Abstract: A circuit for transposing a matrix comprising reversal circuitry configured, for each of one or more diagonals of the matrix, to receive elements of the matrix in a first vector and generate a second vector that includes the elements of the matrix in an order that is a reverse of an order of the elements of the matrix in the first vector, and rotation circuitry configured, for each of the one or more diagonals of the matrix, to determine a number of positions by which to rotate the elements of the matrix in the second vector, receive the second vector of elements of the matrix, and generate a third vector that includes the elements of the matrix in the second vector in an order that is a rotation of the elements of the matrix in the second vector by the determined number of positions.

Abstract: A four-sided frame for a camera is disclosed. The four-sided frame includes a first side including a hinge mechanism and a second side having a first segment, a second segment that is separable from the first segment, and a latch mechanism. The four-sided frame includes a third side between the first side and the second side and a fourth side between the first side and the second side. The four-sided frame includes a latch mechanism that couples the first segment to the second segment. In an open configuration of the latch mechanism, the first segment and the second segment are separated to allow insertion or removal of the camera. In a closed configuration of the latch mechanism, a distance between the first segment and the second segment is reduced as compared to the open configuration and the four-sided frame secures the outer perimeter of the camera.

Abstract: A camera mounting system has an upper mount component, a lower mount component, and a base mount component. The upper mount component secures the camera and has a ball protrusion that reciprocally couples with a socket of the lower mount component. The upper mount component can rotate 360 degrees relative to the lower mount, and can pivot 90 degrees or more relative to the lower mount component. The lower mount component couples with the base mount component in a plurality of orientations. This camera mounting system allows for a large range of motion for the camera relative to the mounting system.

Abstract: A circuit comprises an input register configured to receive an input vector of elements, a control register configured to receive a control vector of elements, wherein each element of the control vector corresponds to a respective element of the input vector, and wherein each element specifies a permutation of a corresponding element of the input vector, and a permute execution circuit configured to generate an output vector of elements corresponding to a permutation of the input vector. Generating each element of the output vector comprises accessing, at the input register, a particular element of the input vector, accessing, at the control register, a particular element of the control vector corresponding to the particular element of the input vector, and outputting the particular element of the input vector as an element at a particular position of the output vector that is selected based on the particular element of the control vector.

Abstract: One embodiment provides a method, including: obtaining, using a sensor, biometric data of a user; determining, using a processor, that the biometric data of the user does not match biometric data of a known user; and adjusting, based on the biometric data of the user, a vehicle setting. Other aspects are described and claimed.

Abstract: A camera housing includes a main body having four sides that form a cavity to receive a camera, a door detachably coupled to the main body, and an exposed area in the main body allowing a user to manipulate a button on the camera or access an I/O or microphone interface of the camera. The camera housing includes an indicator window substantially aligning with a visible indicator on the camera, a latch detachably securing a first side of the door to a first side of the main body; and a hinge coupling a second side of the door to a second side of the main body. The camera housing includes securing protrusions that interlock with corresponding mounting protrusions extending from a camera mount. A front face and a rear face of the camera are exposed when the camera is secured by the door in the camera housing.

Abstract: In one aspect, a first device includes a processor and storage accessible to the processor. The storage bears instructions executable by the processor to analyze an electrical characteristic associated with an apparatus and perform one or more actions pertaining to authentication of the apparatus based on the analysis of the electrical characteristic.

Abstract: A circuit for transposing a matrix comprising reversal circuitry configured, for each of one or more diagonals of the matrix, to receive elements of the matrix in a first vector and generate a second vector that includes the elements of the matrix in an order that is a reverse of an order of the elements of the matrix in the first vector, and rotation circuitry configured, for each of the one or more diagonals of the matrix, to determine a number of positions by which to rotate the elements of the matrix in the second vector, receive the second vector of elements of the matrix, and generate a third vector that includes the elements of the matrix in the second vector in an order that is a rotation of the elements of the matrix in the second vector by the determined number of positions.

Abstract: A camera mounting system has an upper mount component, a lower mount component, and a base mount component. The upper mount component secures the camera and has a ball protrusion that reciprocally couples with a socket of the lower mount component. The upper mount component can rotate 360 degrees relative to the lower mount, and can pivot 90 degrees or more relative to the lower mount component. The lower mount component couples with the base mount component in a plurality of orientations. This camera mounting system allows for a large range of motion for the camera relative to the mounting system.

