mhurhangee/ep-ind-claims huggingface dataset:
A texture projecting light bulb comprising: a light source configured to produce infrared light; an integrator surrounding the light source, the integrator comprising an interior surface and at least one aperture configured to allow light to pass out of the integrator; and a light bulb enclosure surrounding the integrator such that the at least one aperture is spaced from the enclosure, the enclosure comprising one or more regions transmissive to infrared light and one or more regions opaque to infrared light, wherein the one or more transmissive regions are configured to project a structured light pattern of infrared light detectable by a computer vision system. a light source configured to produce infrared light; an integrator surrounding the light source, the integrator comprising an interior surface and at least one aperture configured to allow light to pass out of the integrator; and a light bulb enclosure surrounding the integrator such that the at least one aperture is spaced from the enclosure, the enclosure comprising one or more regions transmissive to infrared light and one or more regions opaque to infrared light, wherein the one or more transmissive regions are configured to project a structured light pattern of infrared light detectable by a computer vision system.
An identity authentication method, comprising: receiving, by a cloud service provider, a message indicating that a user identity of a user has been authenticated by a server of an identity provider, wherein the message comprises information about a verification method bound to the user; performing, by the cloud service provider, second authentication on the user identity of the user, after receiving the message indicating that the user identity of the user has been authenticated by the server of the identity provider, comprising: sending a verification request to a user terminal based on the information about the verification method, receiving a verification code sent by the user terminal, and performing verification on the verification code; and allowing, by the cloud service provider, the user to access resources of the cloud service provider, after the user identity of the user has been authenticated by the cloud service provider receiving, by a cloud service provider, a message indicating that a user identity of a user has been authenticated by a server of an identity provider, wherein the message comprises information about a verification method bound to the user; performing, by the cloud service provider, second authentication on the user identity of the user, after receiving the message indicating that the user identity of the user has been authenticated by the server of the identity provider, comprising: sending a verification request to a user terminal based on the information about the verification method, receiving a verification code sent by the user terminal, and performing verification on the verification code; and allowing, by the cloud service provider, the user to access resources of the cloud service provider, after the user identity of the user has been authenticated by the cloud service provider
A bariatric device for placement into a stomach to achieve weight loss, comprising: a. a cardiac element adapted to engage the upper stomach, wherein the cardiac element has a frusto-conical shape, b. a pyloric element (21; 26) adapted to engage the pyloric region of the stomach, having an opening sized to allow food to pass through, wherein the pyloric element (21; 26) has a frusto-conical shape; and c. a connecting element (13; 25; 30; 51; 52; 59; 104) coupling the cardiac element and the pyloric element (21; 26), characterised in that the connecting element (13, 25, 30, 51, 52, 59, 104) is shaped such that the cardiac element maintains at least intermittent contact with the upper stomach and the pyloric element (21; 26) maintains at least intermittent contact with the pyloric region of the stomach, wherein the connecting element (13; 25; 30; 51; 52; 59; 104) is adapted to provide tension, pressure, or an outwardly biasing force between the pyloric and cardiac elements. a. a cardiac element adapted to engage the upper stomach, wherein the cardiac element has a frusto-conical shape, b. a pyloric element (21; 26) adapted to engage the pyloric region of the stomach, having an opening sized to allow food to pass through, wherein the pyloric element (21; 26) has a frusto-conical shape; and c. a connecting element (13; 25; 30; 51; 52; 59; 104) coupling the cardiac element and the pyloric element (21; 26),
A liquid sample analysis method comprising: providing an excitation light and a broadband light to a liquid sample; obtaining, by a fluorescence spectrometer, a measured emission pre-spectrum from the liquid sample; determining a peak of the measured emission pre-spectrum, wherein the peak comprises a first intensity; adjusting, when the first intensity is outside a desired range, an integration time to produce a measured emission spectrum; determining an absorbance of a broadband light source based on the broadband light; adjusting the measured emission spectrum based on the absorbance of the excitation light and the broadband light source, by using an explicit correction; wherein the explicit correction comprises correcting an effect of the liquid sample absorbance on a fluorescence emission using a mathematical model that describes a relationship between a fluorescence spectra and an absorbance spectra for a given optical geometry of the fluorescence spectrometer; generating a predicted concentration of a fluorescent tagging compound in the liquid sample using the adjusted measured emission spectrum; and comparing the predicted concentration of the fluorescent tagging compound in the liquid sample to a preset concentration of the fluorescent tagging compound in the liquid sample. providing an excitation light and a broadband light to a liquid sample; obtaining, by a fluorescence spectrometer, a measured emission pre-spectrum from the liquid sample; determining a peak of the measured emission pre-spectrum, wherein the peak comprises a first intensity; adjusting, when the first intensity is outside a desired range, an integration time to produce a measured emission spectrum; determining an absorbance of a broadband light source based on the broadband light; adjusting the measured emission spectrum based on the absorbance of the excitation light and the broadband light source, by using an explicit correction; wherein the explicit correction comprises correcting an effect of the liquid sample absorbance on a fluorescence emission using a mathematical model that describes a relationship between a fluorescence spectra and an absorbance spectra for a given optical geometry of the fluorescence spectrometer; generating a predicted concentration of a fluorescent tagging compound in the liquid sample using the adjusted measured emission spectrum; and comparing the predicted concentration of the fluorescent tagging compound in the liquid sample to a preset concentration of the fluorescent tagging compound in the liquid sample.
