Analysis and Design of Ethernet to HDMI Gateway Using Xilinx Vivado (original) (raw)

Accelerator Design for Ethernet and HDMI IP Systems for IoT using Xilinx Vivado 18.X

International Journal of Innovative Technology and Exploring Engineering, 2019

Xilinx Vivado software is used for designing synthesis and implementation of accelerator. The objective of this paper is to understand the concept of intellectual property (IP), IP reuse, custom IP and IP subsystem and to design the subsystem using Xilinx Vivado is used. This paper attempts to design accelerator to make communication possible between High Definition Multimedia Interface (HDMI) and Ethernet for Internet of Things (IoT) using Xilinx Vivado 18.X [4]. The term is increasingly being also defined as objects that “talk” to each other rather in the manner of Internet of Learning Things (IoLT) based IoT to define objects with that of “realistically talk” to each other, given the rising system external & internal environmental complexity and uncertainty factors facing the objects.

The implementation of security and privacy in IoT device

2019

IoT devices are poised to become more pervasive in our lives than mobile phones and will have access to the most sensitive personal data such as social security numbers and banking information. As the number of are also exponentially multiplied. While security solutions won't even run on most embedded devices. It must secure the data stored by the device, secure communication and protect the device from cyber-attacks. The goal of our project is discuss how to secure our IoT device which presented in that research as a Raspberry Pi by using Firewall, IDS, and SSL/TLS. First it will connect to Losant platform (IoT platform) and we will make sure it works perfectly. Then simply we will take all the work on the Raspberry Pi, which takes on three steps: installing Firewall, IDS, and prove the default existing of SSL/TLS protocol. Finally we tried to scan the traffic all between them to prove that no one will try to hack our Raspberry Pi.

Analysis of Hardware and Software Security Challenges in IoT

2018

Internet of things is an emerging trend that developed many technologies, where each and every device connected through network and can be controlled from remote location. IoT is a successful beneficial technology. It is a backbone for smart home, smart City, e-agriculture, smart grids, smart farming. There is lots of security and privacy flaws occur in IoT enabled device especially for software, hardware and hybrid prospective. IoT network security and privacy are very important aspects for application domain. To get complete secure environment by using protocols, methods, IoT security framework, security and privacy policies and security algorithm. The main objective is to develop a secure IoT technology. “Without trust and security, Web services are dead on arrival”.

SoC: A Real Platform for IP Reuse, IP Infringement, and IP Protection

VLSI Design, 2011

Increased design complexity, shrinking design cycle, and low cost-this three-dimensional demand mandates advent of system-onchip (SoC) methodology in semiconductor industry. The key concept of SoC is reuse of the intellectual property (IP) cores. Reuse of IPs on SoC increases the risk of misappropriation of IPs due to introduction of several new attacks and involvement of various parties as adversaries. Existing literature has huge number of proposals for IP protection (IPP) techniques to be incorporated in the IP design flow as well as in the SoC design methodology. However, these are quite scattered, limited in possibilities in multithreat environment, and sometimes mutually conflicting. Existing works need critical survey, proper categorization, and summarization to focus on the inherent tradeoff, existing security holes, and new research directions. This paper discusses the IP-based SoC design flow to highlight the exact locations and the nature of infringements in the flow, identifies the adversaries, categorizes these infringements, and applies strategic analysis on the effectiveness of the existing IPP techniques for these categories of infringements. It also clearly highlights recent challenges and new opportunities in this emerging field of research.

A COMPREHENSIVE STUDY ON IOT ARCHITECTURES AND IOT SECURITY

The concept of the Internet of Things (IoT) was introduced by Kevin Ashton, a cofounder of the Auto-ID Center at MIT, in 1998. The vision is that objects ("things") are connected to each other and thereby they create IoT in which each object has its distinct identity and can communicate with other objects. IoT objects can vary dramatically in size from a small wearable device to a cruise ship. IoT transforms ordinary products such as cars, buildings, and machines into smart, connected objects that can communicate with people, applications and each other.

