mhurhangee/ep-ind-claims huggingface dataset:
A method for inspecting a composite part during manufacture, the method comprising the steps of: detecting an in-process anomaly with respect to a ply of the composite part during placement of the ply; determining part location coordinates of the in-process anomaly with respect to the ply of the composite part; mapping the in-process anomaly to a digital part model based upon the part location coordinates; and displaying a representation of the digital part model including an indication of the in-process anomaly relative thereto; wherein the step of determining the part location coordinates comprises the step of: obtaining machine axis coordinates of the in-process anomaly, said machine axis coordinates defining the coordinates of an automated tow placement system or an automated tape placement system at a time at which that portion of the ply that includes the in-process anomaly that has been detected was placed, wherein the machine axis coordinates are obtained from a machine controller or a process parameter monitoring system; and wherein the step of determining the part location coordinates further comprises the step of converting the machine axis coordinates to the part location coordinates. detecting an in-process anomaly with respect to a ply of the composite part during placement of the ply; determining part location coordinates of the in-process anomaly with respect to the ply of the composite part; mapping the in-process anomaly to a digital part model based upon the part location coordinates; and displaying a representation of the digital part model including an indication of the in-process anomaly relative thereto; wherein the step of determining the part location coordinates comprises the step of: obtaining machine axis coordinates of the in-process anomaly, said machine axis coordinates defining the coordinates of an automated tow placement system or an automated tape placement system at a time at which that portion of the ply that includes the in-process anomaly that has been detected was placed, wherein the machine axis coordinates are obtained from a machine controller or a process parameter monitoring system; and wherein the step of determining the part location coordinates further comprises the step of converting the machine axis coordinates to the part location coordinates. obtaining machine axis coordinates of the in-process anomaly, said machine axis coordinates defining the coordinates of an automated tow placement system or an automated tape placement system at a time at which that portion of the ply that includes the in-process anomaly that has been detected was placed, wherein the machine axis coordinates are obtained from a machine controller or a process parameter monitoring system; and wherein the step of determining the part location coordinates further comprises the step of converting the machine axis coordinates to the part location coordinates.
A multi-functional foldable stool, comprising a foldable stool body, wherein an upper end and a lower end of the foldable stool body comprise an upper seat and a lower seat respectively, the foldable stool body comprises a cavity, and an upper cover configured to cover and uncover the cavity is mounted on the upper seat; characterized in that, a front end of the upper cover is connected to the upper seat via a buckle; the front end of the upper cover is provided with the buckle, and a buckling block mated with the buckle is disposed on an outer side wall of a front end of the upper seat; a lower end of the buckle is coupled to a downwardly-opened groove of the buckling block; a spring clip configured to hang a garbage bag is detachably mounted to a bottom of the upper seat. a front end of the upper cover is connected to the upper seat via a buckle; the front end of the upper cover is provided with the buckle, and a buckling block mated with the buckle is disposed on an outer side wall of a front end of the upper seat; a lower end of the buckle is coupled to a downwardly-opened groove of the buckling block; a spring clip configured to hang a garbage bag is detachably mounted to a bottom of the upper seat.
A loading and unloading apparatus for performing loading and unloading of workpieces with respect to access positions on a pallet, comprising: a plurality of hands including a first and a second hand (110, 120) which alternately access the access positions on the pallet, the access positions comprising access positions of each of the first hand and the second hand; a managing unit which manages the access positions of the first hand and the second hand; and a determining unit which determines a movement path of the second hand based on the access positions of the first hand, wherein the access positions and the access order of one of the first and the second hand (110, 120) are determined based on the access positions and the access order of the other one of the first and the second hand (110, 120). a plurality of hands including a first and a second hand (110, 120) which alternately access the access positions on the pallet, the access positions comprising access positions of each of the first hand and the second hand; a managing unit which manages the access positions of the first hand and the second hand; and a determining unit which determines a movement path of the second hand based on the access positions of the first hand, wherein the access positions and the access order of one of the first and the second hand (110, 120) are determined based on the access positions and the access order of the other one of the first and the second hand (110, 120).
