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The document provides information from a presentation on IoT security given by Amar Prusty of DXC Technology. It begins with biographical information about the speaker and an overview of what IoT is. It then discusses some of the key security challenges with IoT, including that IoT devices often have weak default credentials, lack of ability to update firmware, and vulnerabilities in web interfaces. The document outlines potential attacks against different components of an IoT system like edge devices, gateways, cloud infrastructure and mobile devices. It proposes using the OWASP IoT security framework to help address vulnerabilities and concludes by discussing the challenges in securing IoT given the current state of tools and methodologies available to builders.

Research presentation for IoT/M2M security - Paper: Distributed Capability-based Access Control for the Internet of Things - Security solution in open source IoT platform (OM2M, AllJoyn)

An overview of security and privacy challenges that must be faced and solved when creating new Things for the Internet of Things. We discussed why are Things inherently insecure together with examples of attack vectors and learned some risk mitigation strategies. We realized why should users be wary of Things violating their privacy and gained awareness of upcoming EU privacy legislation that affects providers of IoT-based solutions. Talk given at Pixels Camp 2017, Lisbon.

As the need for digital transformation continues, IoT development and adoption for both enterprises and consumers are also on the rise. One of the main challenges in allowing multiple device connectivity is cybersecurity. Here are the challenges enterprises are facing when ensuring security for their IoT connections.

This document provides an overview of IoT security. It begins with defining IoT and describing how physical objects are connected to the internet. It then discusses current IoT usage and forecasts significant future growth. The document outlines several IoT security risks and vulnerabilities, such as insecure interfaces, lack of encryption, and poor physical security. It recommends best practices for IoT security including implementing device and user authentication, access controls, encryption, and regular software updates. Overall the document introduces the topic of IoT security and some foundational aspects to address related risks.

This document discusses security considerations for M2M and IoT systems. It notes that security must be implemented holistically across the entire architecture, including at the device, communication, and application layers. PKI is recommended for authentication. The document outlines various threats and motivations for attackers. It then describes Eurotech's Everyware IoT security elements, which include X.509 certificate management, encrypted and authenticated messaging using MQTT, tenant segregation, secure access to interfaces and consoles, a secure execution environment on devices and platforms, and remote management using VPN. Auditing and penetration testing are also performed.

This document discusses Internet of Things (IoT) security. It begins by defining IoT and describing common IoT applications in consumer, commercial, industrial, and infrastructure sectors. It then defines IoT security and explains that security is an important area due to the rapid growth of connected devices. The document outlines four layers of IoT security: device, communication, cloud, and lifecycle management. It identifies some of the main security issues like default passwords, unpatched systems, and access to APIs and data. Finally, it discusses best practices for IoT security including authentication, encryption, privacy controls, and firmware updates.

the ppt describes about the basics of iot,its applications, security challenges , hacks and the solutions to the security challenges

As IoT insecurity creates vulnerabilities, policymakers become concerned about the health of the Internet. How can public policy address these concerns in a smart way, targeting their efforts to improve IoT security without imposing unnecessary costs across the Internet ecosystem or creating unintended effects? What is the role of government versus industry? Jason Livingood Vice President, Technology Policy & Standards, Comcast https://www.cablelabs.com/informed/

based on ieee paper on Security and Privacy in the Internet of Things: Current Status and Open Issues

After tightening up network perimeter for dealing with external threats, organizations have woken up to the threats from inside Local Area Networks (LAN) over the past several years. It is thus important to design and implement LAN security strategies in order to secure assets on LAN by filtering traffic and thereby protecting them from malicious access and insider attacks. Banking Financial Services and Insurance (BFSI) industry is one such segment that faces increased risks and security challenges. The typical architecture of this segment includes several thousands of users connecting from various branches over Wide Area Network (WAN) links crossing national and international boundaries with varying network speed to access data center resources. The objective of this work is to deploy LAN security solution to protect the data center located at headquarters from the end user machines. A LAN security solution should ideally provide Network Access Control (NAC) along with cleaning (securing) the traffic going through it. Traffic cleaning itself includes various features like firewall, intrusion detection/prevention, traffic anomaly detection, validation of asset ownership etc. LANenforcer (LE) is a device deployed in front of the data center such that the traffic from end-user machines necessarily passes through it so that it can enforce security. The goal of this system is to enhance the security features of a LANenforcer security system with Intrusion Prevention System (IPS) to enable it to detect and prevent malicious network activities. IPS is plugged into the packet path based on the configuration in such a way that the entire traffic passes through the IPS on LE.

