mhurhangee/patent-ind-claim-en huggingface dataset:
A zirconia electrolyte, essentially consisting of zirconia stabilized by one or a plurality of oxides of rare earth selected from the group of scandium, yttrium, cerium, gadolinium and ytterbium, wherein a standard deviation of pore numbers in 10 or more regions having an area of 50 μ m 2 and not overlapping with each other on a magnified fracture surface is 2.5 or more, wherein the fracture surface is magnified 1000-fold or more and 5000-fold or less, wherein a diameter of the pore to be counted is 0.1 μ m or more, wherein a diameter of the pore is measured according to the method of the description, wherein the regions are set at a peripheral part containing at least four corners, a central part, and the part between the peripheral part and the central part in a magnified visual field, wherein a ratio of a total area of the pores having the diameter of 0.1 μ m or more to a total area of the regions is 0.5% or less, wherein a maximum diameter of the pores in the regions is 1.00 μm or less, wherein a standard deviation of pore diameters in the regions is 0.15 μm or less, and wherein a relative density of the zirconia electrolyte is 99.0% or more. essentially consisting of zirconia stabilized by one or a plurality of oxides of rare earth selected from the group of scandium, yttrium, cerium, gadolinium and ytterbium, wherein a standard deviation of pore numbers in 10 or more regions having an area of 50 μ m 2 and not overlapping with each other on a magnified fracture surface is 2.5 or more, wherein the fracture surface is magnified 1000-fold or more and 5000-fold or less, wherein a diameter of the pore to be counted is 0.1 μ m or more, wherein a diameter of the pore is measured according to the method of the description, wherein the regions are set at a peripheral part containing at least four corners, a central part, and the part between the peripheral part and the central part in a magnified visual field, wherein a ratio of a total area of the pores having the diameter of 0.1 μ m or more to a total area of the regions is 0.5% or less, wherein a maximum diameter of the pores in the regions is 1.00 μm or less, wherein a standard deviation of pore diameters in the regions is 0.15 μm or less, and wherein a relative density of the zirconia electrolyte is 99.0% or more.
A handheld vacuum cleaner comprising; a housing ; a handle extending from the housing; a suction nozzle opening including an inlet axis that extends centrally through the suction nozzle opening; a debris separator configured to separate debris from an airflow, the debris separator including an inlet having the inlet axis that extends centrally through the inlet and a debris outlet having an outlet axis that extends centrally through the debris outlet, the debris separator includes a generally horizontal cyclone having a cyclone axis that extends centrally through the generally horizontal cyclone when the handheld vacuum cleaner is set on a surface , the airflow rotatable about the cyclone axis to separate the debris from the airflow, the cyclone axis being generally perpendicular to the inlet axis; a suction source operable to generate the airflow, the suction source including a suction source axis , a motor , and a fan rotated by the motor about the suction source axis ; a battery that powers the suction source; and a debris collector in fluid communication with the debris outlet, the debris collector configured to receive the debris separated from the airflow, the debris collector extending below the suction source during operation of the handheld vacuum cleaner , characterised in that said suction source axis is positioned at an obtuse angle relative to the inlet axis and perpendicular to the cyclone axis . a housing ; a handle extending from the housing; a suction nozzle opening including an inlet axis that extends centrally through the suction nozzle opening; a debris separator configured to separate debris from an airflow, the debris separator including an inlet having the inlet axis that extends centrally through the inlet and a debris outlet having an outlet axis that extends centrally through the debris outlet, the debris separator includes a generally horizontal cyclone having a cyclone axis that extends centrally through the generally horizontal cyclone when the handheld vacuum cleaner is set on a surface , the airflow rotatable about the cyclone axis to separate the debris from the airflow, the cyclone axis being generally perpendicular to the inlet axis; a suction source operable to generate the airflow, the suction source including a suction source axis , a motor , and a fan rotated by the motor about the suction source axis ; a battery that powers the suction source; and a debris collector in fluid communication with the debris outlet, the debris collector configured to receive the debris separated from the airflow, the debris collector extending below the suction source during operation of the handheld vacuum cleaner , characterised in that said suction source axis is positioned at an obtuse angle relative to the inlet axis and perpendicular to the cyclone axis .
A synchronous reluctance machine, comprising: a stator ; a rotor disposed within the stator and configured to rotate relative to the stator ; wherein a non-magnetic sleeve is disposed circumferentially around the rotor , characterised in that the sleeve thickness is between 1 mm and 2 mm and an air-gap radius is between 80 mm and 100 mm. a stator ; a rotor disposed within the stator and configured to rotate relative to the stator ; wherein a non-magnetic sleeve is disposed circumferentially around the rotor , characterised in that the sleeve thickness is between 1 mm and 2 mm and an air-gap radius is between 80 mm and 100 mm.
