mhurhangee/ep-ind-claims huggingface dataset:
A method for transmitting a discreet signal in a communication system comprising a satellite, at least one first piece of transmitting equipment, a transmission controller configured to exchange signalling data with the at least one first piece of transmitting equipment over a communication link involving the satellite, a second piece of transmitting equipment configured to emit said discreet signal to a third piece of transmitting equipment (213, 223) via a communication link involving the satellite, and a radio-resource allocator configured to allocate radio resources comprising a frequency band and an emission-power level to the first pieces of transmitting equipment via the transmission controller, the method being characterised in that it comprises: - a first step in which the radio-resource allocator collects information on a quality of the signals received by the third piece of transmitting equipment (213, 223) over one or more communication links involving the satellite, - a second step in which the radio-resource allocator is notified of a need to transmit the discreet signal, - a third step in which the radio-resource allocator identifies at least one first frequency band (B1, B5) suitable for transmitting the discreet signal by power multiplexing with at least one signal transmitted by a first piece of transmitting equipment in the first frequency band, and computes an associated emission-power level, the identification being carried out based on the frequency bands allocated to the first pieces of transmitting equipment and on the information collected in the first step of the method, and - a fourth step in which the radio-resource allocator transmits, over one or more communication links involving the satellite, each first frequency band and associated power level identified in the third step of the method to the second piece of transmitting equipment and to the third piece of transmitting equipment (213, 223). - a first step in which the radio-resource allocator collects information on a quality of the signals received by the third piece of transmitting equipment (213, 223) over one or more communication links involving the satellite, - a second step in which the radio-resource allocator is notified of a need to transmit the discreet signal, - a third step in which the radio-resource allocator identifies at least one first frequency band (B1, B5) suitable for transmitting the discreet signal by power multiplexing with at least one signal transmitted by a first piece of transmitting equipment in the first frequency band, and computes an associated emission-power level, the identification being carried out based on the frequency bands allocated to the first pieces of transmitting equipment and on the information collected in the first step of the method, and - a fourth step in which the radio-resource allocator transmits, over one or more communication links involving the satellite, each first frequency band and associated power level identified in the third step of the method to the second piece of transmitting equipment and to the third piece of transmitting equipment (213, 223).
An aqueous dispersion comprising at least one polymeric resin and at least one polymeric resin different therefrom, where the polymeric resin is a polyamide and the polymeric resin is a polyester, the aqueous dispersion being obtainable by dispersing of the polymeric resin in water or an aqueous medium in the presence of the polymeric resin, characterized in that the polyamide used as polymeric resin has an acid number < 10 mg of KOH per g of polyamide, the polyester used as polymeric resin is at least obtainable by reaction of at least one polymerized aliphatic C 12 -C 24 monocarboxylic acid with at least one diol and/or polyol, and the aqueous dispersion contains at most 25 wt%, based on the total weight of the dispersion, of one or more organic solvents.
Seal arrangement for sealing a gap between a machine element formed as a shaft and a housing, comprising the housing and at least one sealing element, which is formed at least partially from a polymeric material, wherein the sealing element is in the form of a ring and is formed from PTFE, wherein the sealing element has at least one first ring-shaped element and at least one second ring-shaped element, wherein the first element is formed to be electrically conductive and the second element is formed to be electrically insulating, wherein the first element is arranged axially adjacent to the second element, wherein the sealing element is provided with electrically conductive contact elements and wherein the housing has an installation space in the form of a ring-shaped groove for the sealing element, wherein the installation space is provided with a lining which forms insulation. wherein the sealing element is provided with electrically conductive contact elements and wherein the housing has an installation space in the form of a ring-shaped groove for the sealing element, wherein the installation space is provided with a lining which forms insulation.
Apparatus for transmitted-light illumination for light microscopes, in particular stereo microscopes or macroscopes, with a variable effective entrance pupil of an objective, having a light source for emitting an illumination beam, having a holding device for holding a sample that is to be examined and having a stop edge for cropping the illumination beam, wherein the stop edge is arranged between the holding device and the light source, wherein the stop edge extends transversely to an optical axis of a light microscope that is positionable in one operating state at the apparatus for transmitted-light illumination, and wherein a beam path of the illumination light between the stop edge and a sample that is held by the holding device is free from adjustable beam-focusing components, wherein a position of the stop edge is variable in the direction of the optical axis independently of a position of the stop edge transversely to the optical axis, characterized in that means for variably positioning the stop edge in the direction of the optical axis are present for adapting the beam path of the illumination light to the effective entrance pupil of the objective (OBJ1, OBJ2, OBJ3), wherein the position of the stop edge in the direction of the optical axis is set automatically in dependence on an objective type, a zoom setting and a microscope type.
