Abstract: The disclosure provides a centralized operating room (OR) controller and associated components for an interoperable OR. The interoperable OR can be provisioned for a urological procedure. The centralized controller provides for interaction with each device in the OR and provides for configuration, monitoring, and control of the devices in a composite group or groups.

Abstract: The disclosure provides a method for closed loop control in a urological operating room comprising: receiving, at a single control device, real-time information from a plurality of therapy consoles provisioned in an operating theater; determining whether the received information is outside a predetermined threshold range; automatically generating control signals based on a determination that the received information is outside the predetermined threshold range; sending the control signals to at least one therapy console of the plurality of therapy consoles to adjust an operational parameter of the at least one therapy console and mitigate a deviation from the predetermined threshold range; receiving real-time feedback information from the plurality of therapy consoles; iteratively updating the control signals based on the real-time feedback information; and sending the updated control signals to automatically adjust an operational parameter of the at least one therapy console and mitigate a remaining deviatio

Abstract: A method for simulating failure testing of in-situ power grid hardware in real-time can include extracting, by one or more processors, parameters from power grid dynamics data to perform power grid simulation testing, sending, by the one or more processors, a reference to a power grid device, generating, by the one or more processors, stress information based on the reference via the power grid device to a power grid hardware, collecting, by the one or more processors, a response from the power grid hardware to the stress information, identifying, by the one or more processors, behaviors of the response, and extracting, by the one or more processors, a failure and aging model of the power grid hardware.

Abstract: A method for predicting failure parameters of semiconductor devices can include receiving a set of data that includes (i) characteristics of a sample semiconductor device, and (ii) parameters characterizing a stress condition. The method further includes extracting a plurality of feature values from the set of data and inputting the plurality of feature values into a trained model executing on the one or more processors, wherein the trained model is configured according to an artificial intelligence (AI) algorithm based on a previous plurality of feature values, and wherein the trained model is operable to output a failure prediction based on the plurality of feature values. Further, the method includes generating, via the trained model, a predicted failure parameter of the sample semiconductor device due to the stress condition.

Abstract: A method for predicting failure parameters of semiconductor devices can include receiving a set of data that includes (i) characteristics of a sample semiconductor device, and (ii) parameters characterizing a stress condition. The method further includes extracting a plurality of feature values from the set of data and inputting the plurality of feature values into a trained model executing on the one or more processors, wherein the trained model is configured according to an artificial intelligence (AI) algorithm based on a previous plurality of feature values, and wherein the trained model is operable to output a failure prediction based on the plurality of feature values. Further, the method includes generating, via the trained model, a predicted failure parameter of the sample semiconductor device due to the stress condition.

Abstract: A carrying device has a lifting member with a first end, a second end, and a middle between its first and second ends. A spreading member has a first end and a second end, its first and second ends connected to the first and second ends of the lifting member. A first hanging member is adjacent to the first end of the spreading member and a second hanging member is adjacent to the second end of the spreading member. The lifting portion is adapted such that its middle portion hangs from a user's shoulder in order to facilitate carrying items hanging from the first and second hanging members.