mhurhangee/ep-ind-claims huggingface dataset:
A compound having the formula: or a salt, tautomer or stereoisomer thereof, wherein: X is Br, or Sn(CH 3) 3; R 2 is substituted or unsubstituted cycloalkyl; and R 3 is H, or a substituted or unsubstituted C 1-8 alkyl. X is Br, or Sn(CH 3) 3; R 2 is substituted or unsubstituted cycloalkyl; and R 3 is H, or a substituted or unsubstituted C 1-8 alkyl.
Driving device, comprising a driving piston, guided in a cylinder, for driving a nail element into a workpiece, and a combustion chamber, which is arranged at the driving piston and in which an increase in pressure takes place in the course of a driving-in operation as a result of a combustion process, wherein, before the driving-in operation, the driving piston is held in a starting position by means of a piston holder, characterized in that the piston holder comprises a piezo actuator.
A base station (120, 220, 320, 420) for a wireless communication system, comprising: a receiver configured to receive a plurality of measurement reports from a plurality of wireless communication devices (130, 230, 330, 430) of the wireless communication system; one or more processors configured to determine, based on the correlation of the measurement reports from the plurality of wireless communication devices (130, 230, 330, 430), that at least two SIM cards (250, 260) are located in one and the same wireless communication device (130, 230, 330, 430) of the wireless communication system; and the one or more processors further configured to coordinate requests for the at least two SIM cards (250, 260) that are located in the wireless communication device (130, 230, 330, 430); wherein the coordinated requests include alignments of paging cycles in Idle state of Radio Resource Control, RRC, or wherein the coordinated requests include alignments of Discontinuous Reception mode, DRX, in a connected state of Radio Resource Control, RRC. a receiver configured to receive a plurality of measurement reports from a plurality of wireless communication devices (130, 230, 330, 430) of the wireless communication system; one or more processors configured to determine, based on the correlation of the measurement reports from the plurality of wireless communication devices (130, 230, 330, 430), that at least two SIM cards (250, 260) are located in one and the same wireless communication device (130, 230, 330, 430) of the wireless communication system; and the one or more processors further configured to coordinate requests for the at least two SIM cards (250, 260) that are located in the wireless communication device (130, 230, 330, 430); wherein the coordinated requests include alignments of paging cycles in Idle state of Radio Resource Control, RRC, or wherein the coordinated requests include alignments of Discontinuous Reception mode, DRX, in a connected state of Radio Resource Control, RRC.
A 5G millimeter wave band Over-the-Air, OTA, measurement system, the system comprising: a signal generator configured to generate a Tx local oscillator, LO, signal and a Tx intermediate frequency, IF, signal; the system is characterised by a level control device configured to receive the Tx LO signal generated by the signal generator, amplify the Tx LO signal to a maximum output, and compensate for mismatches generated when the Tx LO signal is amplified; a frequency up converter configured to receive each of the Tx IF signal generated by the signal generator and the Tx LO signal amplified and compensated by the level control device, and convert a signal frequency to a Tx radio frequency, RF, signal frequency by synthesizing the Tx IF signal and the Tx LO signal and increasing the signal frequency; and a Tx antenna configured to transmit the Tx RF converted by the frequency up converter to outside. a signal generator configured to generate a Tx local oscillator, LO, signal and a Tx intermediate frequency, IF, signal; the system is characterised by a level control device configured to receive the Tx LO signal generated by the signal generator, amplify the Tx LO signal to a maximum output, and compensate for mismatches generated when the Tx LO signal is amplified; a frequency up converter configured to receive each of the Tx IF signal generated by the signal generator and the Tx LO signal amplified and compensated by the level control device, and convert a signal frequency to a Tx radio frequency, RF, signal frequency by synthesizing the Tx IF signal and the Tx LO signal and increasing the signal frequency; and a Tx antenna configured to transmit the Tx RF converted by the frequency up converter to outside. a level control device configured to receive the Tx LO signal generated by the signal generator, amplify the Tx LO signal to a maximum output, and compensate for mismatches generated when the Tx LO signal is amplified; a frequency up converter configured to receive each of the Tx IF signal generated by the signal generator and the Tx LO signal amplified and compensated by the level control device, and convert a signal frequency to a Tx radio frequency, RF, signal frequency by synthesizing the Tx IF signal and the Tx LO signal and increasing the signal frequency; and a Tx antenna configured to transmit the Tx RF converted by the frequency up converter to outside.
