mhurhangee/patent-ind-claim-en huggingface dataset:
A load control system for controlling an electrical load, the load control system comprising: a beacon transmitting device configured to operate in a first mode of operation in which the beacon transmitting device transmits wirelessly a beacon signal including a unique identifier; and a mobile device configured to receive the beacon signal , and to lock on to the beacon signal , whereby said locking on means the mobile device is linked to the beacon transmitting device transmitting the beacon signal , and whereby the mobile device is configured to reserve the unique identifier as being linked to the mobile device , and the mobile device being configured to transmit wirelessly a digital message to the beacon transmitting device when the mobile device links to the beacon transmitting device; and characterised in that the beacon transmitting device is configured to operate in a second mode of operation in response to receiving the digital message from the mobile device; wherein the second mode of operation is a lower power mode than the first mode of operation. a beacon transmitting device configured to operate in a first mode of operation in which the beacon transmitting device transmits wirelessly a beacon signal including a unique identifier; and a mobile device configured to receive the beacon signal , and to lock on to the beacon signal , whereby said locking on means the mobile device is linked to the beacon transmitting device transmitting the beacon signal , and whereby the mobile device is configured to reserve the unique identifier as being linked to the mobile device , and the mobile device being configured to transmit wirelessly a digital message to the beacon transmitting device when the mobile device links to the beacon transmitting device; and characterised in that the beacon transmitting device is configured to operate in a second mode of operation in response to receiving the digital message from the mobile device; wherein the second mode of operation is a lower power mode than the first mode of operation.
Method for generating swarm trajectories for a given lane (FS) of a road section, wherein - a plurality of vehicles (F1, ... Fn) driving in the given lane transmit their respective driving trajectories (T1, ... Tn) to a backend computer (BE), - the vehicles (F1, ... Fn) determine given boundary conditions while driving in the lane (FS) and transfer the determined boundary conditions together with the respective trajectory (T1, ... Tn) to the backend computer (BE), - the backend computer (BE) generates and stores, from the transmitted trajectories (T1, ... Tn) and associated boundary conditions, one or more swarm trajectories (ST) for the given lane (FS) as a function of at least one boundary condition, and - at least the travel time is added as a boundary condition to the trajectories (T1, ... Tn) to be transmitted, wherein the travel time is realized over a travel time interval. - a plurality of vehicles (F1, ... Fn) driving in the given lane transmit their respective driving trajectories (T1, ... Tn) to a backend computer (BE), - the vehicles (F1, ... Fn) determine given boundary conditions while driving in the lane (FS) and transfer the determined boundary conditions together with the respective trajectory (T1, ... Tn) to the backend computer (BE), - the backend computer (BE) generates and stores, from the transmitted trajectories (T1, ... Tn) and associated boundary conditions, one or more swarm trajectories (ST) for the given lane (FS) as a function of at least one boundary condition, and - at least the travel time is added as a boundary condition to the trajectories (T1, ... Tn) to be transmitted, wherein the travel time is realized over a travel time interval.
Fastening device for fastening a load to a profile rail , which has a substantially C-shaped cross-section and a longitudinal slot , wherein the fastening device has a cover plate for bearing on the profile rail , a threaded plate , which has a threaded bore and a length greater than the width of the longitudinal slot and a width smaller than the width of the longitudinal slot , and a holding device arranged on the cover plate for the threaded plate for inserting into the profile rail , in which the threaded plate is held at a distance from and parallel to the cover plate , wherein at least one guide element is provided between the holding device and the cover plate , by which the holding device is mounted so as to be displaceably axially guided relative to the cover plate , wherein the at least one guide element is configured as a spring element , by which the holding device is resiliently connected to the cover plate and has at least one spring tab which extends in an arcuate manner between the holding device and the cover plate , wherein a section connected to the cover plate extends in each case substantially parallel to the plane of the cover plate and a section provided on the holding device extends substantially in the insertion direction E, wherein a mount for the spring element is provided on the cover plate , in which mount the spring element is mounted, or the spring element is securely connected to the cover plate .
