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Efficient Data Transfer Rate and Speed of Secured Ethernet Interface System.

Shaila Ghanti¹, G M Naik¹

¹Department of Electronics, Goa University, Goa, India.

International Scholarly Research Notices

|January 25, 2017

Summary

This summary is machine-generated.

This study introduces a Secured Ethernet Interface System to defend internet services from SYN flood attacks. The system enhances genuine client access, data transfer rates, and server response times during attacks.

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Area of Science:

Computer Engineering
Network Security
Embedded Systems

Background:

Embedded systems are crucial for various applications, including home automation and health services, and require robust security for internet-connected services.
Internet-accessible services are vulnerable to attacks like SYN floods, necessitating specialized protection mechanisms.
Existing security measures may not adequately address the specific threats faced by embedded devices.

Purpose of the Study:

To design and implement an embedded Secured Ethernet Interface System (ESIS) for protecting internet services from SYN flood attacks.
To customize the ESIS for securing web services against SYN flood attack vectors.
To evaluate the effectiveness of the ESIS in a real-world experimental setup.

Main Methods:

The Secured Ethernet Interface System was designed and implemented as a system on chip (SoC) using an ALTERA Stratix IV FPGA.
A modified SYN flood attack protection method was integrated into the ESIS.
Experimental validation was conducted to assess the system's performance under simulated SYN flood attack conditions.

Main Results:

The ESIS demonstrated an increased capacity to serve genuine clients during SYN flood attacks.
Significant improvements in data transfer rates were observed with the implemented system.
Enhanced server response times were recorded, indicating better system resilience.

Conclusions:

The embedded Secured Ethernet Interface System effectively mitigates SYN flood attacks on internet services.
The FPGA-based implementation offers a viable solution for securing embedded devices.
The system provides tangible benefits in terms of client accessibility, performance, and responsiveness under attack.