mhurhangee/ep-ind-claims huggingface dataset:
A communications device for use in a wireless communications system comprising an infrastructure equipment and the communications device, the communications device being configured to transmit an uplink channel to the infrastructure equipment in a plurality of allocated subcarriers, wherein the communications device comprises circuitry for one or more modulation symbol repetition blocks, each configured to receive modulated symbols mapped to one of a plurality of modulated symbol sets and to repeat each of the received modulated symbols within each of the plurality of modulated symbol sets, circuitry for a precoder block configured to carry out a precoder function on the repeated modulation symbols, the precoder function comprising multiplying each of the repeated modulation symbols by an element of a precoder vector to produce precoded symbols, and circuitry for a discrete Fourier transform, DFT, block configured to carry out a DFT on the precoded symbols, wherein the precoder function directs energy of the output of the DFT to fall upon a selected one of the allocated subcarriers such that, at the output of the DFT, only the precoded and transformed symbols in the selected one of the allocated subcarriers have a non-zero magnitude. circuitry for one or more modulation symbol repetition blocks, each configured to receive modulated symbols mapped to one of a plurality of modulated symbol sets and to repeat each of the received modulated symbols within each of the plurality of modulated symbol sets, circuitry for a precoder block configured to carry out a precoder function on the repeated modulation symbols, the precoder function comprising multiplying each of the repeated modulation symbols by an element of a precoder vector to produce precoded symbols, and circuitry for a discrete Fourier transform, DFT, block configured to carry out a DFT on the precoded symbols, wherein the precoder function directs energy of the output of the DFT to fall upon a selected one of the allocated subcarriers such that, at the output of the DFT, only the precoded and transformed symbols in the selected one of the allocated subcarriers have a non-zero magnitude.
A capacitive element (24; 104) comprising at least two complexes (26, 30; 106A, 106B, 108A, 108B), each complex comprising at least one electrode (31, 33), the complexes being superimposed, an electrically insulating separator (28A, 28B, 28) made of plastic material, being interposed between each pair of complexes, the or at least one of the separators comprising at least two protuberances (36A, 36B; 38A, 38B; 136A, 136B, 138A, 138B), at least one protuberance being located in the vicinity of one end of the separator in a direction normal to the superimposition direction, the protuberances being each formed by one or more clusters of the plastic material of the remelted separator, said capacitive element (24, 104) is characterised in that the separator (28A, 28B, 28) is made of porous plastic material and in that at least one of the protuberances (36A, 36B; 38A, 38B; 136A, 136B, 138A, 138B) extends essentially over an entire dimension of the separator.
A bearing device comprising: a rotating shaft; a thrust bearing which is provided on the rotating shaft and regulates an axial movement of the rotating shaft; and an oil storage portion (19, 20) which includes an oil storage space (19a, 20a) which is adjacent to the thrust bearing in an axial direction to be formed in an arc shape to surround the rotating shaft and is formed to have an opened lower portion, the oil storage portion (19, 20) having an inclined surface (19aa, 20aa) which is formed to be inclined in a rotation direction of the rotating shaft while protruding toward the thrust bearing side in a region below a horizontal plane passing through a center of the rotating shaft in the oil storage space, characterized in that a notch is formed in a lower portion of the thrust bearing and an opening end of the notch is provided to be continuous to the inclined surface (19aa, 20aa), wherein the opening end of the notch has an inclined surface continuous to the inclined surface (19aa, 20aa). a rotating shaft; a thrust bearing which is provided on the rotating shaft and regulates an axial movement of the rotating shaft; and an oil storage portion (19, 20) which includes an oil storage space (19a, 20a) which is adjacent to the thrust bearing in an axial direction to be formed in an arc shape to surround the rotating shaft and is formed to have an opened lower portion, the oil storage portion (19, 20) having an inclined surface (19aa, 20aa) which is formed to be inclined in a rotation direction of the rotating shaft while protruding toward the thrust bearing side in a region below a horizontal plane passing through a center of the rotating shaft in the oil storage space, characterized in that a notch is formed in a lower portion of the thrust bearing and an opening end of the notch is provided to be continuous to the inclined surface (19aa, 20aa), wherein the opening end of the notch has an inclined surface continuous to the inclined surface (19aa, 20aa).