Device for the optical detection of a target gas in air gas mixtures, the device comprising an operating and analyzing unit ; a measuring cuvette which is formed as a multireflection measuring cuvette with optically reflecting surfaces on the inner walls and which comprises a gas inlet which is adapted to exchange gases and gas mixture with a measurement environment ; a radiation source adapted to emit light in the infrared range into the measuring cuvette ; a measuring detector ; and a reference detector unit ; wherein the measuring detector and the reference detector unit are adapted to detect the light of the radiation source and to convert it into electrical signals which correspond to the intensity of the detected light; wherein an optical band pass filter element is arranged in front of the reference detector unit and is designed to transmit light of a measurement wavelength in the infrared range; wherein the operating and analyzing unit is adapted to operate the radiation source and to detect the electrical signals of the measuring detector and of the reference detector unit ; wherein an optical double band pass filter unit is arranged in front of the reference detector unit and is designed to transmit in the infrared range light of a first reference wavelength and light of a second reference wavelength , wherein the first and the second reference wavelength and the associated band width and the maximum value of the transmission for the first and second reference wavelength are chosen such that no signal reduction is caused by the target gas or by another gas of the measurement environment, and that the first and second reference wavelength and the associated band width and the maximum value of the transmission are further chosen such that environmental effects, namely the direct influence of atmospheric humidity and the indirect effect of atmospheric humidity caused by salt content, summarily have the same effect as a signal reduction which is equal to the effect as a signal reduction at the measurement wavelength; and wherein the operating and analyzing unit is arranged to determine, from the signal associated with the first reference wavelength , from the signal associated with the second reference wavelength , and from the signal associated with the measurement wavelength , taking into account the spectral emission characteristic of the radiation source and taking into account the spectral measuring sensitivity characteristic curve of the measuring detector , and taking into account the spectral measuring sensitivity characteristic curve of the reference detector unit , and taking into account the spectral transmission characteristics of the optical band pass filter element and the spectral transmission characteristics of the optical double band pass filter unit , the effect of atmospheric humidity in the air gas mixture and to compensate it, and to determine a target gas concentration.
Plug-in connector for a hollow profile , in particular warm-edge hollow profile, of a spacer of an insulating glazing , wherein the plug-in connector has a longitudinal axis and a plurality of, in particular two, plug-connectable connector parts , - wherein a first connector part is in the form of a preferably straight plug-in tray with a cross section which is U-shaped at least in regions having a tray bottom , lateral tray webs extending from both sides of the tray bottom, open axial end faces and an axially continuous inner tray cavity and also having preferably resilient retaining elements for retention in the hollow profile , - wherein another connector part is in the form of a bridge with a U-shaped cross section having a bridge roof and edge-side lateral bridge webs extending from the bridge roof and also an axially continuous bridge cavity , wherein the further connector part , by way of the bridge webs , can be inserted into the first connector part in a plug-in direction transversely to the longitudinal axis in a manner facing the tray bottom and can be locked by means of a locking device , characterized in that the plug-in connector has a separate guide device of the connector parts which is locally and functionally separated from the locking device and is designed to guide the connector parts when they are plug-connected in the plug-in direction and in the plug-connected position and also to mutually hold the plug-connected connector parts in the direction of the longitudinal axis . - wherein a first connector part is in the form of a preferably straight plug-in tray with a cross section which is U-shaped at least in regions having a tray bottom , lateral tray webs extending from both sides of the tray bottom, open axial end faces and an axially continuous inner tray cavity and also having preferably resilient retaining elements for retention in the hollow profile , - wherein another connector part is in the form of a bridge with a U-shaped cross section having a bridge roof and edge-side lateral bridge webs extending from the bridge roof and also an axially continuous bridge cavity , wherein the further connector part , by way of the bridge webs , can be inserted into the first connector part in a plug-in direction transversely to the longitudinal axis in a manner facing the tray bottom and can be locked by means of a locking device , characterized in that the plug-in connector has a separate guide device of the connector parts which is locally and functionally separated from the locking device and is designed to guide the connector parts when they are plug-connected in the plug-in direction and in the plug-connected position and also to mutually hold the plug-connected connector parts in the direction of the longitudinal axis .
