Abstract: A computer-implemented method, according to one embodiment, includes analyzing application details associated with a plurality of different timestamp intervals, in response to a determination, from results of analyzing runtime information associated with an application failure event and/or sub-par runtime performance that occurs during a first operational run cycle of an application, that the failure event and/or sub-par runtime performance is caused by a Non-Functional Requirement (NFR) issue. In response to a determination that a first of the timestamp intervals falls within a timestamp associated with the application failure event and/or sub-par runtime performance, first pattern information about the application details associated with the first timestamp interval is collected. The method further includes applying the first pattern information to a weightage algorithm.

Abstract: A system, method, and computer program product are configured to: retrieve business logs and IT logs from a mainframe; extract business events and IT events from the business logs and the IT logs, respectively; relate the business events to the IT events to provide an organized log; retrieve a static application log from the mainframe; correlate the source codes in the static application log with the business event and the IT events in the organized log to provide an event log; and using the event log to automatically anticipate or resolve an error in the mainframe.

Abstract: A method performed by an asset tracking device is disclosed to track an asset. The method comprises receiving, while operating in an extended discontinuous reception mode, a carrier messaging service message from a carrier network, transmitting a connection request to a management server to establish a connection with the management server in response to receiving the carrier messaging service message, receiving, from the management server over the connection, an instruction to use a specified backend check-in schedule until a specified condition is met, and responsive to receiving the instruction, using the specified backend check-in schedule to check in with the management server until the specified condition is met. The method further comprises reverting back to using a default backend check-in schedule to check in with the management server after the specified condition has been met.

Abstract: Systems, methods and apparatus are provided for damascene digit lines. For instance, a damascene digit line can be formed by forming a plurality of dummy digit lines on a semiconductor substrate that are separated by a first set of vertical trenches, depositing a sacrificial insulating material in the first set of vertical trenches, forming, and depositing an insulating fill material in, a second set of vertical trenches, forming, and depositing a nitride material in, nitride material deposition spaces; removing at least a portion of the semiconductor substrate to form plurality of cell contact deposition spaces, forming cell contacts in the cell contact deposition spaces, removing the dummy digit lines to form a plurality of vertical openings, removing nitride material to form expanded vertical opening, depositing a digit line insulating material in the expanded vertical openings to form digit line deposition spaces, and forming digit lines.

Abstract: Methods, apparatuses, and systems related to a sense line and cell contact for a semiconductor structure are described. An example apparatus includes a first source/drain region and a second source/drain region, where the first source/drain region and the second source/drain region are separated by a channel, a gate opposing the channel, a sense line material coupled to the first source/drain region by a cell contact, where the cell contact is made from a combination of a first polysilicon material and a second polysilicon material, and a storage node coupled to the second source/drain region.

Abstract: Some embodiments include an integrated assembly having first and second source/drain regions laterally offset from one another. Metal silicide is adjacent to lateral surfaces of the source/drain regions. Metal is adjacent to the metal silicide. Container-shaped first and second capacitor electrodes are coupled to the source/drain regions through the metal silicide and the metal. Capacitor dielectric material lines interior surfaces of the container-shaped first and second capacitor electrodes, A shared capacitor electrode extends vertically between the first and second capacitor electrodes, and extends into the lined first and second capacitor electrodes. Some embodiments include methods of forming integrated assemblies.

Abstract: Systems and methods for implementing a multi-factor financial ontology framework are disclosed. In exemplary embodiments, a computer-implement method executing on a computer receives a natural language query from a user device and parses the query to determine a set of natural language terms associated with financial product criteria. The computer system maps the natural language terms to data nodes that implement the financial ontology framework and identifies responsive financial products from those data nodes. The computer system transmits the data corresponding to the responsive financial product to the user device.

Abstract: Some embodiments include an integrated assembly having first and second source/drain regions laterally offset from one another. Metal silicide is adjacent to lateral surfaces of the source/drain regions. Metal is adjacent to the metal silicide. Container-shaped first and second capacitor electrodes are coupled to the source/drain regions through the metal silicide and the metal. Capacitor dielectric material lines interior surfaces of the container-shaped first and second capacitor electrodes, A shared capacitor electrode extends vertically between the first and second capacitor electrodes, and extends into the lined first and second capacitor electrodes. Some embodiments include methods of forming integrated assemblies.

Abstract: Some embodiments include apparatuses and methods of forming the apparatuses. One of the apparatuses includes data lines; first structures located in a first region, electrically separated from each other, and including first conductive contacts coupled to the data lines; second conductive contacts located in the first region and coupled to memory elements of the apparatus; second structures located in a second region, electrically separated from each other, and including respective gates of transistors in the second region; a first dielectric material formed in the second region and including a first portion and a second portion, the first portion formed at a first side of a structure among the second structures, the second portion formed at a second side first of the structure; and a second dielectric material formed over the first structures and the second structure. A portion of the second dielectric material contacts the first portion of the first dielectric material.

Abstract: A method of forming a microelectronic device comprises forming interlayer dielectric material over a base structure comprising semiconductive structures separated from one another by insulative structures. Sacrificial line structures separated from one another by trenches are formed over the interlayer dielectric material. The sacrificial line structures horizontally overlap some of the semiconductive structures, and the trenches horizontally overlap some other of the semiconductive structures. Plug structures are formed within horizontal areas of the trenches and extend through the interlayer dielectric material and into the some other of the semiconductive structures. The sacrificial line structures are replaced with additional trenches. Conductive contact structures are formed within horizontal areas of the additional trenches and extend through the interlayer dielectric material and into the some of the semiconductive structures.

