Search engine for discovering works of Art, research articles, and books related to Art and Culture
ShareThis
Javascript must be enabled to continue!

Superlattice-like electrode for low-power phase-change random access memory

View through CrossRef
Superlattice-like top electrode formed alternately by TiN and W was embedded into phase-change random access memory (PCRAM) with the aim of reducing the power. Ga2Sb4Te3 film is employed as phase change layer. The minimum reset voltage of PCRAM based on superlattice-like electrode was significantly lower than that of one based on the conventional electrode. The set operation can be completed by an electric pulse as short as 5 ns. The superlattice-like-electrode-based PCRAM can be normally operated at 120 °C with endurance up to 1 × 106 cycles. The low thermal conductivity of superlattice-like electrode is responsible for the performance improvement of PCRAM.
Title: Superlattice-like electrode for low-power phase-change random access memory
Description:
Superlattice-like top electrode formed alternately by TiN and W was embedded into phase-change random access memory (PCRAM) with the aim of reducing the power.
Ga2Sb4Te3 film is employed as phase change layer.
The minimum reset voltage of PCRAM based on superlattice-like electrode was significantly lower than that of one based on the conventional electrode.
The set operation can be completed by an electric pulse as short as 5 ns.
The superlattice-like-electrode-based PCRAM can be normally operated at 120 °C with endurance up to 1 × 106 cycles.
The low thermal conductivity of superlattice-like electrode is responsible for the performance improvement of PCRAM.

Related Results

Effects of Contextual Cues on False Memory: A Comparative Experimental Approach
Effects of Contextual Cues on False Memory: A Comparative Experimental Approach
Research on false memory formation using the Deese-Roediger-McDermott (DRM) paradigm has been extensively conducted in Western contexts. Yet, a significant gap remains in experimen...
Boosting Oxygen Electrode Performance via a Redox-Treatment
Boosting Oxygen Electrode Performance via a Redox-Treatment
Introduction The transition to a sustainable energy system complying with climate policy targets is a huge societal challenge. “Hard to electri...
Supercapacitive MnO2/PEDOT: PSS Modified 3D-Printed Polymeric Micro-Pillar Electrode for Extraction of Photosynthetic Electrons
Supercapacitive MnO2/PEDOT: PSS Modified 3D-Printed Polymeric Micro-Pillar Electrode for Extraction of Photosynthetic Electrons
Photosynthetic bio-electrochemical cells (PBECs) have been reported as having promising potential for the renewable energy field. When photosynthesis occurs, photosynthetic electro...
Percolation Investigation of Polymer-Based Battery Electrodes and Its Influence on Capacity Utilization
Percolation Investigation of Polymer-Based Battery Electrodes and Its Influence on Capacity Utilization
Our oral presentation will offer a comprehensive exploration of the intricate dynamics governing organic radical battery electrodes, focusing on the percolation phenomena and its c...
“The Earth Is Dying, Bro”
“The Earth Is Dying, Bro”
Climate Change and Children Australian children are uniquely situated in a vast landscape that varies drastically across locations. Spanning multiple climatic zones—from cool tempe...
Performance Evaluation of Electrode Fabricated by using FDM in Die-Sinking EDM
Performance Evaluation of Electrode Fabricated by using FDM in Die-Sinking EDM
An electrode is a vital transmission tool of electrical charges that erodes a workpiece surface in die-sinking electrical discharge machining (EDM). However, the demanding requirem...
Experimental investigation of square superlattice pattern formation in a dielectric barrier discharge
Experimental investigation of square superlattice pattern formation in a dielectric barrier discharge
The formation of the square superlattice pattern in discharge in the mixture of argon and air is investigated by using a dielectric barrier discharge device with water electrode. I...

Back to Top