A prefabricated electrical cable for an electrical plug connector, comprising an electrical conductor which is formed as a braid made of a plurality of individual wires and which has at least one end section that has been compacted into a plate shape, and an elongated contact element having at least one side surface which forms a first connecting surface that is connected to a corresponding side surface of the compacted end section of the electrical conductor, and at least one further side surface, which faces away from the first connecting surface and forms a first contact surface for making contact with a mating contact surface of a mating contact element of a mating plug connector, the at least one contact surface (13, 16) each having at least one first latching means (20, 21, 22) for latching with a corresponding second latching means of the plug connector in order to provide mutual latching between the prefabricated cable and the plug connector when the prefabricated cable is fitted in the plug connector.
A die assembly for producing a film, the die assembly operatively connectable to an extruder having a thermoplastic material passing therethrough, characterized in that the die assembly comprises: a pair of die plates (356a,b) connectable together to define an elongate outlet therebetween, and wherein each die plate (356a,b) has a manifold receptacle for receiving the manifold; a manifold positionable in the manifold receptacle (380a,b) between the pair of die plates and defining a plurality of film channels (470a,b) therebetween, the manifold comprising an intake and an outtake, the outtake having a tapered outer surface extending to an elongate nose, the plurality of film channels converging at the said elongate outlet, the thermoplastic material extrudable through the plurality of film channels and the elongate outlet to form a multi-layer film; and a plurality of nozzles positionable in a linear configuration along the elongate nose, and adjacent the said elongate outlet, the plurality of nozzles operatively connectable to a source of channel fluid for emitting the channel fluid between layers of the multi-layer film whereby microcapillaries are formed in the multi-layer film; wherein said elongate nose is positioned between the plurality of film channels (470a,b) and adjacent said elongate outlet such that said channel fluid is emitted through the elongate nose and between layers of the thermoplastic material exiting the elongate outlet. a pair of die plates (356a,b) connectable together to define an elongate outlet therebetween, and wherein each die plate (356a,b) has a manifold receptacle for receiving the manifold; a manifold positionable in the manifold receptacle (380a,b) between the pair of die plates and defining a plurality of film channels (470a,b) therebetween, the manifold comprising an intake and an outtake, the outtake having a tapered outer surface extending to an elongate nose, the plurality of film channels converging at the said elongate outlet, the thermoplastic material extrudable through the plurality of film channels and the elongate outlet to form a multi-layer film; and a plurality of nozzles positionable in a linear configuration along the elongate nose, and adjacent the said elongate outlet, the plurality of nozzles operatively connectable to a source of channel fluid for emitting the channel fluid between layers of the multi-layer film whereby microcapillaries are formed in the multi-layer film; wherein said elongate nose is positioned between the plurality of film channels (470a,b) and adjacent said elongate outlet such that said channel fluid is emitted through the elongate nose and between layers of the thermoplastic material exiting the elongate outlet.
