Abstract: In some implementations, an emitter assembly includes a vertical cavity surface emitting laser (VCSEL) chip including a plurality of VCSELs in a bottom-emitting configuration, and multiple VCSELs, of the plurality of VCSELs, may be grouped in a cluster. The emitter assembly may include a carrier, and the VCSEL chip may be in a flip chip configuration with the carrier. The emitter assembly may include a conductive pillar electrically connected to the multiple VCSELs grouped in the cluster.

Abstract: In some implementations, an emitter assembly includes a vertical cavity surface emitting laser (VCSEL) chip including a plurality of VCSELs. The emitter assembly may include a plurality of conductive pillars electrically connected to the VCSEL chip, and a conductive pillar, of the plurality of conductive pillars, may have a solder cap at an end of the conductive pillar. The emitter assembly may include a pin extending into the solder cap.

Abstract: In some implementations, an emitter assembly includes a vertical cavity surface emitting laser (VCSEL) chip including a plurality of VCSELs respectively associated with a plurality of first electrical contacts. A first spacing of the plurality of first electrical contacts may define a first pitch. The emitter assembly may include a redistribution layer, disposed on the VCSEL chip, to increase the first pitch of the plurality of first electrical contacts. The emitter assembly may include a carrier having a plurality of second electrical contacts. A second spacing of the plurality of second electrical contacts may define a second pitch greater than the first pitch. The emitter assembly may include a plurality of conductive pillars that electrically connect the plurality of first electrical contacts and the plurality of second electrical contacts via the redistribution layer. The plurality of conductive pillars may be arranged according to the second spacing.

Abstract: In some implementations, an emitter assembly includes a vertical cavity surface emitting laser (VCSEL) chip including a plurality of VCSELs. The emitter assembly may include a plurality of conductive pillars electrically connected to the VCSEL chip. The emitter assembly may include a dummy pillar, electrically isolated from the VCSEL chip, mating with a slot. The VCSEL chip may include one of the dummy pillar or the slot.

Abstract: The present invention is directed to compounds of formula I The compounds are considered useful for the treatment of diseases associated with LRRK2 such as Parkinson's disease.

Abstract: The present embodiments introduce a new type of random access point in video bitstreams that can be used for random access operations but can be represented in encoded form at a lower bit-cost as compared to IRAP pictures. The random access point is a dependent random access point (DRAP) picture that is encoded and decoded using an IRAP picture and/or a previous, according to a decoding order, DRAP picture as sole reference picture(s) for the DRAP picture. The DRAP picture is encoded as a trailing picture that may be used for reference and constitutes a random access point in a video bitstream.

Abstract: A method for extracting entities comprises obtaining a document that includes a series of textual fields that includes a plurality of entities. Each entity represents information associated with a predefined category. The method includes generating, using the document, a series of tokens representing the series of textual fields. The method includes generating an entity prompt that includes the series of tokens and one of the plurality of entities and generating a schema prompt that includes a schema associated with the document. The method includes generating a model query that includes the entity prompt and the schema prompt and determining, using an entity extraction model and the model query, a location of the one of the plurality of entities among the series of tokens. The method includes extracting, from the document, the one of the plurality of entities using the location of the one of the plurality of entities.

Abstract: A prediction unit (60) for an encoder (24) or decoder (44) implements matrix based intra prediction Input boundary samples for a current block are downsampled to obtain reduced boundary samples for matrix multiplication and/or linear interpolation, or both. In one embodiment, downsampling is performed in a manner that aligns the reduced boundary samples with an output of a matrix multiplication unit of the prediction unit. In other embodiments, downsampling is performed without averaging. The embodiments reduce the complexity of the prediction unit and the latency of the encoder (24) or decoder (44).

Abstract: The present invention relates to the production of steviol glycoside rebaudiosides D4, WB1 and WB2 and the production of rebaudioside M from Reb D4.

Abstract: A method, decoder, and apparatus are provided. Responsive to a current block being a MIP predicted block, it is determined whether it has one or multiple transform blocks. A MIP weight matrix to be used to decode the current block is determined based on a MIP prediction mode. Responsive to the MIP predicted block having one transform block, the MIP predicted block is derived based on the MIP weight matrix and previously decoded elements in the bitstream. Responsive to the MIP predicted block having multiple transform blocks: deriving a first MIP predicted block is derived based on the MIP weight matrix and previously decoded elements in the bitstream and remaining MIP predicted blocks are derived based further on decoded elements in at least one decoded transform block of the current block. The MIP predicted block(s) are output for subsequent processing.

Abstract: Methods, systems, and devices related to built-in self-test (BIST) circuitry of a controller. The controller can be coupled to multiple memory devices. The BIST circuitry can include registers configured to store burst patterns. The BIST circuitry can perform a BIST operation on the memory devices contemporaneously and using the number of burst patterns.

