mhurhangee/ep-ind-claims huggingface dataset:
Tool carrier system comprising a plurality of holding elements (HS, HB, HC, PP), which can be individually detachably fastened to a common carrier arrangement and are each designed to hold a manually operable tool (W1, W2,...), at least some holding elements (HS, HB, HC, PP) each having a carrier body comprising fastening structures (CE, CB, HP, PZ) designed to fasten the carrier body to the carrier arrangement, and comprising holding means designed to hold a tool (W1, W2,...) on the carrier body, the holding means containing a permanent magnet arrangement (MS, MB, MC, MP) and defining a contact surface for the tool, which surface faces away from the carrier arrangement, extends substantially in a vertical contact plane and points toward a user, and - on one side of the contact surface, an alignment structure which points away from the carrier arrangement projecting beyond the contact plane, - an identification carrier (K11, K12, K21, K22,..., K25, K2T) being spatially associated with each of at least some of the holding elements (HS, HB, HC, PP), which identification carrier reproduces at least parts of a tool (W1, W2,...) in a visually recognizable graphic representation, and which, with respect to a user position of a user gripping a tool (W1, W2,...) on a holding element (HS, HB, HC, PP), is arranged on the side of the tool (W1, W2,...) which faces away from the user position and so as to be spaced from said tool, and characterized in that - the carrier arrangement contains a carrier rail (TS, TD, TP) which preferably extends horizontally and to which the holding elements (HS, HB, PP) are fastened in a snap-on manner, a groove in which a first fastening structure of the holding element engages, and a profile groove in which a further fastening structure of the holding element engages, being formed on the carrier rail (TS, TD, TP). - on one side of the contact surface, an alignment structure which points away from the carrier arrangement projecting beyond the contact plane, - an identification carrier (K11, K12, K21, K22,..., K25, K2T) being spatially associated with each of at least some of the holding elements (HS, HB, HC, PP), which identification carrier reproduces at least parts of a tool (W1, W2,...) in a visually recognizable graphic representation, and which, with respect to a user position of a user gripping a tool (W1, W2,...) on a holding element (HS, HB, HC, PP), is arranged on the side of the tool (W1, W2,...) which faces away from the user position and so as to be spaced from said tool, and characterized in that - the carrier arrangement contains a carrier rail (TS, TD, TP) which preferably extends horizontally and to which the holding elements (HS, HB, PP) are fastened in a snap-on manner, a groove in which a first fastening structure of the holding element engages, and a profile groove in which a further fastening structure of the holding element engages, being formed on the carrier rail (TS, TD, TP).
A method for data transmission in WLAN, wherein the method comprises: sending, by an access point, a beacon, wherein the sending period of the beacon is divided into at least one time segment for scheduling; wherein the beacon comprises information of the time segment for scheduling; the information of the time segment for scheduling is used to indicate a station to execute data transmission during the time segment for scheduling; and the station is forbidden to transmit data before the beginning to the time segment for scheduling; wherein the information of the time segment for scheduling includes: the length of the time segment for scheduling; executing, by the access point, data transmission with the station during the time segment for scheduling; wherein the beacon further includes: a traffic indication map TIM, and the TIM includes: information for indicating whether there are data needs to be transmitted for the station; and an indication information in the TIM for indicating the number of stations that need to transmit data. sending, by an access point, a beacon, wherein the sending period of the beacon is divided into at least one time segment for scheduling; wherein the beacon comprises information of the time segment for scheduling; the information of the time segment for scheduling is used to indicate a station to execute data transmission during the time segment for scheduling; and the station is forbidden to transmit data before the beginning to the time segment for scheduling; wherein the information of the time segment for scheduling includes: the length of the time segment for scheduling; executing, by the access point, data transmission with the station during the time segment for scheduling; wherein the beacon further includes: a traffic indication map TIM, and the TIM includes: information for indicating whether there are data needs to be transmitted for the station; and an indication information in the TIM for indicating the number of stations that need to transmit data. a traffic indication map TIM, and the TIM includes: information for indicating whether there are data needs to be transmitted for the station; and an indication information in the TIM for indicating the number of stations that need to transmit data.