Presentation providing an overview of security, privacy and data protection for the Internet of Things. Presented at IEEE 1451.0 WG.

ICC's security philosophy is based on creating multiple layers of security to make hacking financially unwise. This includes edge devices with built-in firewalls and intrusion detection, controller-based aggregation layers with authentication, encryption, and advanced routing options, and broadband connectivity using military-grade encryption. The solution helps customers maintain PCI compliance by providing wireless scanning, rogue access point detection and mitigation, wireless usage enforcement, and network segmentation.

IoT stands for Internet of Things.The internet of things, or IoT, is a system of interrelated computing devices, mechanical and digital machines, objects, animals or people that are provided with unique identifiers (UIDs) and the ability to transfer data over a network without requiring human-to-human or human-to-computer interaction. IoT Security Training covers The Internet of Things security and examines IoT conventions, potential dangers, vulnerabilities, misuse, information breaks, security system and alleviation. IoT security training, Internet of Things (IoT) devices Include: manufacturers, retailers in customer hardware, social insurance, processing plant production network stockrooms, transportation offices and numerous others. Learn about: IoT Principles: The Internet of Things  Overview Principles for Connected Devices IoT Design Principles Principles of IoT Security IoT Attack Areas IoT Vulnerabilities IoT Firmware Analysis IoT Software Weaknesses IoT Security Verification, Validation and Testing IoT Security Assessment on IoT devices Assessing IoT devices attack surfaces Evaluation of IoT device firmware analysis, attack surface Vulnerabilities and exploiting the vulnerabilities Course Topics Include: Overview and analysis of IoT devices and IoT implementation use cases IoT Architecture IoT Architectural and Design Requirements IoT Security Fundamentals IoT Security Standards NIST Framework: Cyber Physical Systems IoT Governance and Risk Management IoT Security Compliance and Audit IoT Encryption and Key Management IoT Identity and Access Management IoT Security Challenges IoT Security in Critical Infrastructure IoT Security in Personal infrastructure IoT Vulnerabilities Wireless Security applied to IoT ZigBee and Bluetooth Security LTE and Mobile Security Cloud-based web interface security Call us today at +1-972-665-9786. Learn more about this course audience, objectives, outlines, seminars, pricing , any other information. Visit our website link below. IoT SecurityTraining, IoT Security Awareness 2019 https://www.tonex.com/training-courses/iot-security-training-iot-security-awareness/

IoT devices are proliferating throughout corporate networks raising concerns about security risks they may introduce. However, IoT technologies differ in many ways from most enterprise-ready technologies that currently exist. Understanding the risks that IoT represents and how to best quantify that risk can be a challenge for many security leaders. This webinar provides an overview of IoT architectures, how they differ from existing infrastructure devices, and how best to measure the risk IoT devices represent. It will expose attendees to concepts like Threat Modeling for IoT and provide additional references that will help build a successful IoT security assessment program.

This document discusses Internet of Things (IoT) security. It defines IoT as interconnecting physical devices via communication technologies. It categorizes IoT devices and lists common technology vendors. It then describes why IoT devices are vulnerable in terms of cost, processing power, history of neglecting security, proprietary technologies, and inability to update. Examples of IoT attacks are also provided such as using webcams for DDoS attacks and hacking home routers and cars. The document concludes with recommended countermeasures like leveraging existing frameworks, segmentation, not relying on users, and building in automatic updates.