PROCESS FOR MAKING A SO-CALLED "STAPLE" CONNECTOR, consisting of a rigid body of composite composition, obtained from a matrix of resins, such as of the epoxy or vinyl type, within which a plurality of fibres is present, by the entire length thereof, such as high strength carbon fibres, "E-type" fibreglass, Kevlar®, Aramid or other similar materials suitable for the purpose, said body having at least one rigid portion consisting of a bundle of mutually bonded fibres and of at least one soft portion consisting of loose fibres, arranged substantially parallel, which can be opened and frayed to form the so-called "staple", said process comprising the following steps: - making a semi-worked product consisting of a single rigid body made from a bundle of fibres mutually bonded by means of resin; - cutting the rigid body into bars having a length equal to the length of the final connector ; - depolymerisation treatment on at least a portion of the semi-worked product, comprising a heating step at high temperature to dissolve the resin; said process being characterised in that it also provides a washing step with solvents and/or acids or by other methods suitable for the purpose, to completely remove the resin and clean the fibres, making them free to form the "staple", giving rise to at least one rigid portion followed by a soft portion. - making a semi-worked product consisting of a single rigid body made from a bundle of fibres mutually bonded by means of resin; - cutting the rigid body into bars having a length equal to the length of the final connector ; - depolymerisation treatment on at least a portion of the semi-worked product, comprising a heating step at high temperature to dissolve the resin;
A method for packet loss concealment, comprising: receiving a first frame of a wireless transmission at a hearing assistance device; determining , at the hearing assistance device, that a second frame was not received within a predetermined time; saving a history of received frames to a memory; determining from the history a first set of sequential samples that match the first frame; characterized in that the method further comprises: cross-fading the first frame and the first set of sequential samples to create a first cross-faded frame, and replacing the first frame with the first cross-faded frame in said memory; and extrapolating a third frame to replace the second frame using the first set of sequential samples and an autoregressive model. receiving a first frame of a wireless transmission at a hearing assistance device; determining , at the hearing assistance device, that a second frame was not received within a predetermined time; saving a history of received frames to a memory; determining from the history a first set of sequential samples that match the first frame; characterized in that the method further comprises: cross-fading the first frame and the first set of sequential samples to create a first cross-faded frame, and replacing the first frame with the first cross-faded frame in said memory; and extrapolating a third frame to replace the second frame using the first set of sequential samples and an autoregressive model. cross-fading the first frame and the first set of sequential samples to create a first cross-faded frame, and replacing the first frame with the first cross-faded frame in said memory; and extrapolating a third frame to replace the second frame using the first set of sequential samples and an autoregressive model.
Vibration damper with a closure package which is connected to a damper tube of the vibration damper and guides and seals a piston rod , the closure package having: - a base body which can be connected to a damper tube and has two ends , the first end forming an end face of the damper tube in use, and the second end being arranged in the damper tube in use, - a seal , which is arranged in the base body for sealing a piston rod , and - a seal holder , which is arranged between the seal and the base body at the first end , wherein the seal holder is positively and/or non-positively connected to the base body for axial fixing of the seal , characterized in that the seal holder is designed as an emergency-fusible seal holder which is at least thermoplastically deformable when the vibration damper overheats in order to release the connection with the base body . - a base body which can be connected to a damper tube and has two ends , the first end forming an end face of the damper tube in use, and the second end being arranged in the damper tube in use, - a seal , which is arranged in the base body for sealing a piston rod , and - a seal holder , which is arranged between the seal and the base body at the first end , wherein the seal holder is positively and/or non-positively connected to the base body for axial fixing of the seal , characterized in that the seal holder is designed as an emergency-fusible seal holder which is at least thermoplastically deformable when the vibration damper overheats in order to release the connection with the base body .
A dielectric weldable material comprising a blend of at least two polymeric components and a plasticizer, the at least two polymeric components including an inert polymer and an elastomeric polar polymer, wherein the inert polymer includes a polyolefin, a thermoplastic elastomer, or mixtures thereof, and the inert polymer has a dielectric loss constant of less than 0.1, characterized in that the elastomeric polar polymer includes ethylene vinyl acetate having a number average molecular weight (Mn) of 70,000 to 90,000, and the blend has a shore A hardness of not greater than 70, as measured by ASTM D2240. the elastomeric polar polymer includes ethylene vinyl acetate having a number average molecular weight (Mn) of 70,000 to 90,000, and the blend has a shore A hardness of not greater than 70, as measured by ASTM D2240.
