mhurhangee/ep-ind-claims huggingface dataset:
Method for managing an incoming call in a communication terminal, the incoming call having an associated call identifier, said call identifier making it possible to identify a communication terminal making the incoming call in a communications network, said management method being implemented by a management device and being characterized in that it comprises: - checking the routing of an outgoing call to the call identifier associated with the incoming call, said checking comprising making an outgoing call to said call identifier, and - classifying the incoming call on the basis of the result of the checking of the routing, the incoming call being classified as a malicious incoming call if the checking of the routing reveals that the outgoing call made to said call identifier is not able to be routed. - checking the routing of an outgoing call to the call identifier associated with the incoming call, said checking comprising making an outgoing call to said call identifier, and - classifying the incoming call on the basis of the result of the checking of the routing, the incoming call being classified as a malicious incoming call if the checking of the routing reveals that the outgoing call made to said call identifier is not able to be routed.
A light bar, comprising: an optical component; a housing for reflecting light, wherein the optical component and the housing together form a tube with a cavity; and a substrate assembly held in the cavity and comprising: a substrate; and a plurality of LED light sources mounted on at least one side of the substrate, wherein light emitted from the plurality of LED light sources is irradiated to at least one predetermined area perpendicular to the substrate after passing through the optical component, characterized in that the optical component defines a first longitudinal channel at a junction of two halves thereof and the housing defines a second longitudinal channel at a junction of two halves thereof, the substrate assembly being slidably mounted between the first longitudinal channel and the second longitudinal channel. an optical component; a housing for reflecting light, wherein the optical component and the housing together form a tube with a cavity; and a substrate assembly held in the cavity and comprising: a substrate; and a plurality of LED light sources mounted on at least one side of the substrate, wherein light emitted from the plurality of LED light sources is irradiated to at least one predetermined area perpendicular to the substrate after passing through the optical component, characterized in that the optical component defines a first longitudinal channel at a junction of two halves thereof and the housing defines a second longitudinal channel at a junction of two halves thereof, the substrate assembly being slidably mounted between the first longitudinal channel and the second longitudinal channel. a substrate; and a plurality of LED light sources mounted on at least one side of the substrate, wherein light emitted from the plurality of LED light sources is irradiated to at least one predetermined area perpendicular to the substrate after passing through the optical component, characterized in that the optical component defines a first longitudinal channel at a junction of two halves thereof and the housing defines a second longitudinal channel at a junction of two halves thereof, the substrate assembly being slidably mounted between the first longitudinal channel and the second longitudinal channel.
A method, at a first network access device of a heterogeneous network, the method comprising: sending a report to a second network access device indicating a user equipment 'UE' (330,410,510,610, 710) in the vicinity of the second network access device to be handled in the uplink by the second network access device; receiving an uplink timing control report from the second network access device; transmitting uplink timing control adjustments to the UE; allocating uplink resources for the second network access device to forward uplink information; allocating physical downlink control channel 'PDCCH' resources belonging to the first network access device for transmitting uplink scheduling information provided by the second network access device to the UE; receiving uplink information including uplink scheduling information from the second network access device at the first network access device; and sending the uplink scheduling information to the UE. sending a report to a second network access device indicating a user equipment 'UE' (330,410,510,610, 710) in the vicinity of the second network access device to be handled in the uplink by the second network access device; receiving an uplink timing control report from the second network access device; transmitting uplink timing control adjustments to the UE; allocating uplink resources for the second network access device to forward uplink information; allocating physical downlink control channel 'PDCCH' resources belonging to the first network access device for transmitting uplink scheduling information provided by the second network access device to the UE; receiving uplink information including uplink scheduling information from the second network access device at the first network access device; and sending the uplink scheduling information to the UE.
A chip comprising: an array of pixels wherein each pixel comprises: a ISFET sensor; and a sigma delta ADC, and a clocking arrangement comprising: a first clock signal common to all of the pixels in the array, for sampling the ISFET signal; and a second clock signal provided sequentially across the array, for conversion of the signal. an array of pixels wherein each pixel comprises: a ISFET sensor; and a sigma delta ADC, and a ISFET sensor; and a sigma delta ADC, and a clocking arrangement comprising: a first clock signal common to all of the pixels in the array, for sampling the ISFET signal; and a second clock signal provided sequentially across the array, for conversion of the signal. a first clock signal common to all of the pixels in the array, for sampling the ISFET signal; and a second clock signal provided sequentially across the array, for conversion of the signal.
