Abstract: Some embodiments include an integrated assembly having a memory array, and having digit lines extending along a first direction through the memory array. Insulative spacers are along sidewalls of the digit lines. The insulative spacers extend continuously along the digit lines through the memory array. Conductive regions are laterally spaced from the digit lines by intervening regions. The conductive regions are configured as segments spaced apart from one another along the first direction. The intervening regions include regions of the insulative spacers and include void regions adjacent the regions of the insulative spacers. The void regions are configured as void-region-segments which are spaced apart from one another along the first direction by insulative structures. Storage-elements are associated with the conductive regions. Some embodiments include methods of forming integrated assemblies.

Abstract: A microelectronic device comprises a first pillar of a semiconductive material, a second pillar of the semiconductive material adjacent to the first pillar of the semiconductive material, an active word line extending between the first pillar and the second pillar, and a passing word line extending on a side of the second pillar opposite the active word line, the passing word line extending into an isolation region within the semiconductive material, the isolation region comprising a lower portion and an upper portion having a substantially circular cross-sectional shape and a larger lateral dimension than the lower portion. Related microelectronic devices, electronic systems, and methods are also described.

Abstract: Some embodiments include an integrated assembly having a memory array, and having digit lines extending along a first direction through the memory array. Insulative spacers are along sidewalls of the digit lines. The insulative spacers extend continuously along the digit lines through the memory array. Conductive regions are laterally spaced from the digit lines by intervening regions. The conductive regions are configured as segments spaced apart from one another along the first direction. The intervening regions include regions of the insulative spacers and include void regions adjacent the regions of the insulative spacers. The void regions are configured as void-region-segments which are spaced apart from one another along the first direction by insulative structures. Storage-elements are associated with the conductive regions. Some embodiments include methods of forming integrated assemblies.

Abstract: Some embodiments include an integrated assembly having an active-region-pillar extending upwardly from a base. The active-region-pillar includes a digit-line-contact-region between a first storage-element-contact-region and a second storage-element-contact-region. A threshold-voltage-inducing-structure is adjacent a lower portion of the active-region-pillar. A first channel region includes a first portion of the active-region-pillar between the digit-line-contact-region and the first storage-element-contact-region. A second channel region includes a second portion of the active-region-pillar between the digit-line-contact-region and the second storage-element-contact-region. A first wordline is adjacent the first portion of the active-region-pillar. A second wordline is adjacent the second portion of the active-region-pillar. A digit-line is coupled with the digit-line-contact-region. First and second storage-elements are coupled with the first and second storage-element-contact-regions.

Abstract: An example apparatus includes a first source/drain region and a second source/drain region formed in a substrate to form an active area of the apparatus. The first source/drain region and the second source/drain region are separated by a channel. The apparatus includes a gate opposing the channel. A sense line is coupled to the first source/drain region and a storage node is coupled to the second source/drain region. An isolation trench is adjacent to the active area. The trench includes a dielectric material with a conductive bias opposing the conductive bias of the channel in the active area.

Abstract: A method and system for determining a session count is described. At a user interface a request is received to determine a session count for a time period. Based on the received request, the session count is determined based on unique new session counts corresponding to one or more time intervals included in the time period and carry forward session count corresponding to an initial time interval included in the time period. Finally, the determined session count is displayed at the user interface.

Abstract: A device includes a string driver comprising a channel region between a drain region and a source region. At least one of the channel region, the drain region, and the source region comprises a high band gap material. A gate region is adjacent and spaced from the high band gap material. The string driver is configured for high-voltage operation in association with an array of charge storage devices (e.g., 2D NAND or 3D NAND). Additional devices and systems (e.g., non-volatile memory systems) including the string drivers are disclosed, as are methods of forming the string drivers.

Abstract: Some embodiments include an integrated assembly having a polycrystalline first semiconductor material, and having a second semiconductor material directly adjacent to the polycrystalline first semiconductor material. The second semiconductor material is of a different composition than the polycrystalline first semiconductor material. A conductivity-enhancing dopant is within the second semiconductor material. The conductivity-enhancing dopant is a neutral-type dopant relative to the polycrystalline first semiconductor material. An electrical gate is adjacent to a region of the polycrystalline first semiconductor material and is configured to induce an electric field within said region of the polycrystalline first semiconductor material. The gate is not adjacent to the second semiconductor material.

Abstract: The disclosure relates to decentralized management of nodes in a blockchain network. Participants may agree to a consensus rules and implement them as smart contracts. For example, one rule may specify that a node will accept a change proposal only when its local policies and/or data allow it to implement the change. A smart contract may implement this rule and deploy it across the blockchain network for each node to follow. Other participants, through their nodes, may propose changes to the blockchain network, and each node may consult its copy of the smart contract to determine whether to vote to approve the change request and apply the change request locally.

Abstract: Systems, apparatuses, and methods related to semiconductor structure formation are described. An example apparatus includes a first trench and a second trench formed in a semiconductor substrate material, where the first and second trenches are adjacent and separated by the semiconductor substrate material. The apparatus includes a metallic material formed to a first height in the first trench that is less than, relative to the semiconductor substrate material, a second height of the metallic material formed in the second trench and a polysilicon material formed over the metallic material in the first trench to a first depth greater than, relative to the semiconductor substrate material, a second depth of the polysilicon material formed over the metallic material in the second trench. The greater first depth of the polysilicon material formed in the first trench reduces transfer of charge by way of the metallic material in the first trench.

