Abstract: A light-emitting module structure comprises a support substrate and a micro-module disposed on or in the support substrate that extends over only a portion of the support substrate. The micro-module comprises a rigid module substrate, an inorganic light-emitting diode, a power source, and a control circuit. The inorganic light-emitting diode, the power source, and the control circuit are disposed on or in the module substrate and the control circuit receives power from the power source to control the inorganic light-emitting diode to emit light. A light conductor is disposed on or in the support substrate and in alignment with the micro-module so that the inorganic light-emitting diode is disposed to emit light into the light conductor and the light conductor conducts the light beyond the micro-module to emit the light from the light conductor.

Abstract: A computer-implemented method executed by one or more processors includes receiving interconnection data for a proposed interconnection to a power grid; accessing a power grid model including a topological representation of the power grid, electrical specifications of grid components, and empirical operation characteristics; and generating, using the interconnection data for the proposed interconnection to the power grid, and the power grid model, simulated power grid data. The simulated power grid data is based on simulating operation of the power grid with the proposed interconnection coupled to a location of the power grid identified by the interconnection data during a simulated time period. The simulated power grid data includes a plurality of different temporal and spatially dependent characteristics of the power grid. The method includes evaluating, using one or more metrics, the simulated power grid data; and outputting evaluation results of the one or more metrics.

Abstract: Techniques for providing carbon dioxide include generating thermal energy, an exhaust fluid, and electrical power from a power plant; providing the exhaust fluid and the generated electrical power to an exhaust fluid scrubbing system to separate components of the exhaust fluid; capturing heat from a source of heat of an industrial process in a heating fluid; transferring the heat of the industrial process captured in the heating fluid to a carbon dioxide source material of a direct air capture (DAC) system; providing the generated electrical power from the power plant to the DAC system; providing the thermal energy from the power plant to the DAC system; and separating, with the transferred portion of the heat of the industrial process and the provided thermal energy, carbon dioxide from the carbon dioxide source material of the DAC system.

Abstract: An LED backlight driving circuit with a voltage regulating unit is provided. The LED backlight driving circuit includes a power supply unit, an LED string, an ADC voltage detection circuit, and a driving controller; the ADC voltage detection circuit is used to detect a voltage value Vled of a negative terminal of a LED string, and the ADC voltage detection circuit includes an ADC sampling module that converts the measured voltage value Vled at the negative terminal of the LED string into a voltage numerical code; for the numerical code of the negative terminal voltage value Vled measured by the ADC sampling module, a first threshold V1 and a second threshold V2 are set.

Abstract: A redundant pixel layout for a display comprises a display substrate and an array of pixels disposed on or over the display substrate. Each pixel comprises a first subpixel and a redundant second subpixel. The first subpixel includes a first subpixel controller electrically connected to controller wires and a first light emitter electrically connected to a first-light-emitter wire. The first light emitter is controlled by the first subpixel controller through the first-light-emitter wire. The second subpixel includes a second-subpixel-controller location connected to the controller wires and a second-light-emitter location comprising a second-light-emitter wire. The first light emitter is adjacent to the second-light-emitter location and the first light emitter and the second-light-emitter location are closer together than are any two pixels in the array of pixels.

Abstract: A micro-device structure includes an insulating layer and a micro-device disposed on the insulating layer. A pocket is formed in the micro-device that extends from a surface of the micro-device opposite the insulating layer through the micro-device to the insulating layer. A micro-component is disposed in the pocket and is non-native to the micro-device and the insulating layer. The micro-component can emit or receive light through the insulating layer and can be connected to and controlled by a micro-circuit disposed in the micro-device.

Abstract: A multi-component transistor structure includes components each comprising an individual, discrete, and separate component substrate and a component transistor. The component transistor includes a transistor element having a transistor element resistance. A component connection is disposed external to the transistor element and has a connection resistance. The component connection electrically connects the transistor elements in the components in parallel. The connection resistance is less than the transistor element resistance of at least one corresponding transistor element, less than an average of the transistor element resistances of all of the corresponding transistor elements, or less than the sum of all of the transistor element resistances of all of the corresponding transistor elements. The component transistors are functionally similar and at least one of the components is disposed on another different one of the components in a component stack.

Abstract: The present invention provides a structure that is effective in providing a robot with appropriate warmth. A robot includes a frame, a surface skin that covers the frame, a heat source that heats a fluid, and a pressurizing unit that pressurizes a space enclosed by the frame. A heated fluid flows out from the space owing to the space being pressurized. A fluid layer is formed on an inner side of the surface skin covering the frame by the fluid that has flowed out from the space.

Abstract: The present invention relates to a method and system for analysing audio (eg. music) tracks. A predictive model of the neuro-physiological functioning and response to sounds by one or more of the human lower cortical, limbic and subcortical regions in the brain is described. Sounds are analysed so that appropriate sounds can be selected and played to a listener in order to stimulate and/or manipulate neuro-physiological arousal in that listener. The method and system are particularly applicable to applications harnessing a biofeedback resource.

Abstract: The embodiments disclose an LC-resonance sensor system for monitoring internal conditions of an enclosure. The system includes an LC temperature sensor, an LC pressure sensor, and an LC gas species sensor that each have an inductor and capacitor. The system uses a transmitting coil that transmits a wireless signal to each of the LC sensors, and receiving coils for each of the sensors that receive wireless signals from the LC sensors.

