Abstract: To specify an arrangement and a method for measuring a field of vision of an eye (6) which, while avoiding the disadvantages of the prior art, enable an objective, less complex and more reliable measurement of a field of vision of an eye (6), it is proposed that the arrangement comprises measuring means (1, 3) for measuring an eye movement and in the method, the eye movement is measured in an initial measurement (S1). Furthermore, the use of an implant (2) comprising a transponder coil (1) for introduction into an eye (6) for determining an intraocular pressure for the objective measurement of the boundaries of a field of vision is proposed.

Abstract: An electronic device may include wireless circuitry having one or more radios and one or more antennas. A first radio may be configured to establish a communication link with an external device, a second radio may be configured to establish a communication link with network equipment. One or more processors in the electronic device may receive information indicative of a duration and termination of the communication link with the external device to operate the second radio in one or more operational modes. If desired, one of the operational modes may include a low-power idle mode during which the second radio performs discontinuous reception while pausing network paging monitoring.

Abstract: The invention relates to an arrangement and a software-based application for modifying an internal eye pressure in vivo, having modulating means for modifying the internal eye pressure and sensor means for capturing the internal eye pressure in vivo, and enabling easily operated and quickly reacting changes to the internal eye pressure while avoiding the disadvantages of the prior art, proposing that the modulating means are implemented for modifying the internal eye pressure as a function of the internal eye pressure captured by the sensor means.

Abstract: A light source. The light source includes as components which superimpose one another in this sequence: a first light-emitting semiconductor component; a first carrier element comprising a first carrier surface which faces the first light-emitting semiconductor component and a first cooling surface deliminating at least in part a first fluid path; and a distributor element comprising a first cavity and a further cavity. The first cavity and the further cavity are fluidically connected to one another by the first fluid path. Also disclosed are a printing machine; methods, in particular for producing a printed product, for irradiating a material to be irradiated, and for producing a light source; corresponding method products; an assembly having the light source; and uses of the light source.

Abstract: A controller may map user equipment (UE) devices in a wireless system to access points (AP) and reflective intelligent surfaces (RIS). The controller may generate a corresponding communications schedule based on the locations of the UE device(s), AP(s), and RIS(s) and based on current traffic demands. The controller may control the RIS(s), AP(s), and UE devices to implement the schedule. The schedule may divide the time, frequency, and/or spatial resources of the RIS(s) to meet the traffic demands of the UE devices using a space division multiple access scheme, a time-division multiple access scheme, a frequency-division multiple access scheme, and/or a distributed multiple-input and multiple output scheme. The schedule may be updated over time as needed. The RIS(s) may allow for a reduction in the number of AP(s) required to meet the dynamic demands of the UE devices, thereby minimizing deployment and operating costs.

Abstract: A processor configured to monitor, using multiple antennas, for interference signals originating from each of multiple directions and select a first direction of the multiple directions to perform a directional listen-before-talk (LBT) procedure, wherein the first direction is selected based on the interference signals originating from each of the multiple directions.

Abstract: A system including a user equipment (UE) configured to receive channel access scheduling information that includes at least one frame with a configurable number of data transmission slots, wherein the frame includes a downlink signaling phase, a data transmission phase, an additional scheduling phase and an additional data transmission phase and transmit data and clear channel assessment (CCA) information, wherein the data and the CCA information are transmitted in one or more data transmission slots selected from the configurable number of data transmission slots based on the channel access scheduling information and an access point (AP) configured to transmit the channel access scheduling information to the UE and receive the data and clear channel assessment (CCA) information from the UE.

Abstract: An implant for determining intraocular pressure includes at least one electrical pressure sensor for measuring the intraocular pressure, at least one microchip that is connected to the pressure sensor, and at least one antenna that is connected to the microchip, the microchip generating digitally encoded data from the electrical signals of the pressure sensor, which data can be transmitted by an antenna, using electromagnetic waves, to a receiver located outside the eye, and components being accommodated in a small housing, the outer dimensions of which are limited such that the implant can be positioned between the sclera and the choroid of the eye, is improved in that the pressure sensor is accommodated on an outer housing side of the implant, which outer housing side is brought into contact with the choroid in the eye is disclosed.

Abstract: Disclosed are methods, systems, and computer-readable medium to perform operations including: receiving, from a device, a beacon request; generating a transmission beacon pattern associated with the beacon request; transmitting a plurality of beams according to the transmission beacon pattern; receiving a message that identifies one or more strongest transmission beams of the plurality of beams; generating a reception beacon pattern associated with the beacon request; transmitting the one or more strongest transmission beams according to the reception beacon pattern; and communicating, with the device, using at least one of the one or more strongest transmission beams and a reception beam of the device.

Abstract: The present application relates to devices and components, including apparatus, systems, and methods for discovering and establishing highly directional wireless communication link through other devices with established highly directional communication link to an access point. Devices with established link to the access point may exchange beam information (BI) or geometry or location indication (GI) between the AP and devices seeking to be connected to the AP. The exchange of BI and GI may expedite link establishment between the AP and devices without connection to the AP.

Abstract: A communications system may include a user equipment (UE) device that communicates with a wireless network. The UE device may transmit a signal to the wireless network identifying a peak data rate of a modem on the UE device, a balanced data rate of the modem, and a buffer size of the modem. The UE device may receive downlink data from the wireless network and may store the downlink data at buffer circuitry on the modem. The UE device may perform delayed processing of the downlink data across slots in a manner that allows for a reduction in size of the modem.

