Abstract: Some examples described herein relate to automatically configuring an insight carousel of a graphical user interface based on templates. In one example, a system can receive templates and insights associated with transactions, populate fields within each template using information associated with the insights, and generate a graphical user interface including an image carousel having slides incorporating the populated templates.

Abstract: Features described herein generally relate to automatically positioning insights in spatial locations of a graphical user interface page based on rules. Particularly, insights associated with transactions are received, spatial locations within a graphical user interface page that are designated for displaying insights are determined, a subset of spatial locations for positioning the insights are selected based on the insights and rules, and a graphical user interface with the insights spatially positioned at the subset of spatial locations is generated.

Abstract: Features described herein generally relate to a graphical user interface that includes an insight hub and an insight carousel. In one example, a system can receive insights associated with transactions, generate an image carousel that includes slides populated with information associated with the insights, and generate another interface page that includes insight listings corresponding to multiple insights.

Abstract: A stiffener for an integrated circuit (IC) package assembly including an IC die electrically interconnected to a substrate. The stiffener is to be mechanically attached to the substrate adjacent to at least one edge of the IC die and have a coefficient of linear thermal expansion (CTE) exceeding that of the substrate. The stiffener may be an “anti-invar” metallic alloy. Anti-invar alloys display “anti-invar” behavior where thermal expansion of the material is significantly enhanced relative to other compositions of the particular alloy system. A package stiffener may be a high-Mn steel, for example, such as ASTM International A128. In other examples, a package stiffener is a MnCuNi, FeNiMn, or FeNiCr alloy having an average CTE over a range of 25-100° C. of at least 18 ppm, and a room temperature modulus of elasticity of at least 120 GPa.

Abstract: A system includes a first computing device, a second computing device, and a third computing device. The first computing device is configured to identify a first event and store a first event code, a plurality of first entry codes, and first information associated with each of the plurality of entry codes. The second computing device is configured to derive a plurality of first translated event codes based on the first event code and a plurality of first translated entry codes for each of the plurality of first entry codes. The second computing device is further configured to determine whether the plurality of first entry codes were successfully derived. The third computing device is configured to read the first journal entry of the second database and determine, based on the indication that the plurality of first translated entry codes were successfully derived, to perform a first task.

Abstract: A system includes a first computing device, a second computing device, and a third computing device. The first computing device is configured to identify a first event and store a first event code, a plurality of first entry codes, and first information associated with each of the plurality of entry codes. The second computing device is configured to derive a plurality of first translated event codes based on the first event code and a plurality of first translated entry codes for each of the plurality of first entry codes. The second computing device is further configured to determine whether the plurality of first entry codes were successfully derived. The third computing device is configured to read the first journal entry of the second database and determine, based on the indication that the plurality of first translated entry codes were successfully derived, to perform a first task.

Abstract: A system includes a first computing device, a second computing device, and a third computing device. The first computing device is configured to identify a first event and store a first event code, a plurality of first entry codes, and first information associated with each of the plurality of entry codes. The second computing device is configured to derive a plurality of first translated event codes based on the first event code and a plurality of first translated entry codes for each of the plurality of first entry codes. The second computing device is further configured to determine whether the plurality of first entry codes were successfully derived. The third computing device is configured to read the first journal entry of the second database and determine, based on the indication that the plurality of first translated entry codes were successfully derived, to perform a first task.

Abstract: A system includes a first computing device, a second computing device, and a third computing device. The first computing device is configured to identify a first event and store a first event code, a plurality of first entry codes, and first information associated with each of the plurality of entry codes. The second computing device is configured to derive a plurality of first translated event codes based on the first event code and a plurality of first translated entry codes for each of the plurality of first entry codes. The second computing device is further configured to determine whether the plurality of first entry codes were successfully derived. The third computing device is configured to read the first journal entry of the second database and determine, based on the indication that the plurality of first translated entry codes were successfully derived, to perform a first task.

Abstract: A system includes a first computing device, a second computing device, and a third computing device. The first computing device is configured to identify a first event and store a first event code, a plurality of first entry codes, and first information associated with each of the plurality of entry codes. The second computing device is configured to derive a plurality of first translated event codes based on the first event code and a plurality of first translated entry codes for each of the plurality of first entry codes. The second computing device is further configured to determine whether the plurality of first entry codes were successfully derived. The third computing device is configured to read the first journal entry of the second database and determine, based on the indication that the plurality of first translated entry codes were successfully derived, to perform a first task.

Abstract: Systems and methods for managing memory in a dynamic translation computer system are provided. Embodiments may include receiving an instruction packet and processing the instruction packet. The instruction packet may include one or more instructions for obtaining a block of virtual memory for use in an emulated operating environment from a slab of virtual memory in a host environment, maintaining a mapping between the block of virtual memory and physical memory when the block is returned to the host environment, and for filling the block of virtual memory with zeros and a pattern based, at least in part, on a detected fill type.

