Abstract: According to an example aspect of the present invention, there is provided an apparatus comprising at least one processing core and at least one memory storing instructions that, when executed by the at least one processing core, cause the apparatus at least to transmit in uplink or sidelink, or receive in downlink, using orthogonal frequency-division multiplexing, via a physical shared channel in a system comprising resource block groups, each resource block group comprising two or more resource blocks, each resource block comprising plural subcarriers which are consecutive to each other in frequency, and process an allocation of resources for the physical shared channel, the allocation received from a network node, the allocation defining that the apparatus may use a part of, but not all, subcarriers of each one of one or more resource blocks for communication via the physical shared channel.

Abstract: A wearable device is described. The wearable device may be constructed of one or more flexible materials, and may be referred to as a flexible wearable device. The flexible wearable device may include a flexible housing that is made of a material that is elastically deformable, where the flexible housing at least partially surrounds components of the flexible wearable device. The flexible housing may include apertures disposed within the surface of the flexible housing to enable light to be transmitted and received through the flexible housing. The flexible wearable device may also include a printed circuit board (PCB) disposed within the flexible housing (e.g., within a cavity formed by the flexible housing). The PCB may include sensors configured to acquire physiological data from a user by transmitting light and receiving light through the apertures. The PCB may be constructed of flexible regions that are elastically deformable.

Abstract: According to an example embodiment, a radio receiver is configured to: obtain a data array including a plurality of elements, wherein each element in the plurality of elements in the data array corresponds to a sub-carrier in a plurality of subcarriers, to a timeslot in a time interval, and to an antenna stream; implement a machine learning model including at least one neural network and a transformation, wherein the transformation includes at least one multiplicative layer or equalisation; and input data into the machine learning model, wherein the data includes at least the data array; wherein the machine learning model is configured to, based on the data, output an output array representing values of the plurality of elements in the data array, wherein the values include bits or symbols. A radio receiver, a method and a computer program product are disclosed.

Abstract: Systems and devices for optimized structures for optical measurement are described. A wearable device may include a housing configured to house one or more sensors to acquire physiological data from a user. The wearable device may further include one or more light sources disposed on a surface of the housing and positioned to direct light into a tissue surface of the user and one or more detectors disposed on the surface of the housing and positioned to receive light from the one or more light sources along a plurality of optical paths where a first optical path may be through the tissue surface and a second optical path may be directly from the one or more light sources. The wearable device may include one or more light blocking components disposed on a surface of the housing that are configured to block stray light along the second optical path.

Abstract: According to an example embodiment, a radio receiver includes at least one processor and at least one memory including computer program code. The at least one memory and the computer program code may be configured to, with the at least one processor, cause the radio receiver to: obtain a data array including a plurality of elements, wherein each element in the plurality of elements in the data array corresponds to a subcarrier in a plurality of subcarriers and to a timeslot in a time interval; obtain a reference signal array representing a reference signal configuration applied during the time interval; implement a neural network; input data into the neural network, wherein the data includes at least the data array and the reference signal array. A radio receiver, a method and a computer program product are disclosed.

Abstract: In some examples, a node for a telecommunication network includes a neural-network-based receiver for uplink communications. The node is configured to modify the neural-network-based receiver to generate a set of modified receiver frameworks defining respective different versions for the receiver, using each of the modified receiver frameworks, generate respective measures representing bits encoded by a signal received at the node, calculate a value representing a variance of the measures, and on the basis of the value, determine whether to select the signal received at the node for use as part of a training set of data for the neural-network-based receiver.

Abstract: Methods, systems, and devices for wearable devices are described. A wearable device may include a first annular member forming the frame of the wearable device. The first annular member may include one or more deformable features that are configured to structurally weaken the frame of the wearable device and the one or more deformable features may be located along a portion of the frame. In some cases, the wearable device may include a first annular member and a second annular member to form a frame of the wearable device. The second annular member may include a non-metal material. The first annular member, the second annular member, or both, may include one or more deformable features that are configured to structurally weaken the frame of the wearable device and the one or more deformable features may be located along a portion of the frame.

Abstract: Methods, systems, and devices for optical signal measurement are described. A wearable electronic device may activate a first combination of optical sensors, the first combination of optical sensors including a set of transmitter sensors and a set of receiver sensors. In some cases, one or more optical sensor of the first combination of optical sensors may be positioned under a protrusion on an inner surface of the wearable electronic device. The device may measure, at the set of receiver sensors at a first time, one or more signals from the set of transmitter sensors, determine a signal quality metric associated with the one or more signals, and select a second combination of optical sensors for use at a second time based on the signal quality metric.

Abstract: An apparatus for a wearable device including a locking mechanism for components of the wearable device is described. A wearable ring device may include a ring-shaped housing configured to house one or more sensors configured to acquire physiological data from a user, and a flexible printed circuit board (PCB) including electrical circuitry for the one or more sensors. The wearable ring device may include one or more locking grooves disposed within an interior surface of the ring-shaped housing, the one or more locking grooves configured to receive the flexible PCB and maintain a gap between an inner circumferential surface of the ring-shaped housing and a first surface of the flexible PCB.

