mhurhangee/ep-ind-claims huggingface dataset:
A hearing device (HAD l, HAD r; HD L, HD R) adapted for being located at or in a first ear of a user, or to be fully or partially implanted in the head (HEAD) at a first ear (Left ear, Right ear) of a user, the hearing device comprising • a first input transducer (M1, M2) for converting a first input sound signal from a sound field around the user at a first location, the first location being a location of the first input transducer, to a first electric input signal (d1l, dx21; X l, X r), the sound field comprising a mixture of a target sound from a target sound source and possible acoustic noise; • a transceiver unit (TX, RX) configured to receive a first quantized electric input signal (ex1rq, ex2rq; dx1rq, dx2rq; x ir,x il) via a communication link, the first quantized electric input signal being representative of the sound field around the user at a second location, the first quantized electric input signal comprising quantization noise due to a specific quantization scheme; • a beamformer filtering unit adapted to receive said first electric input signal and said first quantized electric input signal and to determine beamformer filtering weights, which, when applied to said first electric input signal and said first quantized electric input signal, provide a beamformed signal (x BF; Ŝ l, Ŝ r), and • a control unit adapted to control the beamformer filtering unit (BF; BF l, BF r), CHARACTERIZED IN THAT the control unit is configured to control the beamformer filtering unit taking account of said quantization noise by determining said beamformer filtering weights in dependence of said quantization noise, wherein said beamformer filtering weights are determined depending on a look vector and a noise covariance matrix, and wherein the noise covariance matrix comprises an acoustic component and a quantization component. • a first input transducer (M1, M2) for converting a first input sound signal from a sound field around the user at a first location, the first location being a location of the first input transducer, to a first electric input signal (d1l, dx21; X l, X r), the sound field comprising a mixture of a target sound from a target sound source and possible acoustic noise; • a transceiver unit (TX, RX) configured to receive a first quantized electric input signal (ex1rq, ex2rq; dx1rq, dx2rq; x ir,x il) via a communication link, the first quantized electric input signal being representative of the sound field around the user at a second location, the first quantized electric input signal comprising quantization noise due to a specific quantization scheme; • a beamformer filtering unit adapted to receive said first electric input signal and said first quantized electric input signal and to determine beamformer filtering weights, which, when applied to said first electric input signal and said first quantized electric input signal, provide a beamformed signal (x BF; Ŝ l, Ŝ r), and • a control unit adapted to control the beamformer filtering unit (BF; BF l, BF r), CHARACTERIZED IN THAT
A monoclonal antibody or an antigen-binding fragment thereof which is capable of specifically binding PGLYRP1 and reducing PGLYRP1-mediated TREM-1 activity.
An electricity distribution system, comprising: an AC feed line of a single phase three wire system for supplying an AC power to electrical devices; a DC feed line of a three wire system for supplying a DC power to electrical devices; and an AC-DC converter converting the AC power inputted from said AC feed line into the DC power outputted to said DC feed line, wherein said AC-DC converter comprises an electrical circuit commonly connecting one of three wires of said DC feed line and a neutral wire of said AC feed line, wherein said AC-DC converter is configured to apply a DC voltage to each of positive and negative voltage wires (L+,L-), said positive voltage wire (L+) having a positive electrical potential to an electrical potential of said neutral wire, said negative voltage wire (L-) having a negative electrical potential to the electrical potential of said neutral wire. an AC feed line of a single phase three wire system for supplying an AC power to electrical devices; a DC feed line of a three wire system for supplying a DC power to electrical devices; and an AC-DC converter converting the AC power inputted from said AC feed line into the DC power outputted to said DC feed line, wherein said AC-DC converter comprises an electrical circuit commonly connecting one of three wires of said DC feed line and a neutral wire of said AC feed line, wherein said AC-DC converter is configured to apply a DC voltage to each of positive and negative voltage wires (L+,L-), said positive voltage wire (L+) having a positive electrical potential to an electrical potential of said neutral wire, said negative voltage wire (L-) having a negative electrical potential to the electrical potential of said neutral wire.
