Abstract: A sensing and/or beacon device comprising: a flexible substrate; a flexible organic photovoltaic (OPV) module comprising a plurality of organic photovoltaic cells disposed on the flexible substrate; a top electrode and a bottom electrode incorporated into the flexible OPV module, wherein the top electrode and the bottom electrode are at least partially exposed; a first encapsulation covering the flexible substrate and the flexible OPV modules, a flexible hybrid electronics (FHE) device disposed on a side of the first encapsulation, wherein the FHE device comprises flexible electronics and die components, the flexible electronics comprising conductive traces, and wherein the FHE device completes an electrical contact with the fop electrode and the bottom electrode; a second encapsulation covering the flexible substrate, the flexible OPV module, the first encapsulation, and the FHE device; and an adhesive disposed on the second encapsulation.

Abstract: Embodiments disclosed herein include fastener assemblies. In an embodiment, a fastener assembly comprises a sleeve with a hole, an inner surface, and top and bottom ends. The top end has a planar surface, and the inner surface has a cylindrical surface. The fastener assembly includes a fastener downwardly extending through the hole, and having a drive slot, a head, a shank, and a threaded region. The head is positioned within the bottom end. The head is separated from the threaded region by the shank. The fastener assembly comprises a cover disposed on the top end and having an access hole and top and bottom surfaces. The cover is welded to the sleeve to define an inner cavity between the cover, sleeve, and fastener head. The access hole is positioned over the drive slot. The cover, sleeve, and fastener comprises materials having high temperature, strength and oxidation resistances.

Abstract: Systems, apparatuses and methods may provide for technology that receives parameter results and scores of one or more local sessions with respect to subcircuit components in a bounded area, aggregates the parameter results and scores, and generates a global placement model based on an output of the aggregated parameter results and scores.

Abstract: Seals for gimbaling and/or fixed rocket engine nozzles, and associated systems and methods are disclosed. A representative rocket propulsion system includes a rocket engine having an exhaust nozzle, a seal plate carried by the exhaust nozzle, and a seal engaged with the seal plate. The seal includes at least one support, multiple pivotable first flaps, carried by the at least one support and positioned to contact the seal plate, and multiple pivotable second flaps, with an individual second flap positioned to shield a corresponding individual first flap. At least one forcing element is operatively coupled to at least one of the individual first flap or the individual second flap, to apply a pivoting force to the at least one of the individual first flap or the individual second flap.

Abstract: Systems, apparatuses and methods may provide for technology that identifies a plurality of functional blocks in a circuit, wherein each functional block includes a plurality of components, conducts one or more passes of a first optimization loop to determine candidate aspect ratios for the functional blocks based on size data associated with the components, and conducts, within the one or more passes of the first optimization loop, one or more passes of a second optimization loop to determine candidate floorplan data for the circuit based on the candidate aspect ratios.

Abstract: Seals for gimbaling and/or fixed rocket engine nozzles, and associated systems and methods are disclosed. A representative rocket propulsion system includes a rocket engine having an exhaust nozzle, a seal plate carried by the exhaust nozzle, and a seal engaged with the seal plate. The seal includes at least one support, multiple pivotable first flaps, carried by the at least one support and positioned to contact the seal plate, and multiple pivotable second flaps, with an individual second flap positioned to shield a corresponding individual first flap. At least one forcing element is operatively coupled to at least one of the individual first flap or the individual second flap, to apply a pivoting force to the at least one of the individual first flap or the individual second flap.

Abstract: Methods, systems, and apparatus to reconfigure a computer are disclosed. An example electronic device includes at least one memory, instructions in the electronic device, and processor circuitry to execute instructions to analyze data corresponding to a first configuration of the electronic device to detect a change associated with the electronic device, the first configuration corresponding to a respective first user profile, determine a second configuration of the electronic device based on the detected change, and adjust a configuration of the electronic device from the first configuration to the second configuration.

Abstract: Techniques for determining the spectral content of a data bus are described herein. An example of a device in accordance with the present techniques includes a data bus comprising one or more signal lines, a first phasor generator, and a second phasor generator. The first phasor generator obtains a first data value based on the data to be transmitted over the data bus and generates a first phasor. The second phasor generator obtains a second data value based on the data to be transmitted over the data bus and generates a second phasor. The sum of the first phasor and the second phasor indicate, at least in part, the spectral content of the data to be transmitted over the data bus.

Abstract: Techniques for determining the spectral content of a data bus are described herein. An example of a device in accordance with the present techniques includes a data bus comprising a plurality of signal lines, a first phasor generator, and a second phasor generator. The first phasor generator obtains a first pulse sample based on the data to be transmitted over the data bus and generates a first phasor. The second phasor generator to obtain a second pulse sample based on the data to be transmitted over the data bus and generates a second phasor. The sum of the first phasor and the second phasor indicate, at least in part, the spectral content of the data to be transmitted over the data bus.

Abstract: A technique is discussed for a different memory sub system topology to allow for separating impedance discontinuity The trace lengths from the MCH and the trace lengths to each memory device is calculated based at least in part on a frequency domain and time domain analysis. The new topology improves the impedance discontinuity that was evident in the P22P topology.