An aerial device capable of controlled flight, the aerial device comprising: a body ; a rotor arranged to rotate relative to the body; and a deployable sheet , the deployable sheet comprising a plurality or scored or perforated creases defining a tesselated surface thereof, and the sheet having an undeployed configuration in which the sheet is folded against the body and a deployed configuration in which the sheet is at least partially unfolded away from the body. a body ; a rotor arranged to rotate relative to the body; and a deployable sheet , the deployable sheet comprising a plurality or scored or perforated creases defining a tesselated surface thereof, and the sheet having an undeployed configuration in which the sheet is folded against the body and a deployed configuration in which the sheet is at least partially unfolded away from the body.
A cabinet of an appliance, the cabinet comprising: an outer wrapper defining opposing first and second sidewalls , a rear wall coupling the first and second sidewalls and an access opening ; and an inner liner defining an interior , wherein the outer wrapper and the inner liner define a sealed insulating cavity therebetween that is under vacuum; a plurality of reinforcement brackets configured to prevent deformation of the cabinet during application of the vacuum to the insulating cavity disposed on the outer wrapper , wherein the plurality of reinforcement brackets include a first reinforcement bracket including a length which is approximately the width of one of the first and second sidewalls and a second reinforcement bracket including a curved section, wherein the inner liner further defines an upper compartment and a lower compartment and the cabinet further comprises a mullion disposed between the upper compartment and the lower compartment and extending across the access opening , characterised in that the first reinforcement bracket includes a T-shaped configuration and is disposed on the one of the first and second sidewalls proximate the mullion . an outer wrapper defining opposing first and second sidewalls , a rear wall coupling the first and second sidewalls and an access opening ; and an inner liner defining an interior , wherein the outer wrapper and the inner liner define a sealed insulating cavity therebetween that is under vacuum; a plurality of reinforcement brackets configured to prevent deformation of the cabinet during application of the vacuum to the insulating cavity disposed on the outer wrapper , wherein the plurality of reinforcement brackets include a first reinforcement bracket including a length which is approximately the width of one of the first and second sidewalls and a second reinforcement bracket including a curved section, wherein the inner liner further defines an upper compartment and a lower compartment and the cabinet further comprises a mullion disposed between the upper compartment and the lower compartment and extending across the access opening , characterised in that the first reinforcement bracket includes a T-shaped configuration and is disposed on the one of the first and second sidewalls proximate the mullion .
Method for controlling a contact force between a contact wire and at least one current collector of a rail vehicle , wherein, during the travel of the rail vehicle , at at least one position along the rail vehicle at least one characteristic relating solely to the contact wire is determined between two successive suspension points and at the suspension points by means of a position sensor, and the contact force between the contact wire and the current collector is adjusted depending on the characteristic of the contact wire , wherein the current collector is moved up and down in a vertical direction (z) of the rail vehicle along the direction of travel (x) and wherein the contact force is kept constant whithin a predetermined tolerance range, wherein an active control responds to stiffer areas at the suspension points and less stiff areas between the suspension points by adjusting the contact force of the current collector , wherein the contact force at the suspension points of the contact wire is set higher within the tolerance range than between the suspension points .
A mixer element comprising a first wave segment , including a first guide wall , a second guide wall , and a first dividing wall extending between the first guide wall and the second guide wall, a first inlet chamber at least partially defined by the first guide wall and the first dividing wall; a first outlet chamber at least partially defined by the first guide wall and the first dividing wall; a second inlet chamber at least partially defined by the second guide wall and the first dividing wall; a second outlet chamber at least partially defined by the second guide wall and the first dividing wall; a first opening at least partially defined by the first dividing wall that places the first inlet chamber in fluid communication with the second outlet chamber; and a second opening at least partially defined by the first dividing wall that places the second inlet chamber in fluid communication with the first outlet chamber, wherein the first dividing wall includes a flange (1392; 1592, 1593; 1692; 1792; 1892; 1992, 1993; 2092; 2192; 2292) at least partially defining the first opening, characterized in the flange being a portion of the first dividing wall impeding a flow of material through the first opening from the first inlet chamber to the second outlet chamber. a first wave segment , including a first guide wall , a second guide wall , and a first dividing wall extending between the first guide wall and the second guide wall, a first inlet chamber at least partially defined by the first guide wall and the first dividing wall; a first outlet chamber at least partially defined by the first guide wall and the first dividing wall; a second inlet chamber at least partially defined by the second guide wall and the first dividing wall; a second outlet chamber at least partially defined by the second guide wall and the first dividing wall; a first opening at least partially defined by the first dividing wall that places the first inlet chamber in fluid communication with the second outlet chamber; and a second opening at least partially defined by the first dividing wall that places the second inlet chamber in fluid communication with the first outlet chamber, wherein the first dividing wall includes a flange (1392; 1592, 1593; 1692; 1792; 1892; 1992, 1993; 2092; 2192; 2292) at least partially defining the first opening, characterized in the flange being a portion of the first dividing wall impeding a flow of material through the first opening from the first inlet chamber to the second outlet chamber.