Artificial satellite having a longitudinal axis (A-A) that extends in the launch direction, said artificial satellite comprising: - a mounting structure supporting equipment-bearing walls (4, 8, 6, 10, 12), - a launcher-adapter rigidly connected to the mounting structure, - a first radiator, - at least one first system for transporting heat by a fluid comprising at least one first heat-exchange section and a second heat-exchange section, said second heat-exchange section being in thermal contact with said first radiator, characterised in that said first heat-exchange section is in thermal contact with at least one portion of the launcher-adapter in such a way as to allow for heat exchanges between the launcher-adapter and the first radiator. - a mounting structure supporting equipment-bearing walls (4, 8, 6, 10, 12), - a launcher-adapter rigidly connected to the mounting structure, - a first radiator, - at least one first system for transporting heat by a fluid comprising at least one first heat-exchange section and a second heat-exchange section, said second heat-exchange section being in thermal contact with said first radiator,
A guide device, comprising: a first battery information acquisition component configured to acquire first information related to a plurality of batteries being charged at a plurality of charging stations in which are respectively installed one or more charging devices configured to charge a plurality of batteries; a second battery information acquisition component configured to acquire second information related to a plurality of batteries respectively connected to a plurality of power consumption elements; and a guide component configured to guide a specific power consumption element to a specific charging station on the basis of the first information acquired by the first battery information acquisition component and the second information acquired by the second battery information acquisition component, wherein the first information includes information about a number of batteries being charged at each of the plurality of charging stations, and the guide component is configured to guide the power consumption elements so as to equalize the number of batteries at the plurality of charging stations, characterized in that, the first information further includes information about an average capacity of batteries being charged at each of the plurality of charging stations, and the guide component, after equalization of the number of batteries at the plurality of charging stations, is configured to guide the power consumption elements so as to equalize the average capacity of batteries at the plurality of charging stations. a first battery information acquisition component configured to acquire first information related to a plurality of batteries being charged at a plurality of charging stations in which are respectively installed one or more charging devices configured to charge a plurality of batteries; a second battery information acquisition component configured to acquire second information related to a plurality of batteries respectively connected to a plurality of power consumption elements; and a guide component configured to guide a specific power consumption element to a specific charging station on the basis of the first information acquired by the first battery information acquisition component and the second information acquired by the second battery information acquisition component, wherein the first information includes information about a number of batteries being charged at each of the plurality of charging stations, and the guide component is configured to guide the power consumption elements so as to equalize the number of batteries at the plurality of charging stations, characterized in that, the first information further includes information about an average capacity of batteries being charged at each of the plurality of charging stations, and the guide component, after equalization of the number of batteries at the plurality of charging stations, is configured to guide the power consumption elements so as to equalize the average capacity of batteries at the plurality of charging stations.
A plasma etching apparatus, comprising: a Chamber; a Substrate support disposed inside the Chamber adapted to support in use a Substrate of a larger diameter than the diameter of said substrate support; a shield disposed above a center portion of the substrate with a gap such that plasma is not generated between the shield and the center portion of the substrate, the shield when in use having a diameter smaller than that of the substrate; the shield adapted, when in use, to prevent plasma from being generated in a region of a top surface of the substrate except an edge portion thereof; a reaction gas supply passageway and a gas injection nozzle for supplying a reaction gas to an area between the Shield and an inner sidewall of the chamber; a bias power applying unit for applying bias to the Substrate support characterized in that the apparatus comprises further an antenna disposed at a position on an outer wall of the Chamber adapted to apply during use plasma-generating power to an area between the edge portion of the Substrate and an inner wall of the Chamber. a Chamber; a Substrate support disposed inside the Chamber adapted to support in use a Substrate of a larger diameter than the diameter of said substrate support; a shield disposed above a center portion of the substrate with a gap such that plasma is not generated between the shield and the center portion of the substrate, the shield when in use having a diameter smaller than that of the substrate; the shield adapted, when in use, to prevent plasma from being generated in a region of a top surface of the substrate except an edge portion thereof; a reaction gas supply passageway and a gas injection nozzle for supplying a reaction gas to an area between the Shield and an inner sidewall of the chamber; a bias power applying unit for applying bias to the Substrate support characterized in that the apparatus comprises further an antenna disposed at a position on an outer wall of the Chamber adapted to apply during use plasma-generating power to an area between the edge portion of the Substrate and an inner wall of the Chamber.
A revolving door with a drive unit, wherein the revolving door includes a ceiling element, at which the drive unit is disposed and connected to the same for driving a turnstile of the revolving door, wherein no further components of the revolving door are located at the top side of the ceiling element, wherein a reception pot is provided, which is disposed on the underside of the ceiling element, wherein the ceiling element is provided with an underside recess, in which the reception pot is inserted, and screw elements screw the reception pot to the ceiling element, wherein the drive unit comprises a flat cylinder shaped electronically commutated multi-pole motor, which is inserted into a mounting trough formed by a reception pot and open in the direction towards the mounting space of the turnstile.
