Abstract: An electrical heating system for a vehicle. The system includes: a transparent metallic layer configured to be mounted to a transparent material, conduct electrical current, and increase in temperature to heat the transparent material in response to electrical current running across the transparent metallic layer; a power supply; a heating, ventilation, and air conditioning (HVAC) system configured to heat and cool a passenger cabin of the vehicle; and a control module. The control module is configured to: apply voltage from the power supply to the transparent metallic layer to heat the transparent material; and apply voltage from the power supply to a component of the HVAC system to heat the component of the HVAC system.

Abstract: Techniques are disclosed herein for providing full-band audio signal reconstruction enabled by output from a machine learning model trained based on an audio feature set extracted from a portion of the audio signal. Examples may include generating a model input audio feature set for a first frequency portion of an audio signal defined based on a hybrid audio processing frequency threshold. Examples may also include inputting the model input audio feature set to a machine learning model configured to generate a frequency characteristics output related to the first frequency portion of the audio signal. Examples may also include applying the frequency characteristics output to at least a second frequency portion of the audio signal to generate a reconstructed full-band audio signal.

Abstract: A method for controlling a robotic system includes determining a location and/or a pose of a power system component based on data received from one or more sensors, and determining a mapping of a location of a robotic system within a model of an external environment of the robotic system based on the data. The model of the external environment provides locations of objects external to the robotic system. A sequence of movements of components of the robotic system is determined to perform maintenance on the power system component based on the locations of the objects external to the robotic system and/or the location or pose of the power system component. One or more control signals are communicated to remotely control movement of the components of the robotic system based on the sequence or movements of the components to perform maintenance on the power system component.

Abstract: There are provided systems and methods for load balancing for map application route selection and output. A user may utilize a device application to map or route between two or more endpoints, such as geo-locations entered or detected by the device. During calculation of a travel route between the endpoints, real-time data, user preferences, and requesting entities may provide criteria data that may cause determination of a particular travel route, where the travel route may be longer than a most efficient route but within a pre-defined variable time or distance allotment and match the criteria data. Use of the route may accrue a form of compensation for the user. The user may view an application interface displaying the route, which may further include one or more executable processes to cause recalculation of the route. Recalculation of the route may require the user to provide credits or compensation.

Abstract: A method for performing multiple simulations for a circuit using a first plurality of samples is provided. The method includes obtaining a model of the circuit based on a result of the simulations, determining a failure rate and a confidence interval of the failure rate for the circuit with the performance model. The method includes determining an importance distribution based on the failure rate for the first plurality of samples, wherein the importance distribution is indicative of a probability that a sample value for the circuit will fail the simulation, selecting a second plurality of samples based on the importance distribution, performing a second set of simulations using the second plurality of samples to reduce the confidence interval of the failure rate. When the confidence interval is larger than a value, obtaining an updated performance model and performing new Monte Carlo simulations with new samples.

Abstract: A method for performing multiple simulations for a circuit using a first plurality of samples is provided. The method includes obtaining a model of the circuit based on a result of the simulations, determining a failure rate and a confidence interval of the failure rate for the circuit with the performance model. The method includes determining an importance distribution based on the failure rate for the first plurality of samples, wherein the importance distribution is indicative of a probability that a sample value for the circuit will fail the simulation, selecting a second plurality of samples based on the importance distribution, performing a second set of simulations using the second plurality of samples to reduce the confidence interval of the failure rate. When the confidence interval is larger than a value, obtaining an updated performance model and performing new Monte Carlo simulations with new samples.

Abstract: Various embodiments implement an electronic design with one or more electrical analyses or simulations. Pre-layout and/or post-layout design data of an electronic design or a portion thereof may be identified at a physical design implementation module. A first stage analysis may be performed on the electronic design or the portion thereof at least by computing electrical characteristics with a reduced representation in the electronic design or the portion thereof. Electrical behavior of the electronic design or the portion thereof may be generated at least by performing a second stage analysis on the electronic design or the portion thereof with one or more adjusted electrical characteristics. The electronic design or the portion thereof may then be implemented based in part or in whole upon the one or more electrical analyses or simulations.

Abstract: Various embodiments implement an electronic design with power gate analyses using time varying resistors. Design data of an electronic design or a portion thereof may be identified at an electronic design implementation module. First stage electrical characteristics may be generated at least by performing a first stage electrical analysis on a reduced representation of the electronic design or the portion thereof. Second stage electrical characteristics may further be generated at least by performing a second stage electrical analysis on a parasitic injected representation of the electronic design or the portion thereof with a time-varying model for the power gate. The electronic design or the portion thereof may then be further implemented based in part or in whole upon the one or more electrical analyses or simulations.

Abstract: A method of constructing a surgical implant is provided. The method comprises providing a multiplicity of substantially identical blocks, each having features thereon to allow blocks to be mechanically joined together. A surgical implant may then be constructed by using these features to join the blocks together into a desired configuration.

Abstract: A method of constructing a surgical implant is provided. The method comprises providing a multiplicity of substantially identical blocks, each having features thereon to allow blocks to be mechanically joined together. A surgical implant may then be constructed by using these features to join the blocks together into a desired configuration.

Abstract: A system, method, and computer program product for automatically approximating conventional Monte Carlo statistical device model evaluation for circuit simulation with drastic speed improvements, while preserving significant accuracy. Embodiments enable quick inspection of the effects of process mismatch variations on single devices and even large circuits compared to standard computationally prohibitive Monte Carlo analysis. Statistical device model variation is calculated as if all such variation is due to changes in threshold voltage, even though other physical phenomena are known to contribute. Threshold voltage variation is modeled as a function of statistical variation, device size, and working bias condition. Circuit simulation is faster when the full internal device model parameter set is not rebuilt for every Monte Carlo analysis iteration. Embodiments are compatible with both conventional SPICE and newer Fast SPICE simulations.

Abstract: A system, method, and computer program product is disclosed for performing electrical analysis of a circuit design. A voltage-based approach is described for performing two-stage transient EM-IR drop analysis of an electronic design. A two-stage approach is performed in some embodiments, in which the first stage operates by calculating the voltage at certain interface nodes. In the second stage, simulation is performed to simulate the circuit to concurrently obtain the current at the interface nodes. In some embodiments, multiple adjacent devices as identified as interface devices for purposes of the analysis. One situation where it may be useful to analyze a larger portion of the circuitry in this way where the analysis is being performed on a netlist having a power gate.