Two novel Sigma-Delta modulator algorithms based on discretized suboptimal second order sliding mode concepts for high resolution analog-to-digital conversion purposes are proposed. Let fs be the finite over-sampling frequency of the modulator, novel schemes that convert to a 1-bit signal, resp., the first, or the second time-derivative of the signal to be modulated are suggested to reduce the error of the conversion process, at the demodulation side, to an O(1=f2 s ), instead of O(1=f0:5 s ) of the traditional scheme. The algorithms are discussed and analyzed in the discrete-time setting, and a comparative analysis illustrates the effectiveness of these solutions
Abstract: A method for improving the signal-to-noise ratio (SNR) of single-stage sigma-delta modulat...
This paper presents a new modulation method for matrix converters control, based on Sigma-Delta modu...
Abstract- Over-sampling sigma-delta analog-to digital converters (ADCs) are one of the key building ...
Two novel Sigma-Delta modulator algorithms based on discretized suboptimal second order sliding mode...
Abstract- In this paper a Sliding Mode Approach to stability analysis and design of Sigma-Delta modu...
High resolution analog-to-digital conversion and digital-to-analog conversion is often realized with...
In modern data acquisition and communication technologies, the differential coding scheme known as D...
A methodology for analysis and synthesis of lowpass sigma-delta (SD) converters is presented in this...
Nowadays, Sigma-Delta analog-to-digital converters have been widely used in the technology of analog...
This paper presents the fundamentals of Analog to Digital Conversion using the Sigma Delta Modulatio...
International audienceIn this paper we present a systematic method to scale the integrators output s...
Oversampling Analog-to-Digital Converter based on high-order sigma-delta modulation provides an effe...
An exact mathematical model in the time domain for a first order Sigma-Delta modulator based on the ...
The paper proposes a new approach to sigma-delta modulator design based on linear and non-linear con...
Oversampled analog-to-digital conversion architectures provide a trade-off between sampling speed fo...
Abstract: A method for improving the signal-to-noise ratio (SNR) of single-stage sigma-delta modulat...
This paper presents a new modulation method for matrix converters control, based on Sigma-Delta modu...
Abstract- Over-sampling sigma-delta analog-to digital converters (ADCs) are one of the key building ...
Two novel Sigma-Delta modulator algorithms based on discretized suboptimal second order sliding mode...
Abstract- In this paper a Sliding Mode Approach to stability analysis and design of Sigma-Delta modu...
High resolution analog-to-digital conversion and digital-to-analog conversion is often realized with...
In modern data acquisition and communication technologies, the differential coding scheme known as D...
A methodology for analysis and synthesis of lowpass sigma-delta (SD) converters is presented in this...
Nowadays, Sigma-Delta analog-to-digital converters have been widely used in the technology of analog...
This paper presents the fundamentals of Analog to Digital Conversion using the Sigma Delta Modulatio...
International audienceIn this paper we present a systematic method to scale the integrators output s...
Oversampling Analog-to-Digital Converter based on high-order sigma-delta modulation provides an effe...
An exact mathematical model in the time domain for a first order Sigma-Delta modulator based on the ...
The paper proposes a new approach to sigma-delta modulator design based on linear and non-linear con...
Oversampled analog-to-digital conversion architectures provide a trade-off between sampling speed fo...
Abstract: A method for improving the signal-to-noise ratio (SNR) of single-stage sigma-delta modulat...
This paper presents a new modulation method for matrix converters control, based on Sigma-Delta modu...
Abstract- Over-sampling sigma-delta analog-to digital converters (ADCs) are one of the key building ...