A method for processing a signal generated by a coherent lidar comprising a coherent source that is periodically modulated in frequency, - a beat signal (Sb) being generated by a photodetector from the interference between an optical signal referred to as the local oscillator, having a local-oscillator frequency (f OL (t)), and an optical signal backscattered by a target illuminated by the lidar, said beat signal being digitized, - the local-oscillator frequency (f OL (t)) consisting of the sum of an average value and of a modulation frequency (f mod (t)) that is generated by modulating the source, the modulation frequency being periodic with a modulation period (T FO), each period comprising n linear portions having n frequency slopes (αi), respectively, n being higher than or equal to 2, the method being characterized in that it comprises the steps of: - modulating in a complex way the beat signal (Sb) with the modulation frequency (f mod) in order to obtain a modulated signal (S mod), - demodulating in a complex way the modulated signal (S mod) with n demodulation frequencies (f demod (i)) each having a single slope equal to the respective frequency slope (αi) of the modulation frequency (f mod), in order to obtain n demodulated signals (S demod (i)), - determining n spectral densities (SP(i)) of the n demodulated signals (S demod (i)), - determining n characteristic frequencies (v αi) corresponding to the maximum of the n spectral densities (SP(i)), respectively, - determining information on the velocity (v) and information on the distance (d) of the target from said n characteristic frequencies (v αi). - a beat signal (Sb) being generated by a photodetector from the interference between an optical signal referred to as the local oscillator, having a local-oscillator frequency (f OL (t)), and an optical signal backscattered by a target illuminated by the lidar, said beat signal being digitized, - the local-oscillator frequency (f OL (t)) consisting of the sum of an average value and of a modulation frequency (f mod (t)) that is generated by modulating the source, the modulation frequency being periodic with a modulation period (T FO), each period comprising n linear portions having n frequency slopes (αi), respectively, n being higher than or equal to 2, - modulating in a complex way the beat signal (Sb) with the modulation frequency (f mod) in order to obtain a modulated signal (S mod), - demodulating in a complex way the modulated signal (S mod) with n demodulation frequencies (f demod (i)) each having a single slope equal to the respective frequency slope (αi) of the modulation frequency (f mod), in order to obtain n demodulated signals (S demod (i)), - determining n spectral densities (SP(i)) of the n demodulated signals (S demod (i)), - determining n characteristic frequencies (v αi) corresponding to the maximum of the n spectral densities (SP(i)), respectively, - determining information on the velocity (v) and information on the distance (d) of the target from said n characteristic frequencies (v αi).
A system for communicating status information via an illuminated bezel of a panel, the system comprising: an interface panel (102, 202) comprising a bezel extending around a perimeter of the interface panel (102, 202) and a button (206a-e) for controlling a function of a mechanical device; a light source for generating a light; a light diffuser disposed in the bezel and extending around the perimeter of the interface panel (102, 202), wherein the light diffuser is coupled to the light source and configured to distribute the light generated by the light source to illuminate the perimeter of the interface panel (102, 202); and a light source controller coupled to the light source, the light source controller configured to control the light source to generate the light to communicate a predefined message via the light diffuser based on a notification received for communicating a message, the notification being provided by the mechanical device and being indicative of a current status of the mechanical device an interface panel (102, 202) comprising a bezel extending around a perimeter of the interface panel (102, 202) and a button (206a-e) for controlling a function of a mechanical device; a light source for generating a light; a light diffuser disposed in the bezel and extending around the perimeter of the interface panel (102, 202), wherein the light diffuser is coupled to the light source and configured to distribute the light generated by the light source to illuminate the perimeter of the interface panel (102, 202); and a light source controller coupled to the light source, the light source controller configured to control the light source to generate the light to communicate a predefined message via the light diffuser based on a notification received for communicating a message, the notification being provided by the mechanical device and being indicative of a current status of the mechanical device
