Abstract: A porous electrolyte structure for a solid state battery is provided. The porous electrolyte structure has an interconnected ceramic matrix with a network of open pores disposed throughout a thickness of the porous electrolyte structure. The porous electrolyte structure includes a porosity of about 20% by volume to about 80% by volume. A solid state battery cell including the porous electrolyte structure and a method of making the solid state battery cell are also provided.

Abstract: A method of imprint lithography mold defect mitigation and a masked imprint lithography mold employ a masking layer to selectively cover a surface defect. The method of imprint lithography mold defect mitigation includes depositing a masking layer on a surface of an imprint lithography mold to selectively cover a defect on the surface and form a masked imprint lithography mold. The method of imprint lithography mold defect mitigation further includes forming a negative imprint lithography mold from the masked imprint lithography mold. The masked imprint lithography mold includes an imprint lithography mold having a surface with a defect and a patterned masking layer affixed to the surface and configured to selectively cover the defect. The patterned masking layer that selectively covers the defect is configured to mitigate an effect of the defect when the masked imprint lithography mold is employed in imprint lithography.

Abstract: The disclosure provides at least one entity chosen from compounds of formula (I), solid state forms of the same, compositions comprising the same, and methods of using the same, including use in treating focal segmental glomerulosclerosis (FSGS) and/or non-diabetic kidney disease (NDKD).

Abstract: Systems and methods for aligning gas chromatography peaks are disclosed. An example method includes receiving chromatographic data of a user that includes data representing at least one volatile organic compound (VOC), and analyzing the chromatographic data using a trained peak alignment model to output a set of peak match probabilities. The trained peak alignment model may be trained using a plurality of chromatographic data to output a plurality of peak match probabilities. The example method may further include generating a set of identified VOCs between the chromatographic data and a set of reference VOCs by applying a post-processing algorithm to the set of peak match probabilities; and causing the set of identified VOCs to be displayed to the user.

Abstract: A camera system for a venue including a camera mounted above the venue; a server including artificial intelligence (AI) adapted to follow a subject having a position; the AI adapted to generate aiming instructions based on the position of the subject. The camera being in communication with the server to receive and implement the aiming instructions. The camera system may include a wide area LED light mounted to a light pole. The camera may be mounted to the light pole. The camera system may include wide area LED light is in communication with the server. The wide area LED light produces light at an intensity and the server is adapted to vary the intensity based on the position of the subject.

Abstract: Aspects of the disclosure provide for the generation of a driving difficulty heat map for autonomous vehicles. For instance, log data generated by a vehicle being driven in a manual driving mode for a segment of a route may be input into a disengage model in order to generate an output identifying a likelihood of a vehicle driving in an autonomous driving mode requiring a disengage from the autonomous driving mode along the segment of the route. The log data may have been collected within a geographic area. A grid for the geographic area may be generated. The grid may include a plurality of cells. The output is assigned to one of the plurality of cells. The plurality of cells and assigned output may be used to generate a driving difficulty heat map for the geographic area.

Abstract: Disclosed herein are pharmaceutical compositions comprising an azobenzene photoswitch compound and an alkylated cyclodextrin. Such compositions may be administered to the eye to treat a variety of retina disorders.

Abstract: Aspects of the disclosure provide for the generation of a driving difficulty heat map for autonomous vehicles. For instance, log data generated by a vehicle being driven in a manual driving mode for a segment of a route may be input into a disengage model in order to generate an output identifying a likelihood of a vehicle driving in an autonomous driving mode requiring a disengage from the autonomous driving mode along the segment of the route. The log data may have been collected within a geographic area. A grid for the geographic area may be generated. The grid may include a plurality of cells. The output is assigned to one of the plurality of cells. The plurality of cells and assigned output may be used to generate a driving difficulty heat map for the geographic area.

Abstract: A loop track for toy vehicles comprising a baseplate and an extensible helical loop connected to the baseplate. The baseplate includes an inlet pathway and two or more outlet pathways positioned laterally along the baseplate. A first end of the helical loop is connected to the inlet pathway. A second end of the helical loop is removably connected to one of the two or more outlet pathways by laterally extending or contracting the helical loop. The loop track has a plurality of configurations and the configuration of the loop track is determined by the outlet pathway connected to the second end of the helical loop.

Abstract: A toy vehicle booster is presented herein. The toy vehicle booster includes a booster assembly that is integrated into a lid of a track storage container so that the toy vehicle booster forms a portion of a storage container for a track set. In some instances, the booster assembly includes a first booster and a second booster. The first booster may accelerate toy vehicles along a first pathway and the second booster may accelerate toy vehicles along a second pathway. In at least some of these embodiments, at least the second booster may be reversible so that the second booster can accelerate toy vehicles along the second pathway in a first direction or a second direction opposite the first direction.