Abstract: Methods, systems, and devices for wireless charger are described. A charging device may include a base configured to receive a ring-shaped wearable device in multiple radial orientations relative to the base. The charging device may also include a magnetic component configured to magnetically attract a magnetic component of the ring-shaped wearable device to orient the wearable device in a single radial orientation relative to the base. The charging device may include an inductive charging component that may wireless charge the wearable device via an inductive charging component of the wearable device based on the inductive charging components being within a threshold distance.

Abstract: Disclosed is a method comprising providing a first resource grid as input to a first machine learning algorithm, obtaining a second resource grid as output from the first machine learning algorithm, and transmitting a signal comprising the second resource grid by using orthogonal frequency-division multiplexing modulation.

Abstract: Disclosed is a method comprising providing a first resource grid as input to a first machine learning algorithm, obtaining a second resource grid as output from the first machine learning algorithm, and transmitting a signal comprising the second resource grid by using orthogonal frequency-division multiplexing modulation.

Abstract: According to an aspect, a method in the radio head comprises receiving a reference signal from a terminal device, and computing a channel estimate on the basis of the reference signal and transferring the channel estimate with a first precision level to the network node over a link between the radio head and the network node. The first precision level defines a first number of bits carrying the channel estimate, then the method determines to change the precision level and, in response to the determining, transfers the channel estimate or a further channel estimate with a second precision level to the network node. The second precision level defines a second number of bits carrying the channel estimate or the further channel estimate, the second number being different from the first number.

Abstract: Method, apparatus, and computer program product embodiments enable a wireless docking center device to manage one or more wireless and/or wired peripheral devices on behalf of a wireless dockee device. In an example embodiment, a wireless docking system may automatically provide only those peripherals to user's attention, which are in direct relation to user's activity and are meaningful to the user at each point in time. The set of offered peripherals may depend on the application, for example, video playing or web browsing, running in user's dockee device, such as a smartphone. An example embodiment may automatically take into account known user preferences/habits, location, etc. The selection of peripherals offered may automatically provide the best technical performance, for example, best quality display for a video. An example embodiment also enables the docking solution to allocate optimum peripheral resources on a dynamic usage basis for each user.

Abstract: In accordance with an example aspect of the present invention, there is provided an apparatus comprising at least one receiver configured to obtain discovery information concerning a plurality of peripheral devices, at least one processing core configured to define a set of peripheral devices from among the plurality of peripheral devices, and to cause transmission, to a server, of device information concerning each peripheral device comprised in the set.

Abstract: In accordance with an example embodiment of the present invention, an apparatus comprising: at least one processor; and at least one memory including computer program code, wherein the at least one memory and the computer program code are configured to, with the at least one processor, cause the apparatus to perform at least the following: set from one edge against a surface location, detect that the one edge of the apparatus is against the surface location, and cause an angle of the apparatus towards a base station to be measured, wherein the angle is used to determine surface location for an antenna installation.

Abstract: Method, apparatus, and computer program product embodiments enable a wireless docking center device to manage one or more wireless and/or wired peripheral devices on behalf of a wireless dockee device. In an example embodiment, a wireless docking system may automatically provide only those peripherals to user's attention, which are in direct relation to user's activity and are meaningful to the user at each point in time. The set of offered peripherals may depend on the application, for example, video playing or web browsing, running in user's dockee device, such as a smartphone. An example embodiment may automatically take into account known user preferences/habits, location, etc. The selection of peripherals offered may automatically provide the best technical performance, for example, best quality display for a video. An example embodiment also enables the docking solution to allocate optimum peripheral resources on a dynamic usage basis for each user.

Abstract: Method, apparatus, and computer program product embodiments enable a wireless docking center device to manage one or more wireless and/or wired peripheral devices on behalf of a wireless dockee device. In an example embodiment, a wireless docking system may automatically provide only those peripherals to user's attention, which are in direct relation to user's activity and are meaningful to the user at each point in time. The set of offered peripherals may depend on the application, for example, video playing or web browsing, running in user's dockee device, such as a smartphone. An example embodiment may automatically take into account known user preferences/habits, location, etc. The selection of peripherals offered may automatically provide the best technical performance, for example, best quality display for a video. An example embodiment also enables the docking solution to allocate optimum peripheral resources on a dynamic usage basis for each user.

Abstract: Apparatuses may perform and methods may include receiving a digital broadcast signal that includes a physical layer pipe identified by a predetermined identifier indicating that the physical layer pipe includes service guide bootstrap information. The bootstrap information may identify one or more service guides available for download. The physical layer pipe may include header information that identifies one or more other physical layer pipes containing portions of the service guides identified in the bootstrap information. Based on the bootstrap information and header information, a selected service guide is retrieved and presented to a user.

Abstract: Method, apparatus, and computer program product embodiments enable a wireless docking center device to manage one or more wireless and/or wired peripheral devices on behalf multiple wireless dockee devices. An example embodiment of the invention includes receiving, by a wireless docking center device, at least two request messages for peripheral functions from at least two wireless dockee devices, including a first request message for a peripheral function from a first wireless dockee device, and a second request message for a peripheral function from a second wireless dockee device; and allocating, by the wireless docking center device, the requested peripheral function to the first wireless dockee device, based on determining at least a characteristic of the first request message indicates that the first wireless dockee device is entitled to the peripheral function.