Abstract: Various embodiments of a wirelessly powered local computing environment are described. The wireless powered local computing environment includes at least a near field magnetic resonance (NFMR) power supply arranged to wirelessly provide power to any of a number of suitably configured devices. In the described embodiments, the devices arranged to receive power wirelessly from the NFMR power supply must be located in a region known as the near field that extends no further than a distance D of a few times a characteristic size of the NFMR power supply transmission device. Typically, the distance D can be on the order of 1 meter or so.

Abstract: A receptacle connector for a electronic device includes two sets of contacts arranged in two opposing rows in a cavity. A corresponding plug connector can be inserted into the receptacle connector so as to contact both sets of contacts. The receptacle connectors includes contacts that are dedicated for DisplayPort signals and contacts that provide non-DisplayPort signals. The contacts dedicated for DisplayPort signals are only enabled if the electronic device receives a notification from a connected accessory that that the accessory supports DisplayPort capability. Otherwise these contacts are in an “open” or deactivated state.

Abstract: Various embodiments of a wirelessly powered local computing environment are described. The wireless powered local computing environment includes at least a near field magnetic resonance (NFMR) power supply arranged to wirelessly provide power to any of a number of suitably configured devices. In the described embodiments, the devices arranged to receive power wirelessly from the NFMR power supply must be located in a region known as the near field that extends no further than a distance D of a few times a characteristic size of the NFMR power supply transmission device. Typically, the distance D can be on the order of 1 meter or so.

Abstract: Various embodiments of a wirelessly powered local computing environment are described. The wireless powered local computing environment includes at least a near field magnetic resonance (NFMR) power supply arranged to wirelessly provide power to any of a number of suitably configured devices. In the described embodiments, the devices arranged to receive power wirelessly from the NFMR power supply must be located in a region known as the near field that extends no further than a distance D of a few times a characteristic size of the NFMR power supply transmission device. Typically, the distance D can be on the order of 1 meter or so.

Abstract: A receptacle connector for a electronic device includes two sets of contacts arranged in two opposing rows in a cavity. A corresponding plug connector can be inserted into the receptacle connector so as to contact both sets of contacts. The receptacle connectors includes contacts that are dedicated for DisplayPort signals and contacts that provide non-DisplayPort signals. The contacts dedicated for DisplayPort signals are only enabled if the electronic device receives a notification from a connected accessory that that the accessory supports DisplayPort capability. Otherwise these contacts are in an “open” or deactivated state.

Abstract: Various embodiments of a wirelessly powered local computing environment are described. The wireless powered local computing environment includes at least a near field magnetic resonance (NFMR) power supply arranged to wirelessly provide power to any of a number of suitably configured devices. In the described embodiments, the devices arranged to receive power wirelessly from the NFMR power supply must be located in a region known as the near field that extends no further than a distance D of a few times a characteristic size of the NFMR power supply transmission device. Typically, the distance D can be on the order of 1 meter or so.

Abstract: Embodiments may take the form of three-dimensional image sensing devices configured to capture an image including one or more objects. In one embodiments, the three-dimensional image sensing device includes a first image device configured to capture a first image and extract depth information for the one or more objects. Additionally, the image sensing device includes a second imaging device configured to capture a second image and determine an orientation of a surface of the one or more objects.

Abstract: Methods and apparatuses for variable length encoding using a vector processing unit. In one aspect of the invention, a method for execution by a microprocessor to perform variable length encoding includes: receiving a plurality of parameters, each of the plurality of parameters corresponding to one of a plurality of symbols to be variable length encoded; generating concurrently a plurality of first codewords from the plurality of parameters to represent respectively the plurality of symbols; generating a plurality of lengths representing respectively bit lengths of the plurality of first codewords; and outputting the plurality of first codewords and the plurality of lengths; where the above operations are performed in response to the microprocessor receiving a single instruction.

Abstract: Methods and apparatuses for variable length encoding using a vector processing unit. In one aspect of the invention, a method for execution by a microprocessor to perform variable length encoding includes: receiving a plurality of parameters, each of the plurality of parameters corresponding to one of a plurality of symbols to be variable length encoded; generating concurrently a plurality of first codewords from the plurality of parameters to represent respectively the plurality of symbols; generating a plurality of lengths representing respectively bit lengths of the plurality of first codewords; and outputting the plurality of first codewords and the plurality of lengths; where the above operations are performed in response to the microprocessor receiving a single instruction.

Abstract: Methods and apparatuses for run length encoding using a vector processing unit. In one aspect of the invention, a method for execution by a microprocessor in response to the microprocessor receiving a single instruction includes: receiving a first list of a plurality of elements from a first vector register; generating a plurality of run values respectively for the first list of elements, at least one of the plurality of run values indicating the number of consecutive elements of a first value immediately preceding the corresponding element in the first list; and outputting the plurality of run values into a second vector register; where the above operations are performed in response to the microprocessor receiving the single instruction.

Abstract: Methods and apparatuses for concatenating codewords of variable lengths using a vector processing unit. In one aspect of the invention, a method for execution by a microprocessor to pack bit streams of variable lengths including: receiving a first bit segment from a first vector register; receiving a second bit segment from a second vector register; determining whether or not the sum of the bit length of the first bit segment and the bit length of the second bit segment is larger than a required length; generating a third bit segment from the first and second bit segments; and outputting the third bit segment in a third vector register; where the above operations are performed in response to the microprocessor receiving a first single instruction.