Abstract:
Methods of forming memory cells including a charge storage structure having a gettering agent therein can be useful for non-volatile memory devices. Providing for gettering of oxygen from a charge-storage material of the charge storage structure can facilitate a mitigation of detrimental oxidation of the charge-storage material.
Abstract:
Memory devices might include an array of memory cells and a control logic to control access of the array of memory cells, where a memory cell of the array of memory cells might include a first dielectric adjacent a semiconductor, a control gate, a second dielectric between the control gate and the first dielectric, and a charge storage structure between the first dielectric and the second dielectric, wherein the charge storage structure comprises a charge-storage material and a gettering agent.
Abstract:
Memory devices might include an array of memory cells and a control logic to control access of the array of memory cells, where a memory cell of the array of memory cells might include a first dielectric adjacent a semiconductor, a control gate, a second dielectric between the control gate and the first dielectric, and a charge storage structure between the first dielectric and the second dielectric, wherein the charge storage structure comprises a charge-storage material and a gettering agent.
Abstract:
Memories, systems, and methods for forming memory cells are disclosed. One such memory cell includes a charge storage node that includes nanodots over a tunnel dielectric and a protective film over the nanodots. In another memory cell, the charge storage node includes nanodots that include a ruthenium alloy. Memory cells can include an inter-gate dielectric over the protective film or ruthenium alloy nanodots and a control gate over the inter-gate dielectric. The protective film and ruthenium alloy can be configured to protect at least some of the nanodots from vaporizing during formation of the inter-gate dielectric.
Abstract:
Memories, systems, and methods for forming memory cells are disclosed. One such memory cell includes a charge storage node that includes nanodots over a tunnel dielectric and a protective film over the nanodots. In another memory cell, the charge storage node includes nanodots that include a ruthenium alloy. Memory cells can include an inter-gate dielectric over the protective film or ruthenium alloy nanodots and a control gate over the inter-gate dielectric. The protective film and ruthenium alloy can be configured to protect at least some of the nanodots from vaporizing during formation of the inter-gate dielectric.
Abstract:
Apparatus having a processor and a memory device in communication with the processor, the memory device including an array of memory cells and a control logic to control access of the array of memory cells, wherein the array of memory cells includes a memory cell having a first dielectric adjacent a semiconductor, a control gate, a second dielectric between the control gate and the first dielectric, and a charge storage structure between the first dielectric and the second dielectric, and wherein the charge storage structure includes a charge-storage material and a gettering agent.
Abstract:
Apparatus having a processor and a memory device in communication with the processor, the memory device including an array of memory cells and a control logic to control access of the array of memory cells, wherein the array of memory cells includes a memory cell having a first dielectric adjacent a semiconductor, a control gate, a second dielectric between the control gate and the first dielectric, and a charge storage structure between the first dielectric and the second dielectric, and wherein the charge storage structure includes a charge-storage material and a gettering agent.
Abstract:
Methods of forming memory cells including a charge storage structure having a gettering agent therein can be useful for non-volatile memory devices. Providing for gettering of oxygen from a charge-storage material of the charge storage structure can facilitate a mitigation of detrimental oxidation of the charge-storage material.