The conducting filament forming voltage of stoichiometric hafnium oxide based resistive switching layers increases linearly with layer thickness. Using strongly reduced oxygen deficient hafnium oxide thin films grown on polycrystalline TiN/Si(001) substrates, the thickness dependence of the forming voltage is strongly suppressed. Instead, an almost constant forming voltage of about 3 V is observed up to 200 nm layer thickness. This effect suggests that filament formation and switching occurs for all samples in an oxidized HfO2 surface layer of a few nanometer thickness while the highly oxygen deficient thin film itself merely serves as a oxygen vacancy reservoir
Overcoming challenges associated with implementation of resistive random access memory technology fo...
[[abstract]]The memory performance of hafnium oxide (HfOx)-based resistive memory containing a thin ...
Hafnium oxide is widely used for resistive switching devices, and recently it has been discovered th...
The conducting filament forming voltage of stoichiometric hafnium oxide based resistive switching la...
We have investigated the resistive switching behavior in stoichiometric HfO2 and oxygen-deficient Hf...
We have investigated the resistive switching behavior in stoichiometric HfO2 and oxygen-deficient Hf...
A technical solution is presented to improve the uniformity of HfO2-based resistive switching memory...
In this work, hafnium aluminum oxide (HfAlO) thin films were deposited by ion beam sputtering depos...
This study applies RMBE to grow thin films of hafnium oxide, a widely studied material which has fou...
This work was supported by Grant of the President of the Russian Federation № MK-2721.2018.8 and RFB...
Hafnium oxide (HfOx)‐based memristive devices have tremendous potential as nonvolatile resistive ran...
In this work, we investigate the resistive switching behaviors of HfO2-based resistive random-access...
Hafnium oxide (HfOx)-based memristive devices have tremendous potential as nonvolatile resistive ran...
We have conducted a detailed thin film growth structure of oxygen engineered monoclinic HfO2±x grown...
Switching between high resistance states and low resistance states in a resistive random access memo...
Overcoming challenges associated with implementation of resistive random access memory technology fo...
[[abstract]]The memory performance of hafnium oxide (HfOx)-based resistive memory containing a thin ...
Hafnium oxide is widely used for resistive switching devices, and recently it has been discovered th...
The conducting filament forming voltage of stoichiometric hafnium oxide based resistive switching la...
We have investigated the resistive switching behavior in stoichiometric HfO2 and oxygen-deficient Hf...
We have investigated the resistive switching behavior in stoichiometric HfO2 and oxygen-deficient Hf...
A technical solution is presented to improve the uniformity of HfO2-based resistive switching memory...
In this work, hafnium aluminum oxide (HfAlO) thin films were deposited by ion beam sputtering depos...
This study applies RMBE to grow thin films of hafnium oxide, a widely studied material which has fou...
This work was supported by Grant of the President of the Russian Federation № MK-2721.2018.8 and RFB...
Hafnium oxide (HfOx)‐based memristive devices have tremendous potential as nonvolatile resistive ran...
In this work, we investigate the resistive switching behaviors of HfO2-based resistive random-access...
Hafnium oxide (HfOx)-based memristive devices have tremendous potential as nonvolatile resistive ran...
We have conducted a detailed thin film growth structure of oxygen engineered monoclinic HfO2±x grown...
Switching between high resistance states and low resistance states in a resistive random access memo...
Overcoming challenges associated with implementation of resistive random access memory technology fo...
[[abstract]]The memory performance of hafnium oxide (HfOx)-based resistive memory containing a thin ...
Hafnium oxide is widely used for resistive switching devices, and recently it has been discovered th...