mhurhangee/patent-ind-claim-en huggingface dataset:
A method implemented by a computing device comprising: providing a user interface comprising a session display portion for presenting a message thread between participants in a communication session output via a communication module associated with one of the participants; capturing a history of messages exchanged between the participants in the communication session established via a service provider; responsive to addition of a new participant to the conversation, receiving an indication of a time window of the captured history to expose to the new participant; and controlling exposure of the history to the new participant during the communication session in accordance with the time window of the captured history that is indicated; characterized in that the indication is generated responsive to a selection made to designate the time window via positioning and/or repositioning a divider within the session display portion between a portion of the message thread that is exposed to the new participant and a portion of the message thread that is not exposed to the new participant. providing a user interface comprising a session display portion for presenting a message thread between participants in a communication session output via a communication module associated with one of the participants; capturing a history of messages exchanged between the participants in the communication session established via a service provider; responsive to addition of a new participant to the conversation, receiving an indication of a time window of the captured history to expose to the new participant; and controlling exposure of the history to the new participant during the communication session in accordance with the time window of the captured history that is indicated; characterized in that the indication is generated responsive to a selection made to designate the time window via positioning and/or repositioning a divider within the session display portion between a portion of the message thread that is exposed to the new participant and a portion of the message thread that is not exposed to the new participant.
A work vehicle , comprising: an operator's seat ; an armrest provided lateral to the operator's seat , the armrest including an upper surface ; a seat operation portion attached to the armrest , the seat operation portion controlling a position or a posture of the operator's seat ; and a console including an operation portion that controls an operation of the work vehicle , the console being provided lateral to the operator's seat , wherein the seat operation portion is provided at a position hidden below the upper surface of the armrest in a top view, characterized in that the armrest is provided in a rear of the operation portion . an operator's seat ; an armrest provided lateral to the operator's seat , the armrest including an upper surface ; a seat operation portion attached to the armrest , the seat operation portion controlling a position or a posture of the operator's seat ; and a console including an operation portion that controls an operation of the work vehicle , the console being provided lateral to the operator's seat , wherein the seat operation portion is provided at a position hidden below the upper surface of the armrest in a top view, characterized in that the armrest is provided in a rear of the operation portion .
Device for measuring a tyre and an electromagnetically reflective component of the tyre , comprising a measuring component , the measuring component being provided for carrying out a time-of-flight method, and comprising an evaluation component , the evaluation component being provided for evaluating measurement variables measured by means of the measuring component , the measuring component comprising an emission element and a detection element , the emission element being provided for emitting electromagnetic waves in an emission direction and the detection element being provided for detecting the electromagnetic waves after a reflection of the emitted electromagnetic waves at the electromagnetically reflective component , and comprising a control component , the control component being configured to carry out the time-of-flight method by means of the measuring component , the device comprising a contact sensor , the contact sensor being connected to the control component in such a way that signals can be transmitted from the contact sensor to the control component , the contact sensor being configured to transmit a control signal to the control component exactly when direct physical contact is detected by means of the contact sensor , the control component being configured to carry out the time-of-flight method by means of the measuring component depending on the control signal in such a way that a test distance from the measuring component to an electromagnetically reflective component can be ascertained, the electromagnetic waves being radar waves, the contact sensor comprising a sensitive surface , the sensitive surface being provided for detecting the direct physical contact, characterized in that the sensitive surface is transmissive to the electromagnetic waves , the measuring component lying directly next to the contact sensor on the side facing away from the tyre .
System for detecting receivers, comprising: - at least one receiver , - a container having a volume, the container being suitable for containing the receiver within its volume, - an antenna suitable for emitting a primary wave (W 1 ) in the volume, and for receiving a secondary wave (W 2 ) emitted by the receiver in the volume in response to reception of the primary wave, - a controller connected to the antenna, the controller being suitable for controlling the emission of the primary wave and for detecting the receiver via the received secondary wave, characterized in that the system further comprises adjustable elements having an impedance which can be modified in order to change the manner in which the primary wave is reflected and/or transmitted by the adjustable element, the number N of adjustable elements being greater than or equal to two, and wherein: - the adjustable elements are controlled by a control wave (W c ) emitted by the controller, - the adjustable elements are attached to the container at a plurality of different positions, - some adjustable elements comprise an energy recovery device for recovering energy from the primary wave and/or from the control wave in order to power themselves, and - each adjustable element comprises a control wave reception device which decodes an adjustment parameter contained in said control wave, said adjustment parameter being intended for the adjustable element so that the adjustable element controls its impedance. - at least one receiver , - a container having a volume, the container being suitable for containing the receiver within its volume, - an antenna suitable for emitting a primary wave (W 1 ) in the volume, and for receiving a secondary wave (W 2 ) emitted by the receiver in the volume in response to reception of the primary wave, - a controller connected to the antenna, the controller being suitable for controlling the emission of the primary wave and for detecting the receiver via the received secondary wave, - the adjustable elements are controlled by a control wave (W c ) emitted by the controller, - the adjustable elements are attached to the container at a plurality of different positions, - some adjustable elements comprise an energy recovery device for recovering energy from the primary wave and/or from the control wave in order to power themselves, and - each adjustable element comprises a control wave reception device which decodes an adjustment parameter contained in said control wave, said adjustment parameter being intended for the adjustable element so that the adjustable element controls its impedance.