A method for monitoring a measuring point in an automation system, wherein the measuring point is attached to at least one system component (AK, AK'), in particular a container and/or a pipeline, in which a process medium is at least temporarily located, said system component (AK, AK') being incorporated into a technical process, wherein the measuring point comprises at least one field device (FG, FG'), which is adapted to detect and/or influence process variables of the process medium, and at least one communication means, which is adapted to transmit the process variables detected by the field device (FG, FG') to a control center of the system, and wherein the process is adapted to a defined reference working point, wherein a working point defines the production of at least one product of predetermined quantity and quality from at least one reactant of predetermined quantity and quality using a quantity of energy, comprising: - Transmitting the process variables detected by the field device (FG, FG') to a service platform, in particular a local or web-based service platform; - Storing the process variables in the service platform; - Comparing a current working point at which the process is being operated with the reference working point on the basis of the stored process variables, wherein the reference working point represents a current working point of a further process or of a further sub-area of a process, which reference working point is continually updated; and - Generating and transmitting a maintenance notification to a user in the event that the current working point of the process exhibits a deviation (Δ) from the reference working point, which deviation (Δ) is greater than or equal to a predetermined value. - Transmitting the process variables detected by the field device (FG, FG') to a service platform, in particular a local or web-based service platform; - Storing the process variables in the service platform; - Comparing a current working point at which the process is being operated with the reference working point on the basis of the stored process variables, wherein the reference working point represents a current working point of a further process or of a further sub-area of a process, which reference working point is continually updated; and - Generating and transmitting a maintenance notification to a user in the event that the current working point of the process exhibits a deviation (Δ) from the reference working point, which deviation (Δ) is greater than or equal to a predetermined value.
A saddle riding vehicle, comprising: a head up display unit including a projection unit and a combiner to which an image from the projection unit is projected and a meter apparatus, wherein the meter apparatus is arranged at a position overlapping with an optical path from the projection unit to the combiner as viewed in plan view, characterized in that the meter apparatus, the projection unit and the combiner are assembled together into a single assembly. a head up display unit including a projection unit and a combiner to which an image from the projection unit is projected and a meter apparatus, wherein the meter apparatus is arranged at a position overlapping with an optical path from the projection unit to the combiner as viewed in plan view, characterized in that the meter apparatus, the projection unit and the combiner are assembled together into a single assembly.
A composition comprising: one or more polymers; and a combined ultraviolet absorbing laser marking additive consisting of: 2-(4,6-Diphenyl-1,3,5-triazin-2-yl- 5-hexyloxy)phenol, 2-(2h-benzotriazol-2-yl)-4-(1,1,3,3-tetramethylbutyl)phenol, 2-(2-hydroxy-3,5 dicumyl)benzotriazole, and any combination thereof, wherein a weight percentage concentration of 2-(4,6-Diphenyl-1,3,5-triazin-2-yl-5-hexyloxy)phenol is within a range of 0.01% to 0.5 % by weight of the composition, wherein a weight percentage concentration of 2-(2h-benzotriazol-2-yl)-4-(1,1,3,3-tetramethylbutyl)phenol is within a range of 0.01% to 0.5 % by weight of the composition, and wherein a weight percentage concentration of 2-(2-hydroxy-3,5 dicumyl)benzotriazole is within a range of 0.01% to 3% by weight of the composition. one or more polymers; and a combined ultraviolet absorbing laser marking additive consisting of: 2-(4,6-Diphenyl-1,3,5-triazin-2-yl- 5-hexyloxy)phenol, 2-(2h-benzotriazol-2-yl)-4-(1,1,3,3-tetramethylbutyl)phenol, 2-(2-hydroxy-3,5 dicumyl)benzotriazole, and any combination thereof, wherein a weight percentage concentration of 2-(4,6-Diphenyl-1,3,5-triazin-2-yl-5-hexyloxy)phenol is within a range of 0.01% to 0.5 % by weight of the composition, wherein a weight percentage concentration of 2-(2h-benzotriazol-2-yl)-4-(1,1,3,3-tetramethylbutyl)phenol is within a range of 0.01% to 0.5 % by weight of the composition, and wherein a weight percentage concentration of 2-(2-hydroxy-3,5 dicumyl)benzotriazole is within a range of 0.01% to 3% by weight of the composition.
An electronic apparatus comprising: a Wi-Fi module configured to perform Wi-Fi communication; and a controller configured to control the Wi-Fi module to select a plurality of channels, control the Wi-Fi module to perform a scan operation through each of the plurality of channels in response to a Wi-Fi Peer-to-Peer (P2P) function being executed, and control the Wi-Fi module to determine a connection channel with an external device which will perform Wi-Fi P2P communication based on a number of probe response packets received through each of the plurality of channels. a Wi-Fi module configured to perform Wi-Fi communication; and a controller configured to control the Wi-Fi module to select a plurality of channels, control the Wi-Fi module to perform a scan operation through each of the plurality of channels in response to a Wi-Fi Peer-to-Peer (P2P) function being executed, and control the Wi-Fi module to determine a connection channel with an external device which will perform Wi-Fi P2P communication based on a number of probe response packets received through each of the plurality of channels.