High-speed imaging sensor system, the system comprising one or more light sources, and comprising an array having a plurality of single-photon detectors (SPDs), which detectors are spatially distributed throughout the array in a matrix form, preferably at regular intervals from each other, wherein the SPD are capable of detecting single photons, and registering detection of the single photon with a detection signal; the system further comprising a plurality of row buses and column buses, and wherein the detectors are grouped in rows and/or columns, and wherein the detectors per row are connected to one or more row buses and/or wherein the detectors per column are connected to one or more column buses on the column bus for aggregating signals from the detectors, wherein per row bus only detectors from one of the rows are connected to the row bus for aggregating signals from the detectors, wherein per column bus only detectors from one of the columns are connected; the system further comprising an evaluation circuit, wherein the row buses and the column buses are connected to the evaluation circuit, the evaluation circuit being adapted to evaluate the aggregated signals from the row buses and the column buses against predetermined confirmation patterns to confirm the detection of an incident photon and location-determination thereof, wherein said confirmation patterns comprise temporal and/or spatial conditions, and wherein a detection is confirmed on the basis of a compliance of the row bus and column bus signals with a predetermined pattern, wherein the spatial conditions involve detecting an aggregated signal comprising a detection signal from at least two column buses associated with adjacent columns in a predetermined time window, and/or involves detecting an aggregated signal comprising a detection signal in at least two row buses associated with adjacent rows in a predetermined time window, wherein the temporal conditions concern a temporal overlap of detecting an aggregated signal comprising a detection signal from at least one row bus, and detecting an aggregated signal comprising a detection signal from at least one column bus, the location of the incidence of the photon on the array being determined on the basis of the column buses and row buses associated with a confirmed detection. wherein the spatial conditions involve detecting an aggregated signal comprising a detection signal from at least two column buses associated with adjacent columns in a predetermined time window, and/or involves detecting an aggregated signal comprising a detection signal in at least two row buses associated with adjacent rows in a predetermined time window, wherein the temporal conditions concern a temporal overlap of detecting an aggregated signal comprising a detection signal from at least one row bus, and detecting an aggregated signal comprising a detection signal from at least one column bus, the location of the incidence of the photon on the array being determined on the basis of the column buses and row buses associated with a confirmed detection.
A method for reducing sorbic acid precipitation during manufacture and storage of stable preserved syrup, said method comprising (a) forming a microemulsion comprising sorbic acid, a non-aqueous solvent, and surfactant, (b) combining syrup ingredients in a bulk quantity of liquid, and (c) adding the microemulsion to the liquid. (a) forming a microemulsion comprising sorbic acid, a non-aqueous solvent, and surfactant, (b) combining syrup ingredients in a bulk quantity of liquid, and (c) adding the microemulsion to the liquid.
A method of wireless communication performed by a user equipment, UE, comprising: receiving a sounding reference signal, SRS, resource configuration, the SRS resource configuration indicating at least a comb pattern for at least one SRS resource allocated to the UE and a puncturing unit for the comb pattern, wherein the comb pattern is divided into one or more puncturing units, wherein each puncturing unit of the one or more puncturing units comprises one or more time units of the comb pattern, and wherein each of the one or more time units of the comb pattern comprises two or more symbols; and refraining from transmitting all SRS transmissions of the at least one SRS resource within a first puncturing unit of the one or more puncturing units based on a determination that one or more SRS transmissions of the at least one SRS resource within the first puncturing unit are to be dropped. receiving a sounding reference signal, SRS, resource configuration, the SRS resource configuration indicating at least a comb pattern for at least one SRS resource allocated to the UE and a puncturing unit for the comb pattern, wherein the comb pattern is divided into one or more puncturing units, wherein each puncturing unit of the one or more puncturing units comprises one or more time units of the comb pattern, and wherein each of the one or more time units of the comb pattern comprises two or more symbols; and refraining from transmitting all SRS transmissions of the at least one SRS resource within a first puncturing unit of the one or more puncturing units based on a determination that one or more SRS transmissions of the at least one SRS resource within the first puncturing unit are to be dropped.