Abstract: Some embodiments include an integrated assembly having a polycrystalline first semiconductor material, and having a second semiconductor material directly adjacent to the polycrystalline first semiconductor material. The second semiconductor material is of a different composition than the polycrystalline first semiconductor material. A conductivity-enhancing dopant is within the second semiconductor material. The conductivity-enhancing dopant is a neutral-type dopant relative to the polycrystalline first semiconductor material. An electrical gate is adjacent to a region of the polycrystalline first semiconductor material and is configured to induce an electric field within said region of the polycrystalline first semiconductor material. The gate is not adjacent to the second semiconductor material.

Abstract: Some embodiments include an integrated assembly having a memory array, and having digit lines extending along a first direction through the memory array. Insulative spacers are along sidewalls of the digit lines. The insulative spacers extend continuously along the digit lines through the memory array. Conductive regions are laterally spaced from the digit lines by intervening regions. The conductive regions are configured as segments spaced apart from one another along the first direction. The intervening regions include regions of the insulative spacers and include void regions adjacent the regions of the insulative spacers. The void regions are configured as void-region-segments which are spaced apart from one another along the first direction by insulative structures. Storage-elements are associated with the conductive regions. Some embodiments include methods of forming integrated assemblies.

Abstract: A device includes a string driver comprising a channel region between a drain region and a source region. At least one of the channel region, the drain region, and the source region comprises a high band gap material. A gate region is adjacent and spaced from the high band gap material. The string driver is configured for high-voltage operation in association with an array of charge storage devices (e.g., 2D NAND or 3D NAND). Additional devices and systems (e.g., non-volatile memory systems) including the string drivers are disclosed, as are methods of forming the string drivers.

Abstract: The disclosure relates to decentralized management of nodes in a blockchain network. Participants may agree to a consensus rules and implement them as smart contracts. For example, one rule may specify that a node will accept a change proposal only when its local policies and/or data allow it to implement the change. A smart contract may implement this rule and deploy it across the blockchain network for each node to follow. Other participants, through their nodes, may propose changes to the blockchain network, and each node may consult its copy of the smart contract to determine whether to vote to approve the change request and apply the change request locally.

Abstract: An array of vertical transistors comprises spaced pillars individually comprising a channel region of individual vertical transistors. A horizontally-elongated conductor line directly electrically couples together individual of the channel regions of the pillars of a plurality of the vertical transistors. An upper source/drain region is above the individual channel regions of the pillars, a lower source/drain region is below the individual channel regions of the pillars, and a conductive gate line is operatively aside the individual channel regions of the pillars and that interconnects multiple of the vertical transistors. Methods are disclosed.

Abstract: An example apparatus includes a first source/drain region and a second source/drain region formed in a substrate to form an active area of the apparatus. The first source/drain region and the second source/drain region are separated by a channel. The apparatus includes a gate opposing the channel. A sense line is coupled to the first source/drain region and a storage node is coupled to the second source/drain region. An isolation trench is adjacent to the active area. The trench includes a dielectric material with a conductive bias opposing the conductive bias of the channel in the active area.

Abstract: Systems, apparatuses and methods related to access devices formed with conductive contacts are described. An example apparatus may include an access device that includes a field-effect transistor (FET). A vertical pillar may be formed to include a channel of the FET, with a portion of the vertical pillar formed between at least two gates of the FET (i.e., a multi-gate Fin-FET). A conductive contact may be coupled to a body region of the vertical pillar.

Abstract: A method of forming an integrated assembly includes providing a construction having laterally-spaced digit-line-contact-regions and having intervening regions between the laterally-spaced digit-line-contact-regions; forming an expanse of non-conductive-semiconductor-material which extends across the digit-line-contact-regions and the intervening regions; a lower surface of the non-conductive-semiconductor-material being vertically-spaced from upper surfaces of the digit-line-contact-regions; forming openings extending through the non-conductive-semiconductor-material to the digit-line-contact-regions; forming conductive-semiconductor-material-interconnects within the openings and coupled with the digit-line-contact-regions, upper surfaces of the conductive-semiconductor-material-interconnects being beneath the lower surface of the non-conductive-semiconductor-material; and forming metal-containing-digit-lines over the non-conductive-semiconductor-material.

Abstract: A recessed access device comprises a conductive gate in a trench in semiconductor material. A gate insulator is along sidewalls and a base of the trench between the conductive gate and the semiconductor material. A pair of source/drain regions is in upper portions of the semiconductor material on opposing sides of the trench. A channel region is in the semiconductor material below the pair of source/drain regions along the trench sidewalls and around the trench base. At least some of the channel region comprises GaP.

Abstract: Some embodiments include an integrated assembly having a polycrystalline first semiconductor material, and having a second semiconductor material directly adjacent to the polycrystalline first semiconductor material. The second semiconductor material is of a different composition than the polycrystalline first semiconductor material. A conductivity-enhancing dopant is within the second semiconductor material. The conductivity-enhancing dopant is a neutral-type dopant relative to the polycrystalline first semiconductor material. An electrical gate is adjacent to a region of the polycrystalline first semiconductor material and is configured to induce an electric field within said region of the polycrystalline first semiconductor material. The gate is not adjacent to the second semiconductor material.