mhurhangee/ep-ind-claims huggingface dataset:
A light detection and ranging, LIDAR, device for an autonomous vehicle, the LIDAR device comprising: a laser assembly tier including a laser configured to emit laser light; a photonic integrated circuit, PIC, tier including: a semiconductor optical amplifier, SOA; a PIC wafer (160; 260; 460) configured to incouple the laser light into the PIC wafer and direct the laser light to the SOA; and a wafer layer (130; 330; 430) that is transparent to the laser light and is disposed between the laser assembly tier and the PIC wafer (160; 260; 460), and wherein the wafer layer (130; 330; 430) includes: a laser carrier wafer (131; 331), wherein the laser is coupled to the laser carrier wafer, wherein the laser carrier wafer is configured to receive the laser light from the laser assembly tier; and an SOA cap wafer that is configured to seal the SOA from an environment of the LIDAR device, wherein the SOA cap wafer is disposed between the PIC wafer (160; 260; 460) and the laser carrier wafer (131; 331); and wherein the SOA cap wafer is configured to receive the laser light from the laser carrier wafer; and wherein the PIC wafer is configured to receive the laser light from the SOA cap wafer. a photonic integrated circuit, PIC, tier including: a semiconductor optical amplifier, SOA; a PIC wafer (160; 260; 460) configured to incouple the laser light into the PIC wafer and direct the laser light to the SOA; and a semiconductor optical amplifier, SOA; a PIC wafer (160; 260; 460) configured to incouple the laser light into the PIC wafer and direct the laser light to the SOA; and a wafer layer (130; 330; 430) that is transparent to the laser light and is disposed between the laser assembly tier and the PIC wafer (160; 260; 460), and wherein the wafer layer (130; 330; 430) includes: a laser carrier wafer (131; 331), wherein the laser is coupled to the laser carrier wafer, wherein the laser carrier wafer is configured to receive the laser light from the laser assembly tier; and an SOA cap wafer that is configured to seal the SOA from an environment of the LIDAR device, wherein the SOA cap wafer is disposed between the PIC wafer (160; 260; 460) and the laser carrier wafer (131; 331); and wherein the SOA cap wafer is configured to receive the laser light from the laser carrier wafer; and wherein the PIC wafer is configured to receive the laser light from the SOA cap wafer. a laser carrier wafer (131; 331), wherein the laser is coupled to the laser carrier wafer, wherein the laser carrier wafer is configured to receive the laser light from the laser assembly tier; and an SOA cap wafer that is configured to seal the SOA from an environment of the LIDAR device, wherein the SOA cap wafer is disposed between the PIC wafer (160; 260; 460) and the laser carrier wafer (131; 331); and wherein the SOA cap wafer is configured to receive the laser light from the laser carrier wafer; and wherein the PIC wafer is configured to receive the laser light from the SOA cap wafer.
An arrangement for providing vehicles with energy by magnetic induction, wherein the arrangement comprises: - a primary side electric conductor arrangement adapted to generate an electromagnetic field while an alternating electric current flows through the conductor arrangement and - a field shaping layer (1a - 1d; 1e - 1f) comprising magnetizable material adapted to shape magnetic field lines of the electromagnetic field, wherein the field shaping layer (1a - 1d; 1e - 1f) comprises a plurality of elements made of the magnetizable material, wherein neighbouring elements (1a, 1b; 1a, 1c) are positioned at a distance to each other, characterized in that the arrangement comprises a composite layer comprising a plurality of the elements made of the magnetizable material and comprising a continuous supporting layer, wherein neighbouring elements (1a, 1b; 1a, 1c) are positioned at a distance to each other and wherein the plurality of the elements are fixed to the continuous supporting layer, the continuous supporting layer is made of an electrically conducting material and the primary side electric conductor arrangement is located at a distance to the plurality of elements. - a primary side electric conductor arrangement adapted to generate an electromagnetic field while an alternating electric current flows through the conductor arrangement and - a field shaping layer (1a - 1d; 1e - 1f) comprising magnetizable material adapted to shape magnetic field lines of the electromagnetic field,
A method for detecting blocking of a microphone, applicable to a wireless earphone that is connected with a mobile terminal, the wireless earphone comprising a first wireless earphone and a second wireless earphone, the first wireless earphone having a first microphone, the mobile terminal having a second microphone, and the method comprising: determining (S201, S301, S401) a first charge power level of the first wireless earphone and a second charge power level of the second wireless earphone when both the first wireless earphone and the second wireless earphone are worn; performing (S202, S402) a first operation and a second operation in parallel when the first charge power level is greater than the second charge power level, wherein the first operation is to obtain first audio through the first microphone, and the second operation is to obtain second audio through the second microphone; determining (S203, S304, S403) a reference parameter of the second audio; and determining (S204, S404) that the first microphone is blocked in response to detecting that a first parameter of the first audio does not match the reference parameter. determining (S201, S301, S401) a first charge power level of the first wireless earphone and a second charge power level of the second wireless earphone when both the first wireless earphone and the second wireless earphone are worn; performing (S202, S402) a first operation and a second operation in parallel when the first charge power level is greater than the second charge power level, wherein the first operation is to obtain first audio through the first microphone, and the second operation is to obtain second audio through the second microphone; determining (S203, S304, S403) a reference parameter of the second audio; and determining (S204, S404) that the first microphone is blocked in response to detecting that a first parameter of the first audio does not match the reference parameter.
