management Layer
	13.7 IoT Data Analytics
	13.8 IoT Data Analytic Methods
		13.8.1 Data Cleansing Techniques
	13.9 Analysis of Data
		13.9.1 Predictive Analysis of the Data
		13.9.2 Data Visualization
	References
Chapter 14: Design for Manufacturing and Business Models
	14.1 Introduction to Design for Manufacturing (DFM)
		14.1.1 Economies of Scale
		14.1.2 Design for Manufacturing (DFM)
			14.1.2.1 Design
			14.1.2.2 Process
			14.1.2.3 Material
			14.1.2.4 Environment/Testing
			14.1.2.5 Regulatory Requirements
	14.2 Factors Affecting DFM
		14.2.1 Part Count
		14.2.2 Standard Parts and Materials
		14.2.3 Modularity
		14.2.4 Design for Assembly
		14.2.5 Aesthetics and Surface Finish
	14.3 Product Documentation and Media Materials
	14.4 Business Model and Business Model Canvas
		14.4.1 Value Proposition
		14.4.2 Customer Segment
		14.4.3 Channels
		14.4.4 Customer Relationship
		14.4.5 Revenue Streams
		14.4.6 Key Resources
		14.4.7 Key Partners
		14.4.8 Key Activities
		14.4.9 Cost
	14.5 IoT System Development
	14.6 Business Models for IoT Solutions
		14.6.1 Subscription Services Around IoT
		14.6.2 Outcome-Based Models
		14.6.3 Asset Sharing Models
		14.6.4 Things as a Service
	14.7 Commercialization
		14.7.1 Manufacturing Capability (Not Applicable for IoT Services)
		14.7.2 Marketing Channels
		14.7.3 Sales and Customer Support
		14.7.4 Cost of the Product/Services
		14.7.5 Promotional Campaigns
		14.7.6 New Product Development
			Type of Business Models
	14.8 Business Model Innovation
Chapter 15: Question Bank and Reference Design Material
	15.1 Part 1
		15.1.1 Chapter 1
		15.1.2 Chapter 2
		15.1.3 Chapter 3
		15.1.4 Chapter 4
		15.1.5 Chapter 5
		15.1.6 Chapter 6
		15.1.7 Chapter 7
		15.1.8 Chapter 8
		15.1.9 Chapter 9
		15.1.10 Chapter 10
		15.1.11 Chapter 11
		15.1.12 Chapter 12
		15.1.13 Chapter 13
		15.1.14 Chapter 14
	15.2 Part 2
		15.2.1 Prerequisites
		15.2.2 Experiment 1
		15.2.3 Experiment 2
		15.2.4 Experiment 3
		15.2.5 Experiment 4
		15.2.6 Experiment 5
		15.2.7 Experiment 6
		15.2.8 Experiment 7 (Fig. 15.3)
		15.2.9 Experiment 8
	15.3 Part III
		15.3.1 Approach Note to Develop IoMT- and IoS-Based Solution for Health Monitoring Eco Solution
		15.3.2 Taxonomy of IoMT Healthcare Ecosystem
		15.3.3 Health Applications
			15.3.3.1 Teleclinic
			15.3.3.2 Smart Pharmacy
			15.3.3.3 Hospital Management
		15.3.4 Security
			15.3.4.1 Architecture
			15.3.4.2 Technologies
			15.3.4.3 Device Technologies
			15.3.4.4 Smart Applications
			15.3.4.5 Security
	15.4 Conclusion
Index




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