Sanitary fitting comprising: - a mixer housing having an axial longitudinal direction and an inlet for hot water, an inlet for cold water, a mixing chamber which is connected to the two inlets, and an outlet connected to the mixing chamber, and - a casing which is arranged outside the mixer housing and at least partially encloses the mixer housing, and a damping element arranged between the mixer housing and the casing, characterized in that the damping element is in contact with the mixer housing and the casing, and in that it is designed as a radially open sleeve, which can be applied around the mixer housing in a radial direction. - a mixer housing having an axial longitudinal direction and an inlet for hot water, an inlet for cold water, a mixing chamber which is connected to the two inlets, and an outlet connected to the mixing chamber, and - a casing which is arranged outside the mixer housing and at least partially encloses the mixer housing, and a damping element arranged between the mixer housing and the casing, characterized in that the damping element is in contact with the mixer housing and the casing, and in that it is designed as a radially open sleeve, which can be applied around the mixer housing in a radial direction.
Motor vehicle comprising a retractor support positioned in a zone situated behind the backrest of a vehicle seat in relation to the direction of said vehicle, secured on one of the structural elements of the vehicle, the retractor support being constituted of a sheet metal profile secured by at least one of the edges thereof on a part of the inside structure of the vehicle, the support being conformed to form at least two plates, one receiving plate intended to receive the retractor and a second plate positioned in the extension of the receiving plate, the two plates and being situated in non-parallel planes between each other by a folding of said profile, the longitudinal axis of the retractor support defined by a straight line passing through the respective barycentres of the receiving plate and of the second plate being substantially parallel to the plane defined by the longitudinal and vertical axis of the vehicle, the receiving plate being positioned in front of the folding in relation to the direction of the vehicle, characterised in that the second plate is oriented on the side of the receiving plate which receives the retractor, such that a force having at least one substantially normal component to the receiving plate, oriented on the same side of the receiving plate which receives the retractor, generates a deformation of the retractor support at the level of the folding, the acute angle value between the receiving plate and the horizontal plane of the vehicle defined by the longitudinal and transverse axis of said vehicle being less than the acute angle value between the second plate with this same horizontal plane, and the retractor support being secured by securing means to the lateral structure of the vehicle, these securing means being positioned at the level of the front and rear ends of said support and on one of the lateral sides thereof, taking the direction of the vehicle as reference.
A method, performed in a probe node, of estimating a condition in a data path of a communication network, comprising the steps of: providing and transmitting a first set of User Data Protocol, UDP, probe packets, having a first inter-packet separation, IPSsent, and a time-to-live, TTL, to a destination node, during real-time operation of the data path; receiving a second set of packets generated in an intermediate node when time-to-live for the first set of probe packets expires, and transmitted in the form of Internet Control Message protocol, ICMP, time exceed packets said second set of packets having a second packet separation and being of a decreased size by comparison with said first set of probe packets; (step 103, step 105); providing, in response to traversal of the data path by said first set of UDP probe packets, estimation data for use in estimating the condition, wherein the estimation data comprises the first inter-packet separation, IPSsent, and a second inter-packet separation, IPSreceived, calculated for the received second set of packets; and producing an estimation of the condition, wherein said estimation is calculated on a difference between the first and the second inter-packet separation. providing and transmitting a first set of User Data Protocol, UDP, probe packets, having a first inter-packet separation, IPSsent, and a time-to-live, TTL, to a destination node, during real-time operation of the data path; receiving a second set of packets generated in an intermediate node when time-to-live for the first set of probe packets expires, and transmitted in the form of Internet Control Message protocol, ICMP, time exceed packets said second set of packets having a second packet separation and being of a decreased size by comparison with said first set of probe packets; (step 103, step 105); providing, in response to traversal of the data path by said first set of UDP probe packets, estimation data for use in estimating the condition, wherein the estimation data comprises the first inter-packet separation, IPSsent, and a second inter-packet separation, IPSreceived, calculated for the received second set of packets; and producing an estimation of the condition, wherein said estimation is calculated on a difference between the first and the second inter-packet separation.