A washing machine, comprising a washing chamber, a water inlet passage, a liquid outlet passage, and a treating agent input device for inputting a liquid or colloidal treating agent into the washing chamber, wherein: the treating agent input device comprises an independent treating agent container, a mounting chamber for receiving the treating agent container, and a mixing chamber for receiving the treating agent and water, the mixing chamber is connected to the water inlet passage and the liquid outlet passage separately, the liquid outlet passage is connected to the washing chamber, to introduce a mixed liquid of the treating agent and water into the washing chamber, a pressing-type suction device is mounted on the treating agent container, the suction device comprises a reciprocating pressure head and a conveying channel connected to the pressure head and in fluid communication with the treating agent container, the pressure head comprises a liquid outlet, the liquid outlet is in space communication with the mixing chamber, so that the treating agent enters the mixing chamber after passing through the liquid outlet, and a pressure applying device controlled by a control device is disposed opposite to the pressure head, and can push the pressure head to move in a direction towards the treating agent container, to pump the treating agent out of the treating agent container, characterized in that a piston is disposed in the treating agent container, wherein the piston moves toward the pressure head under the action of a pressure difference as an amount of the treating agent decreases.
Support framework for molds suitable for being used in plants for the pressure slip casting of hygienic-sanitary articles, comprising: - a support element associable with a mold for forming said articles; - an attachment bracket suitable for being mounted in said plant; and - removable fixing means (15, 34, 35) suitable for solidly joining said bracket to said element; characterized in that it comprises hook means fixed to said element and able to removably hook said element to said bracket. - a support element associable with a mold for forming said articles; - an attachment bracket suitable for being mounted in said plant; and - removable fixing means (15, 34, 35) suitable for solidly joining said bracket to said element;
A process for preserving the texture of a food product containing a fat blend, characterized by incorporating into the fat blend a texturizing agent comprising one or more sterol fatty acid esters, one or more stanol fatty acid esters or mixtures thereof as a replacement for the hardstock in the fat blend, wherein there is no hardstock in the fat blend contained in the food product.
A bispecific antibody specifically binding to the two targets human CD3ε and human B cell maturation antigen (BCMA), wherein the bispecific antibody comprises: (a) a first Fab fragment of an antibody specifically binding to BCMA (first Fab fragment of the anti-BCMA antibody); (b) a second Fab fragment of the antibody specifically binding to BCMA (second Fab fragment of the anti-BCMA antibody); (c) an Fc part; and (d) a Fab fragment of an antibody specifically binding to CD3ε (Fab fragment of the anti-CD3ε antibody), wherein the variable domains VL and VH or the constant domains CL and CH1 of the Fab fragment of the anti-CD3ε antibody are replaced by each other, wherein the first Fab fragment of the anti-BCMA antibody is linked via its C-terminus to the N-terminus of the hinge region of the Fc part, the Fab fragment of the anti-CD3ε antibody is linked via its C-terminus to the N-terminus of the hinge region of the Fc part, and the second Fab fragment of the anti-BCMA antibody is chemically linked via its C-terminus to the N-terminus of the Fab fragment of the anti-CD3ε antibody. (a) a first Fab fragment of an antibody specifically binding to BCMA (first Fab fragment of the anti-BCMA antibody); (b) a second Fab fragment of the antibody specifically binding to BCMA (second Fab fragment of the anti-BCMA antibody); (c) an Fc part; and (d) a Fab fragment of an antibody specifically binding to CD3ε (Fab fragment of the anti-CD3ε antibody), wherein the variable domains VL and VH or the constant domains CL and CH1 of the Fab fragment of the anti-CD3ε antibody are replaced by each other,
Process for the preparation of a preparation in the form of an oil-in-water emulsion, characterised in that at least one organic phosphorus compound and subsequently a metal oxide and/or metal hydroxide are admixed with the oil phase of the preparation, and the at least one aqueous phase containing dihydroxyacetone is added at a maximum of 40°C and homogenised, where the metal oxide and/or hydroxide is selected from the group of the oxides or hydroxides respectively of silicon, titanium, zinc, aluminium, cerium, iron, yttrium or zirconium or mixtures thereof, which may be coated with metal oxides or hydroxides, organic acids selected from the group stearic acid, lauric acid, caproic acid or palmitic acid, polyols, polymers or organosilicone compounds or may contain a manganese-containing coating, and where the at least one organic phosphorus compound is selected from the group of the hydroxyalkyldiphosphonic acids, alkylphosphonic acids, which may be substituted by at least one COOH group, aminoalkylenephosphonic acids or organic phosphoric acid esters or salts thereof.
