mhurhangee/ep-ind-claims huggingface dataset:
Method of fabricating a threaded connection in a vehicle headlamp using a screw element, which is screwed into a screw-in opening of a headlamp component using a screw shank, where the screw shank has a self-cutting thread, where the screw-in opening is embodied on the end side in a protrusion in the headlamp component with the following steps: - Supplying a protective sleeve, which has a shank section and a grommettype sleeve section, - Arranging the protective sleeve over at least part of the screw shank such that the protective sleeve covers the screw-in opening, and the sleeve section surrounds and seals the protrusion and the shank section surrounds and seals the screw shank in such a way as to prevent the possibility of any screw swarf created by screwing in the screw element into the screw opening finding its way into a housing of the headlamp; - Screwing the screw element into the screw-in opening. - Supplying a protective sleeve, which has a shank section and a grommettype sleeve section, - Arranging the protective sleeve over at least part of the screw shank such that the protective sleeve covers the screw-in opening, and the sleeve section surrounds and seals the protrusion and the shank section surrounds and seals the screw shank in such a way as to prevent the possibility of any screw swarf created by screwing in the screw element into the screw opening finding its way into a housing of the headlamp; - Screwing the screw element into the screw-in opening.
Transparent substrate, in particular of glass, coated with a stack of layers deposited using a vacuum deposition process, this lamination structure successively consisting in: i) a layer with a high refractive index ii) a layer with a low refractive index iii) a second layer with a high refractive index iv) a second layer with a low refractive index composed of two sub-layers of different composition both composed of a silicon oxide doped with a metal element, the optical thickness of layer iii) being higher than λ O /4 where λ O is the central wavelength of the anti-reflection coating, layers i) and iii) having an index higher than 2.1, and layers ii) and iv) having an index in the range between 1.4 and 1.8 wherein layers ii) and iv) are deposited by magnetically enhanced sputtering using a cathode supplied by a bipolar signal of the sinusoidal or rectangular type. i) a layer with a high refractive index ii) a layer with a low refractive index iii) a second layer with a high refractive index iv) a second layer with a low refractive index composed of two sub-layers of different composition both composed of a silicon oxide doped with a metal element,
A diesel fuel composition comprising (a) a diesel or biodiesel base fuel and (b) a Fischer-Tropsch derived paraffinic base oil component with a kinematic viscosity (as measured according to ASTM D-445) of at least 8 mm 2 /s at 100°C, an initial boiling point (as measured according to D-2887) of at least 400°C, a ratio of the percentage of epsilon methylene carbon atoms to the percentage of isopropyl carbon atoms of 8.2 or below and a pour point (determined according to ASTM D-97-93) of -30°C or lower, wherein the concentration of the base oil component (b) is from 0.1 to 10 wt%.
A method for producing a nickel alloy porous body comprising: a step of applying a coating material that contains a nickel alloy powder of nickel and an added metal onto a surface of a skeleton of a resin formed body having a three-dimensional mesh-like structure; a step of plating with nickel the surface of the skeleton of the resin formed body onto which the coating material has been applied; a step of removing the resin formed body by a heat treatment; and a step of diffusing the added metal into the nickel by a heat treatment. a step of applying a coating material that contains a nickel alloy powder of nickel and an added metal onto a surface of a skeleton of a resin formed body having a three-dimensional mesh-like structure; a step of plating with nickel the surface of the skeleton of the resin formed body onto which the coating material has been applied; a step of removing the resin formed body by a heat treatment; and a step of diffusing the added metal into the nickel by a heat treatment.
