mhurhangee/patent-ind-claim-en huggingface dataset:
A method of manufacturing a security device, comprising: providing a transparent support layer having first and second surfaces ; conveying the transparent support layer along a transport path in a machine direction (MD); and during the conveying: (a) forming an array of focussing elements on the first surface of the transparent support layer in at least a first region; and (b) applying an image array to the second surface of the transparent support layer in at least part of the first region; whereby the array of focussing elements and the image array are registered to one another at least in the machine direction (MD); wherein step (a) comprises: (a)(i) applying at least one transparent curable material either to the transparent support layer or to a casting tool, preferably a focussing element cylinder, carrying a surface relief corresponding to the focussing elements, over an area which includes at least the first region; (a)(ii) forming the transparent curable material(s) with the casting tool; and (a)(iii) curing the transparent curable material(s) so as to retain the surface relief in the first region; and wherein step (b) comprises printing the image array on to the transparent support layer; characterised in that steps (a) and (b) are performed simultaneously at the same position along the transport path in the machine direction. providing a transparent support layer having first and second surfaces ; conveying the transparent support layer along a transport path in a machine direction (MD); and during the conveying: (a) forming an array of focussing elements on the first surface of the transparent support layer in at least a first region; and (b) applying an image array to the second surface of the transparent support layer in at least part of the first region; (a) forming an array of focussing elements on the first surface of the transparent support layer in at least a first region; and (b) applying an image array to the second surface of the transparent support layer in at least part of the first region; (a)(i) applying at least one transparent curable material either to the transparent support layer or to a casting tool, preferably a focussing element cylinder, carrying a surface relief corresponding to the focussing elements, over an area which includes at least the first region; (a)(ii) forming the transparent curable material(s) with the casting tool; and (a)(iii) curing the transparent curable material(s) so as to retain the surface relief in the first region; and wherein step (b) comprises printing the image array on to the transparent support layer; characterised in that steps (a) and (b) are performed simultaneously at the same position along the transport path in the machine direction.
A system for delivering corneal implants, said system comprising: a hollow member having a proximal end and a distal end configured for insertion into a pocket within a cornea and having an axial hollow passage which tapers in the distal direction; and an axial pusher disposed in the hollow axial passage of the hollow member and configured to engage and axially advance a constrained corneal implant through the hollow passage, wherein the axial hollow passage includes inwardly oriented arcuate surface configured to evert the edges of the corneal implant radially inwardly as the insert is axially advanced through the passage, wherein the axial pusher includes a flexible carrier for the implant and wherein the carrier has edges which are configured to be everted together with the edges of the corneal implant.
A method for providing a single number reachability solution for communications with a desktop telephone and a cellular telephone , comprising: associating a telephone number shared by a desktop telephone and a cellular telephone with a first communication port; receiving an incoming telephone call initiated by a remote device and directed to the telephone number; offering the incoming telephone call to the desktop telephone and to the first communication port; obtaining a second communication port from a plurality of available communication ports in response to the receiving of the incoming telephone call; and offering the incoming telephone call to the cellular telephone using the second communication port; if the cellular telephone answers the incoming telephone call, then bridging the first communication port and the second communication port to establish a communication link between the remote device and the cellular telephone ; and if the desktop telephone answers the incoming telephone call, then dropping the offer of the incoming telephone call to the cellular telephone using the second communication port; wherein signaling associated with a communication session with the remote device passes through a call management application and media associated with the communication session passes directly between the remote device and either the desktop telephone or the cellular telephone . associating a telephone number shared by a desktop telephone and a cellular telephone with a first communication port; receiving an incoming telephone call initiated by a remote device and directed to the telephone number; offering the incoming telephone call to the desktop telephone and to the first communication port; obtaining a second communication port from a plurality of available communication ports in response to the receiving of the incoming telephone call; and offering the incoming telephone call to the cellular telephone using the second communication port; if the cellular telephone answers the incoming telephone call, then bridging the first communication port and the second communication port to establish a communication link between the remote device and the cellular telephone ; and if the desktop telephone answers the incoming telephone call, then dropping the offer of the incoming telephone call to the cellular telephone using the second communication port; wherein signaling associated with a communication session with the remote device passes through a call management application and media associated with the communication session passes directly between the remote device and either the desktop telephone or the cellular telephone .
