Asynchronous-logic 8051 microcontroller and circuits : dynamic voltage control.
Kok-Leong Chang
Abstract
Kok-Leong Chang
Abstract
This thesis pertains to digital-logic design methodologies/approaches that yield robust error-free energy-efficient digital-logic circuits/systems for full-range Dynamic Voltage Control (DVC), including at wide operation and variation spaces. The first part pertains to an investigation and design (including realization thereof) of a synchronous-logic 8051 microcontroller core and a proposed asynchronous-logic 8051 microcontroller core for full-range DVC and at wide operation and variation spaces. A salient aspect of said first part is the embodiment of standard library cells for sake of equitable benchmarking with the synchronous-logic counterpart – such cells are not optimized for asynchronous-logic Quasi-Delay-Insensitive realization. Hence, the second part pertains to the proposal of an asynchronous-logic Quasi-Delay-Insensitive realization approach for full-range DVC and at wide operation and variation spaces. The investigations and design proposals presented in this thesis are useful as they provide digital-logic circuit/system IC designers useful insight into the basis of selecting the appropriate digital-logic design philosophies/approaches that yield robust error-free operation for full-range DVC and at wide operation and variation spaces.
OpenAlex reports 1 citations for this work. Citation counts describe recorded attention and do not establish research quality.
A contribution statement is not available in the OpenAlex record.
Method details are not available in the OpenAlex metadata.
Findings are not separately available in the OpenAlex metadata.
Limitations are not available in the OpenAlex metadata.
Application details are not available in the OpenAlex metadata.
This thesis pertains to digital-logic design methodologies/approaches that yield robust error-free energy-efficient digital-logic circuits/systems for full-range Dynamic Voltage Control (DVC), including at wide operation and variation spaces. The first part pertains to an investigation and design (including realization thereof) of a synchronous-logic 8051 microcontroller core and a proposed asynchronous-logic 8051 microcontroller core for full-range DVC and at wide operation and variation spaces. A salient aspect of said first part is the embodiment of standard library cells for sake of equitable benchmarking with the synchronous-logic counterpart – such cells are not optimized for asynchronous-logic Quasi-Delay-Insensitive realization. Hence, the second part pertains to the proposal of an asynchronous-logic Quasi-Delay-Insensitive realization approach for full-range DVC and at wide operation and variation spaces. The investigations and design proposals presented in this thesis are useful as they provide digital-logic circuit/system IC designers useful insight into the basis of selecting the appropriate digital-logic design philosophies/approaches that yield robust error-free operation for full-range DVC and at wide operation and variation spaces.
Key concepts: Microcontroller, Asynchronous communication, Computer science, Asynchronous circuit, Schmitt trigger, Logic gate, Electronic circuit, Voltage