Abstract: The present disclosure is drawn to, among other things, a method of managing a memory device. In some aspects, the method includes receiving data to be stored in a storage memory, wherein the storage memory is coupled to the memory device, wherein the memory device includes a first memory type and a second memory type different from the first memory type; storing a first copy of the received data in the first memory type; storing a second copy of the received data in the second memory type; receiving indication of a power loss to the memory device; in response to receiving indication of the power loss, copying the second copy from the second memory type to the storage memory; detecting for power restoration to the memory device after the power loss; and in response to detecting power restoration to the memory device, restoring data to the first memory type by copying data from the second memory type to the first memory type.

Abstract: There is provided a ventilating sill plate for elevating a wall portion from a receiving surface. The ventilating sill plate comprises at least one longitudinal base having a first and a second face opposite the first face extending along a longitudinal axis, the first and the second face extending laterally perpendicular to the longitudinal axis between a first and a second lateral side. A plurality of longitudinally spaced support legs extend away from the second face and define at least one ventilating channel extending from the first to the second lateral side of the at least one longitudinal base. A plurality of support pads project from the first face and collaborate for supporting the wall portion. A plurality of longitudinally spaced arms are shaped and sized to receive the wall portion therebetween.

Abstract: There is provided a ventilating sill plate for elevating a wall portion from a receiving surface. The ventilating sill plate comprises at least one longitudinal base having a first and a second face opposite the first face extending along a longitudinal axis, the first and the second face extending laterally perpendicular to the longitudinal axis between a first and a second lateral side. A plurality of longitudinally spaced support legs extend away from the second face and define at least one ventilating channel extending from the first to the second lateral side of the at least one longitudinal base. A plurality of support pads project from the first face and collaborate for supporting the wall portion. A plurality of longitudinally spaced arms are shaped and sized to receive the wall portion therebetween.

Abstract: Provided herein are engineered cells and methods for engineering cells to deliver a therapeutic agent, e.g., a small molecule, peptide or other drug, to a cell or tissue to be treated.

Abstract: Provided herein are engineered cells and methods for engineering cells to deliver a therapeutic agent, e.g., a small molecule, peptide or other drug, to a cell or tissue to be treated.

Abstract: A compound represented by the general formula (1) is useful as a light emitting material. In the general formula (1), Ar1 to Ar3 represent an aryl group, provided that Ar2 and Ar3 are the same as each other, and at least one of Ar1 to Ar3 represents an aryl group substituted with a group represented by the general formula (2). In the general formula (2), R1 to R8 represent a hydrogen atom or a substituent; Z represents O, S, R9—N, (R10) (R11)C, or (R12) (R13)Si; and R9 to R13 each independently represent a hydrogen atom or a substituent.

Abstract: The present disclosure is drawn to, among other things, a method of managing a memory device. In some aspects, the method includes receiving data to be stored in a storage memory, wherein the storage memory is coupled to the memory device, wherein the memory device includes a first memory type and a second memory type different from the first memory type; storing a first copy of the received data in the first memory type; storing a second copy of the received data in the second memory type; receiving indication of a power loss to the memory device; in response to receiving indication of the power loss, copying the second copy from the second memory type to the storage memory; detecting for power restoration to the memory device after the power loss; and in response to detecting power restoration to the memory device, restoring data to the first memory type by copying data from the second memory type to the first memory type.

Abstract: The present invention relates to a method of allowing users to insert themselves into movie clips, full movies, animations, music videos, commercials, sporting events and other videos. The method and computer apparatus, made up of one or more computer devices interconnected through the internet or network, allows the editing of existing videos by the creation of machine software code instruction templates to automate the editing of those videos, the method of allowing of users to record and edit their takes on those scenes and then insert their takes into the existing video using the automated template instructions that then automate the rendering of the new video composition. The present invention allows for the mass production of the new compositions to be streamed or shared as a custom video.

Abstract: An optical biometric sensor is disclosed. The optical biometric sensor includes a filter layer having a top surface and a bottom surface. The filter layer includes a light filter including a blocking material forming an array of apertures; a substrate including an electrical interconnect comprising a set of electrical conductors. The biometric sensor further includes an optical sensor including an array of sensing elements mounted to the bottom surface of the substrate, wherein sensing elements in the array of sensing elements sensors are aligned with the array of apertures and electrically connected to the electrical interconnect.