A transmission method, applied to a user equipment, UE, wherein the method comprises: mapping , by the UE, W complex-value symbols of an uplink channel onto a resource area 1 of the UE, wherein the resource area 1 of the UE comprises F discrete or contiguous subcarriers in Y symbols; mapping a reference signal used for uplink channel estimation onto a resource area 2 of the UE, wherein the resource area 2 comprises D discrete or contiguous subcarriers in C symbols; and sending , by the UE, signals of the resource area 1 and the resource area 2, wherein before the mapping W complex-value symbols onto a resource area 1 of the UE, the method further includes: determining, from K symbols in one transmission time unit, Y symbols for transmitting data and C symbols for transmitting the reference signal, where the K symbols are symbols used for transmitting data and the reference signal in one transmission time unit, and Y + C ≤ K; and determining the resource area 1 of the UE and the resource area 2 of the UE based on the configuration information. mapping , by the UE, W complex-value symbols of an uplink channel onto a resource area 1 of the UE, wherein the resource area 1 of the UE comprises F discrete or contiguous subcarriers in Y symbols; mapping a reference signal used for uplink channel estimation onto a resource area 2 of the UE, wherein the resource area 2 comprises D discrete or contiguous subcarriers in C symbols; and sending , by the UE, signals of the resource area 1 and the resource area 2, wherein before the mapping W complex-value symbols onto a resource area 1 of the UE, the method further includes: determining, from K symbols in one transmission time unit, Y symbols for transmitting data and C symbols for transmitting the reference signal, where the K symbols are symbols used for transmitting data and the reference signal in one transmission time unit, and Y + C ≤ K; and determining the resource area 1 of the UE and the resource area 2 of the UE based on the configuration information.
Method for resource allocation in a mobile communication system, comprising a plurality of base stations from a plurality of mobile communication providers and a plurality of participants from the plurality of mobile communication providers, wherein each provider has assigned a dedicated spectrum (V, T, E, O) for resource allocation for its own participants, wherein the participants from the plurality of providers communicate directly among each other, wherein a given provider allocates a part (V2V) of its dedicated spectrum for the direct communication among the participants from the plurality of providers, • wherein either said given provider will schedule the resources in the part (V2V) of the dedicated spectrum (V, T, E, O) for its own participants and the participants of the other providers by means of a scheduler in a provider owned base station , or • wherein the part (V2V) of a dedicated spectrum (V, T, E, O) of said given provider for the direct communication among the participants from the plurality of providers is divided into sections (V2V_V, V2V_T, V2V_E, V2V_O), with each provider of the plurality of providers having been assigned at least one section (V2V_V, V2V_T, V2V_E, V2V_O) of said part (V2V) of the dedicated spectrum (V, T, E, O) of the given provider, and where a base station of each of the plurality of providers other than said given provider will schedule the resources in its assigned section (V2V_V, V2V_T, V2V_E, V2V_O) of said dedicated spectrum (V,T, E, O) for the direct communications of its own participants, wherein the resource allocation management functionality for allocating a part of its dedicated spectrum for the direct communication among the participants from the plurality of providers is shifted from provider to provider from time slice (t_0, t_1, t_2, t_3) to time slice (t_0, t_1, t_2, t_3). • wherein either said given provider will schedule the resources in the part (V2V) of the dedicated spectrum (V, T, E, O) for its own participants and the participants of the other providers by means of a scheduler in a provider owned base station , or • wherein the part (V2V) of a dedicated spectrum (V, T, E, O) of said given provider for the direct communication among the participants from the plurality of providers is divided into sections (V2V_V, V2V_T, V2V_E, V2V_O), with each provider of the plurality of providers having been assigned at least one section (V2V_V, V2V_T, V2V_E, V2V_O) of said part (V2V) of the dedicated spectrum (V, T, E, O) of the given provider, and where a base station of each of the plurality of providers other than said given provider will schedule the resources in its assigned section (V2V_V, V2V_T, V2V_E, V2V_O) of said dedicated spectrum (V,T, E, O) for the direct communications of its own participants,