A portable exercise device (100, 1000, 1500), comprising: a first horizontal bar (110, 1010, 1510) with a first end and a second end; a first neck (121, 1021, 1521) attached to the first end; a second neck (122, 1022, 1522) attached to the second end; a first vertical column (131, 1031, 1531) for receiving the first neck, wherein the first neck is movable within the first vertical column to alter the vertical height of the first horizontal bar; a second vertical column (132, 1032, 1532) for receiving the second neck, wherein the second neck is movable within the second vertical column to alter the vertical height of the first horizontal bar; a second horizontal bar (160, 1060, 1560) attached to a point near the top of the first vertical column and to a point near the top of the second vertical column; a third horizontal bar (410, 1080, 1620) coupled to the first vertical column and the second vertical column; a first leg attached to the first vertical column; a second leg attached to the second vertical column; a backboard (230, 1220, 1720) attached to the second horizontal bar and the third horizontal bar; and a floorboard (150, 1050, 1550) attached to the backboard with a hinge (151, 1090, 1551); and a mat comprising a pocket to receive the floorboard. a first horizontal bar (110, 1010, 1510) with a first end and a second end; a first neck (121, 1021, 1521) attached to the first end; a second neck (122, 1022, 1522) attached to the second end; a first vertical column (131, 1031, 1531) for receiving the first neck, wherein the first neck is movable within the first vertical column to alter the vertical height of the first horizontal bar; a second vertical column (132, 1032, 1532) for receiving the second neck, wherein the second neck is movable within the second vertical column to alter the vertical height of the first horizontal bar; a second horizontal bar (160, 1060, 1560) attached to a point near the top of the first vertical column and to a point near the top of the second vertical column; a third horizontal bar (410, 1080, 1620) coupled to the first vertical column and the second vertical column; a first leg attached to the first vertical column; a second leg attached to the second vertical column; a backboard (230, 1220, 1720) attached to the second horizontal bar and the third horizontal bar; and a floorboard (150, 1050, 1550) attached to the backboard with a hinge (151, 1090, 1551); and a mat comprising a pocket to receive the floorboard.
A tether strap for securing a convertible child safety seat to an anchorage location within a vehicle, comprising: - connector means adapted to secure the tether strap to the anchorage location within the vehicle; - length adjustment means adapted to adjust the length of the tether strap; - securing means (20, 20a) adapted to secure the tether strap to the child safety seat such that two portions of the tether strap extend from the child safety seat, wherein the two portions of the tether strap extending from the child safety seat are joint by the length adjustment means; and the tether strap is characterized in that it further comprises: - indicator means comprising indicator portions, wherein the indicator portions are positioned on opposing sides of the same portion of the tether strap and are adapted to move between a concealed position when no tension is applied to the tether strap and a revealed position when tension is applied to the tether strap. - connector means adapted to secure the tether strap to the anchorage location within the vehicle; - length adjustment means adapted to adjust the length of the tether strap; - securing means (20, 20a) adapted to secure the tether strap to the child safety seat such that two portions of the tether strap extend from the child safety seat, wherein the two portions of the tether strap extending from the child safety seat are joint by the length adjustment means; and the tether strap is - indicator means comprising indicator portions, wherein the indicator portions are positioned on opposing sides of the same portion of the tether strap and are adapted to move between a concealed position when no tension is applied to the tether strap and a revealed position when tension is applied to the tether strap.
A method for transmitting data in a Vehicle-to-Everything, V2X, system, the method comprising: receiving, by a terminal device, information of a second operator transmitted by network equipment providing coverage through a serving cell, a wireless communication network to which the serving cell belongs being deployed by a first operator and the second operator, the network equipment being deployed by the first operator, and the information of the second operator comprising a Public Land Mobile Network, PLMN, number and frequency resource information; and receiving, by the terminal device, data transmitted by the second operator according to the information of the second operator. receiving, by a terminal device, information of a second operator transmitted by network equipment providing coverage through a serving cell, a wireless communication network to which the serving cell belongs being deployed by a first operator and the second operator, the network equipment being deployed by the first operator, and the information of the second operator comprising a Public Land Mobile Network, PLMN, number and frequency resource information; and receiving, by the terminal device, data transmitted by the second operator according to the information of the second operator.