SECURITY CHALLENGES AND CONCERNS IN IOT BASED SYSTEM

Nowadays most of the electronic gadgets and other sensor devices getting connected with Internet of things, these devices having many security flaws. As researchers find that companies only taking care of these devices at firmware level and there is no mechanism to update the security flaws from these devices afterwards. In this paper first we have talked about security engineering for the Internet of Things and purposed our protection instrument. In our purposed guard component there are three levels of barrier, every one of these levels of safeguard we have discussed the counteractive action methods, finding of the defenselessness point in the connected gadgets and their conceivable arrangements, assurance and protection of the gathered information. The move from close systems to big business IoT based systems to general society Internet is quickening at a faster pace—and legitimately raising alerts about security. As we get to be progressively dependent on canny, interconnected gadgets in each part of our lives, how do we shield possibly billions of them from interruptions and impedance that could trade off individual security? In this paper we have tried to answer these questions.

Proposed Embedded Security Framework for Internet of Things (IoT)

Proceedings of the 2nd International Conference on Wireless Communications, Vehicular Technology, Information Theory and Aerospace & Electronic Systems Technology (Wireless VITAE 2011), February 28 – March 3, 2011, Chennai, India., 2011

IoT is going to be an established part of life by extending the communication and networking anytime, anywhere. Security requirements for IoT will certainly underline the importance of properly formulated, implemented, and enforced security policies throughout their life-cycle. This paper gives a detailed survey and analysis of embedded security, especially in the area of IoT. Together with the conventional security solutions, the paper highlights the need to provide in-built security in the device itself to provide a flexible infrastructure for dynamic prevention, detection, diagnosis, isolation, and countermeasures against successful breaches. Based on this survey and analysis, the paper defines the security needs taking into account computational time, energy consumption and memory requirements of the devices. Finally, this paper proposes an embedded security framework as a feature of software/hardware co-design methodology.

TinyTPM: A lightweight module aimed to IP protection and trusted embedded platforms

2011 IEEE International Symposium on Hardware-Oriented Security and Trust, 2011

Currently, embedded system implementations are increasingly exploiting reconfigurable devices such as Field Programmable Gate Arrays (FPGAs). Due to the volatile nature of SRAM-based FPGAs it is necessary to secure such systems against intellectual property (IP) theft and overproduction. Additionally, the trustworthy operation of these systems has to be guarded in order to protect the processed data. We propose in this paper a novel cryptographic module called TinyTPM, which enforces trustworthy operation and IP protection for embedded systems. Our approach covers the following two key principles: (i) trustworthy attestation of the embedded system state, (ii) IP protection by providing authenticated and encrypted update procedures for FPGAs. The TinyTPM consumes only a few resources and is therefore well-suited to design secure, efficient, and low cost FPGA-based embedded systems. This architecture has been implemented as a proof-of-concept on top of a Xilinx Virtex-5 FPGA platform and demonstrates both, security and efficiency.

Vertical IP Protection of the Next-Generation Devices: Quo Vadis?

2021 Design, Automation & Test in Europe Conference & Exhibition (DATE), 2021

With the advent of 5G and IoT applications, there is a greater thrust in terms of hardware security due to imminent risks caused by high amount of intercommunication between various subsystems. Security gaps in integrated circuits, thus represent high risks for both-the manufacturers and the users of electronic systems. Particularly in the domain of Intellectual Property (IP) protection, there is an urgent need to devise security measures at all levels of abstraction so that we can be one step ahead of any kind of adversarial attacks. This work presents IP protection measures from multiple perspectives-from systemlevel down to device-level security measures, from discussing various attack methods such as reverse engineering and hardware Trojan insertions to proposing new-age protection measures such as multi-valued logic locking and secure information flow tracking. This special session will give a holistic overview at the current state-of-the-art measures and how well we are prepared for the next generation circuits and systems. 1 Not requiring any changes to the EDA flows.

Internet of Things Security based on Devices Architecture

International Journal of Computer Applications, 2016

The Internet of Things, also called The Internet of Objects, refers to a wireless network between objects; usually the network will be wireless and self-configuring, such as household appliances. Secures IOT end-to-end, which means authenticating device communications, protecting code and applications, and securing devices from threats. Emergence accompanied the IoT technology, or when using of this technology and its deployment, an increase in security and privacy violation, so must take caution when used , and also paid to further research in this technology which that bothered a lot, including confidentiality, authenticity, and integrity. In this paper we will present the security and privacy when using the Internet of Things technology, depending on the architecture of the devices, and will be focusing on how security building in the devices, and protection requirements, by studying the architecture layer and IoT security infrastructure.