Abstract: Removal of PII is provided. Sensor data is captured using sensors of a vehicle. Object detection is performed on the sensor data to create a sematic labeling of objects in the sensor data. A model is utilized to classify regions of the sensor data with a public or private labeling according to the sematic labeling and a PII filter corresponding to a jurisdiction of a current location of the vehicle. The sensor data is utilized in accordance with the public or private labeling.

Abstract: An example of an apparatus to transport utility-scale lithium-ion batteries in a racked and operational state. The apparatus includes a base and an isolation platform. In addition, the apparatus includes an isolator mounted on the base to support the isolation platform. The isolator is to dampen forces exerted on the isolation platform from the base. Furthermore, the apparatus includes a rack mounted onto the isolation platform. The rack is to secure a plurality of lithium-ion batteries to store energy at a utility-scale to be provided to a power distribution network. The plurality of lithium-ion batteries is racked in an operational state during transportation.

Abstract: Described herein are assistant robots that observe signs of core health, health dangers, and/or signs of medical distress in a home or at work. As such, the assistant robots can take actions to prevent dangerous situations, diagnose health problems, respond to requests for help, and provide regular treatments or analysis of a person's medical state. The assistant robots can learn users' habits or be provided with knowledge regarding humans in its environment. The assistant robots develop a schedule and contextual understanding of the persons' behavior and needs. The assistant robots may interact, understand, and communicate with people before, during, or after providing assistance. The robot can combine gesture, clothing, emotional aspect, time, pose recognition, action recognition, and other observational data to understand people's medical condition, current activity, and future intended activities and intents.

Abstract: Systems or methods of the present disclosure may provide a library including multiple macros that may be pre-compiled prior to implementation of the design. For example, a design may be mapped to one or more macros in the library, and the one or more macros may be placed into and routed between a portion of a region, one region, one or more regions of the integrated circuit device to implement the design. Since the macros may be pre-compiled, compilation time experienced by the designer may correspond to the placement and routing of the one or more macros, which may be less than compilation time for fine-grained operations. The pre-compiled logic within the macros may be set using a lookup table mask to set and/or adjust a functionality of the macro. Additionally or alternatively, the place and route operation may be performed at finer granularities to reduce bottle necks.

Abstract: A device, system, and method perform an automatic change over for transport streams. The method is performed at an output server. The method includes selecting a first transport stream. The method includes generating a first portion of an output based on the first transport stream. The method includes selecting a second transport stream. The method includes determining a frametime to synchronize first packets of the first transport stream to second packets of the second transport stream. The frametime is based on a start time of a content item included in the first transport stream and the second transport stream and a completed progression of the content item using the first transport stream. The method includes determining a location in the second transport stream based on the frametime. The method includes generating a second portion of the output based on the second transport stream starting at the location.

Abstract: A device, system, and method perform an automatic change over for transport streams. The method is performed at an output server. The method includes selecting a first transport stream. The method includes generating a first portion of an output based on the first transport stream. The method includes selecting a second transport stream. The method includes determining a frametime to synchronize first packets of the first transport stream to second packets of the second transport stream. The frametime is based on a start time of a content item included in the first transport stream and the second transport stream and a completed progression of the content item using the first transport stream. The method includes determining a location in the second transport stream based on the frametime. The method includes generating a second portion of the output based on the second transport stream starting at the location.

Abstract: A biological sample collection system can include a sample collection vessel having an opening configured to receive a biological sample and a selectively movable valve configured to at least partially associate with the opening of the sample collection vessel. The selectively movable valve can include a post and a valve head associated with a distal portion of the post. The system can additionally include a sealing cap configured to associate with the selectively movable valve and with the sample collection vessel. The sealing cap can include a reagent chamber for storing a measure of sample preservation reagent and associating the sealing cap with the sample collection vessel causes a physical rearrangement of the post and the valve head such that a fluid vent associated with the post aligns with an aperture defined by the valve head allowing fluid communication between the reagent chamber and the sample collection vessel.

Abstract: Integrated circuits, methods, and circuitry are provided for performing multiplication such as that used in Galois field counter mode (GCM) hash computations. An integrated circuit may include selection circuitry to provide one of several powers of a hash key. A Galois field multiplier may receive the one of the powers of the hash key and a hash sequence and generate one or more values. The Galois field multiplier may include multiple levels of pipeline stages. An adder may receive the one or more values and provide a summation of the one or more values in computing a GCM hash.

Abstract: A programmable device may have logic circuitry formed in a top die and memory and specialized processing blocks formed in a bottom die, where the top die is stacked directly on top of the bottom die in a face-to-face configuration. The logic circuitry may include logic sectors, logic array blocks, logic elements, and other types of logic regions. The memory blocks may include large banks of multiport memory for storing data. The specialized processing blocks may include multipliers, adders, and other arithmetic components. The logic circuitry may access the memory and specialized processing blocks via an address encoded scheme. Configured in this way, the maximum operating frequency of the programmable device can be optimized such that critical paths will no longer need to traverse any unused memory and specialized processing blocks.

Abstract: A device, system, and method perform an automatic change over for transport streams. The method is performed at an output server. The method includes selecting a first transport stream. The method includes generating a first portion of an output based on the first transport stream. The method includes selecting a second transport stream. The method includes determining a frametime to synchronize first packets of the first transport stream to second packets of the second transport stream. The frametime is based on a start time of a content item included in the first transport stream and the second transport stream and a completed progression of the content item using the first transport stream. The method includes determining a location in the second transport stream based on the frametime. The method includes generating a second portion of the output based on the second transport stream starting at the location.