Abstract: Disclosed are methods, systems, and computer-readable medium to perform operations including: receiving, from a remote device, a reference signal for each of one or more synchronization signal blocks (SSBs); responsive to the receiving, selecting a receiver (Rx) beam from a set of candidate receiver (Rx) beams, the selecting being based on a sweep of the candidate Rx beams and on measuring the reference signal with one or more of the candidate Rx beams of the set of the candidate Rx beams; and communicating, using the selected Rx beam, an element of common control signaling (CCS) information to the remote device.

Abstract: Circuits, methods, and apparatus that can route signals for wireless communications throughout an electronic device in an efficient manner that can save space, reduce noise, improve coexistence, and be readily assembled. An example can route signals through an electronic device using a bus, ring, or daisy-chain topology. Use of this topology can simplify routing, thereby saving space that can be used for additional functionality for the electronic device, a reduction in size of the electronic device, or both. Fiber-optic segments can be used for signal routing to decrease noise.

Abstract: An RFID tag (1) is configured to transmit a predetermined code (3K) as a RF backscattered radiation (2) in response to an impinging RF signal (41). The RFID tag (1) is configured to react to an impinging signal at a predetermined reference frequency (23) with a reference backscattered signal (2R). The RFID tag (1) is also configured and to react to an impinging signal (41) at any of a group of transmission frequencies (21, 22) with coding backscattered signals (2F-G) whose amplitudes (20A, 20B) relative to the amplitude (20R) of the reference backscattered signal define the code (3K). An RFID reader (4), a kit (5) and a method for transmitting a message from a device (1) to a reader (4) as a RF backscattered radiation (2) in response to an impinging RF signal (41).

Abstract: The present invention relates to a retention apparatus comprising a) a retention body, which delimits an inner region at least on a first side and a further side opposite to the first side, and b) at least one spring element; wherein the retention body comprises, on the first side, a first receiving portion facing the inner region and, on the further side, a second receiving portion facing the inner region; wherein the retention apparatus is embodied to retain at least one optical module, which has a light input side and an opposing light output side, by means of the first receiving portion, the second receiving portion, and the at least one spring element in a retention state, in such a way that the at least one optical module in the retention state is retained a. in a first direction extending from the light input side to the light output side by means of an interlock of i. the at least one optical module with the first receiving portion and ii.

Abstract: A system may include a client device running multiple client-side applications and server equipment running multiple server-side applications. One or more traffic aggregators may be provided between the client-side applications and the server-side applications. Each traffic aggregator may aggregate application traffic from the multiple applications to form one or more classes of aggregated data. Interfaces may be provided between the traffic aggregators and the applications to customize application traffic. Traffic aggregators in the system may be dynamically updated.

Abstract: The invention concerns a sensing device (1) configured to selectively operate in: a manufacturing mode, an unprovisioned mode, a provisioned mode and an end-of-life mode. In the manufacturing mode, the electronic circuit (14) permanently stores a unique code (149) in a storage medium (12), while in the unprovisioned mode, the electronic circuit (14) waits for a provisioning code (31) for generating a private and a public key (143). In the provisioned mode, the electronic circuit (14) signs a timestamp (146) provided by a time-keeping unit (13) and data (110) provided by a sensing unit. The collected data (110), the timestamp (146), the digital signature (144) and the public key (143) is then transmitted. In the end-of-life mode, the electronic circuit (14) permanently erases the private key.

Abstract: A communication system may include an access point (AP), a user equipment (UE), and a communication path between the AP and the UE having a series of reconfigurable intelligent surfaces (RIS's). Each RIS may have a first beam pointing to a previous node and a second beam pointing to a next node in the communication path. Beams of routing RIS's and a beam from an end user RIS towards a last routing RIS may be set during calibration. The UE may perform beam discovery with the end user RIS. The UE and the AP may convey wireless data via reflections off each of the RIS's in the communication path. The beam of the end user RIS may be updated to track the UE device while the other the beams remain fixed. The beams may be calibrated using retroreflection and beam variation for each pair of RIS's up the communication path.

Abstract: A system may include an access point (AP), a user equipment (UE) device, and a reconfigurable intelligent surface (RIS). The RIS may have antenna elements and phase shifters programmed using phase settings to form signal beams. The AP may calculate a first portion of the phase settings and may transmit the first portion to the RIS. The RIS may include a first processor that generates a second portion of the phase settings. The RIS may include a second processor coupled to the first processor over a bus. The second processor may generate the phase settings based on the second portion. The second processor may distribute the phase settings to the phase shifters. By distributing calculation of the phase settings between the AP and the RIS, power consumption of the system may be minimized while also minimizing the time required to re-configure the beams of the RIS.

Abstract: A communication system may include an access point (AP), a user equipment (UE), and a communication path between the AP and the UE having a series of reconfigurable intelligent surfaces (RIS's). Each RIS may have a first beam pointing to a previous node and a second beam pointing to a next node in the communication path. Beams of routing RIS's and a beam from an end user RIS towards a last routing RIS may be set during calibration. The UE may perform beam discovery with the end user RIS. The UE and the AP may convey wireless data via reflections off each of the RIS's in the communication path. The beam of the end user RIS may be updated to track the UE device while the other the beams remain fixed. The beams may be calibrated using retroreflection and beam variation for each pair of RIS's up the communication path.