An electronic device, wherein the electronic device supports under-display fingerprint recognition, the electronic device comprises a touchscreen and an optical sensor module, the optical sensor module is disposed under the touchscreen, a protective film is attached on the touchscreen, the protective film comprises a first axis and a second axis, and the first axis is perpendicular to the second axis, wherein there is a 45-degree included angle between a polarization direction of a first polarizer and each of the first axis and the second axis of the protective film; wherein if there is a 45-degree included angle between the polarization direction of the first polarizer and each of the first axis and the second axis of the protective film, a thickness of the protective film satisfies the following formula: n fast − n slow * T = 1 / 2 * m * λ, wherein n fast is a refractive index of a fast axis direction of the protective film, n slow is a refractive index of a slow axis direction of the protective film, T is the thickness of the protective film, m is a positive integer, and λ is a refractive index.
A rotating control device, comprising: an outer housing; at least one annular seal; and a latch including at least one rotary cam and at least one engagement member which releasably secures relative to the outer housing at least one of a group comprising the annular seal and a bearing, wherein rotation of the rotary cam relative to the outer housing displaces the engagement member, and wherein the at least one rotary cam comprises cam profiles (54,56,58) circumferentially distributed relative to the outer housing. an outer housing; at least one annular seal; and a latch including at least one rotary cam and at least one engagement member which releasably secures relative to the outer housing at least one of a group comprising the annular seal and a bearing, wherein rotation of the rotary cam relative to the outer housing displaces the engagement member, and wherein the at least one rotary cam comprises cam profiles (54,56,58) circumferentially distributed relative to the outer housing.
A method for purifying a first liquid comprising water and at least one impurity, by direct osmosis, in which the following successive steps are performed: a) contacting the first liquid with a first side of a semi-permeable membrane, a second aqueous liquid containing an osmotic agent being in contact with the second side of the semi-permeable membrane, whereby water is extracted by direct osmosis from the first liquid through the semi-permeable membrane and passes into the second liquid containing the osmotic agent; b) forming clathrates hydrates of a host molecule in the second liquid containing the osmotic agent into which the water has passed; c) separating the clathrates hydrates from the second liquid containing the osmotic agent; and d) dissociating the separated clathrates hydrates to obtain pure water and the host molecule. a) contacting the first liquid with a first side of a semi-permeable membrane, a second aqueous liquid containing an osmotic agent being in contact with the second side of the semi-permeable membrane, whereby water is extracted by direct osmosis from the first liquid through the semi-permeable membrane and passes into the second liquid containing the osmotic agent; b) forming clathrates hydrates of a host molecule in the second liquid containing the osmotic agent into which the water has passed; c) separating the clathrates hydrates from the second liquid containing the osmotic agent; and d) dissociating the separated clathrates hydrates to obtain pure water and the host molecule.
A method for dynamic path securing in a multi-track track system having a first and a second track segment (GS1, GS2) and a first and a second point, each incorporating a root direction and being adjustable in at least one shunt direction to form a travel path, wherein the first track segment comprises a first rail switch and a second rail switch able to be integrated into a first axle counting circuit and between which the first point is provided, and wherein the second track segment comprises a third rail switch and a fourth rail switch able to be integrated into a second axle counting circuit and between which the second point is provided, characterized in that a system control of the track system integrates the first and second rail switch (AZ1, AZ2) of the first track segment and the third and fourth rail switch (AZ3, AZ4) of the second track segment into a third axle counting circuit upon - the first and/or second point (W1, W2) being in the shunt direction position, and - a rail switch (AZ1-AZ4) of the first or second track segment (GS1, GS2) detecting a rail vehicle entering into the travel path. - the first and/or second point (W1, W2) being in the shunt direction position, and - a rail switch (AZ1-AZ4) of the first or second track segment (GS1, GS2) detecting a rail vehicle entering into the travel path.
