mhurhangee/patent-ind-claim-en huggingface dataset:
A beam delivery apparatus, comprising: a laser system including a first fiber having an output end and situated to propagate a first laser beam with a first beam parameter product, "bpp", and a second fiber having an input end spliced to the output end of the first fiber at a fiber splice so as to receive the first laser beam and to form a second laser beam having a second bpp that is greater than the first bpp; wherein the output end of the first fiber and the input end of the second fiber are spliced at a tilt angle so as to increase the first bpp to the second bpp. a laser system including a first fiber having an output end and situated to propagate a first laser beam with a first beam parameter product, "bpp", and a second fiber having an input end spliced to the output end of the first fiber at a fiber splice so as to receive the first laser beam and to form a second laser beam having a second bpp that is greater than the first bpp; wherein the output end of the first fiber and the input end of the second fiber are spliced at a tilt angle so as to increase the first bpp to the second bpp.
A combustor wall assembly comprising: a liner including a hot face defining a combustion chamber , an opposite cold face , and a plurality of effusion holes ; a shell spaced outward from the cold face , the shell including a plurality of impingement holes , each impingement hole having a centerline orientated substantially normal to the cold face ; and a plurality of cooling pin arrays , each cooling pin array including a first plurality of pins projecting outward from the cold face , wherein each pin array is spaced between adjacent effusion holes of the plurality of effusion holes and arranged about the centerline of the respective impingement hole , wherein each one of the plurality of impingement holes includes a footprint cast upon the cold face about the respective centerline and spaced from adjacent effusion holes of the plurality of effusion holes , characterised in that : each pin of the first plurality of pins is located at least in-part within the footprint ; each one of the plurality of cooling pin arrays includes a second plurality of pins disposed outside of the footprint ; and the first plurality of pins are shorter than the second plurality of pins . a liner including a hot face defining a combustion chamber , an opposite cold face , and a plurality of effusion holes ; a shell spaced outward from the cold face , the shell including a plurality of impingement holes , each impingement hole having a centerline orientated substantially normal to the cold face ; and a plurality of cooling pin arrays , each cooling pin array including a first plurality of pins projecting outward from the cold face , wherein each pin array is spaced between adjacent effusion holes of the plurality of effusion holes and arranged about the centerline of the respective impingement hole ,
A heat-treatment device comprising: a table on which a ring-shaped workpiece (W) can be placed; and a pair of heat processing units configured to heat-process a peripheral surface of the workpiece (W), the pair of heat processing units heat-processing the workpiece (W) while moving in opposite directions along the peripheral surface of the workpiece (W) in order to obtain the workpiece having desired properties, the heat-treatment device further comprising: a pair of revolving arms configured to be movable relative to the table and to heat-process the peripheral surface of the workpiece by oscillating the pair of heat processing units relative to the workpiece (W), wherein the pair of heat processing units includes a pair of heating coils configured to be capable of being arranged to face the peripheral surface of the workpiece (W), and a pair of coolant discharge units configured to be disposed on the heating coils and to discharge a coolant, characterized in that the heat-treatment device is adapted that the pair of heating coils sandwich the pair of coolant discharge units when the pair of heat processing units oscillate. a table on which a ring-shaped workpiece (W) can be placed; and a pair of heat processing units configured to heat-process a peripheral surface of the workpiece (W), the pair of heat processing units heat-processing the workpiece (W) while moving in opposite directions along the peripheral surface of the workpiece (W) in order to obtain the workpiece having desired properties, the heat-treatment device further comprising: a pair of revolving arms configured to be movable relative to the table and to heat-process the peripheral surface of the workpiece by oscillating the pair of heat processing units relative to the workpiece (W), wherein the pair of heat processing units includes a pair of heating coils configured to be capable of being arranged to face the peripheral surface of the workpiece (W), and a pair of coolant discharge units configured to be disposed on the heating coils and to discharge a coolant, characterized in that the heat-treatment device is adapted that the pair of heating coils sandwich the pair of coolant discharge units when the pair of heat processing units oscillate. a pair of revolving arms configured to be movable relative to the table and to heat-process the peripheral surface of the workpiece by oscillating the pair of heat processing units relative to the workpiece (W), wherein the pair of heat processing units includes a pair of heating coils configured to be capable of being arranged to face the peripheral surface of the workpiece (W), and a pair of coolant discharge units configured to be disposed on the heating coils and to discharge a coolant, characterized in that the heat-treatment device is adapted that the pair of heating coils sandwich the pair of coolant discharge units when the pair of heat processing units oscillate.