Use of an amine of the formula (I), where X is 1,2-ethylene or 1,2-propylene, R is a hydrogen radical or is a hydrocarbon radical having 1 to 6 carbon atoms, A is a five-, six- or seven-membered cycloalkyl radical having 4 to 7 carbon atoms and in the ring optionally containing an oxygen, sulfur or nitrogen atom, Y is identical or different radicals selected from the group consisting of alkyl, alkoxy and dialkylamino having 1 to 18 carbon atoms, and n is 0 or 1 or 2 or 3, as constituent of a hardener for epoxy resins. X is 1,2-ethylene or 1,2-propylene, R is a hydrogen radical or is a hydrocarbon radical having 1 to 6 carbon atoms, A is a five-, six- or seven-membered cycloalkyl radical having 4 to 7 carbon atoms and in the ring optionally containing an oxygen, sulfur or nitrogen atom, Y is identical or different radicals selected from the group consisting of alkyl, alkoxy and dialkylamino having 1 to 18 carbon atoms, and n is 0 or 1 or 2 or 3,
A method for transmitting a downlink signal by a base station, BS, in a wireless communication system in which there are a plurality of channel state information reference signal, CSI-RS, resource sets defined according to numbers of CSI-RS ports, the method comprising: transmitting zero power CSI-RS resource information indicating one or more zero power CSI-RS resource sets for a cell to a user equipment, UE; and performing downlink transmission to the UE based on the zero power CSI-RS resource information, and the method characterized in that : the zero power CSI-RS resource information includes a bitmap having bits respectively corresponding to CSI-RS resource sets defined for a fixed number of CSI-RS ports, regardless of a number of CSI-RS ports used in the cell, and the fixed number is larger than 2. transmitting zero power CSI-RS resource information indicating one or more zero power CSI-RS resource sets for a cell to a user equipment, UE; and performing downlink transmission to the UE based on the zero power CSI-RS resource information, and the method characterized in that : the zero power CSI-RS resource information includes a bitmap having bits respectively corresponding to CSI-RS resource sets defined for a fixed number of CSI-RS ports, regardless of a number of CSI-RS ports used in the cell, and the fixed number is larger than 2. the zero power CSI-RS resource information includes a bitmap having bits respectively corresponding to CSI-RS resource sets defined for a fixed number of CSI-RS ports, regardless of a number of CSI-RS ports used in the cell, and the fixed number is larger than 2.
An airfoil-shaped body (1; 101) having a variable outer shape, comprising: - a first skin , defining a suction surface; - a second skin , defining a pressure surface and connected to the first skin at least at a leading edge and/or a trailing edge of the airfoil-shaped body; - at least two beam sections , arranged inside a cavity of the airfoil-shaped body and secured to at least one of said first and second skins , wherein the beam sections at least partially carry a load introduced on the body due to a pressure difference between the first and second skins as a result of air flowing over the airfoil-shaped body; - an actuator that is operationally associated with said beam sections , wherein, upon operating the actuator , the first beam section is moved with respect to the second beam section , or vice versa, changing the orientation of the beam sections with respect to each other, which causes a change in the variable outer shape of the airfoil-shaped body (1; 101) ; wherein the beam sections are spaced apart from each other and a joining member is arranged between the beam sections and connected thereto, said joining member being adapted to allow relative movement between the beam sections by an elastic deformation of the joining member , wherein the joining member comprises a hollow profile with a closed contour. - a first skin , defining a suction surface; - a second skin , defining a pressure surface and connected to the first skin at least at a leading edge and/or a trailing edge of the airfoil-shaped body; - at least two beam sections , arranged inside a cavity of the airfoil-shaped body and secured to at least one of said first and second skins , wherein the beam sections at least partially carry a load introduced on the body due to a pressure difference between the first and second skins as a result of air flowing over the airfoil-shaped body; - an actuator that is operationally associated with said beam sections , wherein, upon operating the actuator , the first beam section is moved with respect to the second beam section , or vice versa, changing the orientation of the beam sections with respect to each other, which causes a change in the variable outer shape of the airfoil-shaped body (1; 101) ; wherein the beam sections are spaced apart from each other and a joining member is arranged between the beam sections and connected thereto, said joining member being adapted to allow relative movement between the beam sections by an elastic deformation of the joining member , wherein the joining member comprises a hollow profile with a closed contour.