A distributed antenna system comprising: a plurality of remote antenna units, a first passive element coupled to at least one of the remote antenna units at a connection juncture (36, 38); an RFID system associated with the first passive element and having RFID data identifying the first passive element; an interrogator unit associated with the remote antenna unit, the interrogator unit configured for generating a least one signal for transmission to the passive element to be reflected at the connection juncture (36, 38) and received at the interrogator unit; the interrogator unit configured for generating at least one signal for transmission to the RFID system to obtain an RFID response generated by the RFID system, wherein the RFID response includes the RFID data identifying the passive element; processing circuitry for processing the reflected signal from the connection juncture (36, 38) and for measuring a parameter of the first passive element, the processing circuitry further configured for correlating the measured parameter with the RFID response including the RFID data for the passive element. a plurality of remote antenna units, a first passive element coupled to at least one of the remote antenna units at a connection juncture (36, 38); an RFID system associated with the first passive element and having RFID data identifying the first passive element; an interrogator unit associated with the remote antenna unit, the interrogator unit configured for generating a least one signal for transmission to the passive element to be reflected at the connection juncture (36, 38) and received at the interrogator unit; the interrogator unit configured for generating at least one signal for transmission to the RFID system to obtain an RFID response generated by the RFID system, wherein the RFID response includes the RFID data identifying the passive element; processing circuitry for processing the reflected signal from the connection juncture (36, 38) and for measuring a parameter of the first passive element, the processing circuitry further configured for correlating the measured parameter with the RFID response including the RFID data for the passive element.
Vacuum sponge system, comprising a vacuum sponge unit for use in the human or animal body with a fluid collection element, in particular a sponge unit, and a fluid communication element, in particular a drainage tube, which is arranged at least partially in the fluid collection element and is connected in a fluid-conducting manner to the fluid collection element, wherein the fluid collection element has a channel for guiding a feeding tube through the fluid collection element, characterized by a feeding tube to be guided in the channel in the fluid collection element, which is configured to be long in relation to its diameter and thin in relation to its length, wherein the fluid communication element is arranged in the channel, and an electric vacuum pump, which is connected in a fluid-conducting manner to the fluid communication element and is configured to apply a negative pressure of up to 200 mmHg to the fluid collection element. a fluid collection element, in particular a sponge unit, and a fluid communication element, in particular a drainage tube, which is arranged at least partially in the fluid collection element and is connected in a fluid-conducting manner to the fluid collection element, wherein the fluid collection element has a channel for guiding a feeding tube through the fluid collection element, characterized by a feeding tube to be guided in the channel in the fluid collection element, which is configured to be long in relation to its diameter and thin in relation to its length, wherein the fluid communication element is arranged in the channel, and an electric vacuum pump, which is connected in a fluid-conducting manner to the fluid communication element and is configured to apply a negative pressure of up to 200 mmHg to the fluid collection element.
A wound dressing, which includes a 1 to 12 mm thick layer of absorbent non-woven fibre material of between 150 and 1200 grams per square meter, which layer includes: a mixture of viscose fibres and polyester fibres with more viscose than polyester, and of which the linear density of the viscose is between 1.5 and 3 dtex and the linear density of the polyester is between 2 and 3 dtex; and between 7 and 25 % chitin fibres mixed or interwoven with the viscose and polyester fibres with the chitin fibres having a linear density between 1.5 and 2.5 dtex. a mixture of viscose fibres and polyester fibres with more viscose than polyester, and of which the linear density of the viscose is between 1.5 and 3 dtex and the linear density of the polyester is between 2 and 3 dtex; and between 7 and 25 % chitin fibres mixed or interwoven with the viscose and polyester fibres with the chitin fibres having a linear density between 1.5 and 2.5 dtex.
Apparatus for actuating the drain valve of sanitary articles, in particular a bathtub, having an overflow housing, which can be fastened behind an opening of the sanitary article, and having an actuating mechanism for the purpose of actuating the drain valve, is operatively connected to the latter and to a pushbutton, wherein the pushbutton, when the drain valve is closed, projects through the opening of the sanitary article into the overflow housing, wherein the overflow housing has a fastening part, which has an outer surface, wherein the pushbutton, when the drain valve is closed, has its contact surface essentially flush with the outer surface of the fastening part of the overflow housing and wherein the fastening part has a cylindrical extension, which projects through the aforementioned opening into the overflow housing and, with the pushbutton, forms an overflow opening, characterized in that the extension, at an inner end, has an inwardly directed periphery, against which a clamping nut can be positioned.
