mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method for a contact center for routing a work request to an agent within the contact center, the method comprising: determining operating capacities of agents within an agent pool; selecting, for a received work request, a plurality of agents of the agent pool based on the operating capacities of the agents of the agent pool and a required skill set for the received work request, each of the plurality of agents associated with a respective agent communication device; presenting simultaneously in queues accessible by agent communication devices associated with the plurality of agents, the work request; updating the selection of the plurality of agents after presenting the work request; routing the work request to a select agent communication device associated with an agent from the plurality of agents based on agent responsiveness time, wherein the agent responsiveness time comprises time duration in which an acceptance of the work request is received from the select agent communication device; redetermining the operating capacity for the agent to whom the work request is sent; and removing any other work orders presented to the queue associated with the agent to whom the work request is sent if the operating capacity for the agent exceeds a threshold. determining operating capacities of agents within an agent pool; selecting, for a received work request, a plurality of agents of the agent pool based on the operating capacities of the agents of the agent pool and a required skill set for the received work request, each of the plurality of agents associated with a respective agent communication device; presenting simultaneously in queues accessible by agent communication devices associated with the plurality of agents, the work request; updating the selection of the plurality of agents after presenting the work request; routing the work request to a select agent communication device associated with an agent from the plurality of agents based on agent responsiveness time, wherein the agent responsiveness time comprises time duration in which an acceptance of the work request is received from the select agent communication device; redetermining the operating capacity for the agent to whom the work request is sent; and removing any other work orders presented to the queue associated with the agent to whom the work request is sent if the operating capacity for the agent exceeds a threshold.
A method for determining at least the group delay of a sample by means of spectral interferometry, wherein a beam (2") emitted from a radiation source is directed onto the sample and a reference beam is directed onto a reference sample and the spectral interference of the two beams after reflection at the samples or passing the samples is recorded by means of a spectrograph, characterised in that the thus-obtained interferogramme I(ω) is numerically derived according to the angular frequency ω, whereupon the zeroes ω i are numerically calculated for the thus-obtained function I'(ω) as solutions of the equation I'(ω) = 0 and then the frequency-dependent group delay τ(ω) is calculated from the zeroes ω i in accordance with the equation τ(ω n) = π/ (ω i+1 -ω i), where i = 1,2... and ω n = (ω i+1 +ω i)/2.
A user equipment, UE comprising: at least one component configured to support a handover during decreasing radio conditions, wherein the component is configured to: obtain cell measurements to detect a rapid degradation of radio conditions event; when an event is triggered evaluate the event using a time to trigger for rapid degradation of radio conditions, TTTrd, value and a filter coefficient for rapid degradation of radio conditions, FCrd, value that are different than the corresponding standard values indicated by a network; wherein rapid degradation of radio conditions is detected if at least one of: a predetermined number of consecutively decreasing measurement values for a cell is observed for a Received Signal Code Power, RSCP, or Ec/No measurement quantity; or a predetermined number of consecutively increasing measurement values for a cell is observed for a path_loss measurement quantity; or if the cell measurement is greater than or less than a threshold. at least one component configured to support a handover during decreasing radio conditions, wherein the component is configured to: obtain cell measurements to detect a rapid degradation of radio conditions event; when an event is triggered evaluate the event using a time to trigger for rapid degradation of radio conditions, TTTrd, value and a filter coefficient for rapid degradation of radio conditions, FCrd, value that are different than the corresponding standard values indicated by a network; wherein rapid degradation of radio conditions is detected if at least one of: a predetermined number of consecutively decreasing measurement values for a cell is observed for a Received Signal Code Power, RSCP, or Ec/No measurement quantity; or a predetermined number of consecutively increasing measurement values for a cell is observed for a path_loss measurement quantity; or if the cell measurement is greater than or less than a threshold. obtain cell measurements to detect a rapid degradation of radio conditions event; when an event is triggered evaluate the event using a time to trigger for rapid degradation of radio conditions, TTTrd, value and a filter coefficient for rapid degradation of radio conditions, FCrd, value that are different than the corresponding standard values indicated by a network; a predetermined number of consecutively decreasing measurement values for a cell is observed for a Received Signal Code Power, RSCP, or Ec/No measurement quantity; or a predetermined number of consecutively increasing measurement values for a cell is observed for a path_loss measurement quantity; or if the cell measurement is greater than or less than a threshold.