A reactor for performing an endothermic reaction, in particular high-temperature reaction, wherein a product gas is obtained from an input gas, wherein the reactor encompasses a reactor interior, wherein the reactor is configured for providing a gravity-fed moving bed comprising a multiplicity of solids particles, which are conducted at a velocity of 0.1 m/h to 2 m/h, in a reaction zone of the reactor interior, wherein the reactor is further configured for passing the input gas into the reaction zone, wherein for heating the input gas the reactor is configured for heating the solids particles in the reaction zone by generating an electric current in the solids particles so that for heating the solids particles of the reactor bed the reactor comprises a first and a second electrode (20, 21), wherein the first electrode is arranged above the second electrode in the reactor interior, so that by transfer of heat from the solids particles to the input gas the input gas is heatable in the reaction zone to a reaction temperature allowing it to take part as a reactant in the endothermic reaction to produce the product gas, and wherein the reactor interior further comprises a first heat integration zone in which heat from the product gas produced in the reaction zone is transferable to solids particles of the reactor bed to be passed into the reaction zone, and wherein the reactor interior further comprises a second heat integration zone in which heat from solids particles of the reactor bed exiting the reaction zone is transferable to the input gas for preheating the input gas so that the reaction zone is arranged between the two electrodes (20, 21), wherein the first heat integration zone is arranged above the first electrode, and wherein the second heat integration zone is arranged below the second electrode.
A method performed by a terminal in a wireless communication system, the method comprising: receiving, from a base station, single downlink control information, DCI, indicating a plurality of semi persistent scheduling, SPS, physical downlink shared channel, PDSCH, releases; obtaining a hybrid automatic repeat request acknowledgement, HARQ-ACK, codebook including a HARQ-ACK information bit corresponding to the DCI; and transmitting, to the base station, the HARQ-ACK codebook, wherein a location in the HARQ-ACK codebook for the HARQ-ACK information bit corresponding to the DCI is same as for a corresponding SPS PDSCH reception with a lowest SPS index among the plurality of SPS PDSCH releases, wherein the DCI is determined as a valid release, in case that a cyclic redundancy check, CRC, of a corresponding DCI format is scrambled with a configured scheduling radio network temporary identifier, CS-RNTI, a new data indicator field in the DCI is set to 0, and values of redundancy version field, modulation and coding scheme field, and frequency domain resource assignment field correspond to predetermined values. receiving, from a base station, single downlink control information, DCI, indicating a plurality of semi persistent scheduling, SPS, physical downlink shared channel, PDSCH, releases; obtaining a hybrid automatic repeat request acknowledgement, HARQ-ACK, codebook including a HARQ-ACK information bit corresponding to the DCI; and transmitting, to the base station, the HARQ-ACK codebook, wherein a location in the HARQ-ACK codebook for the HARQ-ACK information bit corresponding to the DCI is same as for a corresponding SPS PDSCH reception with a lowest SPS index among the plurality of SPS PDSCH releases, wherein the DCI is determined as a valid release, in case that a cyclic redundancy check, CRC, of a corresponding DCI format is scrambled with a configured scheduling radio network temporary identifier, CS-RNTI, a new data indicator field in the DCI is set to 0, and values of redundancy version field, modulation and coding scheme field, and frequency domain resource assignment field correspond to predetermined values.
A channel estimation method, comprising: when it is determined that in-band Sounding Reference Signals, SRS, are required to be transmitted, acquiring the number of transmitting antenna ports and the number of layers of currently transmitted Demodulation Reference Signals, DMRS; calculating the difference of the number of the transmitting antenna ports and the number of layers of the currently transmitted DMRSs, and using the difference as the number of in-band SRSs that are required to be transmitted; transmitting in-band SRSs to a receiving-end device according to the number of in-band SRSs that are required to be transmitted, to enable the receiving-end device to perform channel estimation according to the currently transmitted DMRSs and the received in-band SRSs. when it is determined that in-band Sounding Reference Signals, SRS, are required to be transmitted, acquiring the number of transmitting antenna ports and the number of layers of currently transmitted Demodulation Reference Signals, DMRS; calculating the difference of the number of the transmitting antenna ports and the number of layers of the currently transmitted DMRSs, and using the difference as the number of in-band SRSs that are required to be transmitted; transmitting in-band SRSs to a receiving-end device according to the number of in-band SRSs that are required to be transmitted, to enable the receiving-end device to perform channel estimation according to the currently transmitted DMRSs and the received in-band SRSs.