A method comprising: receiving , over a network from a mobile device , a first geofence page request including a current location associated with the mobile device ; generating , based at least in part on the current location associated with the mobile device , a first parent geofence and a first plurality of child geofences in response to the first geofence page request, wherein the first plurality of child geofences are geographically inside boundaries of the first parent geofence; transmitting , over the network to the mobile device , the first parent geofence and the first plurality of child geofences; receiving , over the network from the mobile device , a second geofence page request, the second geofence page request including an updated current location associated with the mobile device ; generating , based at least in part on the updated current location associated with the mobile device , a second parent geofence and a second plurality of child geofences, wherein the second plurality of child geofences are geographically inside boundaries of the second parent geofence; and transmitting , over the network to the mobile device , the second parent geofence and the second plurality of child geofences. receiving , over a network from a mobile device , a first geofence page request including a current location associated with the mobile device ; generating , based at least in part on the current location associated with the mobile device , a first parent geofence and a first plurality of child geofences in response to the first geofence page request, wherein the first plurality of child geofences are geographically inside boundaries of the first parent geofence; transmitting , over the network to the mobile device , the first parent geofence and the first plurality of child geofences; receiving , over the network from the mobile device , a second geofence page request, the second geofence page request including an updated current location associated with the mobile device ; generating , based at least in part on the updated current location associated with the mobile device , a second parent geofence and a second plurality of child geofences, wherein the second plurality of child geofences are geographically inside boundaries of the second parent geofence; and transmitting , over the network to the mobile device , the second parent geofence and the second plurality of child geofences.
A method of controlling user access to a wireless network, comprising: starting , by an Access Point, AP, a timer when detecting an abnormal communication between the AP and a master Access Controller, AC, (513_1) being integrated on a master main board (512_1) of a switch ; detecting , by the AP, whether the timer has expired a preset time or not maintaining , by the AP, connections between the AP and authenticated users having been authenticated in response to a determination that the timer has not expired the preset time; disconnecting, by the AP, the connections between the AP and the authenticated users in response to a determination that the timer has expired the preset time. starting , by an Access Point, AP, a timer when detecting an abnormal communication between the AP and a master Access Controller, AC, (513_1) being integrated on a master main board (512_1) of a switch ; detecting , by the AP, whether the timer has expired a preset time or not maintaining , by the AP, connections between the AP and authenticated users having been authenticated in response to a determination that the timer has not expired the preset time; disconnecting, by the AP, the connections between the AP and the authenticated users in response to a determination that the timer has expired the preset time.
A method of mapping cardiac restitution, comprising: receiving a plurality of electrophysiology ("EP") data points at a signal processor, each EP data point of the plurality of EP data points comprising location data and restitution data, wherein the location data of one EP data point is different to location data of another EP data point; receiving user input defining an anchor EP data point of the plurality of EP data points; identifying a subset of the plurality of EP data points forming an EP data point cluster about the anchor EP data point, wherein the EP data point cluster defines a region of a cardiac surface; fitting a restitution curve to the restitution data of each of the EP data points having different location data of the subset of the plurality of EP data points forming the EP data point cluster about the anchor EP data point; and identifying at least one restitution metric for the region of the cardiac surface from the restitution curve. receiving a plurality of electrophysiology ("EP") data points at a signal processor, each EP data point of the plurality of EP data points comprising location data and restitution data, wherein the location data of one EP data point is different to location data of another EP data point; receiving user input defining an anchor EP data point of the plurality of EP data points; identifying a subset of the plurality of EP data points forming an EP data point cluster about the anchor EP data point, wherein the EP data point cluster defines a region of a cardiac surface; fitting a restitution curve to the restitution data of each of the EP data points having different location data of the subset of the plurality of EP data points forming the EP data point cluster about the anchor EP data point; and identifying at least one restitution metric for the region of the cardiac surface from the restitution curve.