Abstract: A ventilating sill for elevating a wall partition from a floor surface in order to isolate the wall partition from moisture and humidity that can emanate from the floor surface or be present thereon. The ventilating sill includes a block having a support surface, a base surface, two opposed side surfaces and a plurality of spaced channels extending between the side surfaces forming channeled surfaces. The ventilating sill further includes a pair of slats, each slat extending from each side surface upwardly towards the wall partition at a right angle to the support surface, the slats defining a support area, and being adapted to guide the wall partition onto the support surface and at least one aperture communicating between the support area and an ambient environment for ventilating the support area and draining moisture and humidity therefrom.

Abstract: An optical biometric sensor is disclosed. The optical biometric sensor includes a filter layer having a top surface and a bottom surface. The filter layer includes a light filter including a blocking material forming an array of apertures; a substrate including an electrical interconnect comprising a set of electrical conductors. The biometric sensor further includes an optical sensor including an array of sensing elements mounted to the bottom surface of the substrate, wherein sensing elements in the array of sensing elements sensors are aligned with the array of apertures and electrically connected to the electrical interconnect.

Abstract: Methods of characterizing the time-based hepatotoxicity of a test compound are provided. In some embodiments the provided methods allow prediction of the hepatotoxic potential of a test compound in a way that is improved relative to that achievable with prior art methods. In some embodiments the methods may be used to quantify the relationship between measurements or estimates of toxicity made at different, successive points in time, to provide highly meaningful tool to assess the likely in vivo hepatotoxicity of test compounds in vivo.

Abstract: An integrated antenna package includes an interposer, an integrated circuit die, and a cap that forms a cavity within the integrated antenna package. A lossy EBG structure resides at the cap overlying the integrated circuit device. A lossless EBG structure resides at the cap overlying a microstrip feedline. A radar module includes a plurality of receive portions, each receive portion including a parabolic structure having a reflective surface, an absorber structure, a lens, and an antenna.

Abstract: A ventilating sill for elevating a wall partition from a floor surface in order to isolate the wall partition from moisture and humidity that can emanate from the floor surface or be present thereon. The ventilating sill includes a block having a support surface, a base surface, two opposed side surfaces and a plurality of spaced channels extending between the side surfaces forming channeled surfaces. The ventilating sill further includes a pair of slats, each slat extending from each side surface upwardly towards the wall partition at a right angle to the support surface, the slats defining a support area, and being adapted to guide the wall partition onto the support surface and at least one aperture communicating between the support area and an ambient environment for ventilating the support area and draining moisture and humidity therefrom.

Abstract: An integrated antenna package includes an interposer, an integrated circuit die, and a cap that forms a cavity within the integrated antenna package. A lossy ERG structure resides at the cap overlying the integrated circuit device. A lossless EBG structure resides at the cap overlying a microstrip feedline. A radar module includes a plurality of receive portions, each receive portion including a parabolic structure having a reflective surface, an absorber structure, a lens, and an antenna.

Abstract: A compound represented by the general formula (1) is useful as a light emitting material. In the general formula (1), Ar1 to Ar3 represent an aryl group, provided that Ar2 and Ar3 are the same as each other, and at least one of Ar1 to Ar3 represents an aryl group substituted with a group represented by the general formula (2). In the general formula (2), R1 to R8 represent a hydrogen atom or a substituent; Z represents O, S, R9—N, (R10) (R11) C, or (R12) (R13)Si; and R9 to R13 each independently represent a hydrogen atom or a substituent.

Abstract: Disclosed and claimed herein is a microwave assembly having a substrate comprising a microwave device; said device having a die, a first layer having a dielectric constant between about 1.00 and about 1.45 and a thickness between about 0.05 and about 2 mm along with one or more layers chosen from an absorbing layer, an EMI blocking layer, a layer comprising conductive material or a metal cover.

Abstract: An integrated antenna package includes an interposer, an integrated circuit die, and a cap that forms a cavity within the integrated antenna package. A lossy ERG structure resides at the cap overlying the integrated circuit device. A lossless EBG structure resides at the cap overlying a microstrip feedline. A radar module includes a plurality of receive portions, each receive portion including a parabolic structure having a reflective surface, an absorber structure, a lens, and an antenna.

Abstract: An integrated antenna package includes an interposer, an integrated circuit die, and a cap that forms a cavity within the integrated antenna package. A lossy EBG structure resides at the cap overlying the integrated circuit device. A lossless EBG structure resides at the cap overlying a microstrip feedline. A radar module includes a plurality of receive portions, each receive portion including a parabolic structure having a reflective surface, an absorber structure, a lens, and an antenna.