A non-transitory computer-readable storage medium storing instructions that, when executed by a processor, cause the processor to perform the steps of: based on battery data measured from a battery and a battery model of the battery, determining a detection parameter value used for detecting a short circuit of the battery and a variation factor value correlated with the detection parameter; using the variation factor to extract a reference value corresponding to the detection parameter value from a reference data set; and determining whether a short circuit of the battery has occurred based on a result of comparing the detection parameter value with the reference value, characterised in that the detection parameter value corresponds to a change in a cumulative correction value of a state of charge, SOC, during a target time period of constant voltage, CV, charging, and the variation factor comprises a discharge cut off voltage and/or a charge temperature of the target section. based on battery data measured from a battery and a battery model of the battery, determining a detection parameter value used for detecting a short circuit of the battery and a variation factor value correlated with the detection parameter; using the variation factor to extract a reference value corresponding to the detection parameter value from a reference data set; and determining whether a short circuit of the battery has occurred based on a result of comparing the detection parameter value with the reference value, characterised in that the detection parameter value corresponds to a change in a cumulative correction value of a state of charge, SOC, during a target time period of constant voltage, CV, charging, and the variation factor comprises a discharge cut off voltage and/or a charge temperature of the target section.
A method for charging an electric vehicle with a charging current (I L) from a domestic mains supply connected to a power generating plant, a power supply grid, an energy management device, and if applicable an energy store, the charging current (I L) for charging the electric vehicle being controlled by a control device, and the control device being connected to the energy management device, and at least two charging currents (I Li) being preset for the control device, and the electric vehicle being charged with a charging current (I L) which is provided according to one of the at least two preset charging currents (I Li) depending on the energy management device, an activation threshold value (ESSW i) and a deactivation threshold value (ASSW i) being defined in each case for each of the at least two preset charging currents (I Li), characterized in that the charging current (I L) for charging the electric vehicle is selected from the at least two preset charging currents (I Li) by determining the surplus power of the domestic mains supply and the power drawn from the power supply grid and comparing them with at least one activation threshold value (ESSW i) and/or deactivation threshold value (ASSW i) each, and, when the corresponding activation threshold values (ESSW i) or deactivation threshold values (ASSW i) are reached, activating or deactivating the corresponding preset charging current (I Li), the determined surplus power of the domestic mains supply being compared with the activation threshold values (ESSW i) and the determined power drawn from the power supply grid being compared with the deactivation threshold values (ASSW i), and the corresponding preset charging current (I Li) being activated or deactivated.
A radio frequency, RF, photonic spectrometer comprising: a laser; a receiver branch comprising an optical modulator optically coupled to the laser and configured to modulate laser light based upon a radio frequency, RF, input signal, and an optical bandpass filter optically coupled to the optical modulator; a plurality of optical comb branches (40a, 40b) optically coupled to the laser and each comprising a frequency comb generator (41a, 41b) coupled to a respective RF reference signal, the RF reference signals (f1, f2) having different frequencies associated therewith; and an output stage configured to determine a frequency of the RF input signal based upon outputs of the receiver branch and the plurality of optical comb branches (40a, 40b), wherein the receiver branch further comprises an acousto-optic modulator coupled to the optical bandpass filter and a respective RF reference signal having a different frequency than the other RF reference signal frequencies (f1, f2), characterized in that the RF photonic spectrometer comprises a respective photodetector (43a, 43b) coupled between the output stage and the outputs of the receiver branch and the plurality of optical comb branches (40a, 40b). a laser; a receiver branch comprising an optical modulator optically coupled to the laser and configured to modulate laser light based upon a radio frequency, RF, input signal, and an optical bandpass filter optically coupled to the optical modulator; a plurality of optical comb branches (40a, 40b) optically coupled to the laser and each comprising a frequency comb generator (41a, 41b) coupled to a respective RF reference signal, the RF reference signals (f1, f2) having different frequencies associated therewith; and an output stage configured to determine a frequency of the RF input signal based upon outputs of the receiver branch and the plurality of optical comb branches (40a, 40b), wherein the receiver branch further comprises an acousto-optic modulator coupled to the optical bandpass filter and a respective RF reference signal having a different frequency than the other RF reference signal frequencies (f1, f2), characterized in that the RF photonic spectrometer comprises a respective photodetector (43a, 43b) coupled between the output stage and the outputs of the receiver branch and the plurality of optical comb branches (40a, 40b).