Abstract: A Secure Environment Public Register (SEPR) provides a method and system that allows precious metals in the shape of bar(s) or units to be certified, specially numbered to provide exact linkage to an owner, allow secure movement of precious metals between secure facilities, and though Blockchain allow secure transfer of ownership between individuals and organizations. The SEPR allows gold and other precious metals to be easily held and traded in commerce with all the advantages of holding precious metals. The SEPR system allows exact audits of the metal bars on hand and avoids over-selling units since each bar is serialized and ownership is documented in a public register.

Abstract: A system may include a physically secure environment configured to receive precious metal thereto, to retain precious metal therein, and release precious metal therefrom. A system may include a registration system configured to record and maintain records containing unique precious metal identification information, physically secure location information of precious metal, lot identification information of precious metal, and one of certification information or de-processing information of precious metal. A system may include allocating a portion of a total quantity of certified standard uniform characteristic (SUC) precious metal units in a first location within the physically secure environment to be associated with a first lot and creating a first private registry with corresponding records associated with the allocated portion of certified SUC precious metal units in the first location.

Abstract: The disclosure provides a method for forming a core layer for a plurality of information carrying cards, a resulting core layer, and a resulting information carrying card. A first portion of a crosslinkable polymer composition is dispensed onto the first thermoplastic layer. A second thermoplastic layer having a plurality of through-holes therein is then applied. A second portion of the crosslinkable polymer composition is dispensed into each through-hole. An inlay layer is placed over the polymer composition inside each through-hole. A third portion of the crosslinkable polymer composition is dispensed over each inlay layer. A third thermoplastic layer or a release film is placed over the third portion of the crosslinkable polymer composition to provide a layered structure. Each respective inlay layer is configured to be movable and/or self-center inside each through-hole in the presence of the crosslinkable polymer composition when the layered structure is pressed on a pressure.

Abstract: A method of calibrating a collimating lens system includes transmitting, using an optical transmitter, a beam out of an optical fiber and through a collimating lens of the collimating lens system. The beam is reflected off a perfect flat mirror positioned at an output of the collimating lens and back towards the collimating lens, and received, via the collimating lens, at a power meter connected to the optical fiber. The method also includes adjusting a position of a tip of the optical fiber proximal to the collimating lens while tracking a power reading using the power meter, selecting a calibration position of the optical fiber corresponding to a highest power reading, and securing the optical fiber relative to the collimating lens using the calibration position.

Abstract: A micro-module includes a module substrate, an antenna having antenna walls and an antenna top surface disposed on or over the module substrate, and a sealant disposed on the module substrate surface and on at least a portion of the antenna walls. The sealant extends to at least the antenna top surface. The antenna walls and sealant form an enclosed area of the module substrate surface surrounded by the antenna walls and sealant. A module circuit is disposed on or in the module substrate in the enclosed area. The module circuit is electrically connected to the antenna and is responsive to electrical signals received from the antenna. A cap is disposed on or over the antenna top surface and the sealant, encapsulating the module circuit.

Abstract: The present invention provides methods for cryopreserving a population of cells with improved cell viability. In some aspects, the method comprises contacting a population of cells with a peptoid polymer comprising one or more polar peptoid monomers, e.g., formulated in a cryoprotectant solution, and cooling the population of cells at a temperature of from 0° C. to about ?20° C. for a time period of at least about 3 hours to produce a population of supercooled cells. The supercooling methods of the present invention provide excellent post-thaw cell survival and recovery. In certain embodiments, the population of cells is present in a tissue or an organ that is cryopreserved by performing the supercooling methods of the present invention.

Abstract: A method for controlling an x-ray source comprises generating an electron beam for striking the target to generate x-rays and steering the electron beam to a desired location on the target using a first and a second steering system distributed along a flight tube. In this way, the beam can be steering to the desired location while also passing through the center of a focusing lens to maintain optimal beam characteristics. Also possible is scanning the electron beam over the target to find a fiducial mark. Then, a desired location can be found as an offset from this mark.

Abstract: A system and method for providing sensory relief from distractibility, inattention, anxiety, fatigue, and/or sensory issues to a user in need. The user can be autistic/neurodiverse, or neurotypical. The system can be configured to obtain user sensory sensitivity data indicating a user's visual, sonic, or interoceptive, sensitivities; determine, using at least the user sensory sensitivity data, sensory thresholds specific to the user and mediation data corresponding to mediations specific to the user; store the sensory thresholds and mediation data; record, using one or more sensors, a sensory input stimulus to the user; compare the sensory input stimulus with the sensory thresholds; in response to comparing the sensory input stimulus with the sensory thresholds, determine, based at least on the mediation data, a mediation to be provided to the user, the mediation configured to provide the user relief from distractibility, inattention, anxiety, fatigue, or sensory issues.

Abstract: The present application provides a robot that a user feels more strongly to be a living being. A robot includes a speech generating unit that generates speech and a speech output unit that outputs the generated speech. The robot outputs speech generated by the robot rather than outputting speech prepared in advance. Because of this, speech that is in accordance with sensor information can be generated and output, or speech unique to the robot can be generated and output.