A method for transmitting data using a magnetic field without using induction, comprising: generating, at a transmitter device, one or more communication symbols that represent data to be transmitted to a receiver device; generating a magnetic field at the transmitter device; and rotating the magnetic field around one or more axes to encode the one or more communication symbols that represent the data to be transmitted to the receiver device generating, at a transmitter device, one or more communication symbols that represent data to be transmitted to a receiver device; generating a magnetic field at the transmitter device; and rotating the magnetic field around one or more axes to encode the one or more communication symbols that represent the data to be transmitted to the receiver device
A method performed by a network node (102-1, 800) for retrieving User Equipment, UE, context, the method comprising: receiving (400, 500, 600) a RRC resume request message from a UE; transmitting (402, 502, 602) a request to an old network node for UE context retrieval; and receiving (404, 504A, 504B, 604) a response from the old network node wherein the request comprises either or both of (a) an indication that the UE context retrieval is related to a Small Data Transmission, SDT, performed by the UE and (b) UE assistance information that informs the old network node that the UE has started a SDT procedure, and wherein said method is characterized in that the response from the old network node indicates the UE context retrieval is partially rejected. receiving (400, 500, 600) a RRC resume request message from a UE; transmitting (402, 502, 602) a request to an old network node for UE context retrieval; and receiving (404, 504A, 504B, 604) a response from the old network node wherein the request comprises either or both of (a) an indication that the UE context retrieval is related to a Small Data Transmission, SDT, performed by the UE and (b) UE assistance information that informs the old network node that the UE has started a SDT procedure, and wherein said method is characterized in that the response from the old network node indicates the UE context retrieval is partially rejected.
A method of crosslinking a polyhydroxyurethane polymer having a plurality of diene moieties in the backbone, the method comprising: reacting a crosslinking agent having two or more dienophile moieties with the PHU polymer backbone to form crosslinks between the diene moieties via a plurality of diene-dienophile adducts, wherein at least a part of the diene-dienophile adduct comprises structure:
Cabin filter comprising a filter element receptacle and a filter element comprising a pleated pack, wherein the filter element can be inserted into the filter element receptacle along an insertion direction, wherein the filter element comprises a blade which extends in insertion direction from the filter element, wherein the blade features an asymmetrical shape in the filter element plane, and wherein the blade is adapted to an asymmetrical contour of the filter element receptacle and wherein the blade is made of foam.
A method comprising: identifying a current object location on a touch surface comprising multiple sensors and divided into a plurality of logical device units; determining a difference in object location on the touch surface by comparing the current object location and a last object location; in accordance with a determination that the difference in object location is greater than or equal to a threshold value, outputting a logical device unit corresponding to the current object location, and in accordance with a determination that the difference in object location is not greater than or equal to a threshold value, not outputting a logical device unit corresponding to the current object location; wherein the threshold value is proportional to the ratio native sensor resolution of the touch surface/logical device resolution of the touch surface, and wherein the native sensor resolution represents the maximum number of different object locations detectable by sensors associated with the touch surface, and the logical device resolution represents the number of logical device units associated with the touch surface. identifying a current object location on a touch surface comprising multiple sensors and divided into a plurality of logical device units; determining a difference in object location on the touch surface by comparing the current object location and a last object location; in accordance with a determination that the difference in object location is greater than or equal to a threshold value, outputting a logical device unit corresponding to the current object location, and in accordance with a determination that the difference in object location is not greater than or equal to a threshold value, not outputting a logical device unit corresponding to the current object location; wherein the threshold value is proportional to the ratio native sensor resolution of the touch surface/logical device resolution of the touch surface, and wherein the native sensor resolution represents the maximum number of different object locations detectable by sensors associated with the touch surface, and the logical device resolution represents the number of logical device units associated with the touch surface.
A paper sheet processing device comprising: an ejection roller for ejecting a paper sheet; and a bill press for pressing the paper sheet against the ejection roller, wherein the bill press comprises: a bill press main body that is configured to move in a direction to approach and separate from the ejection roller; a pressing portion that is provided on the ejection roller side of the bill press main body and configured to move in a direction to approach and separate from the bill press main body; and an elastic portion for energizing the pressing portion in a direction to separate from the bill press main body, characterized in that the bill press main body includes: a surface portion located on the ejection roller side; and a concave portion which is formed on the surface portion, and recessed from the surface portion and into which the ejection roller is configured to enter. an ejection roller for ejecting a paper sheet; and a bill press for pressing the paper sheet against the ejection roller, wherein the bill press comprises: a bill press main body that is configured to move in a direction to approach and separate from the ejection roller; a pressing portion that is provided on the ejection roller side of the bill press main body and configured to move in a direction to approach and separate from the bill press main body; and an elastic portion for energizing the pressing portion in a direction to separate from the bill press main body, characterized in that the bill press main body includes: a surface portion located on the ejection roller side; and a concave portion which is formed on the surface portion, and recessed from the surface portion and into which the ejection roller is configured to enter. a bill press main body that is configured to move in a direction to approach and separate from the ejection roller; a pressing portion that is provided on the ejection roller side of the bill press main body and configured to move in a direction to approach and separate from the bill press main body; and an elastic portion for energizing the pressing portion in a direction to separate from the bill press main body, characterized in that the bill press main body includes: a surface portion located on the ejection roller side; and a concave portion which is formed on the surface portion, and recessed from the surface portion and into which the ejection roller is configured to enter. a surface portion located on the ejection roller side; and a concave portion which is formed on the surface portion, and recessed from the surface portion and into which the ejection roller is configured to enter.