A communication apparatus (201, 401) comprising: storage means for storing first communication parameters to wirelessly communicate in a first wireless network and second communication parameters to wirelessly communicate in a second wireless network; determination means for determining whether a communication parameter setting scheme used to provide a partner apparatus (301, 402, 403) with communication parameters is either an authentication code scheme or a non-authentication code scheme, wherein for said authentication code scheme an authentication code is to be input by a user and for said non-authentication code scheme no authentication code is to be input by a user; selection means for selecting, from the communication parameters stored in said storage means, any one of the first communication parameters and the second communication parameters in accordance with the setting scheme determined by said determination means; and providing means for providing the partner apparatus with the communication parameters selected by said selection means in accordance with the setting scheme determined by said determination means, wherein said determination means is adapted to determine the setting scheme on the basis of information input into the communication apparatus by a user. storage means for storing first communication parameters to wirelessly communicate in a first wireless network and second communication parameters to wirelessly communicate in a second wireless network; determination means for determining whether a communication parameter setting scheme used to provide a partner apparatus (301, 402, 403) with communication parameters is either an authentication code scheme or a non-authentication code scheme, wherein for said authentication code scheme an authentication code is to be input by a user and for said non-authentication code scheme no authentication code is to be input by a user; selection means for selecting, from the communication parameters stored in said storage means, any one of the first communication parameters and the second communication parameters in accordance with the setting scheme determined by said determination means; and providing means for providing the partner apparatus with the communication parameters selected by said selection means in accordance with the setting scheme determined by said determination means, wherein said determination means is adapted to determine the setting scheme on the basis of information input into the communication apparatus by a user.
An optical communication system comprising: a transmitter (202,300,400) operative to produce and transmit a transmitted optical signal (204,350) over a transmission medium, the transmitter operative to induce one or more electrical-to-optical conversion impairments in the transmitted optical signal, the transmitted optical signal comprising two orthogonally-polarized optical signals; and a receiver (208,500,600,900) operative to receive a received optical signal (210,520) over the transmission medium and to derive from the received optical signal first received symbols for a first polarization state and second received symbols for a second polarization state; characterised in that the optical communication system includes an estimator (214,700,800) operative to generate from the first received symbols a first digital instruction regarding one or more electrical-to-optical conversion impairments for the first polarization state and to generate from the second received symbols a second digital instruction regarding one or more electrical-to-optical conversion impairments for the second polarization state, wherein the receiver is operative to compensate at least partially for the one or more electrical-to-optical conversion impairments according to the first digital instruction and the second digital instruction. a transmitter (202,300,400) operative to produce and transmit a transmitted optical signal (204,350) over a transmission medium, the transmitter operative to induce one or more electrical-to-optical conversion impairments in the transmitted optical signal, the transmitted optical signal comprising two orthogonally-polarized optical signals; and a receiver (208,500,600,900) operative to receive a received optical signal (210,520) over the transmission medium and to derive from the received optical signal first received symbols for a first polarization state and second received symbols for a second polarization state; characterised in that the optical communication system includes an estimator (214,700,800) operative to generate from the first received symbols a first digital instruction regarding one or more electrical-to-optical conversion impairments for the first polarization state and to generate from the second received symbols a second digital instruction regarding one or more electrical-to-optical conversion impairments for the second polarization state, wherein the receiver is operative to compensate at least partially for the one or more electrical-to-optical conversion impairments according to the first digital instruction and the second digital instruction.
A method for the continuous insulation monitoring of an electrical conductor arrangement having an active conductor and a conductor structure electrically insulated from the active conductor, wherein the quality of the conductor arrangement as well as the arrangement of the active conductor and the conductor structure is such that almost identical propagation conditions for the active conductor and the conductor structure apply to a current flow against ground and that influential factors which are suitable for influencing the insulation resistance of the conductor arrangement act equally on both the active conductor and the conductor structure, the method comprising the steps: carrying out an insulation resistance measurement, wherein a standardized insulation monitoring unit is connected between the conductor structure and ground for continuously determining an insulation resistance, the insulation monitoring unit superimposing a measurement voltage onto the electrical conductor arrangement, which generates a measurement current proportionally to the insulation resistance of the conductor arrangement, which is acquired in the insulation resistance measurement unit and evaluated wherein one or a plurality of conductors of the conductor arrangement, which do not carry operating current, is/are used as a conductor structure. carrying out an insulation resistance measurement, wherein a standardized insulation monitoring unit is connected between the conductor structure and ground for continuously determining an insulation resistance, the insulation monitoring unit superimposing a measurement voltage onto the electrical conductor arrangement, which generates a measurement current proportionally to the insulation resistance of the conductor arrangement, which is acquired in the insulation resistance measurement unit and evaluated wherein one or a plurality of conductors of the conductor arrangement, which do not carry operating current, is/are used as a conductor structure.