Method for activating an overtaking assistance function of a single-track motor vehicle by means of a rider-actuatable operating element of a direction indicator, the single-track motor vehicle additionally having a distance and/or speed control function, characterized in that - the actuating time of the operating element is determined and - in the event that the actuating time exceeds a specified threshold value , interventions by the distance and/or speed control function are temporarily suppressed during the rider-independent acceleration phase of the overtaking assistance function . - the actuating time of the operating element is determined and - in the event that the actuating time exceeds a specified threshold value , interventions by the distance and/or speed control function are temporarily suppressed during the rider-independent acceleration phase of the overtaking assistance function .
Apparatus for estimating a direction of arrival, wherein the apparatus comprises an antenna , a beamforming network , and an evaluator , wherein the antenna is configured to receive signals, wherein the antenna is circularly polarized, wherein the antenna comprises a plurality of different radiation patterns, wherein the beamforming network is configured to provide based on signals received by the antenna decomposed complex signals that are received by associated radiation patterns of the plurality of radiation patterns, wherein the evaluator is configured to use the amplitude and phase response of the different radiation patterns to estimate the direction of arrival and an inclination of the signal source relative to the antenna based on the decomposed complex signals and based on information describing signal receiving characteristics of the antenna , and wherein the information describing signal receiving characteristics of the antenna comprises a set of steering vectors (A) depending on angles (θ, φ) describing the position of a signal source emitting the signals received by the antenna relative to the antenna and depending on an angle (p) describing an inclination of a polarization of the signal source relative to the antenna .
A method in a User Equipment, UE for enabling providing reporting Channel Quality Indicator, CQI, on a Physical Uplink Shared Channel, PUSCH, to a base station, comprising the steps of: obtaining information of a resource allocation from the base station , for which the radio resources span over at least two sub frames; obtaining at least an indication of a request for reporting CQI on the PUSCH in a plurality of transmissions for which the allocation is valid; and reporting CQI on the PUSCH in a plurality of transmissions for which the allocation is valid. obtaining information of a resource allocation from the base station , for which the radio resources span over at least two sub frames; obtaining at least an indication of a request for reporting CQI on the PUSCH in a plurality of transmissions for which the allocation is valid; and reporting CQI on the PUSCH in a plurality of transmissions for which the allocation is valid.
A seizure detection system comprising: a processing circuit configured to: receive an electroencephalogram (EEG) signal generated based on electrical brain activity of a patient ; determine a plurality of metrics (416-420) based on the EEG signal, the plurality of metrics indicating non-linear features of the EEG signal; determine that increases or decreases of the plurality of metrics over time meet predefined levels of statistical significance based on probabilities (422-426) of the increases or decreases and map statistically significant metrics of the plurality of metrics to a category, wherein particular metrics of the plurality of metrics are statistically significant if the increases or decreases of the particular metrics meet the predefined levels of statistical significance, wherein the category is a seizure category; generate a seizure alert indicating that the EEG signal indicates a candidate seizure responsive to determining that the statistically significant metrics map to the category; and cause a display of a user device to display a visual indicator responsive to generating the seizure alert. receive an electroencephalogram (EEG) signal generated based on electrical brain activity of a patient ; determine a plurality of metrics (416-420) based on the EEG signal, the plurality of metrics indicating non-linear features of the EEG signal; determine that increases or decreases of the plurality of metrics over time meet predefined levels of statistical significance based on probabilities (422-426) of the increases or decreases and map statistically significant metrics of the plurality of metrics to a category, wherein particular metrics of the plurality of metrics are statistically significant if the increases or decreases of the particular metrics meet the predefined levels of statistical significance, wherein the category is a seizure category; generate a seizure alert indicating that the EEG signal indicates a candidate seizure responsive to determining that the statistically significant metrics map to the category; and cause a display of a user device to display a visual indicator responsive to generating the seizure alert.
A method of a preparation of sprouted cereal grains, oilseeds or legumes, including washing, swelling and packing of the grains, where after the washing the grains are for at least half an hour, preferably for 1,5 to 18 hours swelled in a drinkable water and after the swelling the non-absorbed drinkable water is separated, characterized by the fact , that after the swelling the grains are placed on a perforated grate where they sprout under an influence of a heat and a humidity, whereby they are repeatedly moistened by being washed by the water, subsequently the sprouted grains are filled into a package; the package is closed, vacuumed and subsequently the sprouted grains are heat sterilized in the package, whereby a liquid component is added to the sprouted grains before the heat sterilization and the amount of liquid component is set in such a way that after the sterilization, cooling and storage before expedition a share of the separable liquid component decreases to zero, the amount of the liquid component is determined in such a way that the liquid component with the presumed surplus is added to the sprouted grains and after the sterilization, cooling and storage the package with the processed sprouted grains is open, the amount of the separable liquid component is measured, the difference between the added amount of the liquid component and the amount of the separated liquid component is calculated, and this difference is used during the processing of another batch from the same sprouted grains as a correction of the amount of the liquid component.