A semiconductor light-emitting device (1, 1a, 11) comprising: a semiconductor light-emitting element (10, 10a) radiating light having an emission peak equal to or higher than 380 nm and equal to or lower than 430 nm; and a phosphor (20, 20a) that emits light using the semiconductor light-emitting element as an excitation source, wherein the phosphor includes at least a blue phosphor, a green phosphor, and a red phosphor, characterized in that the semiconductor light-emitting device (1, 1a, 11) emits light with a correlated color temperature equal to or higher than 1600 K and lower than 2400 K, and in a spectrum of light emitted from the semiconductor light-emitting device (1, 1a, 11), a value of a peak intensity of the light emitted by the semiconductor light-emitting element (10, 10a) is less than 60% of the maximum peak intensity of the light emitted by the phosphor (20, 20a), and the maximum peak of the light emitted by the phosphor (20, 20a) is at a position equal to or greater than 600 nm and equal to or less than 660 nm. a semiconductor light-emitting element (10, 10a) radiating light having an emission peak equal to or higher than 380 nm and equal to or lower than 430 nm; and a phosphor (20, 20a) that emits light using the semiconductor light-emitting element as an excitation source, wherein the phosphor includes at least a blue phosphor, a green phosphor, and a red phosphor, characterized in that the semiconductor light-emitting device (1, 1a, 11) emits light with a correlated color temperature equal to or higher than 1600 K and lower than 2400 K, and in a spectrum of light emitted from the semiconductor light-emitting device (1, 1a, 11), a value of a peak intensity of the light emitted by the semiconductor light-emitting element (10, 10a) is less than 60% of the maximum peak intensity of the light emitted by the phosphor (20, 20a), and the maximum peak of the light emitted by the phosphor (20, 20a) is at a position equal to or greater than 600 nm and equal to or less than 660 nm.
A tool (304,600) for use in manufacturing composite components, the tool comprising: an encapsulation layer having a shape; an insulation layer on the encapsulation layer; and an isolation layer on the insulation layer, wherein the isolation layer has an outer surface capable of contacting a composite material laid up on the outer surface, wherein the insulation layer is capable of insulating the encapsulation layer from heat applied to the composite material, characterized in that the encapsulation layer provides rigidity to the tool and maintains the shape of the tool with the composite material laid up on the isolation layer during a curing process to form a composite component from the composite material. an encapsulation layer having a shape; an insulation layer on the encapsulation layer; and an isolation layer on the insulation layer, wherein the isolation layer has an outer surface capable of contacting a composite material laid up on the outer surface, wherein the insulation layer is capable of insulating the encapsulation layer from heat applied to the composite material, characterized in that the encapsulation layer provides rigidity to the tool and maintains the shape of the tool with the composite material laid up on the isolation layer during a curing process to form a composite component from the composite material.
A composition of matter comprising: an antibody; a polymeric network formed from 2-methacryloyloxyethyl phosphorylcholine and configured to form a nanocapsule that encapsulates the antibody; a hydrolysable crosslinking moiety comprising a glycerol dimethacrylate and/or a Poly(DL-lactide)-b-Poly(ethylene glycol)-b-Poly(DL-lactide)-diacrylate triblock copolymer coupled to polymers forming the polymeric network; and a targeting agent comprising CXCL13 coupled to the polymeric network; wherein: the nanocapsule is formed in situ on the antibody; constituents and ratios of the antibody, the polymeric network, the hydrolysable crosslinking moiety and the targeting agent are disposed in a three-dimensional architecture so that: the nanocapsule crosses blood brain barriers to deliver nanocapsules in a bloodstream into a central nervous system such that at least 10 fold more antibody that is disposed in the nanocapsule crosses blood brain barriers as compared with the antibody in the absence of the nanocapsule; and the hydrolysable crosslinking moiety is cleaved in the central nervous system so as to release the antibody from the nanocapsule. an antibody; a polymeric network formed from 2-methacryloyloxyethyl phosphorylcholine and configured to form a nanocapsule that encapsulates the antibody; a hydrolysable crosslinking moiety comprising a glycerol dimethacrylate and/or a Poly(DL-lactide)-b-Poly(ethylene glycol)-b-Poly(DL-lactide)-diacrylate triblock copolymer coupled to polymers forming the polymeric network; and a targeting agent comprising CXCL13 coupled to the polymeric network; wherein: the nanocapsule is formed in situ on the antibody; constituents and ratios of the antibody, the polymeric network, the hydrolysable crosslinking moiety and the targeting agent are disposed in a three-dimensional architecture so that: the nanocapsule crosses blood brain barriers to deliver nanocapsules in a bloodstream into a central nervous system such that at least 10 fold more antibody that is disposed in the nanocapsule crosses blood brain barriers as compared with the antibody in the absence of the nanocapsule; and the hydrolysable crosslinking moiety is cleaved in the central nervous system so as to release the antibody from the nanocapsule. the nanocapsule crosses blood brain barriers to deliver nanocapsules in a bloodstream into a central nervous system such that at least 10 fold more antibody that is disposed in the nanocapsule crosses blood brain barriers as compared with the antibody in the absence of the nanocapsule; and the hydrolysable crosslinking moiety is cleaved in the central nervous system so as to release the antibody from the nanocapsule.
