Access Control Models and Architectures For IoT and Cyber Physical Systems - Gupta, Maanak

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Résumé :

1 Introduction: Requirements for Access Control in IoT and CPS.- 1.1 Introduction and Motivation.- 1.1.1 IoT Architectures.- 1.1.2 IoT and CPS Security Issues.- 1.2 Access Control Models.- 1.2.1 State of the Art.- 1.2.2 Access Control Models for Smart Connected Systems.- 1.3 Publish-Subscribe Paradigm.- 1.4 IoT and CPS Integration with Cloud and Edge Computing.- 1.5 Current Trends.- 1.6 Access Control Challenges and Research Needs.- 1.7 Summary.- References.- 2 Access Control Oriented Architectures Supporting IoT and CPS.- 2.1 Introduction.- 2.1.1 Chapter Organization.- 2.2 Primitives for Cloud and Edge Assisted Io.- 2.2.1 Taxonomy of Smart Devices.- 2.2.2 Cloud and Edge Hybrid Architectures.- 2.3 Access Control Oriented Architectures.- 2.3.1 Edge Gateway Supported ACO Architecture.- 2.3.2 Extended ACO Architecture with Clustered Objects.- 2.4 Illustrative IoT and CPS using Proposed Architectures.- 2.4.1 Remote Patient Monitoring (RPM).- 2.4.2 Intelligent Transportation System (ITS).- 2.5 Summary.- References.- 3 Authorization Frameworks for Smart and Connected Ecosystems ...

Sommaire:
9.- 3.1 Introduction.- 3.1.1 Chapter Organization.- 3.2 Access Control Framework for Cloud Enabled Wearable IoT.- 3.2.1 Access Control Framework.- 3.2.2 RPM Wearable IoT Use Case.- 3.3 Framework for Smart Connected Cars Ecosystem.- 3.3.1 Access Control Framework.- 3.3.2 Identified Access Control Approaches.- 3.3.3 Single and Multi-Cloud Cyber Physical Systems.- 3.4 Objectives of Proposed Frameworks.- 3.5 Summary.- References.- 4 Access Control Models in Cloud IoT Services.- 4.1 Introduction.- 4.1.1 Chapter Organization 4.- 4.2 AWS Access Control Model5.- 4.3 Access Control in AWS Internet of Things: AWS-IoTAC.- 4.3.1 Motivation 8.- 4.3.2 Formal Model and Definitions.- 4.3.3 AWS-IoTAC and ACO Architecture.- 4.3.4 Use Case.- 4.4 Google Cloud Platform Access Control Model.- 4.4.1 GCP Access Control (GCPAC) Model.- 4.4.2 Access Control in GCP Internet of Things.-4.4.3 E-Health Use Case.- 4.5 Limitations and Fine Grained Enhancements.- 4.5.1 Proposed Enhancements in AWS IoTAC.- 4.5.2 Proposed Enhancements in GCP IoTAC.- 4.6 Summary.- References.- 5 Secure Virtual Objects Communication.- 5.1 Introduction.- 5.1.1 Chapter Organization.- 5.2 Operational Access Control for VO Communication.- 5.2.1 ACL and Capability Based (ACL-Cap) Operational Model.- 5.2.2 ABAC Operational Model.- 5.2.3 RBAC Limitations.- 5.3 Administrative Access Control for VO Communication.- 5.3.1 Administrative ACL Model.- 5.3.2 Administrative RBAC Model.- 5.3.3 Administrative ABAC Model.- 5.4 AWS-IoT-ACMVO Model for AWS IoT Shadows Communication.- 5.5 Issues in enforcing ACO-IoT-ACMsVO within AWS-IoT-ACMVO.- 5.6 A Use Case: Sensing Speeding Cars.- 5.6.1 Sensing the Speed of a Single Car.- 5.6.2 Sensing the Speed of Multiple Cars.- 5.6.3 Performance Evaluation and Discussion.- 5.7 Summary.- References.- 6 Attribute Based Access Control for Intelligent Transportation5.- 6.1 Introduction.- 6.1.1 Chapter Organization.- 6.2 Authorization Requirements in ITS.- 6.2.1 Multi-Layer and User Privacy Preferences.- 6.2.2 Relevance of Groups.- 6.3 Dynamic Groups and ABAC Model.- 6.3.1 CV-ABACG Model Overview.- 6.3.2 Components Definitions.- 6.4 AWS Enforcement.- 6.4.1 Use Case Overview.- 6.4.2 Prototype Implementation.- 6.4.3 Performance Evaluation.- 6.5 Summary.- References.- 7 Fine Grained Communication Control for IoT and CPS.- 7.1 Introduction.- 7.1.1 Motivation.- 7.1.2 Chapter Organization.- 7.2 Background and Related Work.- 7.2.1 CE-IoT Architectures.- 7.2.2 Related Work.- 7.2.3 Scope and Assumptions.- 7.3 Access Control and Communication Control Requirements.- 7.3.1 Use Case Scenarios.- 7.4 Attribute-Based Communication Control.- 7.4.1 Attribute-Based Access Control Model.- 7.4.2 Attribute-Based Communication Control Model.- 7.5 Attribute-Based Access and Communication Control Framework.- 7.5.1 ABAC-CC Framework.- 7.6 Summary.- References.