A method for receiving information, comprising: monitoring, at a receiving end, Downlink Control Information, DCI, information through a Physical Downlink Control Channel, PDCCH, or an enhanced physical control channel, ePDCCH of an unlicensed carrier or a licensed carrier; wherein the DCI information is used by the receiving end to acquire information about time that the unlicensed carrier is occupied after the unlicensed carrier is seized; wherein the information about time describes the number of subframes which are continuously occupied starting from a certain subframe; wherein monitoring, at the receiving end, the DCI information comprises at least one of: receiving, at the receiving end, the information about time through a PDCCH in first one, two, three or four OFDM symbols of a subframe; receiving, at the receiving end, the information about time through a PDCCH in an OFDM symbol of a second slot of a subframe; and receiving, at the receiving end, the information about time through a PDCCH/ePDCCH at a preset resource location of a subframe. monitoring, at a receiving end, Downlink Control Information, DCI, information through a Physical Downlink Control Channel, PDCCH, or an enhanced physical control channel, ePDCCH of an unlicensed carrier or a licensed carrier; wherein the DCI information is used by the receiving end to acquire information about time that the unlicensed carrier is occupied after the unlicensed carrier is seized; wherein the information about time describes the number of subframes which are continuously occupied starting from a certain subframe; wherein monitoring, at the receiving end, the DCI information comprises at least one of: receiving, at the receiving end, the information about time through a PDCCH in first one, two, three or four OFDM symbols of a subframe; receiving, at the receiving end, the information about time through a PDCCH in an OFDM symbol of a second slot of a subframe; and receiving, at the receiving end, the information about time through a PDCCH/ePDCCH at a preset resource location of a subframe. receiving, at the receiving end, the information about time through a PDCCH in first one, two, three or four OFDM symbols of a subframe; receiving, at the receiving end, the information about time through a PDCCH in an OFDM symbol of a second slot of a subframe; and receiving, at the receiving end, the information about time through a PDCCH/ePDCCH at a preset resource location of a subframe.
Timepiece comprising a case which houses a plate of a movement surmounted by a dial, a support provided with fastening studs being arranged on an upper face of said plate for mounting said dial, wherein said dial and said support comprise angular locking means for locking the angular position of said dial on said support, characterised in that said dial is assembled to said plate by means of at least one flexible fastening element integral with said dial and arranged in the plane of said dial, the timepiece further comprising additional axial locking means for keeping said dial pressed against said support, said additional axial locking means being formed by the heel of a watch glass.
A semiconductor structure comprising: a silicon substrate having at least one via which extends from a backside of the silicon substrate; a compositionally-graded transition layer formed on the silicon substrate, wherein the compositionally-graded transition layer is a non conducting layer, wherein the compositionally-graded transition layer is composed of Al x In y Ga( 1-x-y)N, Al x Ga(1-x)N or In y Ga( 1-y)N and wherein the concentration of at least one of Ga, Al, In is varied across at least a portion of the cross-sectional thickness of the layer; a gallium nitride material region formed over the compositionally-graded transition layer; a topside electrical contact formed on a topside of the semiconductor structure; and a backside electrical contact formed within the via that extends from the backside of the substrate, wherein the via and the backside electrical contact extend through the compositionally-graded transition layer. a silicon substrate having at least one via which extends from a backside of the silicon substrate; a compositionally-graded transition layer formed on the silicon substrate, wherein the compositionally-graded transition layer is a non conducting layer, wherein the compositionally-graded transition layer is composed of Al x In y Ga( 1-x-y)N, Al x Ga(1-x)N or In y Ga( 1-y)N and wherein the concentration of at least one of Ga, Al, In is varied across at least a portion of the cross-sectional thickness of the layer; a gallium nitride material region formed over the compositionally-graded transition layer; a topside electrical contact formed on a topside of the semiconductor structure; and a backside electrical contact formed within the via that extends from the backside of the substrate, wherein the via and the backside electrical contact extend through the compositionally-graded transition layer.
- A device for measuring a current in an electric power circuit, configured to implement a protection device and a utility circuit connected to the electric power circuit comprising a power transistor incorporated in series in the electric power circuit and a terminal of which is connected to the utility circuit, said protection device comprising a protection transistor whose drain is configured to be connected to the drain of the power transistor and whose source is configured to be connected to the utility circuit, and a first resistor, one of the terminals of which is connected to the source of the protection transistor and the other of the terminals of which is connected to the ground, said protection device further comprising a first DC voltage source permanently connected to the gate of the protection transistor, the utility circuit further comprising a current measuring circuit comprising at least one operational amplifier whose noninverting input is connected to the source of the protection transistor, the inverting input of the operational amplifier being configured such that the voltage at the output of the operational amplifier is a function of the current across the terminals of the power transistor when the latter is closed.