A method for a wireless device comprising: transmitting, by the wireless device, a capability message indicating that the wireless device supports a first number of channel state information, CSI, processes per bandwidth part of a cell; receiving, based on the wireless device supporting the first number of CSI processes per bandwidth part, CSI configuration parameters indicating a second number of CSI processes for a first bandwidth part; and transmitting CSI reports for the second number of CSI processes. transmitting, by the wireless device, a capability message indicating that the wireless device supports a first number of channel state information, CSI, processes per bandwidth part of a cell; receiving, based on the wireless device supporting the first number of CSI processes per bandwidth part, CSI configuration parameters indicating a second number of CSI processes for a first bandwidth part; and transmitting CSI reports for the second number of CSI processes.
Intraocular lens comprising an optical part, which has a first optical side and an opposite second optical side viewed in the direction of a main optical axis of the intraocular lens, a helix winding being formed on at least one of the two sides (4, 5) as a surface structure, as a result of which a refractive power of the intraocular lens varies in terms of value in the encircling direction around the main axis, characterized in that the intraocular lens has a toric refractive surface profile in addition to the helix winding and the toric refractive surface profile is formed on at least one side (4, 5), wherein at least one side (4, 5) of the optical part has a surface contour that is stepped in the radial direction (r) and a step height of a step (35 to 40) of a ring-shaped zone (28 to 34) changes in the azimuthal direction around the main optical axis, wherein a step height in an azimuthal position of a steeper main meridian (12a, 12b) of the toric refractive surface profile is greater than a step height in an azimuthal position of a flat main meridian (13a, 13b) of the toric refractive surface profile.
A method performed by a terminal in a wireless communication system, the method comprising: receiving, from a base station, a first tracking reference signal, TRS, for time and frequency tracking; performing a bandwidth change or a beam change; identifying whether a condition for receiving a TRS for a changed bandwidth or a changed beam is satisfied or not; and receiving, from the base station, a second TRS for the changed bandwidth or the changed beam, in case that the condition is satisfied, characterized in that the condition is identified to be satisfied based on a time difference between a last TRS reception time before the bandwidth change or the beam change and a first TRS reception time after the bandwidth change or the beam change. receiving, from a base station, a first tracking reference signal, TRS, for time and frequency tracking; performing a bandwidth change or a beam change; identifying whether a condition for receiving a TRS for a changed bandwidth or a changed beam is satisfied or not; and receiving, from the base station, a second TRS for the changed bandwidth or the changed beam, in case that the condition is satisfied, characterized in that the condition is identified to be satisfied based on a time difference between a last TRS reception time before the bandwidth change or the beam change and a first TRS reception time after the bandwidth change or the beam change.
A computer-implemented method comprising: providing, by a device for detecting when a user says a particular hotword, a prompt for a user to provide a sample enrollment utterance of the particular hotword for training the device to detect when the user says the particular hotword, and receiving audio data corresponding to only a single enrollment utterance of the particular hotword by the user; in response to receiving the audio data corresponding to only the single enrollment utterance of the particular hotword by the user, generating, by the device, a hotword detection model by: identifying other utterances of the particular hotword by other users; selecting the utterances of the identified other utterances that are similar to the single enrollment utterance by the user; and generating the hotword detection model using the selected utterances and the single enrollment utterance of the particular hotword by the user; and using, by the device, the hotword detection model to detect an utterance of the particular hotword in subsequently received audio data. providing, by a device for detecting when a user says a particular hotword, a prompt for a user to provide a sample enrollment utterance of the particular hotword for training the device to detect when the user says the particular hotword, and receiving audio data corresponding to only a single enrollment utterance of the particular hotword by the user; in response to receiving the audio data corresponding to only the single enrollment utterance of the particular hotword by the user, generating, by the device, a hotword detection model by: identifying other utterances of the particular hotword by other users; selecting the utterances of the identified other utterances that are similar to the single enrollment utterance by the user; and generating the hotword detection model using the selected utterances and the single enrollment utterance of the particular hotword by the user; and using, by the device, the hotword detection model to detect an utterance of the particular hotword in subsequently received audio data. identifying other utterances of the particular hotword by other users; selecting the utterances of the identified other utterances that are similar to the single enrollment utterance by the user; and generating the hotword detection model using the selected utterances and the single enrollment utterance of the particular hotword by the user; and using, by the device, the hotword detection model to detect an utterance of the particular hotword in subsequently received audio data.