Short presentation about a gateway-based solution for medical data encryption and the Internet of Things. Paper presented at 12th IEEE International Conference on BioInformatics and BioEngineering

Cybersecurity stands as the bedrock of our digital world, safeguarding systems, networks, and data from a rising tide of cyber threats. In the era of the Internet of Things (IoT), wherean ever-expanding array of devices and objects are seamlessly interconnected, the importance of cybersecurity has escalated to unprecedented levels.

As IoT (Internet of Things) devices weave into the fabric of our daily lives, from smart thermostats to connected cars, the need for robust IoT cyber security measures has never been more pressing. Let’s dive into 12 IoT cyber security threats that pose significant risks and offer guidance on navigating these digital waters safely. please visit: https://www.cyberhive.com/insights/12-iot-cyber-security-threats-to-avoid/

The Internet of Things, or IoT, has become a disruptive force in the era of connected devices, changing the way we interact with our surroundings. In the center of this networked web is an essential element called IoT gateways. The purpose of this paper is to offer a thorough overview of IoT gateways, their importance in enabling smooth device connectivity, and the critical necessity to safeguard these gateways against growing cyber threats.

An intrusion detection system (IDS) monitors network traffic to detect threats and sends alerts. An intrusion prevention system (IPS) also detects threats but can actively block or drop malicious traffic. Firewalls analyze network packet metadata to allow or block traffic based on rules. They create barriers between networks while IDS monitors and IPS detects and prevents threats. VPNs encrypt data to securely transmit over public networks and hide users' online activity and location. Together these tools enhance e-commerce security.

This document provides an introduction to IoT security. It discusses key components of IoT including sensors, actuators, microcontrollers, communication capabilities, and identification. The document outlines the ITU-T IoT reference model and describes security challenges at different levels including devices, fog networks, core networks, and data centers. It also discusses common IoT security issues such as unpredictable behavior, device similarity, problematic deployments, lack of upgrades, and lack of transparency. Finally, the document summarizes common IoT security tools including encryption, passwords, hardware security modules, two-factor authentication, and public key infrastructure certificates.

This document provides an overview of IoT (Internet of Things) in media, known as IoMT. It discusses the introduction and key components of IoMT, including devices, sensors, connectivity, data processing, and user interfaces. Applications of IoMT in areas like smart TVs, streaming devices, wearables and connected audio are also covered. The document outlines challenges of IoMT like lack of encryption, insufficient testing/updating, and default passwords. It proposes solutions such as changing passwords, keeping software updated, using strong authentication and securing home networks. Future trends involving edge computing, 5G integration, AI/ML and applications in healthcare and agriculture are presented before concluding.

This document proposes using multifactor authentication and encryption to improve security for IoT devices and cloud storage in smart banking. It discusses challenges with IoT and cloud security and proposes a solution that uses multifactor authentication through a mobile app to access IoT devices and encrypted cloud storage. The multifactor authentication would include passwords, one-time passwords by SMS, and fingerprint biometrics. Data transmitted from IoT devices to the cloud would be encrypted using AES encryption. This approach aims to securely authenticate users and protect sensitive banking and transaction data.

Types of Networks Week7 Part4-IS RevisionSu2013 Types of Networks There are different types of networks. Each type has different characteristics and therefore different security needs. Some of the fundamental differentiating attributes of the various types of networks are:  the physical distance the network spans  the topology of the network nodes  the types of media used for communication between nodes in the network  the different devices supported on the network  the different applications supported on the network  the different groups of users permitted on the network  the different protocols supported on each network Depending on the type of network there may be different information security requirements requiring that various protocols, security services, security mechanisms are used in a fashion to support that type of network. While each network environment has some characteristics and security needs unique to that environment, there are many security techniques that should be universally applied to all environments. For example; sound policies and procedures, risk assessment of the assets, user awareness training, encryption technology, authentication technology, sound credential (password) selection and protection, malware protection, firewalls are a few security techniques that need to be applied in all of the networks albeit in configurations that best suits a particular environment. Local Area Network (LAN) A LAN network covers a small geographic area that takes advantage of high speed data transfers usually implemented through Ethernet or fiber. A LAN could be a home, office, group of building with local proximity (university, business). LANs typically share resources such as file servers and printers. Wide Area Network (WAN) A WAN covers a large geographic area that may require connection through satellite, high speed dedicated lines and other means. The internet is a WAN. WANs can connect LANs together into a larger organizational structure that can be used to share resources such as file, email, dns servers to name a few. Resources can be shared using slower connections on geographically separated areas across the WAN. Wireless Networks and Mobile Networks The movement to laptop systems at home and workplaces accelerated the mobility of computing. As employees traveled between offices, client sites, home and various other remote locations they could remain connected to company servers as long as the remote site had connectivity to the companies’ intranet. Initially this connectivity was provided by having Ethernet cabling available for remote users to physically plug their laptops into. Eventually, companies started installing wireless hotspots that could be automatically detected by systems that had wireless cards. The proliferation of wireless connectivity and internet use spread from the workplace to genera ...

