mhurhangee/patent-ind-claim-en huggingface dataset:
A polishing composition configured to be used for polishing a gallium compound-based semiconductor substrate, comprising: a silica abrasive; a compound, C pho , having a phosphoric acid group or a phosphonic acid group; and water; wherein the polishing composition contains no oxidant, wherein the pH is less than 2, wherein the concentration of the compound, C pho , is within the range of 0.05% by weight or more and 25% by weight or less, and wherein the compound, C pho , includes at least one of the following compounds: A: a chelate compound having a phosphonic acid group, B: a compound selected from the group consisting of phosphoric acid mono C1-4 alkyl esters, phosphoric acid di C1-4 alkyl esters and phosphorous acid mono C1-4 alkyl esters, C: at least one of phosphoric acid and phosphorous acid, and D: a compound selected from the group consisting of inorganic salts of phosphoric acid and inorganic salts of phosphorous acid. a silica abrasive; a compound, C pho , having a phosphoric acid group or a phosphonic acid group; and water; wherein the polishing composition contains no oxidant, wherein the pH is less than 2, wherein the concentration of the compound, C pho , is within the range of 0.05% by weight or more and 25% by weight or less, and wherein the compound, C pho , includes at least one of the following compounds: A: a chelate compound having a phosphonic acid group, B: a compound selected from the group consisting of phosphoric acid mono C1-4 alkyl esters, phosphoric acid di C1-4 alkyl esters and phosphorous acid mono C1-4 alkyl esters, C: at least one of phosphoric acid and phosphorous acid, and D: a compound selected from the group consisting of inorganic salts of phosphoric acid and inorganic salts of phosphorous acid. A: a chelate compound having a phosphonic acid group, B: a compound selected from the group consisting of phosphoric acid mono C1-4 alkyl esters, phosphoric acid di C1-4 alkyl esters and phosphorous acid mono C1-4 alkyl esters, C: at least one of phosphoric acid and phosphorous acid, and D: a compound selected from the group consisting of inorganic salts of phosphoric acid and inorganic salts of phosphorous acid.
A foldable grille for windows and doors for integration into a window or door opening provided with a roller shutter comprising a plurality of slats, two roller shutter guides and two stops fixed by screws at the lowermost end of the roller shutter , wherein the foldable grille is composed of the following elements: a set of bars , each provided with corresponding standardised connectors in each of its ends designed to slide inside the roller shutter guides; an attaching system between the said connectors located at the ends of successive bars , which make possible a vertical movement of each bar inside the roller shutter guides from a position of overlapping bars to a position in which the said bars are separated at a maximum distance; a system for fixing the lowermost bar to the existing window opening in its base or lowest side; characterized in that the foldable grille further comprises: a system for fixing the uppermost bar to the two stops , making integral the vertical movement of the uppermost bar and that of the lowermost slat of the roller shutter ; and in that , in order to ensure the fixation of the assembly comprising said foldable grille following the roller shutter taking advantage of the two stops of the roller shutter itself at a variable height, the uppermost bar of the assembly incorporates corresponding complementary vertical profiles fixed at its lower end to said uppermost bar , wherein the vertical profiles are provided with a central adjustment slot at the height of the stop of the roller shutter and with a saw-tooth outer face, the assembly further incorporating a corresponding locking plate with a saw-tooth internal face which is connectable to said screws fixing each stop at the roller shutter . a set of bars , each provided with corresponding standardised connectors in each of its ends designed to slide inside the roller shutter guides; an attaching system between the said connectors located at the ends of successive bars , which make possible a vertical movement of each bar inside the roller shutter guides from a position of overlapping bars to a position in which the said bars are separated at a maximum distance; a system for fixing the lowermost bar to the existing window opening in its base or lowest side; a system for fixing the uppermost bar to the two stops , making integral the vertical movement of the uppermost bar and that of the lowermost slat of the roller shutter ; and in that , in order to ensure the fixation of the assembly comprising said foldable grille following the roller shutter taking advantage of the two stops of the roller shutter itself at a variable height, the uppermost bar of the assembly incorporates corresponding complementary vertical profiles fixed at its lower end to said uppermost bar , wherein the vertical profiles are provided with a central adjustment slot at the height of the stop of the roller shutter and with a saw-tooth outer face, the assembly further incorporating a corresponding locking plate with a saw-tooth internal face which is connectable to said screws fixing each stop at the roller shutter .