Method for delegating privileges to a lower-level privilege instance by a higher-level privilege instance, in which the introduction of privileges, P1, is carried out in automated manner for a lower-level privilege instance in a data-processing device, in that the device is provided with functions for setting up the privileges before delivery to a user or by remote data transmission in order to be able to set up privileges, P1, for the lower-level privilege instance with the aid of a higher-level privilege instance which is provided with special privileges, P2, for awarding privileges, wherein to set up the privileges, P1, for the lower-level privilege instance, the following steps are carried out: - introduction of the higher-level privilege instance into the device by a machine or person thus authorised, - executing the higher-level privilege instance on the device, - access to the functions for setting up privileges, P1, by the higher-level privilege instance, - automatic setting up of the privileges, P1, for the lower-level privilege instance on the device by the higher-level privilege instance, wherein the device verifies using a cryptographic signature on the higher-level privilege instance whether the higher-level privilege instance is authorised to access the functions for setting up privileges, P1, and to set up privileges, P1, for a lower-level privilege instance, and wherein the higher-level privilege instance is removed from the device, after the privileges, P1, for the lower-level privilege instance have been set up successfully. - introduction of the higher-level privilege instance into the device by a machine or person thus authorised, - executing the higher-level privilege instance on the device, - access to the functions for setting up privileges, P1, by the higher-level privilege instance, - automatic setting up of the privileges, P1, for the lower-level privilege instance on the device by the higher-level privilege instance, wherein the device verifies using a cryptographic signature on the higher-level privilege instance whether the higher-level privilege instance is authorised to access the functions for setting up privileges, P1, and to set up privileges, P1, for a lower-level privilege instance, and
A receiving device having a receiving unit in which a first detecting device is accommodated, the receiving device comprising: a first fixing unit and a second fixing unit provided in the receiving unit, each of the first fixing unit and the second fixing unit including an insertion groove (120a, 120b) disposed on both sides of the receiving unit, wherein the insertion groove (120a, 120b) is extended such that a side surface of the first detecting device is slidably inserted; and characterized by a detector support rotatably connected to a rotating shaft on an inner surface of the receiving unit and configured to support one of a front surface of the first detecting device to which an X-ray is irradiated and a rear surface of the first detecting device when the first detecting device is inserted in the receiving unit and guide a side surface of a second detecting device having a smaller size than the first detecting device when the second detecting device is inserted in the receiving unit, wherein an elastic member is provided between the detector support and an inner surface of the receiving unit, and the elastic member is configured to provide an elastic force pushing the detector support away from the inner surface of the receiving unit. a first fixing unit and a second fixing unit provided in the receiving unit, each of the first fixing unit and the second fixing unit including an insertion groove (120a, 120b) disposed on both sides of the receiving unit, wherein the insertion groove (120a, 120b) is extended such that a side surface of the first detecting device is slidably inserted; and characterized by a detector support rotatably connected to a rotating shaft on an inner surface of the receiving unit and configured to support one of a front surface of the first detecting device to which an X-ray is irradiated and a rear surface of the first detecting device when the first detecting device is inserted in the receiving unit and guide a side surface of a second detecting device having a smaller size than the first detecting device when the second detecting device is inserted in the receiving unit, wherein an elastic member is provided between the detector support and an inner surface of the receiving unit, and the elastic member is configured to provide an elastic force pushing the detector support away from the inner surface of the receiving unit.
A non-contact power reception device comprising: a first circuit connected to a load to which electric power is fed, the first circuit including a secondary coil, and a second circuit (110A-110C) including a secondary coil body receiving electric power to be supplied to said load from a power feeding device having an external primary coil body, wherein said second circuit (110A-110C) is a closed circuit magnetically coupled with said first circuit and said secondary coil of said first circuit extracts electric power received by said secondary coil body through electromagnetic induction to feed it to the load, wherein said second circuit (110A-110C) is configured so as to be switchable between a first state and a second state, said first state being selected in a power reception mode in which said second circuit (110A-110C) is magnetically coupled with said primary coil body through resonance of a magnetic field, and said second state being selected in a power non-reception mode in which magnetic coupling of said second circuit (110A-110C) with said primary coil body through resonance is weaker than in said first state, characterized in that said non-contact power reception device further comprises a control unit adapted to switch the state of said second circuit (110A-110C) from said first state to said second state after requesting said power feeding device to stop power transmission. a first circuit connected to a load to which electric power is fed, the first circuit including a secondary coil, and a second circuit (110A-110C) including a secondary coil body receiving electric power to be supplied to said load from a power feeding device having an external primary coil body, wherein said second circuit (110A-110C) is a closed circuit magnetically coupled with said first circuit and said secondary coil of said first circuit extracts electric power received by said secondary coil body through electromagnetic induction to feed it to the load, wherein said second circuit (110A-110C) is configured so as to be switchable between a first state and a second state, said first state being selected in a power reception mode in which said second circuit (110A-110C) is magnetically coupled with said primary coil body through resonance of a magnetic field, and said second state being selected in a power non-reception mode in which magnetic coupling of said second circuit (110A-110C) with said primary coil body through resonance is weaker than in said first state, characterized in that said non-contact power reception device further comprises a control unit adapted to switch the state of said second circuit (110A-110C) from said first state to said second state after requesting said power feeding device to stop power transmission.