Are you building IoT Agents? Have a look at these principles to have a better understanding before you start.

The Internet of Things (IoT) is thriving network of smart objects where one physical object can exchange information with another physical object. In today’s Internet of Things (IoT) the interest is the concealment and security of data in a network. The obtrusion into Internet of Things (IoT) exposes the extent with which the internet of things is vulnerable to attacks and how such attack can be detected to prevent extreme damage. It emphasises on threats, vulnerability, attacks and possible methods of detecting intruders to stop the system from further destruction, this paper proposes a way out of the impending security situation of Internet of things using IPV6 Low -power wireless personal Area Network.

A community of practice is natural way of building something through intuitive learning exercises ( lean development methodology) that people lack the knowledge to accomplish on their own. These barriers to enabling new markets have always existed from ancient times to present day. The "community of practice" bridges technology processes and people to naturally solve what people need to know and learn quickly.

A college lecture for our CCDC prep class. Teacher: Sam Bowne Website: https://samsclass.info/140/140_F16.shtml

A pervasive network architecture that interconnect heterogeneous objects, devices, technologies and services called Internet of Things has prompted a drastic change in demand of smart devices which in turn has increased the rate of data exchange. These smart devices are built with numerous sensors which collect information from other interacting devices, process it and send it to remote locations for storage or further processing. Although this mechanism of data processing and sharing has contributed immensely to the information world, it has recently posed high security risk on privacy and data confidentiality. This paper therefore analyses different security threats to data at different architectural layers of Internet of Things, possible countermeasures and other in-depth security measures for Internet of Things. The paper identifies device authentication on IoT network to be of paramount impo rtance in securing IoT systems. This paper also suggests some essential technologies of security such as encryption for securing IoT devices and the data shared over IoT network

The document discusses several cybersecurity challenges posed by the growing Internet of Things (IoT), including the large number of connected devices that can be vulnerable to attacks, lack of security updates for devices, and supply chain risks. It outlines solutions such as implementing strong authentication, encryption, blockchain technology, AI for threat detection, privacy by design, and supply chain transparency. Overall, the document emphasizes that securing the IoT will require cooperation across industry and government to establish security best practices and standards for IoT device manufacturers.

This document proposes a local security enhancement and intrusion prevention system for Android devices. It summarizes existing host-based intrusion detection systems and behavior-based intrusion prevention systems for Android smartphones. The proposed system uses net flow based clustering to identify anomalies and correlates with host-based features to detect malware intrusions. The goal is to provide versatile security for Android smartphones by detecting a wide range of attacks, including denial of service attacks and probing. The system aims to detect new attacks as well.

The document discusses cybersecurity challenges posed by the growing Internet of Things (IoT) ecosystem and potential solutions. It addresses issues such as the lack of security protocols across diverse IoT devices, which can lead to data theft and infrastructure attacks. Other challenges involve limited device processing power, lack of software updates, and supply chain vulnerabilities. Solutions proposed include implementing encryption, device authentication, blockchain technology, AI for threat detection, privacy by design, and cooperation across industries to establish standards. Overall, the document emphasizes that all stakeholders must work together to develop comprehensive security solutions for IoT.