Abstract: A computer-implemented method may be provided for identifying a user device. An identification server in communication with the user device may receive a request from a browser of the user device to access, from a destination uniform resource locator (URL), an asset from the identification server. The request from the browser may be received from a website server. The asset is configured to be presented on a webpage hosted by the website server. The request from the browser may be modified to associate a new identity attribute of the user device with the request.

Abstract: The present disclosure pertains to systems and methods for modeling at least a sleep parameter for a subject. In some embodiments, a method for predicting at least a sleep parameter for a subject comprises: obtaining sleep and/or wake information related to a subject for a given period of time; estimating bedtime and/or wakeup time of the subject using a sleep model and the sleep and/or wake information; predicting at least a sleep parameter of the subject for an upcoming time interval based upon the sleep model and the estimated bedtime and/or wakeup time; obtaining physiological information of the subject; and adjusting the predicted sleep parameter for the upcoming time interval based upon the sleep model and the physiological information.

Abstract: A computer-implemented method may be provided for identifying a user device. An identification server in communication with the user device may receive a request from a browser of the user device to access, from a destination uniform resource locator (URL), an asset from the identification server. The request from the browser may be received from a website server. The asset is configured to be presented on a webpage hosted by the website server. The request from the browser may be modified to associate a new identity attribute of the user device with the request.

Abstract: A computer-implemented method may be provided for identifying a user device. An identification server in communication with the user device may receive a request from a browser of the user device to access, from a destination uniform resource locator (URL), an asset from the identification server. The request from the browser may be received from a website server. The asset is configured to be presented on a webpage hosted by the website server. The request from the browser may be modified to associate a new identity attribute of the user device with the request.

Abstract: Aspects of the disclosed technology relate to techniques of context-aware pattern matching and processing. A circuit design is analyzed to identity circuit components of interest. Reference layout patterns that are associated with the circuit components of interest are extracted from a layout design based on the association of circuit components of the circuit design with geometric elements of the layout design. Pattern matching is performed to identify layout patterns that match the reference layout patterns. The identified layout patterns are then processed.

Abstract: Aspects of the disclosed technology relate to techniques of context-aware pattern matching and processing. A circuit design is analyzed to identity circuit components of interest. Reference layout patterns that are associated with the circuit components of interest are extracted from a layout design based on the association of circuit components of the circuit design with geometric elements of the layout design. Pattern matching is performed to identify layout patterns that match the reference layout patterns. The identified layout patterns are then processed.

Abstract: A three-dimensional image of a patient is generated in time; blood vessels site voxels are compared to a model arterial and venous signals; clusters of voxels are separated so that ones that have spatial growth over time are determined to be bleeding sites.

Abstract: A user or other source may specify one or more components in logical design data, such as schematic netlist design data. Based upon the provided logical component, portions of the physical design data that correspond to the logical component are selected. The selected physical design data corresponding to the specified logical component is then compared with a defined geometric element pattern, to determine if the corresponding physical design data matches the defined pattern. The results of the match analysis can be reported to a user as visual images, new design data, or both. Alternately or additionally, the selected physical design data may be modified based upon the results of the match analysis.

Abstract: A method for identifying bleeding in a patient, comprising: receiving a four-dimensional data set comprising vascular voxels, each of the voxels representing a three-dimensional location of a time-varying signal; identifying the vascular voxels in the data set by comparing each time-varying signal of each voxel in the data set to a variance threshold; identifying, within the vascular voxels in the data set, blood vessel site voxels by comparing each time-varying signal of the vascular voxels to a model arterial and venous signals; generating clusters of voxels in the data set; separating the clusters of voxels into a subset of blood vessel site clusters and a subset of remaining clusters; identifying, within the subset of remaining clusters, one or more clusters that are spatially growing over time to determine one or more active bleed sites in the patient; and generating an alert if one or more active bleed sites are determined.

Abstract: Aspects of the invention relate to techniques for estimating power and thermal profiles for an integrated circuit design. With various implementations of the invention, a group of devices is identified in a netlist based on information of the group of devices. The netlist may be a schematic netlist or a layout netlist extracted from a layout design. Power consumption information for the group of devices is determined based on device parameters for the group of devices and a lookup table. The determined power consumption information is then associated with layout location information. A thermal profile may then be estimated based on the power consumption information.

Abstract: Aspects of the invention relate to techniques for determining the electromigration features corresponding to layout design data. According to various examples of the invention, a circuit design is analyzed to determine voltages of nodes in an interconnect tree. From the voltages of the nodes, current density values and current directions for the segments of the interconnect tree are determined. Based on the current density values and the current directions, hydrostatic stress values for the nodes are computed under a steady-state condition and conservation of the conductive material within the interconnect tree. The electromigration susceptibility of the interconnect tree is then determined based on the computed hydrostatic stress values.