Abstract: A stackable track assembly and method for stacking a booster and/or track frame is disclosed. The stackable track assembly includes a base, a track portion disposed in the base, and a frame extending out of the base and laterally across the top of the base. The stackable track assembly further includes a tab and slot for laterally coupling two track assemblies. The stackable track assembly further includes a receiving member and engagement member for vertically and/or laterally coupling two track assemblies. In some implementations, the track assembly may include a booster for accelerating a toy vehicle.

Abstract: A loop track for toy vehicles comprising a baseplate and an extensible helical loop connected to the baseplate. The baseplate includes an inlet pathway and two or more outlet pathways positioned laterally along the baseplate. A first end of the helical loop is connected to the inlet pathway. A second end of the helical loop is removably connected to one of the two or more outlet pathways by laterally extending or contracting the helical loop. The loop track has a plurality of configurations and the configuration of the loop track is determined by the outlet pathway connected to the second end of the helical loop.

Abstract: A toy vehicle booster is presented herein. The toy vehicle booster includes a booster assembly that is integrated into a lid of a track storage container so that the toy vehicle booster forms a portion of a storage container for a track set. In some instances, the booster assembly includes a first booster and a second booster. The first booster may accelerate toy vehicles along a first pathway and the second booster may accelerate toy vehicles along a second pathway. In at least some of these embodiments, at least the second booster may be reversible so that the second booster can accelerate toy vehicles along the second pathway in a first direction or a second direction opposite the first direction.

Abstract: A stackable track assembly and method for stacking a booster and/or track frame is disclosed. The stackable track assembly includes a base, a track portion disposed in the base, and a frame extending out of the base and laterally across the top of the base. The stackable track assembly further includes a tab and slot for laterally coupling two track assemblies. The stackable track assembly further includes a receiving member and engagement member for vertically and/or laterally coupling two track assemblies. In some implementations, the track assembly may include a booster for accelerating a toy vehicle.

Abstract: A toy vehicle track accessory comprising a main body having a first pathway, a second pathway, and a third pathway that bifurcates into the first and second pathways. A first track connector is pivotably coupled to the first pathway and is pivotable in a direction coplanar with the main body. A second track connector is pivotably coupled to the second pathway and is pivotable in a direction coplanar with the main body. A third track connector is pivotably coupled to the third pathway and is pivotable in a direction coplanar with the main body.

Abstract: A remotely controlled toy vehicle includes a front assembly, a rear assembly, a drive mechanism, and a roll mechanism. The front assembly and the rear assembly each include at least one wheel and the drive mechanism includes a drive motor configured to drive at least one of the at least one wheel of the front assembly and the at least one wheel of the rear assembly. The roll mechanism includes a roll motor configured to roll one of the front assembly and the rear assembly with respect to the other of the front assembly and the rear assembly.

Abstract: A remotely controlled toy vehicle includes a front assembly, a rear assembly, a drive mechanism, and a roll mechanism. The front assembly and the rear assembly each include at least one wheel and the drive mechanism includes a drive motor configured to drive at least one of the at least one wheel of the front assembly and the at least one wheel of the rear assembly. The roll mechanism includes a roll motor configured to roll one of the front assembly and the rear assembly with respect to the other of the front assembly and the rear assembly.

Abstract: An integrated circuit includes a component calculator configured to compute at least one component value of a highly programmable analog-to-digital converter (ADC) from at least one application parameter, and a mapping module configured to map the component value to a corresponding register setting of the ADC based on at least one process parameter, wherein the integrated circuit produces digital control signals capable of programming the ADC. In a specific embodiment, the component calculator uses an algebraic function of a normalized representation of the application parameter to approximately evaluate at least one normalized ADC coefficient. The component value is further calculated by decimalizing the normalized ADC coefficient. In another specific embodiment, the component calculator uses an algebraic function of the application parameter to calculate the component value.

Abstract: An integrated circuit includes a component calculator configured to compute at least one component value of a highly programmable analog-to-digital converter (ADC) from at least one application parameter, and a mapping module configured to map the component value to a corresponding register setting of the ADC based on at least one process parameter, wherein the integrated circuit produces digital control signals capable of programming the ADC. In a specific embodiment, the component calculator uses an algebraic function of a normalized representation of the application parameter to approximately evaluate at least one normalized ADC coefficient. The component value is further calculated by decimalizing the normalized ADC coefficient. In another specific embodiment, the component calculator uses an algebraic function of the application parameter to calculate the component value.