Mudguard with a splashguard flap for assembly on vehicles, preferably commercial motor vehicles, said mudguard in the lower region thereof being provided with a splashguard flap which, by means of an assembly means , is connected to the mudguard , characterized in that the splashguard flap in the upper region thereof has at least two spaced-apart portions which configure a slot which is adapted to the thickness of the lower region of the mudguard so as to be able to be plug-fitted to the latter, wherein a connection between the mudguard and the splashguard flap is established by means of assembly means which penetrate the splashguard flap and the mudguard and are received by an assembly means receptacle preferably on the splashguard flap .
An apparatus for fluidly connecting a reduced-pressure source to a dressing forming a part of a sealed therapeutic environment, the apparatus comprising: a base having an aperture ; a wall having a peripheral portion coupled to the base , the wall forming a cavity in fluid communication with the aperture ; and a conduit port protruding from an exterior surface of the wall , the conduit port being fluidly coupled to the cavity through the wall and adapted to receive a conduit; wherein the base is adapted to couple to the dressing and the wall is adapted to collapse from a first position, where the cavity has a first volume, to a second position, where the cavity has a second reduced volume, in response to a supply of reduced pressure from the reduced-pressure source ; wherein the thickness of the wall and the durometer of the wall are selected so that the wall collapses to the second position in response to the pressure in the sealed therapeutic environment reaching a therapeutic reduced pressure level and the wall expands to the first position in response to the absolute pressure in the sealed therapeutic environment rising above the therapeutic reduced pressure level. a base having an aperture ; a wall having a peripheral portion coupled to the base , the wall forming a cavity in fluid communication with the aperture ; and a conduit port protruding from an exterior surface of the wall , the conduit port being fluidly coupled to the cavity through the wall and adapted to receive a conduit; wherein the base is adapted to couple to the dressing and the wall is adapted to collapse from a first position, where the cavity has a first volume, to a second position, where the cavity has a second reduced volume, in response to a supply of reduced pressure from the reduced-pressure source ; wherein the thickness of the wall and the durometer of the wall are selected so that the wall collapses to the second position in response to the pressure in the sealed therapeutic environment reaching a therapeutic reduced pressure level and the wall expands to the first position in response to the absolute pressure in the sealed therapeutic environment rising above the therapeutic reduced pressure level.
A contact tip assembly for MIG-welding and a PTA-torch in association with the contact tip assembly, the contact tip assembly comprising: a guide having a longitudinal center axis (A-A'), a first end , and an opposite second end , and a center bore extending and running along the longitudinal center axis of the guide from its first end to its second end through which a metal wire can be provided; and being characterised by : an electric contact unit containing a contact tip in electric contact with an electric energy source, the electric contact unit arranged to contact the metal wire with the contact tip past the second end of the guide, the contact tip assembly positioned so that after the metal wire passes through the guide and is brought into contact with the contact tip , the metal wire is positioned in a plasma arc of the plasma transfer arc (PTA) torch above a deposition point of a workpiece; an electrically insulating lining inside of the center bore and extending at least from the first end to the second end of the guide ; and wherein the contact tip is separate and apart from the guide and the contact tip is isolated spatially from the PTA torch . a guide having a longitudinal center axis (A-A'), a first end , and an opposite second end , and a center bore extending and running along the longitudinal center axis of the guide from its first end to its second end through which a metal wire can be provided; and being characterised by : an electric contact unit containing a contact tip in electric contact with an electric energy source, the electric contact unit arranged to contact the metal wire with the contact tip past the second end of the guide, the contact tip assembly positioned so that after the metal wire passes through the guide and is brought into contact with the contact tip , the metal wire is positioned in a plasma arc of the plasma transfer arc (PTA) torch above a deposition point of a workpiece; an electrically insulating lining inside of the center bore and extending at least from the first end to the second end of the guide ; and wherein the contact tip is separate and apart from the guide and the contact tip is isolated spatially from the PTA torch . an electric contact unit containing a contact tip in electric contact with an electric energy source, the electric contact unit arranged to contact the metal wire with the contact tip past the second end of the guide, the contact tip assembly positioned so that after the metal wire passes through the guide and is brought into contact with the contact tip , the metal wire is positioned in a plasma arc of the plasma transfer arc (PTA) torch above a deposition point of a workpiece; an electrically insulating lining inside of the center bore and extending at least from the first end to the second end of the guide ; and wherein the contact tip is separate and apart from the guide and the contact tip is isolated spatially from the PTA torch .