A digital communication method between a transmitter unit (1; 41) and a receiver unit (2; 40) over a communication channel using a predetermined modulation scheme, the method comprising the steps of: - selecting an amount of pilot symbols depending on an indication of at least one demodulator type available in the receiver unit to operate according to the predetermined modulation scheme; - modulating a set of digital symbols according to the predetermined modulation scheme to generate a modulated signal in the transmitter unit, the digital symbol set including information symbols and the selected amount of pilot symbols; and - transmitting the modulated signal over the communication channel. - selecting an amount of pilot symbols depending on an indication of at least one demodulator type available in the receiver unit to operate according to the predetermined modulation scheme; - modulating a set of digital symbols according to the predetermined modulation scheme to generate a modulated signal in the transmitter unit, the digital symbol set including information symbols and the selected amount of pilot symbols; and - transmitting the modulated signal over the communication channel.
A method comprising: decoding a single round encryption instruction to perform an advanced encryption standard, AES, single round encryption operation, wherein the single round encryption instruction is from an AES instruction set that includes separate AES instructions for performing an encryption round, a decryption round, an encryption last round, a decryption last round and for computing an encryption round key or a decryption round key, each AES round instruction having a unique opcode, wherein the single round encryption instruction specifies a destination register to store input data and a source register to store a round key, wherein the destination register is a 128-bit register and the source register is a 128-bit register, and wherein the input data is a 128-bit value and the round key is a 128-bit value; and executing the decoded single round encryption instruction, wherein an execution unit is to receive the input data and the round key, and wherein the execution unit is to perform the AES single round encryption operation on the input data using the round key and to store result data in the destination register. decoding a single round encryption instruction to perform an advanced encryption standard, AES, single round encryption operation, wherein the single round encryption instruction is from an AES instruction set that includes separate AES instructions for performing an encryption round, a decryption round, an encryption last round, a decryption last round and for computing an encryption round key or a decryption round key, each AES round instruction having a unique opcode, wherein the single round encryption instruction specifies a destination register to store input data and a source register to store a round key, wherein the destination register is a 128-bit register and the source register is a 128-bit register, and wherein the input data is a 128-bit value and the round key is a 128-bit value; and executing the decoded single round encryption instruction, wherein an execution unit is to receive the input data and the round key, and wherein the execution unit is to perform the AES single round encryption operation on the input data using the round key and to store result data in the destination register.
A blower device comprising: a fan; a motor rotating the fan, and including: a stator; a coil; a housing supporting the stator; and a cover covering the stator and the coil; a case (10, 20) housing a printed circuit board electrically connected to the coil; a first elastic body; and a second elastic body, wherein the housing includes: a cylindrical portion supporting the stator at an outside of the cylindrical portion; and a flange portion facing the cover, an outer diameter of the flange portion being greater than an outer diameter of the cylindrical portion, the case (10, 20) includes a peripheral wall portion, the peripheral wall portion defines a periphery of an opening receiving the housing such that the flange portion is positioned inside the case (10, 20) and that the cylindrical portion is positioned outside the case (10, 20), the peripheral wall portion is positioned between the cover and the flange portion, the first elastic body is sandwiched between the cover and one surface of the peripheral wall portion, is compressed in an axial direction of the motor, and is formed into an annular shape, the second elastic body is sandwiched between the cover and the flange portion and between the flange portion and another surface of the peripheral wall portion, is compressed in the axial direction, and is formed into an annular shape, an outer diameter of the second elastic body is smaller than an outer diameter of the first elastic body. a fan; a motor rotating the fan, and including: a stator; a coil; a housing supporting the stator; and a cover covering the stator and the coil; a case (10, 20) housing a printed circuit board electrically connected to the coil; a first elastic body; and a second elastic body, wherein the housing includes: a cylindrical portion supporting the stator at an outside of the cylindrical portion; and a flange portion facing the cover, an outer diameter of the flange portion being greater than an outer diameter of the cylindrical portion, a cylindrical portion supporting the stator at an outside of the cylindrical portion; and a flange portion facing the cover, an outer diameter of the flange portion being greater than an outer diameter of the cylindrical portion, the case (10, 20) includes a peripheral wall portion, the peripheral wall portion defines a periphery of an opening receiving the housing such that the flange portion is positioned inside the case (10, 20) and that the cylindrical portion is positioned outside the case (10, 20), the peripheral wall portion is positioned between the cover and the flange portion, the first elastic body is sandwiched between the cover and one surface of the peripheral wall portion, is compressed in an axial direction of the motor, and is formed into an annular shape, the second elastic body is sandwiched between the cover and the flange portion and between the flange portion and another surface of the peripheral wall portion, is compressed in the axial direction, and is formed into an annular shape, an outer diameter of the second elastic body is smaller than an outer diameter of the first elastic body.
