We propose a model describing the operations of hafnium oxide-based resistive random access memory (RRAM) devices at the microscopic level. Charge carrier and ion transport are self-consistently described starting from the leakage current in pristine HfO₂. Material structural modifications occurring during the RRAM operations, such as conductive filament (CF) creation and disruption, are accounted for. The model describes the complex processes leading to a formation of the CF and its dependence on both electrical conditions (e.g., current compliance, voltage stress, and temperature) and device characteristics (e.g., electrodes material and dielectric thickness)
Switching between high resistance states and low resistance states in a resistive random access memo...
We observe a trend between initial leakage currents in polycrystalline HfOx resisitive random access...
We observe a trend between initial leakage currents in polycrystalline HfOx resisitive random access...
We propose a model describing the operations of hafnium oxide-based resistive random access memory (...
Simulations of the dynamic physical processes involved in HfO2-based resistive-memory-operations are...
In this work we apply a physical model based on charge transport and molecular mechanics/dynamics si...
In this work we apply a physical model based on charge transport and molecular mechanics/dynamics si...
This paper presents a novel physical description of the forming process in HfO2-based resistive swit...
This paper presents a novel physical description of the forming process in HfO2-based resistive swit...
This paper reports on recent progresses in modeling bi-polar RRAM devices based on hafnium oxide. Th...
In this paper we investigate the physical mechanisms governing operations in HfOx RRAM devices. Form...
In this paper we investigate the physical mechanisms governing operations in HfOx RRAM devices. Form...
By combining electrical, physical, and transport/atomistic modeling results, this study identifies c...
By combining electrical, physical, and transport/atomistic modeling results, this study identifies c...
This paper reports on recent progresses in modeling bi-polar RRAM devices based on hafnium oxide. Th...
Switching between high resistance states and low resistance states in a resistive random access memo...
We observe a trend between initial leakage currents in polycrystalline HfOx resisitive random access...
We observe a trend between initial leakage currents in polycrystalline HfOx resisitive random access...
We propose a model describing the operations of hafnium oxide-based resistive random access memory (...
Simulations of the dynamic physical processes involved in HfO2-based resistive-memory-operations are...
In this work we apply a physical model based on charge transport and molecular mechanics/dynamics si...
In this work we apply a physical model based on charge transport and molecular mechanics/dynamics si...
This paper presents a novel physical description of the forming process in HfO2-based resistive swit...
This paper presents a novel physical description of the forming process in HfO2-based resistive swit...
This paper reports on recent progresses in modeling bi-polar RRAM devices based on hafnium oxide. Th...
In this paper we investigate the physical mechanisms governing operations in HfOx RRAM devices. Form...
In this paper we investigate the physical mechanisms governing operations in HfOx RRAM devices. Form...
By combining electrical, physical, and transport/atomistic modeling results, this study identifies c...
By combining electrical, physical, and transport/atomistic modeling results, this study identifies c...
This paper reports on recent progresses in modeling bi-polar RRAM devices based on hafnium oxide. Th...
Switching between high resistance states and low resistance states in a resistive random access memo...
We observe a trend between initial leakage currents in polycrystalline HfOx resisitive random access...
We observe a trend between initial leakage currents in polycrystalline HfOx resisitive random access...