Bandwidth Estimation in Network Probing Techniques Utilizing Min-Plus Algebraic Methods
Diagnosis of Anemia using Non-Invasive Anemia Detector through Parametrical Analysis
The Effectiveness of Jaya Optimization for Energy Aware Cluster Based Routing in Wireless Sensor Networks
Stress Analysis and Detection from Wearable Devices
Intrusion-Tolerant Sink Configuration: A Key to Prolonged Lifetime in Wireless Sensor Networks
Channel Estimation and It’s Techniques: A Survey
Impact of Mobility on Power Consumption in RPL
Implementation of Traffic Engineering Technique in MPLS Network using RSVP
FER Performance Analysis of Adaptive MIMO with OSTBC for Wireless Communication by QPSK Modulation Technique
Performance Evaluation of Advanced Congestion Control Mechanisms for COAP
DGS Based MIMO Microstrip Antenna for Wireless Applications
A Review on Optimized FFT/IFFT Architectures for OFDM Systems
Balanced Unequal Clustering AlgorithmFor Wireless Sensor Network
HHT and DWT Based MIMO-OFDM for Various ModulationSchemes: A Comparative Approach
Study and Comparison of Distributed Energy Efficient Clustering Protocols in Wireless Sensor Network: A Review
Diagnosis of Anemia using Non-Invasive Anemia Detector through Parametrical Analysis
A compact multiband monopole antenna with four L-strips and microstrip feed is proposed for mobile phone, S-band, Wireless Local Area Networks, and X-band applications. The antenna is simulated on a Flame Retardant-4 (FR-4) epoxy substrate with a dielectric constant of (εr)= 4.4 and loss tangent of 0.01. The antenna is simulated using High-Frequency Structure Simulator (HFSS) software. The antenna consists of four L-shaped cuts in the patch, with the ground plane acting as the monopole radiator. The total miniaturized size of the antenna is 30 × 30 × 0.8 mm3, and the monopole ground plane size is 30 × 6 mm2. The proposed antenna has better performance in terms of total peak gain compared to other similar antennas. It is a compact and efficient antenna with good performance. It can be used for a variety of applications, such as mobile phones, wireless communication devices, and radar systems.
Wireless networks have become an integral part of modern life, offering seamless connectivity and supporting various applications. However, achieving accurate node localization remains a significant challenge, particularly in environments where signal propagation is affected by obstacles, reflections, and interference. To address these challenges, a dynamic triangular algorithm method is proposed for node localization. This novel model aims to enhance the throughput, data rate, and efficiency of wireless communication systems in both Line-of-Sight (LOS) and Non-Line-of-Sight (NLOS) scenarios.
This article introduces a novel low-profile antenna design for optimal performance in Wi-Fi, WiMAX, and WLAN applications. The antenna features a dual-band, dual C-shaped monopole configuration with two inverted branches and a ground plane. This innovative design enables the antenna to generate two resonant frequencies, resulting in favorable radiation patterns and gain characteristics. Additionally, the antenna exhibits excellent radiation patterns and impedance matching, guaranteeing reliable signal propagation and reception. Its seamless integration into devices maintains superior performance without compromising radiation efficiency. The presented low-profile dual-band, dual C-shaped monopole antenna presents an innovative solution for the wireless communication industry. With its compact form factor, dual-band capabilities, wide impedance bandwidths, and reliable gain levels, it is well-equipped to meet the demands of Wi-Fi, WiMAX, and WLAN applications. The antenna's efficient design and exceptional performance characteristics make it a valuable asset for achieving robust wireless communication in diverse environments.
The Next Generation Network (NGN) is a telecommunications system that converges all services and information into packets for transfer, accommodating technical advancements high-speed and diversified services through its multilayer architecture. The NGN enables users to consistently and efficiently obtain services, and 5G cellular communication is a viable technology to meet the demand for high data rates in the future, particularly with its mmwave capacity. However, one of the major problems that the new generation faces is non-line-of-sight status, which results from higher frequencies' extreme vulnerability to interference from obstructions and misalignment. This special property makes it more difficult for the widely used Transmission Control Protocol (TCP) to achieve good throughput and low latency across an equitable network. TCP must modify the congestion window size in accordance with the state of the network, but it is unable to effectively adapt to its congestion window, resulting in degradation of the protocol's throughput. This research presents an in-depth analysis of trustworthy communications in 5G networks, examining how TCP affects 5G mmWave networks, the mechanisms and parameters of TCP that portrays the behavior of 5G networks, and a study of the existing problems, and ideas to be fixed. It also suggests a viable study of different methods to enhance reliable communications in 5G networks.
The main purpose of Wireless Sensor Networks (WSNs) is to collect data from unsafe environments. Almost all WSN security protocols assume that an adversary may gain complete control of a sensor node through direct physical access. As sensor networks emerge as a key technology in the future, researchers have faced a number of challenges. A wireless sensor network is made up of many tiny sensor nodes that operate independently and, in some cases, have no access to renewable energy sources. Additionally, as security is essential to the acceptability and use of sensor networks for a variety of applications, there are a number of challenges with sensor networks. This research focuses on the issues in Wireless Sensor Networks.
