Abstract:
In some examples, memory die may include a selection pad, which may be coupled to a power potential. The selection pad may provide a signal to a selection control circuit, which may control a selection circuit to couple a power pad to one of multiple power rails. In some examples, a power management integrated circuit may include a selection circuit to provide one power potential to a package including a memory die when a selection signal has a logic level and another power potential when the selection signal has another logic level.
Abstract:
Methods, systems, and devices for improved inter-memory movement in a multi-memory system are described. A memory device may receive from a host device a command to move data from a first memory controlled by a first controller to a second memory controller by a second controller. The memory device may use the first and second controllers to facilitate the movement of the data from the first memory to the second memory via a path external to the host device. The memory device may indicate to the host device when to suspend activity to the first memory or the second memory and when to resume activity to the first memory or second memory.
Abstract:
Methods, systems, and devices for improved inter-memory movement in a multi-memory system are described. A memory device may receive from a host device a command to move data from a first memory controlled by a first controller to a second memory controller by a second controller. The memory device may use the first and second controllers to facilitate the movement of the data from the first memory to the second memory via a path external to the host device. The memory device may indicate to the host device when to suspend activity to the first memory or the second memory and when to resume activity to the first memory or second memory.
Abstract:
A method for memory device fabrication includes forming a plurality of continuous fins on a substrate. An insulator material is formed around the fins. The continuous fins are etched into segmented fins to form exposed areas between the segmented fins. An insulator material is formed in the exposed areas wherein the insulator material in the exposed areas is formed higher than the insulator material around the fins. A metal is formed over the fins and the insulator material. The metal formed over the exposed areas is formed to a shallower depth than over the fins.
Abstract:
A semiconductor device may include a memory array including vertical memory cells connected to a digit line, word lines, and a body connection line. A row or column of the memory array may include one or more pillars connected to the body connection line. A voltage may be applied to the body connection line through at least one pillar connected to the body connection line. Application of the voltage to the body connection line may reduce floating body effects. Methods of forming a connection between at least one pillar and a voltage supply are disclosed. Semiconductor devices including such connections are also disclosed.
Abstract:
An array of recessed access gate lines includes active area regions having dielectric trench isolation material there-between. The trench isolation material comprises dielectric projections extending into opposing ends of individual active area regions under an elevationally outermost surface of material of the active area regions. The active area material is elevationally over the dielectric projections. Recessed access gate lines individually extend transversally across the active area regions and extend between the ends of immediately end-to-end adjacent active area regions within the dielectric trench isolation material. Other arrays are disclosed, as are methods.
Abstract:
Various embodiments comprise methods of selectively etching oxides over nitrides in a vapor-etch cyclic process. In one embodiment, the method includes, in a first portion of the vapor-etch cyclic process, exposing a substrate having oxide features and nitride features formed thereon to selected etchants in a vapor-phase chamber; transferring the substrate to a post-etch heat treatment chamber; and heating the substrate to remove etchant reaction products from the substrate. In a second portion of the vapor-etch cyclic process, the method continues with transferring the substrate from the post-etch heat treatment chamber to the vapor-phase chamber; exposing the substrate to the selected etchants in the vapor-phase chamber; transferring the substrate to the post-etch heat treatment chamber; and heating the substrate to remove additional etchant reaction products from the substrate. Apparatuses for performing the method and additional methods are also disclosed.
Abstract:
An array of recessed access gate lines includes active area regions having dielectric trench isolation material there-between. The trench isolation material comprises dielectric projections extending into opposing ends of individual active area regions under an elevationally outermost surface of material of the active area regions. The active area material is elevationally over the dielectric projections. Recessed access gate lines individually extend transversally across the active area regions and extend between the ends of immediately end-to-end adjacent active area regions within the dielectric trench isolation material. Other arrays are disclosed, as are methods.
Abstract:
A vertical access device comprises a semiconductive base comprising a first source/drain region, a semiconductive pillar extending vertically from the semiconductive base, and a gate electrode adjacent a sidewall of the semiconductive pillar. The semiconductive pillar comprises a channel region overlying the first source/drain region, and a second source/drain region overlying the channel region. An opposing sidewall of the semiconductive pillar is not adjacent the gate electrode or another gate electrode. Semiconductive device structures, methods of forming a vertical access device, and methods of forming a semiconductive structure are also described.
Abstract:
A method for memory device fabrication includes forming a plurality of continuous fins on a substrate. An insulator material is formed around the fins. The continuous fins are etched into segmented fins to form exposed areas between the segmented fins. An insulator material is formed in the exposed areas wherein the insulator material in the exposed areas is formed higher than the insulator material around the fins. A metal is formed over the fins and the insulator material. The metal formed over the exposed areas is formed to a shallower depth than over the fins.