A method, comprising: - cutting and cropping a reference signal waveform ( b ) at sections of the reference signal waveform ( b ) mapped to cyclic extensions (1761-1766) of OFDM symbols (s, 1751-1755) of a sequence of OFDM symbols, to obtain reference signal waveform segments ( b 1 - b 5 ), the reference signal waveform and the reference waveform segments being defined in accordance with a non-coherent modulation scheme, wherein the method further comprises for each one of the reference signal waveform segments: - shaping the respective reference signal waveform segment to obtain a respective at least one signal waveform ( x̃ ) associated with one or more subcarriers ( K ) of a plurality of subcarriers (301-303), - inputting the respective at least one signal waveform to at least one corresponding channel of a multi-channel orthogonal frequency division multiplex, OFDM, modulator ( F, 1502, 1503, 1504), and - transmitting a respective OFDM symbol ( s ) of the sequence of OFDM symbols output by the OFDM modulator ( F, 1502, 1503, 1504), wherein said shaping approximates a baseband representation ( b̃ ) of a part ( s w ) of the OFDM symbol (s, 1751-1755) associated with the one or more subcarriers (301-303) to the reference signal waveform segment ( b 1 -b 5 ). - cutting and cropping a reference signal waveform ( b ) at sections of the reference signal waveform ( b ) mapped to cyclic extensions (1761-1766) of OFDM symbols (s, 1751-1755) of a sequence of OFDM symbols, to obtain reference signal waveform segments ( b 1 - b 5 ), the reference signal waveform and the reference waveform segments being defined in accordance with a non-coherent modulation scheme, wherein the method further comprises for each one of the reference signal waveform segments: - shaping the respective reference signal waveform segment to obtain a respective at least one signal waveform ( x̃ ) associated with one or more subcarriers ( K ) of a plurality of subcarriers (301-303), - inputting the respective at least one signal waveform to at least one corresponding channel of a multi-channel orthogonal frequency division multiplex, OFDM, modulator ( F, 1502, 1503, 1504), and - transmitting a respective OFDM symbol ( s ) of the sequence of OFDM symbols output by the OFDM modulator ( F, 1502, 1503, 1504), - shaping the respective reference signal waveform segment to obtain a respective at least one signal waveform ( x̃ ) associated with one or more subcarriers ( K ) of a plurality of subcarriers (301-303), - inputting the respective at least one signal waveform to at least one corresponding channel of a multi-channel orthogonal frequency division multiplex, OFDM, modulator ( F, 1502, 1503, 1504), and - transmitting a respective OFDM symbol ( s ) of the sequence of OFDM symbols output by the OFDM modulator ( F, 1502, 1503, 1504), wherein said shaping approximates a baseband representation ( b̃ ) of a part ( s w ) of the OFDM symbol (s, 1751-1755) associated with the one or more subcarriers (301-303) to the reference signal waveform segment ( b 1 -b 5 ).
An aluminum or aluminum alloy molten salt electroplating bath which is obtained by adding (C) a reducing compound to an aluminum or aluminum alloy molten salt electroplating bath comprising (A) an aluminum halide as a main component and (B) at least one further halide, followed by a heat treatment; wherein the aluminum or aluminum alloy molten salt electroplating bath does not contain benzene, toluene, xylene, naphthalene or 1,3,5-trimethylbenzene; the further halide (B) is one or more compounds selected from the group consisting of N-alkylpyridinium halides, N-alkylimidazolium halides, N,N'-dialkylimidazolium halides, N-alkylpyrazolium halides, N,N'-dialkylpyrazolium halides, N-alkylpyrrolidinium halides, and N, N-dialkylpyrrolidinium halides; the reducing compound (C) is one or more compounds selected from the group consisting of lithium aluminum hydride, lithium hydride, lithium sodium hydride, sodium hydride, sodium borohydride, dimethylamine borane, diethylamine borane, and trimethylamine borane; the aluminum halide (A) and the further halide (B) are contained at a molar ratio of from 1:1 to 3:1; and wherein the heat treatment includes decomposing the reducing compound (C) by heating the plating bath at a temperature of 50 to 100°C and letting generated H 2 gas out of a plating liquid.
Automatic blind rivet setting apparatus having a housing , a pulling mechanism , which is moveable relative to the housing by a drive , wherein the drive is embodied as an electric drive and between the drive and the pulling mechanism a gear with a variable transmission ratio and at least two gear stages between the drive and the pulling mechanism is arranged and the transmission comprises a switching device which is connected to a control device , characterised in that a blind rivet feeding device is provided and the control device selects one of the transmission stages in dependence on an operating variable of the electric drive .