A Novel Technique on UART Serial Communication Module Implementation on Employing VHDL by Using A Designing Language

The Universal Asynchronous Receiver Transmitter (UART) is a widely employed serial communication protocol utilized for the transmission of data among a computer and its peripherals. It is commonly chosen due to its ability to facilitate low-latency, low-bandwidth, and cost-effective data transfer. In certain instances, it may be sufficient to utilize only a subset of the features offered by UART during the actual production process, thereby combining only the essential components. The UART system comprises three fundamental elements, namely the baud rate generator, receiver, and transmitter. The utilization of the Verilog language-implemented UART can be employed for the purpose of achieving efficient and dependable transmission of information within the confines of an FPGA. The importance of this is paramount in the design of SOC layout. The findings of the simulation exhibit a high degree of conformity with the UART protocol. A variety of electrical devices employ a communication interface known as a receiver/transmitter (UART). In contemporary times, the integration of UARTs within microcontrollers has been a prevailing practice. The management of the interface among a computer and its associated serial devices is facilitated by a microprocessor known as a UART (Universal Asynchronous Receiver/Transmitter). In order to establish communication with modems and other serial-based equipment, the machine is equipped with an RS-232C Data Terminal Equipment (DTE) interface. Modems and other equipment employ serial transmission as a means of communication when operating outside the confines of a network. The individual bits of a byte are transmitted sequentially using the Universal Asynchronous Receiver/Transmitter (UART) interface. At the receiving end, a secondary Universal Asynchronous Receiver-Transmitter (UART) is employed to reassemble the individual bits into complete bytes. Every UART includes a mechanism that serves as the principal method for converting serial data into parallel data. A notable reduction in expenses is observed when comparing serial transmission to parallel transmission in the context of transmitting digital information (bits) through a singular cable rather than multiple lines.

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Published
2024-10-19
DOI
https://doi.org/10.1109/icccmla63077.2024.10871709
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1
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Embedded Systems and FPGA Applications
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article
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article

A Novel Technique on UART Serial Communication Module Implementation on Employing VHDL by Using A Designing Language

Suraya Mubeen, K.C. Shilpa, M. Praveen, M. Nagaraju Naik et al.
1 citations
Embedded Systems and FPGA Applications
0.21
article

A Novel Technique on UART Serial Communication Module Implementation on Employing VHDL by Using A Designing Language

Suraya Mubeen, K.C. Shilpa, M. Praveen, M. Nagaraju Naik, Bo Rao, Tejas Bhatt
article en
1 citations

Abstract

The Universal Asynchronous Receiver Transmitter (UART) is a widely employed serial communication protocol utilized for the transmission of data among a computer and its peripherals. It is commonly chosen due to its ability to facilitate low-latency, low-bandwidth, and cost-effective data transfer. In certain instances, it may be sufficient to utilize only a subset of the features offered by UART during the actual production process, thereby combining only the essential components. The UART system comprises three fundamental elements, namely the baud rate generator, receiver, and transmitter. The utilization of the Verilog language-implemented UART can be employed for the purpose of achieving efficient and dependable transmission of information within the confines of an FPGA. The importance of this is paramount in the design of SOC layout. The findings of the simulation exhibit a high degree of conformity with the UART protocol. A variety of electrical devices employ a communication interface known as a receiver/transmitter (UART). In contemporary times, the integration of UARTs within microcontrollers has been a prevailing practice. The management of the interface among a computer and its associated serial devices is facilitated by a microprocessor known as a UART (Universal Asynchronous Receiver/Transmitter). In order to establish communication with modems and other serial-based equipment, the machine is equipped with an RS-232C Data Terminal Equipment (DTE) interface. Modems and other equipment employ serial transmission as a means of communication when operating outside the confines of a network. The individual bits of a byte are transmitted sequentially using the Universal Asynchronous Receiver/Transmitter (UART) interface. At the receiving end, a secondary Universal Asynchronous Receiver-Transmitter (UART) is employed to reassemble the individual bits into complete bytes. Every UART includes a mechanism that serves as the principal method for converting serial data into parallel data. A notable reduction in expenses is observed when comparing serial transmission to parallel transmission in the context of transmitting digital information (bits) through a singular cable rather than multiple lines.

CMR University (IN)
Openalex Percentile: Top 44%
Embedded Systems and FPGA Applications
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