An absorbent article comprising a water-absorbing sheet, a liquid-permeable sheet, and a liquid-impermeable sheet, wherein the water-absorbing sheet is sandwiched between the liquid-permeable sheet and the liquid-impermeable sheet, and wherein the water-absorbing sheet comprises: a first base material; a second base material; and a particulate water-absorbing agent sandwiched between the first base material and the second base material, at least one of said first base material and said second base material being a water-permeable base material, said particulate water-absorbing agent containing a first particulate water-absorbing agent and a second particulate water-absorbing agent, the first particulate water-absorbing agent being localized in the vicinity of the first base material and the second particulate water-absorbing agent being localized in the vicinity of the second base material, and said second particulate water-absorbing agent satisfying the following physical properties , , and : a centrifuge retention capacity (CRC) is 30 g/g to 50 g/g; a mass average particle diameter (D50) is 200 μm to 600 μm; and a DRC index defined by the following Formula (a) is 43 or less: DRC index = 49 − DRC 5 min / D 50 / 1000 wherein a method for measuring the mass average particulate diameter (D50) is as described in paragraphs to of the publication EP 3 586 957 A1 of the present application, and the DRC5min is a value measured by a method as described in paragraphs to of the publication EP 3 586 957 A1 of the present application. a first base material; a second base material; and a particulate water-absorbing agent sandwiched between the first base material and the second base material, at least one of said first base material and said second base material being a water-permeable base material, said particulate water-absorbing agent containing a first particulate water-absorbing agent and a second particulate water-absorbing agent, the first particulate water-absorbing agent being localized in the vicinity of the first base material and the second particulate water-absorbing agent being localized in the vicinity of the second base material, and said second particulate water-absorbing agent satisfying the following physical properties , , and : a centrifuge retention capacity (CRC) is 30 g/g to 50 g/g; a mass average particle diameter (D50) is 200 μm to 600 μm; and a DRC index defined by the following Formula (a) is 43 or less: DRC index = 49 − DRC 5 min / D 50 / 1000 a centrifuge retention capacity (CRC) is 30 g/g to 50 g/g; a mass average particle diameter (D50) is 200 μm to 600 μm; and a DRC index defined by the following Formula (a) is 43 or less: DRC index = 49 − DRC 5 min / D 50 / 1000 wherein a method for measuring the mass average particulate diameter (D50) is as described in paragraphs to of the publication EP 3 586 957 A1 of the present application, and the DRC5min is a value measured by a method as described in paragraphs to of the publication EP 3 586 957 A1 of the present application.
Sensor arrangement having - at least one sensor element with electrical connections , - wherein the at least one sensor element is arranged in a solid plastic-material body , - wherein at least a first electrical insulating layer , which embeds the sensor element , is arranged between the sensor element and the plastic-material body , characterized in that - the first insulating layer remains as a liquid polymer in a space inside the plastic-material body and - the plastic-material body is closed in an end region to the extent that the polymer is sealed off in an airtight manner in the space inside the plastic-material body . - at least one sensor element with electrical connections , - wherein the at least one sensor element is arranged in a solid plastic-material body , - wherein at least a first electrical insulating layer , which embeds the sensor element , is arranged between the sensor element and the plastic-material body , characterized in that - the first insulating layer remains as a liquid polymer in a space inside the plastic-material body and - the plastic-material body is closed in an end region to the extent that the polymer is sealed off in an airtight manner in the space inside the plastic-material body .
An electronic system comprising: a control circuit configured to provide a binary control signal (sig-c) alternating between a first binary state during first phases and a second binary state during second phases; a screen controlled by the control signal (sig-c), the screen being configured to emit light during each first phase, and to not emit any light during each second phase; a light sensor disposed under the screen or along an edge of the screen, and configured to provide a measurement signal (sig-m) representative of a quantity of light received by the sensor during a measurement phase or a plurality of consecutive measurement phases; and a synchronisation device configured to synchronise each measurement phase with a second phase, the synchronisation device comprising: the sensor , the sensor being further configured to generate a signal (sig-e) representative of the evolution, as a function of time, of the light received by the sensor ; and a processing circuit configured to determine, based on the signal (sig-e) representative of the evolution of the light received by the sensor , the start of each second phase. a control circuit configured to provide a binary control signal (sig-c) alternating between a first binary state during first phases and a second binary state during second phases; a screen controlled by the control signal (sig-c), the screen being configured to emit light during each first phase, and to not emit any light during each second phase; a light sensor disposed under the screen or along an edge of the screen, and configured to provide a measurement signal (sig-m) representative of a quantity of light received by the sensor during a measurement phase or a plurality of consecutive measurement phases; and a synchronisation device configured to synchronise each measurement phase with a second phase, the synchronisation device comprising: the sensor , the sensor being further configured to generate a signal (sig-e) representative of the evolution, as a function of time, of the light received by the sensor ; and a processing circuit configured to determine, based on the signal (sig-e) representative of the evolution of the light received by the sensor , the start of each second phase. the sensor , the sensor being further configured to generate a signal (sig-e) representative of the evolution, as a function of time, of the light received by the sensor ; and a processing circuit configured to determine, based on the signal (sig-e) representative of the evolution of the light received by the sensor , the start of each second phase.