Abstract: A method for decoding a current block in a current picture of a video bitstream includes decoding, from the video bitstream, a first motion vector for the current block relative to a first reference block of a first reference picture having a first picture order count, and decoding, from the video bitstream, a second motion vector for the current block relative to a second reference block of a second reference picture having a second picture order count. A similarity metric is generated based on a comparison of the first motion vector and the second motion vector. The method further includes determining whether to refine the first motion vector based on the similarity metric, generating a first refined motion vector from the first motion vector, and performing motion compensation to derive a first reference block from the first reference picture using the first refined motion vector.

Abstract: Embodiments are directed towards mobile application development in a cloud-based architecture. Mobile applications may be designed to communicate with a cloud platform over a network. Mobile application developers may be enabled to submit cloud code to cloud platforms for use by mobile applications. If cloud code is provided to a cloud platform, the cloud platform may perform one or more actions to authenticate the cloud code, such as, ensuring that that the user providing the cloud code is authorized to provide the cloud code. If the cloud code is authenticated the cloud platform may perform one or more actions to validate the cloud code. If validated, the cloud code may be activated for use by mobile applications and/or mobile application developers. Activation of the cloud code may include associating the cloud code with one or more function calls and/or with one or more trigger points.

Abstract: Embodiments are directed towards mobile application development in a cloud-based architecture. Mobile applications may be designed to communicate with a cloud platform over a network. Mobile application developers may be enabled to submit cloud code to cloud platforms for use by mobile applications. If cloud code is provided to a cloud platform, the cloud platform may perform one or more actions to authenticate the cloud code, such as, ensuring that that the user providing the cloud code is authorized to provide the cloud code. If the cloud code is authenticated the cloud platform may perform one or more actions to validate the cloud code. If validated, the cloud code may be activated for use by mobile applications and/or mobile application developers. Activation of the cloud code may include associating the cloud code with one or more function calls and/or with one or more trigger points.

Abstract: Embodiments are directed towards mobile application development in a cloud-based architecture. Mobile applications may be designed to communicate with a cloud platform over a network. Mobile application developers may be enabled to submit cloud code to cloud platforms for use by mobile applications. If cloud code is provided to a cloud platform, the cloud platform may perform one or more actions to authenticate the cloud code, such as, ensuring that that the user providing the cloud code is authorized to provide the cloud code. If the cloud code is authenticated the cloud platform may perform one or more actions to validate the cloud code. If validated, the cloud code may be activated for use by mobile applications and/or mobile application developers. Activation of the cloud code may include associating the cloud code with one or more function calls and/or with one or more trigger points.

Abstract: Embodiments are directed towards mobile application development in a cloud-based architecture. Mobile applications may be designed to communicate with a cloud platform over a network. Mobile application developers may be enabled to submit cloud code to cloud platforms for use by mobile applications. If cloud code is provided to a cloud platform, the cloud platform may perform one or more actions to authenticate the cloud code, such as, ensuring that that the user providing the cloud code is authorized to provide the cloud code. If the cloud code is authenticated the cloud platform may perform one or more actions to validate the cloud code. If validated, the cloud code may be activated for use by mobile applications and/or mobile application developers. Activation of the cloud code may include associating the cloud code with one or more function calls and/or with one or more trigger points.

Abstract: A video displaying method, applied to an electronic apparatus comprising a first display, comprising: (a) selecting a plurality of video contents from a plurality of candidate video contents; and (b) simultaneously displaying selected video contents selected in the step (a), respectively in sub-windows on the first display. Related video decoding methods are also disclosed.

Abstract: Embodiments are directed towards mobile application development in a cloud-based architecture. Mobile applications may be designed to communicate with a cloud platform over a network. Mobile application developers may be enabled to submit cloud code to cloud platforms for use by mobile applications. If cloud code is provided to a cloud platform, the cloud platform may perform one or more actions to authenticate the cloud code, such as, ensuring that that the user providing the cloud code is authorized to provide the cloud code. If the cloud code is authenticated the cloud platform may perform one or more actions to validate the cloud code. If validated, the cloud code may be activated for use by mobile applications and/or mobile application developers. Activation of the cloud code may include associating the cloud code with one or more function calls and/or with one or more trigger points.

Abstract: A video displaying method, applied to an electronic apparatus comprising a first display, comprising: (a) selecting a plurality of video contents from a plurality of candidate video contents; and (b) simultaneously displaying selected video contents selected in the step (a), respectively in sub-windows on the first display. Related video decoding methods are also disclosed.

Abstract: Embodiments are directed towards mobile application development in a cloud-based architecture. Mobile applications may be designed to communicate with a cloud platform over a network. Mobile application developers may be enabled to submit cloud code to cloud platforms for use by mobile applications. If cloud code is provided to a cloud platform, the cloud platform may perform one or more actions to authenticate the cloud code, such as, ensuring that that the user providing the cloud code is authorized to provide the cloud code. If the cloud code is authenticated the cloud platform may perform one or more actions to validate the cloud code. If validated, the cloud code may be activated for use by mobile applications and/or mobile application developers. Activation of the cloud code may include associating the cloud code with one or more function calls and/or with one or more trigger points.