Household appliance for preparing food, having a housing, which has a first outer part (3, 10), on which is embodied a control apparatus for setting operating conditions of the household appliance, and having at least one second outer part (11, 13, 14) which is separate from the first outer part (3, 10) and is embodied in a beam-like manner and is arranged on the front of the household appliance, wherein the second outer part (11, 13, 14) is embodied to be permeable at least in regions for light in the spectral range which is visible to humans and can be backlit for the visual display of information through the second outer part (11, 13, 14), characterised in that the second outer part (11, 13, 14) has a lateral pilaster strip and is arranged as a vertical beam and is arranged laterally adjoining a door for closing a cooking compartment of the household appliance.
An apparatus for an optical measurement of an inner contour of a spectacle frame, wherein the apparatus comprises an optical unit which is configured to capture light reflected from an illuminated section of the inner contour of the spectacle frame, wherein the optical unit is insertable into the inner contour of the spectacle frame and, when inserted into the inner contour of the spectacle frame as intended, is mounted so as to be rotatable relative to the spectacle frame, wherein the optical unit comprises at least one light source, an objective, and at least one optical sensor, wherein the light source is configured to generate a light section, wherein at least one section of the inner contour is able to be illuminated by means of the light section, wherein the objective is configured to image the illuminated section of the inner contour onto the optical sensor, and wherein the optical sensor is configured to capture the light reflected by the illuminated section of the inner contour, wherein the light source, the section of the inner contour that is able to be illuminated, the objective, and the optical sensor are arranged relative to one another in such a manner that the section of the inner contour that is able to be illuminated by the light section is placeable into an object-side plane of focus and that the optical sensor is arrangeable in an image-side plane of focus, wherein the object-side plane of focus, an objective plane, and the image-side plane of focus intersect in a common straight line, wherein the optical unit furthermore comprises at least one optical deflection element, wherein the optical deflection element is configured to direct the light section generated by the light source at the section of the inner contour to be illuminated.
A transmitting apparatus (200, 400, 500, 800) for a radio communication system, the transmitting apparatus comprising: a management section that manages a number of transmittable streams and modulation schemes; a reception section that receives, from a receiving apparatus, feedback information indicating a communication capacity of a channel and ratios between reception qualities of the streams; and a transmission parameter determining section (202, 402, 502, 801) that determines a sequence length of spatially multiplexed symbols and a coding rate, based on the communication capacity of the channel received by the reception section and the number of transmittable streams and modulation schemes managed by the management section, and determines the modulation schemes of the streams, based on the sequence length of the spatially multiplexed symbols and the ratios between the reception qualities of the streams, wherein the sequence length of spatially multiplexed symbols is defined as a total amount of bits per symbol transmitted in the streams. a management section that manages a number of transmittable streams and modulation schemes; a reception section that receives, from a receiving apparatus, feedback information indicating a communication capacity of a channel and ratios between reception qualities of the streams; and a transmission parameter determining section (202, 402, 502, 801) that determines a sequence length of spatially multiplexed symbols and a coding rate, based on the communication capacity of the channel received by the reception section and the number of transmittable streams and modulation schemes managed by the management section, and determines the modulation schemes of the streams, based on the sequence length of the spatially multiplexed symbols and the ratios between the reception qualities of the streams, wherein the sequence length of spatially multiplexed symbols is defined as a total amount of bits per symbol transmitted in the streams.
A connector insert comprising: a plurality of movable contacts, the plurality of movable contacts comprising a central contact to convey a signal and two contacts to convey a power supply, one contact on each side of the central contact, the central contact and two contacts to convey a power supply being substantially in a line, the connector insert further comprising two additional contacts to provide a return path, the plurality of movable and additional contacts being symmetrically arranged on the connector insert each one of the plurality of movable contacts biased by a corresponding one of a plurality of first springs; and a magnetic element, including two axes of symmetry, characterised in that the plurality of movable and additional contacts would only align with corresponding contacts of a connector receptacle regardless of which of two orientations in which the connector insert is coupled to the connector receptacle, and in that the magnetic element is made of ferromagnetic material and formed around a first recess, the magnetic element formed partially around the plurality of movable contacts. a plurality of movable contacts, the plurality of movable contacts comprising a central contact to convey a signal and two contacts to convey a power supply, one contact on each side of the central contact, the central contact and two contacts to convey a power supply being substantially in a line, the connector insert further comprising two additional contacts to provide a return path, the plurality of movable and additional contacts being symmetrically arranged on the connector insert each one of the plurality of movable contacts biased by a corresponding one of a plurality of first springs; and a magnetic element, including two axes of symmetry, characterised in that the plurality of movable and additional contacts would only align with corresponding contacts of a connector receptacle regardless of which of two orientations in which the connector insert is coupled to the connector receptacle, and in that the magnetic element is made of ferromagnetic material and formed around a first recess, the magnetic element formed partially around the plurality of movable contacts.