Loudspeaker arrangement for multiple MEMS loudspeakers for generating sound waves in the audible wavelength spectrum with a housing , which features a sound-conducting hollow and at least one sound outlet , at least two MEMS loudspeakers , which are arranged opposite each other and spaced apart from each other in the interior of the housing through the sound-conducting hollow , and which in each case comprise a cavity in the area of their sides turned away from each other, characterized in that the loudspeaker arrangement comprises a shielding wall for acoustically decoupling the two MEMS loudspeakers from each other, which is arranged in the interior of the housing between the two MEMS loudspeakers , and extends starting from a first inner side surface of the sound-conducting hollow at least beyond the two MEMS loudspeakers in a side view of the loudspeaker arrangement , in such a manner that the sound-conducting hollow is subdivided into a first hollow area and a second hollow area , each assigned to one of the two MEMS loudspeakers , that the shielding wall and the housing are separate components and produced from materials different from each other.
A method comprising: receiving, by a wireless device, first downlink control information, DCI, associated with a first control resource set, coreset, pool index, the first DCI triggering transmission of a reference signal; receiving a second DCI associated with a second coreset pool index, the second DCI scheduling a downlink signal with a transmission configuration indicator, TCI, state; and based on the first coreset pool index and the second coreset pool index being the same, receiving the reference signal with the TCI state. receiving, by a wireless device, first downlink control information, DCI, associated with a first control resource set, coreset, pool index, the first DCI triggering transmission of a reference signal; receiving a second DCI associated with a second coreset pool index, the second DCI scheduling a downlink signal with a transmission configuration indicator, TCI, state; and based on the first coreset pool index and the second coreset pool index being the same, receiving the reference signal with the TCI state.
A container for use under water, wherein the container contains - a housing , - a holding device and - an actuating device (5, 16, 17.1, ... ), wherein the housing surrounds a cavity for accommodating at least one underwater propulsion vehicle (DPV.h, DPV.v), wherein the container extends along a container longitudinal axis (LA), wherein the outer dimensions of the container in a plane perpendicular to the longitudinal axis (LA) are adapted to the internal dimensions of a torpedo launching tube of a submarine in this vertical plane, wherein the holding device can be optionally transferred to a holding state and to a releasing state, wherein in the holding state the holding device is able to hold the or at least one underwater propulsion vehicle (DPV.h) inside the cavity and wherein the actuating device (5, 16, 17.1, ...) is designed - to be operated and - after operation, to transfer the holding device to the releasing state; characterized in that the actuating device (5, 16, 17.1, ...) contains - an actuating element operated from a position outside the container and - a transmission means (16, 17.1, ...) wherein the actuating device (5, 16, 17.1, ...) is designed in such a way that operating the actuating element causes the transmission means (16, 17.1, ...) to transfer the holding device to the releasing state. wherein the container contains - a housing , - a holding device and - an actuating device (5, 16, 17.1, ... ), - a housing , - a holding device and - an actuating device (5, 16, 17.1, ... ), wherein the housing surrounds a cavity for accommodating at least one underwater propulsion vehicle (DPV.h, DPV.v), wherein the container extends along a container longitudinal axis (LA), wherein the outer dimensions of the container in a plane perpendicular to the longitudinal axis (LA) are adapted to the internal dimensions of a torpedo launching tube of a submarine in this vertical plane, wherein the holding device can be optionally transferred to a holding state and to a releasing state, wherein in the holding state the holding device is able to hold the or at least one underwater propulsion vehicle (DPV.h) inside the cavity and wherein the actuating device (5, 16, 17.1, ...) is designed - to be operated and - after operation, to transfer the holding device to the releasing state; - to be operated and - after operation, to transfer the holding device to the releasing state; characterized in that the actuating device (5, 16, 17.1, ...) contains - an actuating element operated from a position outside the container and - a transmission means (16, 17.1, ...) - an actuating element operated from a position outside the container and - a transmission means (16, 17.1, ...) wherein the actuating device (5, 16, 17.1, ...) is designed in such a way that operating the actuating element causes the transmission means (16, 17.1, ...) to transfer the holding device to the releasing state.