Method for winding a coil former , wherein a plurality of windings of a coil wire are introduced into grooves of the coil former by needle winding with a winding device, wherein the coil former is held in a rotationally fixed manner on a rotation device of the winding device, wherein the coil wire is guided by a wire guiding nozzle of the winding device to the coil former , wherein the windings are introduced into the grooves , by carrying out repeatedly alternating rotations of the rotation device to adjust a rotation angle of the coil former about a predetermined angle of rotation and displacements of the wire guiding nozzle along a displacement path to guide the coil wire through in each case one groove , wherein before and/or during the displacement of the wire guiding nozzle along the respective groove the geometry data related to the geometry of the groove are detected by a detection device , characterised in that the displacement path is determined depending on the geometry data by a control and/or that the angle of rotation is determined by a control of the rotation of the rotation device depending on the geometry data, wherein in each case the distance of the wire guiding nozzle from a wall or both walls of the groove is entered into the control as an input variable.
A computer-implemented method for creating a shadow mask representing irradiation of a physical scene based upon a plurality of elevation grid points of an array of elevation data associated with the physical scene, the method comprising: a. receiving elevation point data in which an elevation value is associated with each of a plurality of spatial coordinates; b. determining, for a specified anchor point, a direction to a light source characterized by an irradiance value at each elevation grid point, wherein the anchor point is a given point with respect to which directions are determined; c. associating with the light source a quadrant of an azimuthal circle; d. selecting a shadow frontline propagation mode based on the quadrant associated with the light source; e. propagating a shadow horizon along the array of elevation data by projection onto successive lines of elevation data; f. recursively updating the shadow horizon stored in a frontline buffer of computer memory; and g. generating a binary shadow mask based on whether a specified elevation point lies above or below the shadow horizon; wherein a single shadow horizon is stored in the frontline buffer. a. receiving elevation point data in which an elevation value is associated with each of a plurality of spatial coordinates; b. determining, for a specified anchor point, a direction to a light source characterized by an irradiance value at each elevation grid point, wherein the anchor point is a given point with respect to which directions are determined; c. associating with the light source a quadrant of an azimuthal circle; d. selecting a shadow frontline propagation mode based on the quadrant associated with the light source; e. propagating a shadow horizon along the array of elevation data by projection onto successive lines of elevation data; f. recursively updating the shadow horizon stored in a frontline buffer of computer memory; and g. generating a binary shadow mask based on whether a specified elevation point lies above or below the shadow horizon;
A hearing system configured to assist a user in hearing, the hearing system comprising: an in-the-ear (ITE) component comprising: a shell having a contoured outer shape that is customized for the user to fit at least partially within an ear canal of the user; a faceplate configured to fit within an opening provided in the shell and face out of the ear canal of the user when the shell is inserted into the ear canal of the user; a sensor electrode (206, 206 - 1, 206 - 2, 308, 606, 802) that is provided on an outer surface of the shell , wherein the faceplate includes a rim configured to overlap the outer surface of the shell when the faceplate is inserted within the opening in the shell, characterized in that the in-the-ear component comprises a conductive path (208, 208 - 1, 208 - 2, 310, 608, 806) that extends along the outer surface of the shell from the sensor electrode to the faceplate and that conductively connects the sensor electrode with a conductive portion (212, 212 - 1, 212 - 2, 610) of the faceplate , wherein the conductive portion (212, 212 - 1, 212 - 2, 610) of the faceplate is included on the rim such that, when the faceplate is inserted into the opening in the shell, the conductive portion (212, 212 - 1, 212 - 2, 610) electrically connects circuitry of the hearing system to the sensor electrode by way of the conductive path (208, 208 - 1, 208 - 2, 310, 608, 806). a shell having a contoured outer shape that is customized for the user to fit at least partially within an ear canal of the user; a faceplate configured to fit within an opening provided in the shell and face out of the ear canal of the user when the shell is inserted into the ear canal of the user; a sensor electrode (206, 206 - 1, 206 - 2, 308, 606, 802) that is provided on an outer surface of the shell , wherein the faceplate includes a rim configured to overlap the outer surface of the shell when the faceplate is inserted within the opening in the shell, characterized in that the in-the-ear component comprises a conductive path (208, 208 - 1, 208 - 2, 310, 608, 806) that extends along the outer surface of the shell from the sensor electrode to the faceplate and that conductively connects the sensor electrode with a conductive portion (212, 212 - 1, 212 - 2, 610) of the faceplate , wherein the conductive portion (212, 212 - 1, 212 - 2, 610) of the faceplate is included on the rim such that, when the faceplate is inserted into the opening in the shell, the conductive portion (212, 212 - 1, 212 - 2, 610) electrically connects circuitry of the hearing system to the sensor electrode by way of the conductive path (208, 208 - 1, 208 - 2, 310, 608, 806).
A luminaire for mounting in an annular housing having a cylindrical sidewall with an inner diameter , said sidewall terminating in an upper rim , the luminaire comprising a reflector having a light exit aperture mounted in an annular body and a wedge-shaped clip movably attached to the annular body by a spring such that: the annular body has a first diameter not exceeding the inner diameter when the clip is pressed against the body by compressing said spring; and a second diameter exceeding the inner diameter when said spring is relaxed; characterized in that the clip further comprises an outwardly inclined member in the direction of the light exit aperture and the reflector further comprises an outwardly inclining groove in the direction of the light exit aperture engaging with the outwardly inclined member . the annular body has a first diameter not exceeding the inner diameter when the clip is pressed against the body by compressing said spring; and a second diameter exceeding the inner diameter when said spring is relaxed; characterized in that the clip further comprises an outwardly inclined member in the direction of the light exit aperture and the reflector further comprises an outwardly inclining groove in the direction of the light exit aperture engaging with the outwardly inclined member .
A pump motor having a permanent magnet rotor , a split case , a wound stator , a motor housing , a pump head , an axle , fixed on the one hand in the split case and on the other hand in the pump head , and a fixed bearing , pressed in the permanent magnet rotor and mounting the latter on the axle in a rotationally-movable manner, characterized in that the fixed bearing consists of a press ring , pressed in or injected moulded in the permanent magnet rotor , a race , rotatably received on the axle , and an annular-disc-shaped hub , constituting the connection member between the press ring and the race , and in that the press ring , the race and the hub are in one piece.
A delivery fiber assembly suitable for delivering broad band light and comprising a delivery fiber and a connector member, said delivery fiber having an input end for launching light and a delivery end for delivering light, said delivery fiber comprising a core region and a cladding region surrounding the core region wherein the cladding region comprises a cladding background material having a refractive index N bg and a plurality of microstructures in the form of longitudinally-extending inclusions of solid material having refractive index up to N inc , wherein N inc < N bg , wherein the plurality of inclusions is arranged in a cross-sectional pattern comprising at least two rings of inclusions surrounding the core region, said core region having a diameter up to 15 μm, said connector member being mounted to said delivery fiber at a delivery end section of the delivery fiber, said delivery fiber having a transmission bandwidth of 200 nm or more, wherein the delivery fiber has a transmission loss of less than 0.5 dB/m at wavelengths within the transmission bandwidth, and wherein said delivery fiber is a polarization-maintaining optical fiber.