Heat generating element, particularly for an electrical heating device of a motor vehicle, having a positional frame, which forms a receptacle in which at least one PTC element is accommodated, and abutting contact plates on two oppositely situated sides of the PTC element, and several supporting points provided in the circumferential direction of the receptacle, characterised in that the supporting points are formed such that they taper in a height direction and in a circumferential direction to a tip.
A debagging system for use in a debagging process during the manufacture of a wind turbine blade, wherein the debagging system comprises: a debagging tool (110, 210), and conveying means configured to moving the debagging tool along a longitudinal direction of a mould for manufacturing a wind turbine blade part, wherein the debagging tool (110, 210) comprises: a lifting bar (112, 212) for insertion under infusion tools and lifting the infusion tools during the debagging process, the lifting bar (112, 212) having a first end and a second end, and a support frame (120, 220) for carrying the lifting bar, wherein the lifting bar (112, 212) is coupled to the support frame (120, 220), and wherein the debagging tool is suspended from the conveying means so that the debagging tool during use can be arranged above the mould and be moved along the longitudinal direction of the mould. a debagging tool (110, 210), and conveying means configured to moving the debagging tool along a longitudinal direction of a mould for manufacturing a wind turbine blade part, wherein the debagging tool (110, 210) comprises: a lifting bar (112, 212) for insertion under infusion tools and lifting the infusion tools during the debagging process, the lifting bar (112, 212) having a first end and a second end, and a support frame (120, 220) for carrying the lifting bar, wherein the lifting bar (112, 212) is coupled to the support frame (120, 220), and a lifting bar (112, 212) for insertion under infusion tools and lifting the infusion tools during the debagging process, the lifting bar (112, 212) having a first end and a second end, and a support frame (120, 220) for carrying the lifting bar, wherein the lifting bar (112, 212) is coupled to the support frame (120, 220), and wherein the debagging tool is suspended from the conveying means so that the debagging tool during use can be arranged above the mould and be moved along the longitudinal direction of the mould.
A ligation clip defining a longitudinal axis and comprising: a first jaw having a first clamping surface, the first clamping surface supporting first ribs, each of the first ribs being axially spaced from each other along the first clamping surface and defining an axis that defines an angle β with the longitudinal axis of the ligation clip; and a second jaw having a second clamping surface in opposition to the first clamping surface, the second clamping surface supporting second ribs, each of the second ribs being spaced from each other along the second clamping surface and defining an axis that defines the angle β with the longitudinal axis of the ligation clip, the second jaw being pivotably coupled to the first jaw such that the ligation clip is movable between an open position and a clamped position; wherein each of the first ribs includes a distal wall and a proximal wall and a wall in opposition to the second clamping surface and each of the second ribs includes a distal wall, a proximal wall, and a wall in opposition to the first clamping surface, the distal wall of at least some of the first ribs being positioned in substantial alignment with the proximal wall of a respective one of the second ribs when the ligation clip is in the clamped position, characterised in that the angle β is between about 75 degrees and about 85 degrees. a first jaw having a first clamping surface, the first clamping surface supporting first ribs, each of the first ribs being axially spaced from each other along the first clamping surface and defining an axis that defines an angle β with the longitudinal axis of the ligation clip; and a second jaw having a second clamping surface in opposition to the first clamping surface, the second clamping surface supporting second ribs, each of the second ribs being spaced from each other along the second clamping surface and defining an axis that defines the angle β with the longitudinal axis of the ligation clip, the second jaw being pivotably coupled to the first jaw such that the ligation clip is movable between an open position and a clamped position; wherein each of the first ribs includes a distal wall and a proximal wall and a wall in opposition to the second clamping surface and each of the second ribs includes a distal wall, a proximal wall, and a wall in opposition to the first clamping surface, the distal wall of at least some of the first ribs being positioned in substantial alignment with the proximal wall of a respective one of the second ribs when the ligation clip is in the clamped position,