Abstract: A system includes a first computing device, a second computing device, and a third computing device. The first computing device is configured to identify a first event and store a first event code, a plurality of first entry codes, and first information associated with each of the plurality of entry codes. The second computing device is configured to derive a plurality of first translated event codes based on the first event code and a plurality of first translated entry codes for each of the plurality of first entry codes. The second computing device is further configured to determine whether the plurality of first entry codes were successfully derived. The third computing device is configured to read the first journal entry of the second database and determine, based on the indication that the plurality of first translated entry codes were successfully derived, to perform a first task.

Abstract: A system includes a first computing device, a second computing device, and a third computing device. The first computing device is configured to identify a first event and store a first event code, a plurality of first entry codes, and first information associated with each of the plurality of entry codes. The second computing device is configured to derive a plurality of first translated event codes based on the first event code and a plurality of first translated entry codes for each of the plurality of first entry codes. The second computing device is further configured to determine whether the plurality of first entry codes were successfully derived. The third computing device is configured to read the first journal entry of the second database and determine, based on the indication that the plurality of first translated entry codes were successfully derived, to perform a first task.

Abstract: Systems and methods for managing memory in a dynamic translation computer system are provided. Embodiments may include receiving an instruction packet and processing the instruction packet. The instruction packet may include one or more instructions for obtaining a block of virtual memory for use in an emulated operating environment from a slab of virtual memory in a host environment, maintaining a mapping between the block of virtual memory and physical memory when the block is returned to the host environment, and for filling the block of virtual memory with zeros and a pattern based, at least in part, on a detected fill type.

Abstract: Systems and methods for managing memory in a dynamic translation computer system are provided. Embodiments may include receiving an instruction packet and processing the instruction packet. The instruction packet may include one or more instructions for obtaining a block of virtual memory for use in an emulated operating environment from a slab of virtual memory in a host environment, maintaining a mapping between the block of virtual memory and physical memory when the block is returned to the host environment, and for filling the block of virtual memory with zeros and a pattern based, at least in part, on a detected fill type.

Abstract: Systems and methods for managing memory in a dynamic translation computer system are provided. Embodiments may include receiving an instruction packet and processing the instruction packet. The instruction packet may include one or more instructions for obtaining a block of virtual memory for use in an emulated operating environment from a slab of virtual memory in a host environment, maintaining a mapping between the block of virtual memory and physical memory when the block is returned to the host environment, and for filling the block of virtual memory with zeros and a pattern based, at least in part, on a detected fill type.

Abstract: Systems and methods for obtaining access to a database file managed by an operating system in a computing system are disclosed. One method includes transmitting a call to an operating system from a database management system, the call requesting access to a database file. The method also includes receiving an address from the operating system at the database management system. The address represents a general address of the database file managed by the operating system. The method further includes transmitting a call to the operating system from the database management system, which includes an address and a size of a view of the database file to be created. The method also includes receiving an address of the view of the database file from the operating system.

Abstract: Systems and methods for obtaining access to a database file managed by an operating system in a computing system are disclosed. One method includes transmitting a call to an operating system from a database management system, the call requesting access to a database file. The method also includes receiving an address from the operating system at the database management system. The address represents a general address of the database file managed by the operating system. The method further includes transmitting a call to the operating system from the database management system, which includes an address and a size of a view of the database file to be created. The method also includes receiving an address of the view of the database file from the operating system.

Abstract: Herein it is described a magnetic medical device, and a system and method in which the magnetic medical device is implemented, that enables bipolar, minimally invasive, tissue ablation. The magnetic medical device may include magnetic means for magnetically coupling the medical device to a second medical device, wherein the magnetic medical devices may be separated by the tissue to be ablated. The magnetic medical device may also include electrical means for transferring electrical energy between the magnetic medical device and the second medical device. The magnetic medical device may further include control means whereby the physical location of the magnetic medical device may be controlled and thereby, as a result of the magnetic coupling, the physical location of the second magnetic medical device may also be controlled.

Abstract: The entire right, title and interest in and to this application and all subject matter disclosed and/or claimed therein, including any and all divisions, continuations, reissues, etc., thereof are, effective as of the date of execution of this application, assigned, transferred, sold and set over by the applicant(s) named herein to Deere & Company, a Delaware corporation having offices at Moline, Ill. 61265, U.S.A., together with all rights to file, and to claim priorities in connection with, corresponding patent applications in any and all foreign countries in the name of Deere & Company or otherwise.

Abstract: A controller tower positioning system for a work vehicle for securing the controller tower to one of at least two positions. The system employs a mounting bracket fixed to the floor or a frame member of the work vehicle, a movable controller tower rotatably mounted to the mounting bracket and a resistive element strategically mounted to the controller tower and the mounting bracket to provide resistance to movement away from either of the two positions and a toggle effect as the controller tower is moved from one of the two positions to the other. The controller assembly is physically restrained at the free end of the controller tower.