A roll take-up device , designed for a) taking up a sheetlike composite , and b) rolling up or unrolling or both rolling up and unrolling a roll of the sheetlike composite ; wherein the sheetlike composite comprises, as layers of a series of layers in a direction from an outer side of the sheetlike composite to an inner side of the sheetlike composite , i) a carrier layer , ii) a barrier layer and iii) an inner polymer layer ; wherein, in the roll , at least 10 laminas of the sheetlike composite are overlaid on one another from the inside outwards or vice versa; wherein the laminas respectively have the series of layers; wherein one layer of the series of layers of the sheetlike composite is an electrically conductive layer; characterized in that the roll take-up device comprises an electrical contact , which is arranged and designed for contacting the electrically conductive layer in an electrically conducting manner. a) taking up a sheetlike composite , and b) rolling up or unrolling or both rolling up and unrolling a roll of the sheetlike composite ; i) a carrier layer , ii) a barrier layer and iii) an inner polymer layer ;
A terminal apparatus , comprising: a receiver configured to receive a physical downlink control channel, PDCCH, including a downlink control information, DCI, format; and a transmitter configured to transmit a physical uplink shared chan-nel, PUSCH, based at least on detection of the PDCCH, wherein the terminal apparatus is adapted to a transmission time interval, TTI, length of the PUSCH of two or three single carrier-frequency division multiple access, SC-FDMA, symbols, and the terminal apparatus is adapted to activate a semi-persistent scheduling, SPS, assignment based on a fact that a cyclic redundancy check, CRC, sequence given for a payload in-10 cluded in the PDCCH is scrambled with a semi-persistent scheduling-cell-radio network temporary identifier, SPS-C-RNTI, a new data indicator included in the PDCCH is set to 0, and a bit of a demodulation reference signal, DMRS, pattern field included in the DCI format is set to a prescribed value, the prescribed value being one of either 0 or 1, the DMRS pattern field being used for indicat-15 ing physical resource mapping information for DMRS, and the DMRS pattern field indicates an index of an SC-FDMA symbol in which a DMRS associated with the PUSCH is mapped. a receiver configured to receive a physical downlink control channel, PDCCH, including a downlink control information, DCI, format; and a transmitter configured to transmit a physical uplink shared chan-nel, PUSCH, based at least on detection of the PDCCH, wherein the terminal apparatus is adapted to a transmission time interval, TTI, length of the PUSCH of two or three single carrier-frequency division multiple access, SC-FDMA, symbols, and the terminal apparatus is adapted to activate a semi-persistent scheduling, SPS, assignment based on a fact that a cyclic redundancy check, CRC, sequence given for a payload in-10 cluded in the PDCCH is scrambled with a semi-persistent scheduling-cell-radio network temporary identifier, SPS-C-RNTI, a new data indicator included in the PDCCH is set to 0, and a bit of a demodulation reference signal, DMRS, pattern field included in the DCI format is set to a prescribed value, the prescribed value being one of either 0 or 1, the DMRS pattern field being used for indicat-15 ing physical resource mapping information for DMRS, and the DMRS pattern field indicates an index of an SC-FDMA symbol in which a DMRS associated with the PUSCH is mapped.
A platform aircraft comprising an object detection system , wherein the object detection system comprises: a camera mounted to the platform aircraft configured to define a field of regard containing a target aircraft ; the platform aircraft being characterised in that it further comprises: a lidar system mounted to the platform aircraft configured to continuously scan the field of regard defined by the camera and determine position data between the platform aircraft and the target aircraft ; and a controller operatively connected to the camera and the lidar system ; the controller is configured to activate the lidar system after the camera defines the field of regard . a lidar system mounted to the platform aircraft configured to continuously scan the field of regard defined by the camera and determine position data between the platform aircraft and the target aircraft ; and a controller operatively connected to the camera and the lidar system ; the controller is configured to activate the lidar system after the camera defines the field of regard .
