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:
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:
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:
A method of forming a conductive via comprises forming a structure comprising an elevationally-extending-conductive via and a conductive line electrically coupled to and crossing above the conductive via. The conductive line comprises first conductive material and the conductive via comprises second conductive material of different composition from that of the first conductive material. The conductive line and the conductive via respectively having opposing sides in a vertical cross-section. First insulator material having k no greater than 4.0 is formed laterally outward of the opposing sides of the second conductive material of the conductive via selectively relative to the first conductive material of the opposing sides of the conductive line. The first insulator material is formed to a lateral thickness of at least 40 Angstroms in the vertical cross-section. Second insulator material having k greater than 4.0 is formed laterally outward of opposing sides of the first insulator material in the vertical cross-section. Additional method aspects, including structure independent of method of fabrication, are disclosed.
Abstract:
A method of forming contacts for a semiconductor device structure comprises forming contact holes extending into neighboring semiconductive pillars and into a nitride material of nitride-capped electrodes. Composite structures are formed within the contact holes and comprise oxide structures over sidewalls of the contact holes and nitride structures over the oxide structures. Conductive structures are formed over inner sidewalls of the composite structures. Additional nitride-capped electrodes are formed over the conductive structures and extend perpendicular to the nitride-capped electrodes. Pairs of nitride spacers are formed over opposing sidewalls of the additional nitride-capped electrodes and are separated from neighboring pairs of nitride spacers by apertures extending to upper surfaces of a portion of the neighboring semiconductive pillars. Portions of the oxide structures are removed to expose sidewalls of the portion of the neighboring semiconductive pillars. Semiconductor device structures and additional methods are also described.
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:
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:
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:
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.