A topical formulation for use in the prevention or treatment of fly strike myiasis in sheep, wherein the formulation is topically applied as a pour-on or spray-on technique, the formulation comprising 20 g/L to 60 g/L dicyclanil in suspension, 20 g/L to 200 g/L of 3-(3-hydroxypropyl)- heptamethylsiloxane, ethoxylated, acetate surfactant and water.
A liquid filling aid that is placeable on a plate-shaped member and defines a reaction chamber to be filled with a liquid, the aid comprising: a main body ; a storage section that is formed in the main body and is suitable to store the liquid; a reaction section that is a recess formed at a bottom of the main body ; an inner upper (ceiling) surface of the reaction section having a slope or a groove extending toward air vents for communication between the reaction section and outside air, and the air vents are disposed at a highest position of the inner upper surface of the reaction section ; and a communication aperture for fluid communication between the storage section and the reaction section , being positioned at a center of a lowermost portion of the reaction section , storage section being arranged above the reaction section with the communication aperture interposed therebetween; wherein an opening of the storage section is formed in an upper surface of the main body , and wherein the reaction section and an upper surface of the plate shaped member define the reaction chamber , and the air vents penetrate from an upper surface of the reaction section up to the upper surface of the main body , characterized in that the storage section has a larger volume than the reaction section and a bottom of the storage section has slopes that descend toward the communication aperture or a groove extending toward the communication aperture . a main body ; a storage section that is formed in the main body and is suitable to store the liquid; a reaction section that is a recess formed at a bottom of the main body ; an inner upper (ceiling) surface of the reaction section having a slope or a groove extending toward air vents for communication between the reaction section and outside air, and the air vents are disposed at a highest position of the inner upper surface of the reaction section ; and a communication aperture for fluid communication between the storage section and the reaction section , being positioned at a center of a lowermost portion of the reaction section , storage section being arranged above the reaction section with the communication aperture interposed therebetween; wherein an opening of the storage section is formed in an upper surface of the main body , and wherein the reaction section and an upper surface of the plate shaped member define the reaction chamber , and the air vents penetrate from an upper surface of the reaction section up to the upper surface of the main body , characterized in that the storage section has a larger volume than the reaction section and a bottom of the storage section has slopes that descend toward the communication aperture or a groove extending toward the communication aperture .
A signal sending method, comprising: mapping (S101) a to-be-transmitted optical channel unit signal of n times a benchmark rate to X first optical channel physical link signals, wherein a rate of the first optical channel physical link signal is mi times the benchmark rate, n≥2, X≥2, mi≥1, and ∑ i = 1 X m i = n , n, X, and mi are positive integers, the to-be-transmitted optical channel unit signal of n times a benchmark rate is an optical transport unit, OTUKn, signal and each of the X first optical channel physical link signals is a forward error correction, FEC, frame; adding (S102) a link sequence indicator overhead to each of the X first optical channel physical link signals, to generate X second optical channel physical link signals, wherein the link sequence indicator overhead of each first optical channel physical link signal is used to indicate an order of the first optical channel physical link signal, and a rate of the second optical channel physical link signal is mi times the benchmark rate; and sending (S103) the X second optical channel physical link signals by using X optical modules in a one-to-one correspondence manner, wherein a rate of each of the X optical modules corresponds to a rate of each of the X optical channel physical link signals. mapping (S101) a to-be-transmitted optical channel unit signal of n times a benchmark rate to X first optical channel physical link signals, wherein a rate of the first optical channel physical link signal is mi times the benchmark rate, n≥2, X≥2, mi≥1, and ∑ i = 1 X m i = n , n, X, and mi are positive integers, the to-be-transmitted optical channel unit signal of n times a benchmark rate is an optical transport unit, OTUKn, signal and each of the X first optical channel physical link signals is a forward error correction, FEC, frame; adding (S102) a link sequence indicator overhead to each of the X first optical channel physical link signals, to generate X second optical channel physical link signals, wherein the link sequence indicator overhead of each first optical channel physical link signal is used to indicate an order of the first optical channel physical link signal, and a rate of the second optical channel physical link signal is mi times the benchmark rate; and sending (S103) the X second optical channel physical link signals by using X optical modules in a one-to-one correspondence manner, wherein a rate of each of the X optical modules corresponds to a rate of each of the X optical channel physical link signals.