Illuminated ceramic tile comprising one or more light sources (6, 14), the generated light of which is visible at a visible side of the ceramic tile, wherein the body of the ceramic tile is penetrated by at least one bore and/or recess, characterised in that at least the visible side is covered by a glaze, wherein the glaze is formed as a light-conducting glaze and fills up the bore and/or the recess in sealing manner, and in that the one or more light sources (6, 14) are arranged on the rear side of the ceramic tile and are in light-conducting connection with the bore and/or recess, wherein the light source is designed as a lighting panel which is arranged in a two-dimensionally hollowed base recess on the base side of the ceramic tile, wherein the base recess is formed by an elevated, annular base edge in which one or more recesses are arranged.
An epilator for removing body hair, the epilator comprising a body and a plucking cylinder which is rotatable about a rotation axis for plucking hair, wherein the plucking cylinder is mounted in or on the body such that the plucking cylinder is movable with respect to the body between an extended position and a retracted position, wherein the epilator further comprises at least one elastically deformable element (9; 12) biasing the plucking cylinder into the extended position, preferably with an adjustable biasing force, characterized in that the epilator further comprises at least one roller arrangement comprising at least one further elastically deformable element and at least two rollers mounted on the same side of the body as the plucking cylinder with the plucking cylinder interposed between the rollers, which rollers are movable with respect to the body between an extended position and a retracted position, with the further elastically deformable element biasing the rollers into the extended position, wherein the rollers, the plucking cylinder and the elastically deformable elements (9; 10; 12) are arranged and adapted such that when pressing the rollers and the plucking cylinder to a flat surface the force exerted by the rollers exceeds the force exerted by the plucking cylinder.
Method for operating at least one headlight on a motor vehicle with very high resolution, by means of which a light distribution which can be variably set by a control device of the headlamp is produced in a surrounding region of the motor vehicle in order to variably set a high-resolution light distribution, the control device carrying out at least the following steps: - specifying at least one property of the light distribution at at least two sampling points (20, 22, 24, 26) of the light distribution; - determining the at least one property of the light distribution at further points of the light distribution as a function of the specified property of the light distribution at the at least two sampling points (20, 22, 24, 26); characterised by - controlling at least one deflection device of the headlight and/or controlling at least one light source of the headlight by means of the control device as a function of the specified and determined property of the light distribution at the respective points (20, 22, 24, 26, 38) for producing the adjustable light distribution, the property of the light distribution at the further points being calculated by an interpolation and/or extrapolation of the least one specified property of the light distribution at the respective sampling points (20, 22, 24, 26). - specifying at least one property of the light distribution at at least two sampling points (20, 22, 24, 26) of the light distribution; - determining the at least one property of the light distribution at further points of the light distribution as a function of the specified property of the light distribution at the at least two sampling points (20, 22, 24, 26); characterised by - controlling at least one deflection device of the headlight and/or controlling at least one light source of the headlight by means of the control device as a function of the specified and determined property of the light distribution at the respective points (20, 22, 24, 26, 38) for producing the adjustable light distribution, the property of the light distribution at the further points being calculated by an interpolation and/or extrapolation of the least one specified property of the light distribution at the respective sampling points (20, 22, 24, 26).
A light emitting diode comprising at least: - a first layer comprising an n-doped semiconductor and a second layer comprising a p-doped semiconductor, the first and second layers (102, 104) forming a p-n junction; - an active zone disposed between the first and second layers (102, 104), comprising at least one emissive layer (106.2) including In X Ga 1-X N and configured to form a quantum well, and at least two barrier layers (108.2, 108.3) including In Y Ga 1-Y N and between which the emissive layer (106.2) is disposed, with X and Y being real numbers such that 0 < Y < X; - an intermediate layer (114.1), disposed in the barrier layer (108.2) lying between the emissive layer (106.2) and the first layer such that parts of said barrier layer (108.2) are disposed on either side of the intermediate layer (114.1), or disposed between said barrier layer (108.2) and the emissive layer (106.2), the intermediate layer (114.1) including a III-N type semiconductor the band gap of which is higher than that of the semiconductor of said barrier layer (108.2); and in which: - the second layer includes GaN and the first layer includes In V Ga 1-V N, with V being a real number such that 0 < V; or - the second layer includes In W Ga 1-W N and the first layer includes In V Ga 1-V N, with V and W being real numbers such that 0 < W < Y and 0 < W < V. - a first layer comprising an n-doped semiconductor and a second layer comprising a p-doped semiconductor, the first and second layers (102, 104) forming a p-n junction; - an active zone disposed between the first and second layers (102, 104), comprising at least one emissive layer (106.2) including In X Ga 1-X N and configured to form a quantum well, and at least two barrier layers (108.2, 108.3) including In Y Ga 1-Y N and between which the emissive layer (106.2) is disposed, with X and Y being real numbers such that 0 < Y < X; - an intermediate layer (114.1), disposed in the barrier layer (108.2) lying between the emissive layer (106.2) and the first layer such that parts of said barrier layer (108.2) are disposed on either side of the intermediate layer (114.1), or disposed between said barrier layer (108.2) and the emissive layer (106.2), the intermediate layer (114.1) including a III-N type semiconductor the band gap of which is higher than that of the semiconductor of said barrier layer (108.2); - the second layer includes GaN and the first layer includes In V Ga 1-V N, with V being a real number such that 0 < V; or - the second layer includes In W Ga 1-W N and the first layer includes In V Ga 1-V N, with V and W being real numbers such that 0 < W < Y and 0 < W < V.