A method for verifying anti-jamming in a communication system comprising a plurality of sensors or adaptive antennae, characterised in that it comprises at least the following steps: • estimating the mean power π̂ y of the output of said communication system; • estimating the respective powers Pu or P'u of a station u, the antenna noise Pa or P'a, the thermal noise PT or P'T; • estimating at least one of the following ratios: J tot / S tot = ∑ p = 1 P P p / ∑ u = 1 U P u with p = the jammer, J tot / S tot being equal to the sum of the powers of the residual jammers/sum of the powers of the stations in the reception band B, J tot / S u = ∑ p = 1 P P p / P u J tot /S u being equal to the sum of the powers of the residual jammers/power of the station u in the reception band B, J u / S u = ∑ p = 1 P P pu / P u with Ppu = the power of the jammer p in the reception band Bu; • comparing at least one of the three ratios to a threshold value. • estimating the mean power π̂ y of the output of said communication system; • estimating the respective powers Pu or P'u of a station u, the antenna noise Pa or P'a, the thermal noise PT or P'T; • estimating at least one of the following ratios: J tot / S tot = ∑ p = 1 P P p / ∑ u = 1 U P u with p = the jammer, J tot / S tot being equal to the sum of the powers of the residual jammers/sum of the powers of the stations in the reception band B, J tot / S u = ∑ p = 1 P P p / P u J tot /S u being equal to the sum of the powers of the residual jammers/power of the station u in the reception band B, J u / S u = ∑ p = 1 P P pu / P u with Ppu = the power of the jammer p in the reception band Bu; with p = the jammer, J tot / S tot being equal to the sum of the powers of the residual jammers/sum of the powers of the stations in the reception band B, J tot / S u = ∑ p = 1 P P p / P u J tot /S u being equal to the sum of the powers of the residual jammers/power of the station u in the reception band B, J u / S u = ∑ p = 1 P P pu / P u with Ppu = the power of the jammer p in the reception band Bu; • comparing at least one of the three ratios to a threshold value.
A proximity sensor for a portable device, the sensor being configured to detect proximity of a body portion to the portable device, and to reject objects having a dielectric permittivity substantially lower than a dielectric permittivity of the human body, comprising: one main electrode facing the outside of the portable device; one auxiliary reference electrode (23, 25); a readout circuit operatively arranged for acquiring a first capacitance of the main electrode by applying a same potential to the main electrode and to the auxiliary reference electrode (23, 25), and for acquiring a second capacitance of the main electrode while keeping the auxiliary reference electrode (23, 25) floating, and a decision unit configured to generate a proximity signal (PROX) based on said first capacitance and second capacitance.
A method for determining and/or predicting the maximum performance capacity of a battery, in which, using a model of the battery, based on an electric equivalent circuit diagram, the maximum performance capacity of the battery is predicted, characterised in that the maximum performance of the battery is forecast for a defined prognosis period and for the different operating modes with respect to charging or discharging operation, taking into consideration the maximum permissible operating voltage and the maximum permissible operating current for the following four cases - charging with constant voltage, - charging with constant current, - discharging with constant voltage, and - discharging with constant current by explicit calculation of the solution of a differential equation describing the model. - charging with constant voltage, - charging with constant current, - discharging with constant voltage, and - discharging with constant current
An alkaline cell comprising a housing having a bottom end and a top end, and an electrode assembly disposed within the housing, the electrode assembly comprising a single first electrode and a single second electrode, a separator disposed between the first electrode and the second electrode, and an electrolyte, wherein the first electrode comprises a hollow outer body and at least one inner body positioned inside the outer body, the outer body and the at least one inner body being joined together inside the housing to form a single substantially homogeneous structure having essentially uniform electrode properties; and the second electrode comprises an intermediate body at least partially disposed between the outer body and the at least one inner body and electrically isolated from the outer body and the at least one inner body; wherein the first electrode comprises at least a first end disk disposed adjacent to the bottom end of the cell and integrally interconnecting the outer hollow body and the at least one inner body to form the single substantially homogeneous structure.