Abstract: Methods and systems are used for end user creation of trusted integration pathways between different enterprise systems. As an example, a set of identity information associated with an end user is determined. A set of systems and a set of configurable trusted integration pathways that the end user is authorized to create a trusted integration pathway between two systems is determined. A selection of a source system and a destination system from the set of systems is received. A set of information from the source system that is allowed to be shared with the destination system based on pre-defined metadata is identified. A trusted integration pathway between the source system and the destination system is generated, based on a selection of at least a portion of the set of information and the pre-defined metadata.

Abstract: Systems and methods for detecting regions of interests (ROIs) in biomedical images are described herein. A computing system may identify a biomedical image having an ROI. The computer system may apply an object detection model to the biomedical image. The object detection model may generate a feature map using the biomedical image. The object detection model may generate an anchor box corresponding to a portion of the pixels in the feature map. The computing system may apply an instance segmentation model to identify a segment of the biomedical image within the anchor box corresponding to the ROI. The computer system may provide an output based on the segment to identify the ROI in the biomedical image.

Abstract: Methods and systems are used for end user creation of trusted integration pathways between different enterprise systems. As an example, a set of identity information associated with an end user is determined. A set of systems and a set of configurable trusted integration pathways that the end user is authorized to create a trusted integration pathway between two systems is determined. A selection of a source system and a destination system from the set of systems is received. A set of information from the source system that is allowed to be shared with the destination system based on pre-defined metadata is identified. A trusted integration pathway between the source system and the destination system is generated, based on a selection of at least a portion of the set of information and the pre-defined metadata.

Abstract: A method and system for providing an OData service based on a service operation execution flow is described. Initially a data source metadata is converted to an entity data model. Based on the entity data model, the service operation execution flow is generated that displays a process for executing a service operation. Next, one or more runtime configuration data are received to edit the generated service operation execution flow. The edited service operation execution flow defines a communication between a data source and a client requesting execution of the service operation. Finally, based on the edited service operation execution flow and the entity data model the Odata service is published to process a client request for executing the service operation.

Abstract: Methods, systems, and computer program products for creating a customized runtime environment are described. One or more runtime environment capabilities are determined based on a profile. One or more runtime bundles corresponding to the one or more runtime environment capabilities are identified and the identified runtime bundles are assembled.

Abstract: A method and system for providing an OData service based on a service operation execution flow is described. Initially a data source metadata is converted to an entity data model. Based on the entity data model, the service operation execution flow is generated that displays a process for executing a service operation. Next, one or more runtime configuration data are received to edit the generated service operation execution flow. The edited service operation execution flow defines a communication between a data source and a client requesting execution of the service operation. Finally, based on the edited service operation execution flow and the entity data model the Odata service is published to process a client request for executing the service operation.

Abstract: Methods, systems, and computer program products for creating a customized runtime environment are described. One or more runtime environment capabilities are determined based on a profile. One or more runtime bundles corresponding to the one or more runtime environment capabilities are identified and the identified runtime bundles are assembled.

Abstract: Some examples include detecting errors in text that has been recognized using automated text recognition technology. For instance, errors in the recognized text may be detected based on glyph image similarity and the use of a language model, dictionary information, or the like. Some implementations may group together glyphs based on association of the glyphs with the same glyph identifier and a similarity of the appearance of the glyphs. Furthermore, the words associated with each glyph may be checked against a language model, such as to check a spelling or other validity of the words, and a score may be assigned to each group of glyphs based on the validity of the words corresponding to the glyphs in that group. Groups that have a score that fails to meet a threshold may be reviewed by a person or may undergo automated correction techniques.

Abstract: An embodiment of the present invention is a technique to provide a parallel test mode for multi-core processors. A test access port (TAP) in a first processor core generates a first test data output (TDO) from a first test data input (TDI) or a first delayed TDI according to a TDO select bit. The first delayed TDI is clocked by a test clock (TCK). The first processor core has a first core circuit. The TAP generates a phase select word. A clock generator generates a clock signal synchronized with the TCK and has a low phase and a high phase. A first enable circuit enables first core data from the first core circuit in one of the low and high phases of the clock signal according to the phase select word.

Abstract: An embodiment of the present invention is a technique to provide a parallel test mode for multi-core processors. A test access port (TAP) in a first processor core generates a first test data output (TDO) from a first test data input (TDI) or a first delayed TDI according to a TDO select bit. The first delayed TDI is clocked by a test clock (TCK). The first processor core has a first core circuit. The TAP generates a phase select word. A clock generator generates a clock signal synchronized with the TCK and has a low phase and a high phase. A first enable circuit enables first core data from the first core circuit in one of the low and high phases of the clock signal according to the phase select word.