An encapsulation structure of a power module, wherein the encapsulation structure comprises the power module and a liquid cooler; the power module comprises a power module body , a metal baseplate , and heat dissipation fins ; a front side of the metal baseplate is connected to the power module body , and a back side of the metal baseplate is connected to the heat dissipation fins ; and the metal baseplate has a protrusion part protruding from the power module body ; there are a plurality of grooves on a fluid pipe of the liquid cooler , a cavity exists between two adjacent grooves of the plurality of grooves , and the cavity is configured to communicate the two adjacent grooves ; and the power module body is overlapped on the groove , a back side of the protrusion part is in contact with an edge surface of the groove , and the heat dissipation fins are placed in the groove ; a front weld is positioned on a front side of the protrusion part ; a back weld is positioned on the back side of the metal baseplate on a side of the baseplate other than the back side of the protrusion part ; and the front weld and the back weld form a welded sealing ring. the power module comprises a power module body , a metal baseplate , and heat dissipation fins ; a front side of the metal baseplate is connected to the power module body , and a back side of the metal baseplate is connected to the heat dissipation fins ; and the metal baseplate has a protrusion part protruding from the power module body ; there are a plurality of grooves on a fluid pipe of the liquid cooler , a cavity exists between two adjacent grooves of the plurality of grooves , and the cavity is configured to communicate the two adjacent grooves ; and the power module body is overlapped on the groove , a back side of the protrusion part is in contact with an edge surface of the groove , and the heat dissipation fins are placed in the groove ; a front weld is positioned on a front side of the protrusion part ; a back weld is positioned on the back side of the metal baseplate on a side of the baseplate other than the back side of the protrusion part ; and the front weld and the back weld form a welded sealing ring.
A method for initializing memory, comprising: determining whether to configure a plurality of memory devices in parallel or in sequence, based on a programmable option; configuring the plurality of memory devices (230-1, 230-N, 330-1, 330-N, 430-1, 430-2, 430-3, 430-N) in parallel or in sequence, based on the programmable option, wherein: each one of the plurality of memory devices receive a shared enable signal , and each one of the plurality of memory devices has a respective chain input and a respective chain output; and assigning (564-2) a unique volume address to each of the plurality of memory devices (230-1, 230-N, 330-1, 330-N, 430-1, 430-2, 430-3, 430-N). determining whether to configure a plurality of memory devices in parallel or in sequence, based on a programmable option; configuring the plurality of memory devices (230-1, 230-N, 330-1, 330-N, 430-1, 430-2, 430-3, 430-N) in parallel or in sequence, based on the programmable option, wherein: each one of the plurality of memory devices receive a shared enable signal , and each one of the plurality of memory devices has a respective chain input and a respective chain output; and each one of the plurality of memory devices receive a shared enable signal , and each one of the plurality of memory devices has a respective chain input and a respective chain output; assigning (564-2) a unique volume address to each of the plurality of memory devices (230-1, 230-N, 330-1, 330-N, 430-1, 430-2, 430-3, 430-N).
A core-sheath filament comprising: a non-tacky sheath, wherein the non-tacky sheath exhibits a melt flow index of less than 15 grams per 10 minutes (g/10 min) when measured as set forth in ASTM D1238 with a load of 2.16 kg at 190°C; and an adhesive core, wherein the adhesive core comprises: a polyisobutylene polymer having an average weight average molecular weight of 125000 grams per mole (g/mol) to 800000 g/mol. a non-tacky sheath, wherein the non-tacky sheath exhibits a melt flow index of less than 15 grams per 10 minutes (g/10 min) when measured as set forth in ASTM D1238 with a load of 2.16 kg at 190°C; and an adhesive core, wherein the adhesive core comprises: a polyisobutylene polymer having an average weight average molecular weight of 125000 grams per mole (g/mol) to 800000 g/mol.