A printer, comprising: a medium supply unit configured to supply a print medium; a platen roller configured to feed the print medium supplied from the medium supply unit along a medium feed path; and a printing head mounting portion to which a printing head is mounted, the printing head being configured to print on the print medium in a position opposing to the platen roller, the printing head mounting portion being configured to allow the printing head to open/close in a contact/separate direction with respect to the platen roller by swinging with a pivot shaft, the pivot shaft being disposed in an upstream side in a feed direction of the print medium with respect to the printing head and in parallel with the platen roller, characterised in that the printing head is configured to swing in conjunction with opening and closing of the printing head mounting portion using a downstream side of the printing head in the feed direction of the print medium as a fulcrum, and in a state where the printing head mounting portion is in an open position, the printing head having orientation where an upstream side of the printing head in the feed direction of the print medium is displaced to a direction separating from the printing head mounting portion. a medium supply unit configured to supply a print medium; a platen roller configured to feed the print medium supplied from the medium supply unit along a medium feed path; and a printing head mounting portion to which a printing head is mounted, the printing head being configured to print on the print medium in a position opposing to the platen roller, the printing head mounting portion being configured to allow the printing head to open/close in a contact/separate direction with respect to the platen roller by swinging with a pivot shaft, the pivot shaft being disposed in an upstream side in a feed direction of the print medium with respect to the printing head and in parallel with the platen roller, characterised in that the printing head is configured to swing in conjunction with opening and closing of the printing head mounting portion using a downstream side of the printing head in the feed direction of the print medium as a fulcrum, and in a state where the printing head mounting portion is in an open position, the printing head having orientation where an upstream side of the printing head in the feed direction of the print medium is displaced to a direction separating from the printing head mounting portion.
Household cooking appliance with a cooking compartment and a door for closing the cooking compartment, wherein the door has two door profiles (17, 18) arranged at a distance from one another and a fascia panel provided on an upper edge of the door, said fascia panel being connected with a positive fit to the door profiles (17, 18), wherein the fascia panel has two spring elements (26, 27), wherein each spring element (26, 27) is assigned to and contacts one of the door profiles (17, 18), wherein the spring elements (26, 27) are resiliently deformable in order to centre the fascia panel between the door profiles (17, 18), wherein the fascia panel and the spring elements (26, 27) are embodied in one piece, characterised in that wherein the fascia panel has two resiliently deformable snap hooks (23, 24) configured to engage in a positive fit manner into the door profiles (17, 18), and wherein the snap hooks (23, 24) and the spring elements (26, 27) are sections of the fascia panel that are separate from one another.
A sensor apparatus for the examination of a sample, comprising: a) at least one sample chamber in which the sample can be provided, said sample chamber comprising a detection surface; b) at least one light source (151, 161) for emitting a first input light beam, which is totally internally reflected at the detection surface of the sample chamber into a first output light beam, and for emitting a second input light beam (L1'), which is at least partially transmitted through the sample chamber into a second output light beam (L2'); and c) at least one light detector for detecting the first and the second output light beams (L2, L2'); wherein the sample chamber is elongated and traversed in longitudinal direction by light of the second input light beam (L1'), wherein light from the second input light beam (L1') passes through the sample chamber in a direction that is substantially perpendicular to the direction of the first input light beam. a) at least one sample chamber in which the sample can be provided, said sample chamber comprising a detection surface; b) at least one light source (151, 161) for emitting a first input light beam, which is totally internally reflected at the detection surface of the sample chamber into a first output light beam, and for emitting a second input light beam (L1'), which is at least partially transmitted through the sample chamber into a second output light beam (L2'); and c) at least one light detector for detecting the first and the second output light beams (L2, L2');
A method comprising: determining a first modeled high-band signal based on a low-band excitation signal of an audio signal, the audio signal including a high-band portion and a low-band portion; determining a first set of one or more scaling factors based on energy of sub-frames of the first modeled high-band signal and energy of corresponding sub-frames of the high-band portion of the audio signal; the method being characterised by: applying a second set of one or more scaling factors based on at least one among the first set of one or more scaling factors to a modeled high-band excitation signal to determine a scaled high-band excitation signal; determining a second modeled high-band signal based on the scaled high-band excitation signal; and determining gain parameters based on the second modeled high-band signal and the high-band portion of the audio signal. determining a first modeled high-band signal based on a low-band excitation signal of an audio signal, the audio signal including a high-band portion and a low-band portion; determining a first set of one or more scaling factors based on energy of sub-frames of the first modeled high-band signal and energy of corresponding sub-frames of the high-band portion of the audio signal; applying a second set of one or more scaling factors based on at least one among the first set of one or more scaling factors to a modeled high-band excitation signal to determine a scaled high-band excitation signal; determining a second modeled high-band signal based on the scaled high-band excitation signal; and determining gain parameters based on the second modeled high-band signal and the high-band portion of the audio signal.