Abstract: A programmable device may have logic circuitry formed in a top die and memory and specialized processing blocks formed in a bottom die, where the top die is stacked directly on top of the bottom die in a face-to-face configuration. The logic circuitry may include logic sectors, logic array blocks, logic elements, and other types of logic regions. The memory blocks may include large banks of multiport memory for storing data. The specialized processing blocks may include multipliers, adders, and other arithmetic components. The logic circuitry may access the memory and specialized processing blocks via an address encoded scheme. Configured in this way, the maximum operating frequency of the programmable device can be optimized such that critical paths will no longer need to traverse any unused memory and specialized processing blocks.

Abstract: A biological sample collection system includes: a sample collection vessel having a sample collection chamber for receiving a biological sample; a sealing cap including a reagent chamber for storing a sample preservation reagent and being configured to associate with the sample collection vessel; and a selectively movable valve at least partially disposed within the sealing cap. The selectively movable valve includes a post with an interior chamber and fluid vent and a valve head associated with a distal portion of the post that initially occludes the fluid vent when the valve is in the closed configuration. Associating the sealing cap with the sample collection vessel causes a physical rearrangement of the post and the valve head in order for the fluid vent to become unoccluded by the valve head, thereby placing the valve in an open configuration and allowing fluid communication between the reagent chamber and the sample collection vessel.

Abstract: Systems and methods of the present disclosure provide techniques for reducing power consumption of a large combinational circuit using register insertion. In particular, a large circuit may be analyzed to determine the amount of signal switching at various logical points (e.g., stages in the computation) of the circuit. A clock sequence with many pulses in the period of a clock that runs the large combinatorial circuit may be generated. To balance the amount of signal switching at various logical points in the circuit, registers may be inserted at certain points in the large circuit with the clock pulses of the clock sequence assigned to the registers that may not have a constant frequency or may be phase shifted versions of the main clock.

Abstract: The present disclosure describes techniques for incorporating pipelined DSP blocks or other types of embedded functions into a logic circuit with a slower clock rate without any clock crossing complexities, and at the same time managing the power consumption of the more complex design that results from it. The techniques include generating a faster clock or several faster clocks that may have a faster clock rate than the clock used by the logic circuit and that may be used as clock input to the embedded pipelined DSP blocks. In addition, the present disclosure describes techniques for generating, improving, and using the faster clock to sample the output of a logic circuit using pulses of generated faster clock, which may allow to increase the clock frequency of the circuit to an optimal level, while maintaining functional correctness.

Abstract: Techniques for designing and implementing networks-on-chip (NoCs) are provided. For example, a computer-implemented method for programming a network-on-chip (NoC) onto an integrated circuit includes determining a first portion of a plurality of registers to potentially be included in a NoC design, determining routing information regarding datapaths between registers of the first portion of the plurality of registers, and determining an expected performance associated with the first portion of the plurality of registers. The method also includes determining whether the expected performance is within a threshold range, including the first portion of the plurality of registers and the datapaths in the NoC design after determining that the expected performance is within the threshold range, and generating instructions configured to cause circuitry corresponding to the NoC design to be implemented on the integrated circuit.

Abstract: A device, system, and method perform an automatic change over for transport streams. The method is performed at an output server. The method includes selecting a first transport stream. The method includes generating a first portion of an output based on the first transport stream. The method includes selecting a second transport stream. The method includes determining a frametime to synchronize first packets of the first transport stream to second packets of the second transport stream. The frametime is based on a start time of a content item included in the first transport stream and the second transport stream and a completed progression of the content item using the first transport stream. The method includes determining a location in the second transport stream based on the frametime. The method includes generating a second portion of the output based on the second transport stream starting at the location.

Abstract: Provided herein is technology for displaying, reposition, and/or formatting graphics on a display. The technology includes receiving a graphics stream in a first playout format that includes a first display resolution and first display layout. The technology also includes determining a second playout format that includes a second display resolution and a second display layout. The technology further determines an area of importance within the first display layout given the first display layout, second display resolution, and second display layout. A preferred position within the second display layout is determined so that the preferred position is a location in the second display layout that is in a relatively similar location as the area of importance in the first display layout. The first playout format is converted into the second playout format using the area of importance and preferred position. Finally, the graphics stream is displayed in the second playout format.

Abstract: Removal of PII is provided. Sensor data is captured using sensors of a vehicle. Object detection is performed on the sensor data to create a sematic labeling of objects in the sensor data. A model is utilized to classify regions of the sensor data with a public or private labeling according to the sematic labeling and a PII filter corresponding to a jurisdiction of a current location of the vehicle. The sensor data is utilized in accordance with the public or private labeling.

Abstract: Cordierite-forming batch mixtures including one or more non-oxide inorganic source materials or materials as pore-formers are provided. Non-oxide inorganic materials, such a non-oxide silicon material that includes at least one of silicon carbide, silicon, or silicon nitride, may be added to cordierite-forming batch mixtures as at least a partial replacement for conventional inorganic pore-formers. Non-oxide inorganic pore-formers may provide an increase in pore volume while having a reduced coefficient of thermal expansion impact as compared with conventional pore-formers. Cordierite-forming mixtures as disclosed herein may additionally include rare-earth catalysts and alkaline-earth materials that may enhance the pore-forming effect of non-oxide inorganic pore-formers without significant exothermic reactions or the production of emissions that may require additional processing treatments.

Abstract: An operations center that performs a method that includes receiving a live content feed of a live event, inserting a time indication in the live content feed to generate a marked feed, the time indication indicative of a receive time that the live content feed is received at the operations center, encoding the marked feed to generate an Internet Protocol (IP) feed, the IP feed being exchanged through the operations center, determining a read time during a skip offset process corresponding to when the time indication is identified in the skip offset process, determining a propagation delay based on the read time and the receive time and generating a broadcast output that transitions, based on the propagation delay, from one of (i) the live event to recorded content or (ii) recorded content to the live event.