A humanized monoclonal antibody specific for the human αβTCR/CD3 complex which comprises a heavy chain variable region having an amino acid sequence selected from the group consisting of the sequences set forth as SEQ ID NOs: 7, 12, 13, 15 and 16, and a light chain variable region comprising the amino acid sequence set forth as SEQ ID NO: 14.
A computer implemented method for controlling read-out from a digital image sensor device, comprising a plurality of pixels, wherein the digital image sensor device is configured with a rolling shutter that reads the pixels subsequently while the pixels are still exposed and a global reset that resets all pixels at the same time, the method comprising the steps of: - setting a first read-out scheme, defining a first plurality of regions (6, 7, 8) to be read based on a first level of pixel binning and/or pixel skipping, - reading, based on the first read-out scheme, from the digital image sensor device, a first image, comprising an intensity value of each one of the first plurality of regions (6, 7, 8) of the first image, - determining an exposure value for the first image, based on the intensity value of each one of the first plurality of regions (6, 7, 8) of the first image, - comparing the exposure value with a predetermined maximum value, - setting a second read-out scheme defining a second plurality of regions (6, 7, 8) to be read based on a second level of pixel binning and/or pixel skipping, wherein the pixel binning and/or pixel skipping in the second read-out scheme is increased compared to the first read-out scheme, if the exposure value is higher than the predetermined maximum value; and - reading, based on the second read-out scheme, from the digital image sensor device, a subsequent second image, comprising an intensity value of each one of the second plurality of regions of the second image. - setting a first read-out scheme, defining a first plurality of regions (6, 7, 8) to be read based on a first level of pixel binning and/or pixel skipping, - reading, based on the first read-out scheme, from the digital image sensor device, a first image, comprising an intensity value of each one of the first plurality of regions (6, 7, 8) of the first image, - determining an exposure value for the first image, based on the intensity value of each one of the first plurality of regions (6, 7, 8) of the first image, - comparing the exposure value with a predetermined maximum value, - setting a second read-out scheme defining a second plurality of regions (6, 7, 8) to be read based on a second level of pixel binning and/or pixel skipping, wherein the pixel binning and/or pixel skipping in the second read-out scheme is increased compared to the first read-out scheme, if the exposure value is higher than the predetermined maximum value; and - reading, based on the second read-out scheme, from the digital image sensor device, a subsequent second image, comprising an intensity value of each one of the second plurality of regions of the second image.
A module for an automated laboratory system, comprising a module connector configured to releasably connect to a component of the automated laboratory system, and an analytical instrument, characterized in that the module further comprises a detector, particularly a camera, at least configured to detect at least one component marker located at the component so as to obtain position data of the module indicating an actual position of the module, wherein the position data include information on a horizontal and vertical position of the module, wherein the detector is further configured to detect at least one module marker located at the module, a processor configured to calculate a position deviation of the module from a target position defined by the component based on the position data and to calculate position alignment data based on the position deviation, and an alignment device configured to align the module to the target position based on the position alignment data, wherein the alignment device is configured to align the analytical instrument to the target position based on the position alignment data, wherein the component marker is configured to provide a component coordinate system and the module marker is configured to provide a module coordinate system, wherein the processor is configured to calculate the position deviation of the module from the target position based on a relative distance between the component coordinate system and the module coordinate system. an analytical instrument, characterized in that the module further comprises a detector, particularly a camera, at least configured to detect at least one component marker located at the component so as to obtain position data of the module indicating an actual position of the module, wherein the position data include information on a horizontal and vertical position of the module, wherein the detector is further configured to detect at least one module marker located at the module, a processor configured to calculate a position deviation of the module from a target position defined by the component based on the position data and to calculate position alignment data based on the position deviation, and an alignment device configured to align the module to the target position based on the position alignment data, wherein the alignment device is configured to align the analytical instrument to the target position based on the position alignment data, wherein the component marker is configured to provide a component coordinate system and the module marker is configured to provide a module coordinate system, wherein the processor is configured to calculate the position deviation of the module from the target position based on a relative distance between the component coordinate system and the module coordinate system.