A method for adapting a digital lighting setpoint intended to be projected by a digital lighting unit of a motor vehicle, comprising a matrix light source and an optical system , characterized in that the method comprises a step of applying, by way of a computing unit , digital filtering (F) to the digital setpoint before relaying the filtered digital setpoint (F ) to the lighting unit , said digital filtering (F) anticipating geometric aberrations induced by said optical system during the projection P of a digital setpoint, characterized in that the said filtering (F) comprises applying a dedicated digital filter for each of the elementary light setpoints , said dedicated digital filter anticipating the geometric aberrations induced by said optical system on the projected pixels that form part of a spatial neighborhood of the projected pixel P corresponding to said elementary light setpoint .
An absorbent article which includes a longitudinal direction (L), a width direction (W), and a thickness direction (T) that are mutually orthogonal to each other, comprising: an absorbent main body (AB); a pair of side flaps that extend to both outer sides in the width direction of the absorbent main body; and a pair of leakage barriers that are disposed in the absorbent main body (AB), wherein a direction toward and a direction away from a longitudinal direction central axis (CL) of the absorbent main body (AB) in the width direction are respectively an inner side direction and an outer side direction, the absorbent article further comprising: an elastic member which is joined in between the pair of side flaps in the absorbent main body (AB), and is stretchable and shrinkable in the width direction, wherein each of the pair of leakage barriers includes: a standing portion in which an outer side in the width direction is a fixed end, and an inner side in the width direction is a free end, and a supporting portion which is adjacent to one side in the longitudinal direction of the standing portion and overlaps with the elastic member in the thickness direction, the supporting portion is fixed to the absorbent main body (AB) by a heat welding portion , each of the pair of side flaps is folded to an inner side in the width direction at a position of a folding line (FL) which passes through the supporting portion and extends along the longitudinal direction in a plan view, the elastic member includes a highly stretching portion which is positioned in a center in the width direction, and a pair of less stretching portions which are positioned on both sides in the width direction and stretch less than the highly stretching portion , the folding line (FL) overlaps with the highly stretching portion in the thickness direction, and the folding line (FL) overlaps with at least a portion of an absorbent body in the absorbent main body (AB) in the thickness direction. an elastic member which is joined in between the pair of side flaps in the absorbent main body (AB), and is stretchable and shrinkable in the width direction, wherein each of the pair of leakage barriers includes: a standing portion in which an outer side in the width direction is a fixed end, and an inner side in the width direction is a free end, and a supporting portion which is adjacent to one side in the longitudinal direction of the standing portion and overlaps with the elastic member in the thickness direction, a standing portion in which an outer side in the width direction is a fixed end, and an inner side in the width direction is a free end, and a supporting portion which is adjacent to one side in the longitudinal direction of the standing portion and overlaps with the elastic member in the thickness direction, the supporting portion is fixed to the absorbent main body (AB) by a heat welding portion , each of the pair of side flaps is folded to an inner side in the width direction at a position of a folding line (FL) which passes through the supporting portion and extends along the longitudinal direction in a plan view,
A method for processing signals by a base station , the method comprising: receiving signals through multiple antennas (150-157); measuring channel information from the received signals; selecting, if an operating mode of the base station is multi-user multiple input multiple output, MU-MIMO, user equipments, UEs, with a largest modulation and coding scheme, MCS, index and a largest number of allocated resource blocks, RBs, for each antenna; determining antennas that received signals whose channel information is higher than or equal to a preset threshold by comparing pieces of channel information of antenna signals for the selected UEs; and combining and processing signals received through the determined antennas. receiving signals through multiple antennas (150-157); measuring channel information from the received signals; selecting, if an operating mode of the base station is multi-user multiple input multiple output, MU-MIMO, user equipments, UEs, with a largest modulation and coding scheme, MCS, index and a largest number of allocated resource blocks, RBs, for each antenna; determining antennas that received signals whose channel information is higher than or equal to a preset threshold by comparing pieces of channel information of antenna signals for the selected UEs; and combining and processing signals received through the determined antennas.