Abstract: Methods, apparatuses, and systems related to depositing a storage node material are described. An example method includes forming a semiconductor structure including a support structure having a first silicate material over a bottom nitride material, a first nitride material over the first silicate material, a second silicate material over the first nitride material, and a second nitride material over the second silicate material. The method further includes removing portions of the second nitride material. The method further includes depositing a third silicate material over the second nitride material and a portion of the second silicate material. The method further includes forming an opening through the semiconductor structure. The method further includes depositing a storage node material within the opening.

Abstract: Methods, apparatuses, and systems related to a sense line and cell contact for a semiconductor structure are described. An example apparatus includes a first source/drain region and a second source/drain region, where the first source/drain region and the second source/drain region are separated by a channel, a gate opposing the channel, a sense line material coupled to the first source/drain region by a cell contact, where the cell contact is made from a combination of a first polysilicon material and a second polysilicon material, and a storage node coupled to the second source/drain region.

Abstract: Some embodiments include an integrated assembly having digit-line-contact-regions between pairs of capacitor-contact-regions. The capacitor-contact-regions are arranged with six adjacent capacitor-contact-regions in a substantially rectangular configuration. Conductive plugs are coupled with the capacitor-contact-regions. Conductive redistribution material is coupled with the conductive plugs. Upper surfaces of the conductive redistribution material are arranged in a substantially hexagonal-close-packed configuration. Digit lines are over the digit-line-contact-regions. Insulative regions are between the digit lines and the conductive plugs. The insulative regions contain voids and/or low-k dielectric material. Capacitors are coupled with the upper surfaces of the conductive redistribution material.

Abstract: A method used in forming integrated circuitry comprises forming conductive material over a substrate. The conductive material is patterned into a conductive line that is horizontally longitudinally elongated. The conductive material is vertically recessed in longitudinally-spaced first regions of the conductive line to form longitudinally-spaced conductive pillars that individually are in individual longitudinally-spaced second regions that longitudinally-alternate with the longitudinally-spaced first regions along the conductive line. The conductive pillars project vertically relative to the conductive material in the longitudinally-spaced and vertically-recessed first regions of the conductive line. Electronic components are formed directly above the conductive pillars. Individual of the electronic components are directly electrically coupled to individual of the conductive pillars. Additional methods, including structure independent of method, are disclosed.

Abstract: Some embodiments include an integrated assembly having first and second source/drain regions laterally offset from one another. Metal silicide is adjacent to lateral surfaces of the source/drain regions. Metal is adjacent to the metal silicide. Container-shaped first and second capacitor electrodes are coupled to the source/drain regions through the metal silicide and the metal. Capacitor dielectric material lines interior surfaces of the container-shaped first and second capacitor electrodes, A shared capacitor electrode extends vertically between the first and second capacitor electrodes, and extends into the lined first and second capacitor electrodes. Some embodiments include methods of forming integrated assemblies.

Abstract: Some embodiments include an integrated assembly having digit-line-contact-regions between pairs of capacitor-contact-regions. The capacitor-contact-regions are arranged with six adjacent capacitor-contact-regions in a substantially rectangular configuration. Conductive plugs are coupled with the capacitor-contact-regions. Conductive redistribution material is coupled with the conductive plugs. Upper surfaces of the conductive redistribution material are arranged in a substantially hexagonal-close-packed configuration. Digit lines are over the digit-line-contact-regions. Insulative regions are between the digit lines and the conductive plugs. The insulative regions contain voids and/or low-k dielectric material. Capacitors are coupled with the upper surfaces of the conductive redistribution material.

Abstract: Systems and methods for implementing a multi-factor financial ontology framework are disclosed. In exemplary embodiments, a computer-implement method executing on a computer receives a natural language query from a user device and parses the query to determine a set of natural language terms associated with financial product criteria. The computer system maps the natural language terms to data nodes that implement the financial ontology framework and identifies responsive financial products from those data nodes. The computer system transmits the data corresponding to the responsive financial product to the user device.

Abstract: Systems, methods, and apparatuses are provided for digit line formation for horizontally oriented access devices.

Abstract: A method used in forming integrated circuitry comprises forming conductive material over a substrate. The conductive material is patterned into a conductive line that is horizontally longitudinally elongated. The conductive material is vertically recessed in longitudinally-spaced first regions of the conductive line to form longitudinally-spaced conductive pillars that individually are in individual longitudinally-spaced second regions that longitudinally-alternate with the longitudinally-spaced first regions along the conductive line. The conductive pillars project vertically relative to the conductive material in the longitudinally-spaced and vertically-recessed first regions of the conductive line. Electronic components are formed directly above the conductive pillars. Individual of the electronic components are directly electrically coupled to individual of the conductive pillars. Additional methods, including structure independent of method, are disclosed.

Abstract: Some embodiments include an integrated assembly having first and second source/drain regions laterally offset from one another. Metal silicide is adjacent to lateral surfaces of the source/drain regions. Metal is adjacent to the metal silicide. Container-shaped first and second capacitor electrodes are coupled to the source/drain regions through the metal silicide and the metal. Capacitor dielectric material lines interior surfaces of the container-shaped first and second capacitor electrodes, A shared capacitor electrode extends vertically between the first and second capacitor electrodes, and extends into the lined first and second capacitor electrodes. Some embodiments include methods of forming integrated assemblies.