A method for the differential diagnosis of pernicious stroke sub-type, wherein pernicious stroke sub-type comprises haemorrhagic stroke, fatal ischemic stroke or haemorrhagic transformation, in a suspected stroke patient comprising ≤ 24 hours from admission or symptom onset measuring the amount of glial fibrillary acidic protein in a biological sample taken from the patient and subjecting the patient to a brain scan in which - a high glial fibrillary acidic protein level and a brain scan positive for haemorrhagic stroke ≤ 24 hours from admission or symptom onset indicates haemorrhagic stroke - a high glial fibrillary acidic protein level and a brain scan negative for haemorrhagic stroke ≤ 24 hours from admission or symptom onset indicates a risk of fatal ischemic stroke - a normal glial fibrillary acidic protein level and brain scan negative for haemorrhagic stroke on admission, with a second biological sample taken from the patient at ≥ 24 hours from admission or symptom onset in which there is a high glial fibrillary acidic protein level, indicates haemorrhagic transformation. - a high glial fibrillary acidic protein level and a brain scan positive for haemorrhagic stroke ≤ 24 hours from admission or symptom onset indicates haemorrhagic stroke - a high glial fibrillary acidic protein level and a brain scan negative for haemorrhagic stroke ≤ 24 hours from admission or symptom onset indicates a risk of fatal ischemic stroke - a normal glial fibrillary acidic protein level and brain scan negative for haemorrhagic stroke on admission, with a second biological sample taken from the patient at ≥ 24 hours from admission or symptom onset in which there is a high glial fibrillary acidic protein level, indicates haemorrhagic transformation.
A camera module, comprising a module housing, a first bracket, a camera, a second bracket and a rolling-element bracket, wherein the module housing has an inner housing chamber; the first bracket is at least partly disposed in the inner housing chamber, the camera is at least partly disposed in the inner housing chamber, the first bracket is hinged to the module housing by a first hinge shaft, the first hinge shaft is fastened on the module housing, and the first bracket is able to rotate around the first hinge shaft; the camera is fixedly connected to the second bracket, the rolling-element bracket is disposed with a rolling element, the second bracket is connected to the rolling element in a rolling mode, the camera is able to rotate with the second bracket around its lens axis, the rolling-element bracket is hinged to the first bracket by a second hinge shaft, the second hinge shaft and the rolling-element bracket are an integral structure, and the camera and the second bracket are able to rotate with the rolling-element bracket around the second hinge shaft; the first bracket comprises a bracket body, the bracket body is provided with a first bypass hole, and a lens of the camera is disposed opposite to the first bypass hole; and the axis of the first hinge shaft and the axis of the second hinge shaft intersect or are not coplanar, the lens axis and the axis of the first hinge shaft intersect or are not coplanar, and the lens axis and the axis of the second hinge shaft intersect or are not coplanar. the module housing has an inner housing chamber; the first bracket is at least partly disposed in the inner housing chamber, the camera is at least partly disposed in the inner housing chamber, the first bracket is hinged to the module housing by a first hinge shaft, the first hinge shaft is fastened on the module housing, and the first bracket is able to rotate around the first hinge shaft; the camera is fixedly connected to the second bracket, the rolling-element bracket is disposed with a rolling element, the second bracket is connected to the rolling element in a rolling mode, the camera is able to rotate with the second bracket around its lens axis, the rolling-element bracket is hinged to the first bracket by a second hinge shaft, the second hinge shaft and the rolling-element bracket are an integral structure, and the camera and the second bracket are able to rotate with the rolling-element bracket around the second hinge shaft; the first bracket comprises a bracket body, the bracket body is provided with a first bypass hole, and a lens of the camera is disposed opposite to the first bypass hole; and the axis of the first hinge shaft and the axis of the second hinge shaft intersect or are not coplanar, the lens axis and the axis of the first hinge shaft intersect or are not coplanar, and the lens axis and the axis of the second hinge shaft intersect or are not coplanar.