Abstract: A circuit comprises an input register configured to receive an input vector of elements, a control register configured to receive a control vector of elements, wherein each element of the control vector corresponds to a respective element of the input vector, and wherein each element specifies a permutation of a corresponding element of the input vector, and a permute execution circuit configured to generate an output vector of elements corresponding to a permutation of the input vector. Generating each element of the output vector comprises accessing, at the input register, a particular element of the input vector, accessing, at the control register, a particular element of the control vector corresponding to the particular element of the input vector, and outputting the particular element of the input vector as an element at a particular position of the output vector that is selected based on the particular element of the control vector.

Abstract: A vector processing unit is described, and includes processor units that each include multiple processing resources. The processor units are each configured to perform arithmetic operations associated with vectorized computations. The vector processing unit includes a vector memory in data communication with each of the processor units and their respective processing resources. The vector memory includes memory banks configured to store data used by each of the processor units to perform the arithmetic operations. The processor units and the vector memory are tightly coupled within an area of the vector processing unit such that data communications are exchanged at a high bandwidth based on the placement of respective processor units relative to one another, and based on the placement of the vector memory relative to each processor unit.

Abstract: For validating computing device firmware, systems, apparatus, and methods are disclosed. The apparatus includes a processor, and a memory that stores code executable by the processor, the code including code that acquires a firmware manifest for locally stored firmware, authenticates a digital signature of the firmware manifest, and validates contents of the locally stored firmware using the firmware manifest. The apparatus may also include code that generates a local firmware manifest from the firmware, wherein validating the contents of the firmware includes comparing the local firmware manifest to the firmware manifest. In certain embodiments, the apparatus may indicate, to a user, one of success and failure of the firmware validation. The firmware manifest may be a location-specific firmware manifest corresponding to a geographical location of the apparatus and/or computing device including the locally stored firmware.

Abstract: A circuit for performing neural network computations for a neural network comprising a plurality of layers, the circuit comprising: activation circuitry configured to receive a vector of accumulated values and configured to apply a function to each accumulated value to generate a vector of activation values; and normalization circuitry coupled to the activation circuitry and configured to generate a respective normalized value from each activation value.

Abstract: A vector processing unit is described, and includes processor units that each include multiple processing resources. The processor units are each configured to perform arithmetic operations associated with vectorized computations. The vector processing unit includes a vector memory in data communication with each of the processor units and their respective processing resources. The vector memory includes memory banks configured to store data used by each of the processor units to perform the arithmetic operations. The processor units and the vector memory are tightly coupled within an area of the vector processing unit such that data communications are exchanged at a high bandwidth based on the placement of respective processor units relative to one another, and based on the placement of the vector memory relative to each processor unit.

Abstract: A circuit comprises an input register configured to receive an input vector of elements, a control register configured to receive a control vector of elements, wherein each element of the control vector corresponds to a respective element of the input vector, and wherein each element specifies a permutation of a corresponding element of the input vector, and a permute execution circuit configured to generate an output vector of elements corresponding to a permutation of the input vector. Generating each element of the output vector comprises accessing, at the input register, a particular element of the input vector, accessing, at the control register, a particular element of the control vector corresponding to the particular element of the input vector, and outputting the particular element of the input vector as an element at a particular position of the output vector that is selected based on the particular element of the control vector.

Abstract: A circuit for performing neural network computations for a neural network comprising a plurality of layers, the circuit comprising: activation circuitry configured to receive a vector of accumulated values and configured to apply a function to each accumulated value to generate a vector of activation values; and normalization circuitry coupled to the activation circuitry and configured to generate a respective normalized value from each activation value.

Abstract: A swivel mount locking apparatus is configured to mount a camera system onto a target user, an object, or a surface. The camera system is mounted on a swivel component which can be rotated to a variety of different positions relative to a base component. To fix the camera position, a locking protrusion of a release lever in the base component is compressibly inserted into a detent located on the swivel component. When a new orientation of the camera system is desired, a user may forcibly pivot the release lever away from the swivel component to decouple the locking protrusion from the detent. The user can then rotate the mounted camera system and the swivel component to the new orientation relative to the base component. At the new orientation, the user may recouple the locking protrusion of the release lever into a different detent of the swivel component, thereby fixing the camera system into the desired, new orientation.

Abstract: Embodiments provide systems and methods for generating a street map that includes a position identifier that identifies a location on the street map. The method and system may also generate and display a plurality of images representative of the location of the position identifier. A user may interact with a position identifier or one of several scroll icons to view images of other locations on the street map and/or to obtain driving directions between two locations.