An [alpha]-diketopyrrolopyrrole pigment, wherein in the X-ray diffraction spectrum of the pigment, the ratio of the peak intensity (I 020) for plane index that corresponds to peak intensity of 7.5 degrees in double glancing angles (2 theta) of the X-ray diffraction pattern, to the peak intensity (I- 141) for plane index (-141), that corresponds to peak intensity of 25.8 degrees in double glancing angles (2 theta) of the X-ray diffraction pattern, I 020 /I- 141 is 0.40 or lower, and the ratio of the peak intensity (I -141 for plane index (-141) to the peak intensity (I 111) for plane index, that corresponds to peak intensity of 24.7 degrees in double glancing angles (2theta) of the X-ray diffraction pattern, I -141 /I 111 is 1.28 or lower.
A compound of formula wherein R 1 is X is selected from O, S or CF 2; R 6 is selected from C 1-3 alkyl, wherein said C 1-3 alkyl is optionally substituted by 1, 2 or 3 F; R 7 is selected from hydrogen, F, Cl or CH 3; or a pharmaceutically-acceptable salt thereof. X is selected from O, S or CF 2; R 6 is selected from C 1-3 alkyl, wherein said C 1-3 alkyl is optionally substituted by 1, 2 or 3 F; R 7 is selected from hydrogen, F, Cl or CH 3; or a pharmaceutically-acceptable salt thereof.
A device for protecting the end of a tubular component, said end comprising a first female threaded zone, the device comprising an end piece provided with a second male threaded zone which is suitable to cooperate with the first female threaded zone of the tubular component, and a ring which is suitable to cover a portion of the outer surface of the end of the tubular component, characterized in that the ring is bound up with the end piece before mounting the device on said end such that the ring is free to turn about itself independently of the end piece.
An electromechanical motor vehicle power steering mechanism with an electric motor providing a steering assist force and a control unit controlling the current to the electric motor, whereas the control unit includes two redundant power supply units (A, B) each connected to a vehicle battery (15, 115), characterized in that the two power supply units (A, B) each comprise a primary winding (19, 119) and a secondary winding (20, 200) as part of a flyback transformer with a shared magnetic core.
An inflatable harness crew mask, comprising: a mask portion including a face seal molding formed to fit around the periphery of the face of the wearer; an inflatable harness including at least one inflatable tube (18a, 18b) connected to the face seal molding; an inflation valve connected in fluid communication to said inflatable harness and configured to control inflation of the harness; and a pressurized gas inflation supply assembly (36, 40) configured to supply pressurized gas to the inflation valve to inflate the inflatable harness, characterized in that: said pressurized gas inflation supply assembly (36, 40) comprises a pressurized gas inflation supply cylinder including a container portion having an interior chamber for removably receiving a main body portion of a compressed gas cartridge, and a regulator portion, said regulator portion having a first end and a second end, said first end of said regulator portion being removably connectable to said container portion, and said first end of said regulator portion having an interior plenum configured to removably receive a neck portion of a compressed gas cartridge. a mask portion including a face seal molding formed to fit around the periphery of the face of the wearer; an inflatable harness including at least one inflatable tube (18a, 18b) connected to the face seal molding; an inflation valve connected in fluid communication to said inflatable harness and configured to control inflation of the harness; and a pressurized gas inflation supply assembly (36, 40) configured to supply pressurized gas to the inflation valve to inflate the inflatable harness, characterized in that: said pressurized gas inflation supply assembly (36, 40) comprises a pressurized gas inflation supply cylinder including a container portion having an interior chamber for removably receiving a main body portion of a compressed gas cartridge, and a regulator portion, said regulator portion having a first end and a second end, said first end of said regulator portion being removably connectable to said container portion, and said first end of said regulator portion having an interior plenum configured to removably receive a neck portion of a compressed gas cartridge. said pressurized gas inflation supply assembly (36, 40) comprises a pressurized gas inflation supply cylinder including a container portion having an interior chamber for removably receiving a main body portion of a compressed gas cartridge, and a regulator portion, said regulator portion having a first end and a second end, said first end of said regulator portion being removably connectable to said container portion, and said first end of said regulator portion having an interior plenum configured to removably receive a neck portion of a compressed gas cartridge.
Method for producing a sandwich component from cold rolled strip which is obtained by the cold rolling, recrystallisation annealing and cooling of steel strip, wherein a further functional layer is applied on to the cold rolled strip, characterised by the following steps: cooling the cold rolled strip after the rolling and recrystallisation annealing, applying an adhesive layer to the cooled cold rolled strip, applying the functional layer to the adhesive layer, rolling the cold rolled strip with the applied adhesive layer and functional layer into a coil and unrolling the coil and mechanically forming the cold rolled strip with the applied adhesive layer and functional layer into a sandwich component. cooling the cold rolled strip after the rolling and recrystallisation annealing, applying an adhesive layer to the cooled cold rolled strip, applying the functional layer to the adhesive layer, rolling the cold rolled strip with the applied adhesive layer and functional layer into a coil and unrolling the coil and mechanically forming the cold rolled strip with the applied adhesive layer and functional layer into a sandwich component.