A channel state information reference signal, CSI-RS, mapping method for antenna ports that include K antenna port groups each including no more than N antenna ports, the mapping method performed by an apparatus and comprising: grouping physical resource blocks, PRBs, in a wireless communication system bandwidth in the frequency domain, thereby obtaining a plurality of PRB groups each including M PRBs , where M is an integer multiple of K; in each PRB of one PRB group, determining positions at which a pilot of each antenna port is mapped to resource elements, REs, in the PRB according to an antenna port index and an index of the PRB in the PRB group or the whole system bandwidth, wherein all antenna ports within a same antenna port group are mapped to N REs in the PRB, where said antenna ports are code multiplexed, said N REs forming one of K selected and non-overlapping N-port pilot patterns in each PRB, wherein each antenna port group is mapped to more than two N-port pilot patterns in the PRB group; and wherein in a PRB group, the sum across the PRBs of the PRB group of the quantity of the N-port pilot patterns contained in the Orthogonal Frequency Division Multiplexing, OFDM, symbols where each particular antenna port group is located is the same across the antenna port groups, thereby obtaining pilot mapping in the PRB group; and reusing the pilot mapping in the PRB group to each PRB group in the system bandwidth ; wherein in each PRB, there are OFDM symbols mapped with different N-port pilot patterns, and such OFDM symbols include different numbers of N-port pilot patterns. grouping physical resource blocks, PRBs, in a wireless communication system bandwidth in the frequency domain, thereby obtaining a plurality of PRB groups each including M PRBs , where M is an integer multiple of K; in each PRB of one PRB group, determining positions at which a pilot of each antenna port is mapped to resource elements, REs, in the PRB according to an antenna port index and an index of the PRB in the PRB group or the whole system bandwidth, wherein all antenna ports within a same antenna port group are mapped to N REs in the PRB, where said antenna ports are code multiplexed, said N REs forming one of K selected and non-overlapping N-port pilot patterns in each PRB, wherein each antenna port group is mapped to more than two N-port pilot patterns in the PRB group; and wherein in a PRB group, the sum across the PRBs of the PRB group of the quantity of the N-port pilot patterns contained in the Orthogonal Frequency Division Multiplexing, OFDM, symbols where each particular antenna port group is located is the same across the antenna port groups, thereby obtaining pilot mapping in the PRB group; and reusing the pilot mapping in the PRB group to each PRB group in the system bandwidth ; wherein in each PRB, there are OFDM symbols mapped with different N-port pilot patterns, and such OFDM symbols include different numbers of N-port pilot patterns.
Boundary layer suction and ice protection system for an aircraft aerofoil , including a wall provided with micro-perforations and delimiting a leading edge extended by a lower surface wall and by an upper surface wall , with an inner wall linking the upper surface wall to the lower surface wall and delimiting with the leading edge a front bay , this system including a perforated tube running along the leading edge by extending into the front bay , a check valve coupled to the tube to allow the intake of air into the tube through the flapper valve and to prohibit the backflow of air coming from the tube through the flapper valve , means for sucking the air from this tube in order to suck the boundary layer successively via the micro-perforations of the wall and the perforations of the tube , and means for blowing hot air into this perforated tube during the ice protection phase, this hot air being evacuated successively via the perforations of the tube and the micro-perforations of the wall .
A method at an electronic device having a display, the method comprising: displaying a user interface on the display, wherein the user interface includes at least one folder icon for a folder, the folder including at least two applications; determining that at least two applications in the folder have at least one notification and at least one application in the folder has more than one notification and appending, to the folder icon, a badge having a number, wherein the number represents a number of applications in the folder having notifications; receiving an input at the user interface to open a folder associated with the folder icon; determining whether one or multiple applications within the folder have a notification associated therewith; in response to determining that one application has a notification associated therewith, launching the one application associated with the notification directly; and in response to determining that multiple applications have a notification associated therewith, launching an interface for the folder. displaying a user interface on the display, wherein the user interface includes at least one folder icon for a folder, the folder including at least two applications; determining that at least two applications in the folder have at least one notification and at least one application in the folder has more than one notification and appending, to the folder icon, a badge having a number, wherein the number represents a number of applications in the folder having notifications; receiving an input at the user interface to open a folder associated with the folder icon; determining whether one or multiple applications within the folder have a notification associated therewith; in response to determining that one application has a notification associated therewith, launching the one application associated with the notification directly; and in response to determining that multiple applications have a notification associated therewith, launching an interface for the folder.
A method of operation of a device, the method comprising: receiving a first set of samples and a second set of samples, wherein the first set of samples corresponds to a portion of a first audio frame and the second set of samples corresponds to a second audio frame; generating a first energy parameter associated with a windowed target set of samples based on the first set of samples and a first subset of the second set of samples; generating a second energy parameter associated with a windowed reference set of samples that includes a second subset of the second set of samples; performing a square root operation on a ratio of the second energy parameter and the first energy parameter to generate a scale factor; scaling the target set of samples based on the scale factor, to generate a scaled target set of samples; and generating a third set of samples based on the scaled target set of samples and one or more samples of the second set of samples. receiving a first set of samples and a second set of samples, wherein the first set of samples corresponds to a portion of a first audio frame and the second set of samples corresponds to a second audio frame; generating a first energy parameter associated with a windowed target set of samples based on the first set of samples and a first subset of the second set of samples; generating a second energy parameter associated with a windowed reference set of samples that includes a second subset of the second set of samples; performing a square root operation on a ratio of the second energy parameter and the first energy parameter to generate a scale factor; scaling the target set of samples based on the scale factor, to generate a scaled target set of samples; and generating a third set of samples based on the scaled target set of samples and one or more samples of the second set of samples.