A method for assigning, to a user equipment, UE, by a network node in a wireless communication network, frequency-domain resource blocks, RBs, of a communication channel shared with one or more further UEs, the method comprising: sending, to the UE, an indication of an active bandwidth part, BWP, usable for communicating via the shared communication channel, wherein the active BWP is of a size N BWP, 1 size in number of frequency-domain RBs; selecting one or more frequency-domain resource blocks, RBs, within the active BWP, to be assigned to the UE; encoding an indication of the one or more selected frequency-domain RBs represented by a starting virtual RB, RB start, and a length of contiguously allocated RBs, L RBs, using a plurality of bits, the number of the plurality of bits being related to a size N BWP, 2 size of another BWP than the active BWP, wherein the size N BWP, 2 size is smaller than the size N BWP, 1 size, and wherein the starting virtual RB is encoded with a resolution of K RBs and the length of contiguously allocated RBs, L RBs, is encoded with a resolution of K RBs, where K is determined based on a ratio of the size N BWP, 1 size and the size N BWP, 2 size; and sending the encoded indication to the UE via a downlink control channel. sending, to the UE, an indication of an active bandwidth part, BWP, usable for communicating via the shared communication channel, wherein the active BWP is of a size N BWP, 1 size in number of frequency-domain RBs; selecting one or more frequency-domain resource blocks, RBs, within the active BWP, to be assigned to the UE; encoding an indication of the one or more selected frequency-domain RBs represented by a starting virtual RB, RB start, and a length of contiguously allocated RBs, L RBs, using a plurality of bits, the number of the plurality of bits being related to a size N BWP, 2 size of another BWP than the active BWP, wherein the size N BWP, 2 size is smaller than the size N BWP, 1 size, and wherein the starting virtual RB is encoded with a resolution of K RBs and the length of contiguously allocated RBs, L RBs, is encoded with a resolution of K RBs, where K is determined based on a ratio of the size N BWP, 1 size and the size N BWP, 2 size; and sending the encoded indication to the UE via a downlink control channel.
Device for conversion of mechanical energy from sea waves to electric energy, comprising: - at least a float and two rigid rods (102, 103) disposed symmetrically with respect to a vertical axis, anchored at one end to the seabed through respective hinges (110, 111), and at the other end to the float through flexible cables (106, 107); two respective ballasts (104, 105), where each of the ballasts is attached to the free end of one of said respective rods, so that there is a resulting traction of the free ends of said rods (102, 103), that are free to rotate around their hinges (110, 111), as a resulting effect of the weight of ballasts directed towards the sea bed combined with the pulling force of said float directed upwards to the sea surface, combined with reaction of hinges (110, 111), characterized in that said device further comprises: - at least two cables, or two chains (113, 114) that connect the free ends of the rods (102, 103) to a transmission shaft of a generator, or other device able to convert and/or transmit the energy, that is placed along the vertical axis of system symmetry, so that the vertical, horizontal or rotary oscillatory motion of float, caused by the waves actions, generates an oscillatory motion of rods (102, 103), which are pivoted on their respective hinges (110, 111), and generates therefore the rotary motion of the transmission shaft of the generator of electric energy. - at least a float and two rigid rods (102, 103) disposed symmetrically with respect to a vertical axis, anchored at one end to the seabed through respective hinges (110, 111), and at the other end to the float through flexible cables (106, 107); two respective ballasts (104, 105), where each of the ballasts is attached to the free end of one of said respective rods, so that there is a resulting traction of the free ends of said rods (102, 103), that are free to rotate around their hinges (110, 111), as a resulting effect of the weight of ballasts directed towards the sea bed combined with the pulling force of said float directed upwards to the sea surface, combined with reaction of hinges (110, 111), - at least two cables, or two chains (113, 114) that connect the free ends of the rods (102, 103) to a transmission shaft of a generator, or other device able to convert and/or transmit the energy, that is placed along the vertical axis of system symmetry, so that the vertical, horizontal or rotary oscillatory motion of float, caused by the waves actions, generates an oscillatory motion of rods (102, 103), which are pivoted on their respective hinges (110, 111), and generates therefore the rotary motion of the transmission shaft of the generator of electric energy.
A water control sheet which is independent and positionable adjacent to a catalyst layer of a polymer electrolyte fuel cell, wherein the water control sheet includes a plurality of conductive fibers formed into a nonwoven fabric, wherein each of the conductive fibers includes a hydrophobic organic resin and conductive particles, and wherein the conductive particles exist at least internally of the hydrophobic organic resin.
A subtilase variant having at least 90% sequence identity to SEQ ID NO: 3, preferably at least 95% sequence identity, preferably at least 96% sequence identity, preferably at least 97% sequence identity, preferably at least 98% sequence identity to SEQ ID NO: 3, wherein the variant has a glutamic acid residue in position 101 and comprises the substitutions S156D and L262E, wherein positions correspond to the positions of SEQ ID NO: 1, and wherein the variant has increased stability in a liquid detergent composition compared to the subtilase having the amino acid sequence of SEQ ID NO: 3.