A temperature control method comprising: receiving information about a time span used for obtaining a set temperature value of an air handling unit mapped to weather factor history information; obtaining the set temperature value and the weather factor history information mapped thereto during the time span; obtaining set temperature history information of an air handling unit by calculating an average value of the obtained set temperature value mapped to a same weather factor value in the obtained weather factor history information; obtaining weather factor information regarding a scheduling target time; and scheduling a set temperature of the air handling unit with regard to the scheduling target time, based on the obtained set temperature history information and the obtained weather factor information. receiving information about a time span used for obtaining a set temperature value of an air handling unit mapped to weather factor history information; obtaining the set temperature value and the weather factor history information mapped thereto during the time span; obtaining set temperature history information of an air handling unit by calculating an average value of the obtained set temperature value mapped to a same weather factor value in the obtained weather factor history information; obtaining weather factor information regarding a scheduling target time; and scheduling a set temperature of the air handling unit with regard to the scheduling target time, based on the obtained set temperature history information and the obtained weather factor information.
An extruded polymeric foam article comprising a polymer matrix with a continuous thermoplastic polymer phase, the polymer matrix defining a multitude of cells therein and the continuous thermoplastic polymer phase having a continuous phase of styrene-acrylonitrile polymer characterized by having: a. an acrylonitrile content of 20 weight-percent or less and five weight-percent or more, with weight-percent based on total styrene-acrylonitrile copolymer weight; b. a mean acrylonitrile comonomer content that exceeds its median acrylonitrile comonomer content; and c. an average copolymerized acrylonitrile comonomer distribution having a breadth at half-height that is greater than 2.5 weight-percent as measured at half peak height of a copolymerized acrylonitrile comonomer distribution curve for the styrene-acrylonitrile copolymer. a. an acrylonitrile content of 20 weight-percent or less and five weight-percent or more, with weight-percent based on total styrene-acrylonitrile copolymer weight; b. a mean acrylonitrile comonomer content that exceeds its median acrylonitrile comonomer content; and c. an average copolymerized acrylonitrile comonomer distribution having a breadth at half-height that is greater than 2.5 weight-percent as measured at half peak height of a copolymerized acrylonitrile comonomer distribution curve for the styrene-acrylonitrile copolymer.
A method for producing a multi-layer sliding bearing, comprising the method steps: - providing a carrier body with a carrier body connecting surface, wherein a surface structure is formed on the carrier body connecting surface, and wherein the carrier body on the carrier body connecting surface has a carrier body material with a carrier body strength; - providing a bearing body with a bearing body connecting surface, wherein the bearing body on the bearing body connecting surface has a bearing body material with a bearing body strength; - arranging the bearing body to the carrier body, wherein a carrier body connecting surface is turned towards a bearing body connecting surface; - pressing the bearing body and the carrier body together, wherein the bearing body, on the bearing body connecting surface, is plastically deformed and forms a positive locking connection with the carrier body connecting surface due to the effect of the surface structure of the carrier body connecting surface, characterized in that the surface structure of the carrier body connecting surface is produced in the form of left-right-hand knurl by means of a lathe tool and/or by means of a turning method, wherein a left-hand thread and a right-hand thread are cut into the carrier body connecting surface. - providing a carrier body with a carrier body connecting surface, wherein a surface structure is formed on the carrier body connecting surface, and wherein the carrier body on the carrier body connecting surface has a carrier body material with a carrier body strength; - providing a bearing body with a bearing body connecting surface, wherein the bearing body on the bearing body connecting surface has a bearing body material with a bearing body strength; - arranging the bearing body to the carrier body, wherein a carrier body connecting surface is turned towards a bearing body connecting surface; - pressing the bearing body and the carrier body together, wherein the bearing body, on the bearing body connecting surface, is plastically deformed and forms a positive locking connection with the carrier body connecting surface due to the effect of the surface structure of the carrier body connecting surface,