A computer-implemented method, comprising: obtaining, for a given geographic area, a three-dimensional, 3D, representation of the given geographic area, wherein the 3D representation depicts a view of the given geographic area from a specified viewing perspective; segmenting, by one or more computing devices, the 3D representation into a plurality of particular locations; determining, for each different particular location among the plurality of particular locations, a viewability score indicative of an amount of time that the different particular location is viewable by traffic passing the different particular location; and adjusting physical location usage based on the viewability scores for the plurality of particular locations, wherein adjusting the physical location usage comprises: selecting, based on the viewability scores, a location from among the plurality of particular locations to present content on a physical structure at the selected location; and adjusting, based on the viewability scores, the content displayed on the surface of the physical structure or an existing display property of the surface of the physical structure. obtaining, for a given geographic area, a three-dimensional, 3D, representation of the given geographic area, wherein the 3D representation depicts a view of the given geographic area from a specified viewing perspective; segmenting, by one or more computing devices, the 3D representation into a plurality of particular locations; determining, for each different particular location among the plurality of particular locations, a viewability score indicative of an amount of time that the different particular location is viewable by traffic passing the different particular location; and adjusting physical location usage based on the viewability scores for the plurality of particular locations, wherein adjusting the physical location usage comprises: selecting, based on the viewability scores, a location from among the plurality of particular locations to present content on a physical structure at the selected location; and adjusting, based on the viewability scores, the content displayed on the surface of the physical structure or an existing display property of the surface of the physical structure. selecting, based on the viewability scores, a location from among the plurality of particular locations to present content on a physical structure at the selected location; and adjusting, based on the viewability scores, the content displayed on the surface of the physical structure or an existing display property of the surface of the physical structure.
A method for managing nodes in a motion detection system, the motion detection system including a wireless access point , AP, and one or more leaf nodes in communication with the AP over respective AP-leaf node links , the method comprising: identifying, by the AP, one or more of the leaf nodes as static leaf nodes having fixed locations based on presence activity of each static leaf node in a calibration window , the calibration window comprising a number of calibration periods ; determining a health score for each AP-leaf node link of each static leaf node for the calibration window by adding link quality values for each calibration period across the calibration window for each AP-leaf node link; selecting one or more of the static leaf nodes to use for sounding in the motion detection system based on the health scores for each of the AP-leaf node links; and updating the motion detection system to use the selected one or more static leaf nodes for motion detection. identifying, by the AP, one or more of the leaf nodes as static leaf nodes having fixed locations based on presence activity of each static leaf node in a calibration window , the calibration window comprising a number of calibration periods ; determining a health score for each AP-leaf node link of each static leaf node for the calibration window by adding link quality values for each calibration period across the calibration window for each AP-leaf node link; selecting one or more of the static leaf nodes to use for sounding in the motion detection system based on the health scores for each of the AP-leaf node links; and updating the motion detection system to use the selected one or more static leaf nodes for motion detection.
A process for treating a tailings stream comprising (a) contacting a gelling agent and an activator with said tailings stream, wherein the tailings stream comprises water and solids, which solids comprise sand and clay, wherein 5% by volume to 100% by volume of the solids have a particle size less than 0.05 mm, based on the total volume of the solids, wherein the gelling agent is added in an amount equal to 0.01 to 25,000 kilograms per metric tonne of solids in the tailings stream, and wherein the activator is added in an amount equal to 0.01 to 25% by weight, based on the weight of the gelling agent; (b) entrapping the solids within a gel; and (c) drying and/or dewatering the gel to strengthen and solidify the gel to produce a trafficable deposit wherein the gelling agent is selected from the group consisting of acrylamide, acrylate, urethane, phenoplast, aminoplast, vinyl ester-styrene, polyester-styrene, furfuryl alcohol-based furol polymer, epoxy, vulcanized oil, lignin, lignosulfonate, lignosulfite, montan wax, polyvinyl pyrrolidone, and combinations of two or more thereof.