A movable space test facility comprising a vacuum chamber, a saddle support with legs, securable on a platform, for the vacuum chamber, a cover for the vacuum chamber, fittings inside the vacuum chamber for installing a test object, a vacuum evacuation system, one or more fore-vacuum pumps and one or more high-vacuum pumps operationally connected with the vacuum evacuation system and capable of exhausting gases from the vacuum chamber, wherein the one or more fore-vacuum pumps and the one or more high-vacuum pumps are connected with the vacuum evacuation system by means of bellows connections and/or a flexible tubing, including a reinforced tubing, that permit mutual angular and linear relative displacement of the one or more fore-vacuum pumps, the one or more high-vacuum pumps and the vacuum evacuation system, and furthermore the saddle support with legs is installed on one or more vibration-absorbing elements (54, 55) constructed with the ability to absorb vibrations in the vertical direction, thereby preventing the transmission of vibration loads from a vehicle to the parts of the movable space test facility disposed on the vibration-absorbing elements, characterised in that the one or more fore-vacuum pumps and the one or more high-vacuum pumps are supplied with brackets for mounting these pumps in a transport position to a housing of the vacuum chamber and to the saddle support with legs.
A method for adjusting a workpiece-supporting assembly of a machining centre for workpiece machining, in particular a multi-functional machining centre for milling, drilling and/or turning machining, wherein a deformation model adjustable via several varying stiffness-relevant input variables, which is a deformable geometrical system, which completely describes the physical conditions and the complete deformation behaviour of the workpiece-supporting assembly of the machining centre with sufficiently high accuracy, is adjusted on the basis of deformation measurements and is then fixedly implemented in the machine control of the machining centre as a not modifiable calculation model, which is a mathematical system, which describes the behaviour of the deformation model compared to the theoretical behaviour of the ideal, not deformed component, wherein, with the implemented calculation model, one or more position correction values for the machine control of the machining centre are calculated, using which the machine control then automatically performs a respective position correction of the calculated elastic component deformations on the workpiece-supporting assembly, so that the elastic deformation of the workpiece-supporting assembly is determined and also adjusted in any spatial direction without the aid of an external measuring device via the machine control only, wherein the deformation model, upon initial commissioning of the workpiece-supporting assembly, is only adjusted once as the basis of deformation measurements, so that the deformation model is valid for all workpiece-supporting assemblies with identically equal geometrical dimensions and with identically equal geometrical connections to the machine bed, characterised in that the machining centre comprises three linear machine axes (6, 7, 8) and two rotary machine axes (3, 4), the calculation model, in relation to the respective pivot and rotation angles of the workpiece-supporting assembly, establishes a connection between the mass of the workpiece, the centre of gravity of the workpiece, and the elastic component deformation in an analytical or numerical manner, and one or more position correction values for the machine control of the machining centre are calculated with the implemented calculation model in connection with the parameters transferred into the machine control for the mass of the workpiece and for the centre of gravity of the loaded workpiece, wherein the workpiece-supporting assembly is designed as a pivotable and rotatable workpiece table with a horizontally oriented pivot axis and with a rotation axis oriented normal to the pivot axis, and wherein the workpiece table is adjustable via the machine control of the machining centre simultaneously around the pivot and rotation axes, controlled via electrical servomotors.
An assembly for use in deflecting a portion of a medical device, the assembly comprising a first rotatable member having a first diameter and a first pull wire coupled thereto, a second rotatable member having a second diameter smaller than the first diameter and a second pull wire coupled thereto, wherein the second rotatable member is coupled to the first rotatable member such that a center point of the second rotatable member is offset from a center point of the first rotatable member, and wherein the first and second rotatable members (36, 38) are configured such that rotation of the first rotatable member via the first pull wire causes rotation of the second rotatable member and second pull wire resulting in deflection of a distal end of the medical device.
Method for fill level measurement according to the transit time method, wherein at least one conductor unit is impinged with pulse-like electromagnetic transmit signals, wherein electromagnetic response signals are tapped from the conductor unit, wherein the conductor unit is impinged either with transmit signals having positive polarity or with transmit signals having negative polarity, and wherein the transmit signals are generated with a predeterminable sequence with respect to the polarity, characterized in that the transmit signals each have at least one peak and the sign of the peak can be selected for each transmit signal so that the signals have positive or negative amplitude, that the conductor unit is impinged with at least one first transmit signal having positive polarity or negative polarity, that at least one first response signal is then tapped from the conductor unit and stored, that the conductor unit is impinged with at least one second transmit signal having negative polarity or positive polarity, that at least one second response signal is then tapped from the conductor unit and that at least the first response signal and the second response signal are evaluated together.