A recombinant micro-organism of the class of Clostridia comprising a polynucleic acid encoding a fusion protein consisting of a polypeptide sequence which comprises in this order: - at least one signal peptide; - a carrier domain comprising at least one carbohydrate binding module of a cellulosomal scaffolding protein fused to at least one X module of a cellulosomal scaffolding protein; - at least one polypeptide of interest which is an enzyme or a therapeutic protein, wherein said therapeutic protein is selected from the group comprising therapeutic enzymes, cytokines, and antibodies; - at least one peptide linker for linking the carrier domain to the polypeptide of interest, wherein said micro-organism secretes said polypeptide of interest. - at least one signal peptide; - a carrier domain comprising at least one carbohydrate binding module of a cellulosomal scaffolding protein fused to at least one X module of a cellulosomal scaffolding protein; - at least one polypeptide of interest which is an enzyme or a therapeutic protein, wherein said therapeutic protein is selected from the group comprising therapeutic enzymes, cytokines, and antibodies; - at least one peptide linker for linking the carrier domain to the polypeptide of interest,
A ground compaction roller, comprising - a machine frame with an operator platform, - a drive engine, - at least one roller drum, said at least one roller drum being mounted for rotation between two mounting arms arranged at its face sides and connected to the machine frame, - an exciter unit for generating oscillations arranged inside said at least one roller drum, said exciter unit having - an exciter housing, - two imbalance weights (15A, 15B) mounted inside said exciter housing for rotation in opposite directions and coupled to one another, said imbalance weights (15A, 15B) rotating about two rotation axes (R1, R2) that are stationary relative to said exciter housing, and - a drive motor arranged outside said exciter housing, said drive motor being in drive connection with at least one of said two rotatably mounted imbalance weights (15A, 15B), characterized in that said exciter housing is rotationally fixed relative to the mounting arms in such a manner that the adjustability of the exciter unit relatively to the machine fame is prevented, and that the two imbalance weights (15A, 15B) are coupled to one another in such a manner that their amplitudes add up in a horizontal direction only. - a machine frame with an operator platform, - a drive engine, - at least one roller drum, said at least one roller drum being mounted for rotation between two mounting arms arranged at its face sides and connected to the machine frame, - an exciter unit for generating oscillations arranged inside said at least one roller drum, said exciter unit having - an exciter housing, - two imbalance weights (15A, 15B) mounted inside said exciter housing for rotation in opposite directions and coupled to one another, said imbalance weights (15A, 15B) rotating about two rotation axes (R1, R2) that are stationary relative to said exciter housing, and - a drive motor arranged outside said exciter housing, said drive motor being in drive connection with at least one of said two rotatably mounted imbalance weights (15A, 15B), characterized in that said exciter housing is rotationally fixed relative to the mounting arms in such a manner that the adjustability of the exciter unit relatively to the machine fame is prevented, and that the two imbalance weights (15A, 15B) are coupled to one another in such a manner that their amplitudes add up in a horizontal direction only.
A forming unit for a profiling line, comprising: a plurality of lower rollers (11,12,13) shaped with outer surfaces that envelop, on at least one transversal section plane on which the rotation axes of the lower rollers (11,12,13) lie, a lower curve; a plurality of upper rollers (21,22,23,24,25) shaped with outer surfaces that envelop, on the transversal section plane, an upper curve substantially parallel to the lower curve; wherein the lower rollers (11,12,13) include a central roller, that exhibits a concave outer surface, and one more lateral rollers (12,13) each of which is provided with a concave outer surface that, on the transversal section plane, is matched to the outer surface of the central roller; characterized in that: the upper rollers comprise a central roller, that exhibits a convex outer surface, and one or more lateral rollers (22,23,24,25) which exhibit a convex outer surface; the outer surfaces of the upper rollers (21,22,23,24,25) are substantially tangential to the upper curve on the transversal section plane. the upper rollers comprise a central roller, that exhibits a convex outer surface, and one or more lateral rollers (22,23,24,25) which exhibit a convex outer surface; the outer surfaces of the upper rollers (21,22,23,24,25) are substantially tangential to the upper curve on the transversal section plane.