Abstract: An electrical connector includes a shell having a mating end and a termination end. The shell has a securing feature configured to secure the shell to a mating connector. The shell has a cavity that extends between the mating end and the termination end. A terminal subassembly includes a dielectric insert that is configured to be held within the cavity of the shell. The dielectric insert is configured to hold terminals such that mating interfaces of the terminals are configured to mate with corresponding terminals of the mating connector and such that termination interfaces of the terminals are configured to be terminated to a cable. The dielectric insert is a modular insert that is configured to hold the terminals when the termination interfaces are flat interfaces and is also configured to hold the terminals when the termination interfaces are crimp interfaces.

Abstract: For one or more geometric elements partitioned into a plurality of geometric element portions, the expected current directions through each geometric element portion are determined. Using the expected current directions, each expected current path through the geometric element portions is determined. Based upon the expected current paths, and the physical characteristics represented by the geometric element portions in those expected current paths, the electromigration features corresponding to the geometric element or elements are determined. For example, the length of the longest expected current path through the geometric element or elements can be identified based upon the lengths of the geometric element portions and the directions of their currents, and this length can then be compared with the Blech length for the geometric element or elements.

Abstract: Aspects of the invention relate to techniques for determining the electromigration features corresponding to layout design data. According to various examples of the invention, a circuit design is analyzed to determine voltages of nodes in an interconnect tree. From the voltages of the nodes, current density values and current directions for the segments of the interconnect tree are determined. Based on the current density values and the current directions, hydrostatic stress values for the nodes are computed under a steady-state condition and conservation of the conductive material within the interconnect tree. The electromigration susceptibility of the interconnect tree is then determined based on the computed hydrostatic stress values.

Abstract: A user or other source may specify one or more components in logical design data, such as schematic netlist design data. Based upon the provided logical component, portions of the physical design data that correspond to the logical component are selected. The selected physical design data corresponding to the specified logical component is then compared with a defined geometric element pattern, to determine if the corresponding physical design data matches the defined pattern. The results of the match analysis can be reported to a user as visual images, new design data, or both. Alternately or additionally, the selected physical design data may be modified based upon the results of the match analysis.

Abstract: An electrical connector includes a shell having a mating end and a termination end. The shell has a securing feature configured to secure the shell to a mating connector. The shell has a cavity that extends between the mating end and the termination end. A terminal subassembly includes a dielectric insert that is configured to be held within the cavity of the shell. The dielectric insert is configured to hold terminals such that mating interfaces of the terminals are configured to mate with corresponding terminals of the mating connector and such that termination interfaces of the terminals are configured to be terminated to a cable. The dielectric insert is a modular insert that is configured to hold the terminals when the termination interfaces are flat interfaces and is also configured to hold the terminals when the termination interfaces are crimp interfaces.

Abstract: Aspects of the invention relate to techniques for estimating power and thermal profiles for an integrated circuit design. With various implementations of the invention, a group of devices is identified in a netlist based on information of the group of devices. The netlist may be a schematic netlist or a layout netlist extracted from a layout design. Power consumption information for the group of devices is determined based on device parameters for the group of devices and a lookup table. The determined power consumption information is then associated with layout location information. A thermal profile may then be estimated based on the power consumption information.

Abstract: An electrical contact assembly is provided. The assembly includes a contact hood having a body including an axis and an opening extending through the body along the axis. The opening has an inner surface. The contact hood is configured to be received in an opening of a connector housing. At least two protrusions are formed on the inner surface of the contact hood opening. An electrical contact is provided having a body including a contact end and a socket end. The socket end is inserted axially into the opening of the contact hood. The contact end of the electrical contact is configured to extend from a mating end of the connector housing. At least two apertures are formed on the socket end of the electrical contact. The at least two protrusions are received in the at least two apertures to secure the electrical contact within the contact hood.

Abstract: Techniques for assisting a designer in correcting discrepancies identified in layout design data. A user interface may be provided listing identified shorts and relevant information related to those shorts. Still further, the user interface may allow a designer to selectively choose a subset of the identified shorts, and to designate or otherwise provide correction data for use to correct the shorts before performing a short isolation process on the selected shorts. Alternately or additionally a user interface may provide a designer with graphical images showing the correction that should be made by a designer to address an identified discrepancy in layout design data.

Abstract: An electrical contact assembly is provided. The assembly includes a contact hood having a body including an axis and an opening extending through the body along the axis. The opening has an inner surface. The contact hood is configured to be received in an opening of a connector housing. At least two protrusions are formed on the inner surface of the contact hood opening. An electrical contact is provided having a body including a contact end and a socket end. The socket end is inserted axially into the opening of the contact hood. The contact end of the electrical contact is configured to extend from a mating end of the connector housing. At least two apertures are formed on the socket end of the electrical contact. The at least two protrusions are received in the at least two apertures to secure the electrical contact within the contact hood.