A steam turbine blade comprising: an airfoil; a blade root attachable to a turbine rotor and having plural stages of hooks in the radial direction of said turbine rotor; and a platform provided between said airfoil and said blade root, wherein said blade root is shaped such that said blade root is straightly insertable at a predetermined angle α larger than 0° relative to the axial direction of said turbine rotor, characterized in that when the steam turbine blade is installed in the turbine rotor, respective values of said angle α and an angle θ formed by a load bearing surface of each of said hooks, which is positioned at the outer peripheral side in the radial direction of said turbine rotor, relative to a circumferential surface as viewed in the axial direction of said turbine rotor are set to fall within a region specified by the following formulas: 500 ≥ α × θ ≥ 0 90 > θ ≥ 0 90 > α > 0. an airfoil; a blade root attachable to a turbine rotor and having plural stages of hooks in the radial direction of said turbine rotor; and a platform provided between said airfoil and said blade root, wherein said blade root is shaped such that said blade root is straightly insertable at a predetermined angle α larger than 0° relative to the axial direction of said turbine rotor, characterized in that when the steam turbine blade is installed in the turbine rotor, respective values of said angle α and an angle θ formed by a load bearing surface of each of said hooks, which is positioned at the outer peripheral side in the radial direction of said turbine rotor, relative to a circumferential surface as viewed in the axial direction of said turbine rotor are set to fall within a region specified by the following formulas: 500 ≥ α × θ ≥ 0 90 > θ ≥ 0 90 > α > 0.
A surgical assembly for reducing a rod into a saddle of a fixation member, the surgical assembly comprises: a surgical instrument, including: a distal end for engaging the saddle; a proximal end; a reducing device disposed between the distal end and the proximal end, the reducing device operative to reduce the rod in the saddle, the reducing device defining a throughbore, the throughbore providing access therethrough by a first drive member to secure a plug to the saddle; characterized in that the surgical assembly includes a rotation instrument including a lever pivotably coupled to the rotation instrument and removably coupled to the proximal end. a surgical instrument, including: a distal end for engaging the saddle; a proximal end; a reducing device disposed between the distal end and the proximal end, the reducing device operative to reduce the rod in the saddle, the reducing device defining a throughbore, the throughbore providing access therethrough by a first drive member to secure a plug to the saddle; a distal end for engaging the saddle; a proximal end; a reducing device disposed between the distal end and the proximal end, the reducing device operative to reduce the rod in the saddle, the reducing device defining a throughbore, the throughbore providing access therethrough by a first drive member to secure a plug to the saddle; characterized in that the surgical assembly includes a rotation instrument including a lever pivotably coupled to the rotation instrument and removably coupled to the proximal end.
An apparatus for coupling physiological signals acquired from a patient to a physiological signal processing circuit in a patient monitor, said apparatus comprising: a) a plurality of first signal conductors each having an input end adapted for coupling to a respective one of a plurality of lead wires, wherein each lead wire is shielded by a respective lead shield and connected to a respective one of a plurality of physiological signal sensors, and each of said plurality of first signal conductors having an output end coupled to a respective one of each of a plurality of second signal conductors which are adapted to connect to the patient monitor; b) a plurality of first shields each positioned for shielding a respective one of each of said first signal conductors and adapted to be connected to a respective one of said lead shields; c) said plurality of second signal conductors; d) a second shield arranged as a common shield positioned for shielding all of said plurality of second signal conductors; e) a plurality of resistors each connected between a respective one of each of said plurality of first shields and said second shield, so as to attenuate currents flowing through conductor paths generated by said plurality of lead shields, said plurality of first shields and said second shield; and f) a trunk block including said plurality of first signal conductors, said plurality of first shields, said plurality of second signal conductors, said second shield and said plurality of resistors. a) a plurality of first signal conductors each having an input end adapted for coupling to a respective one of a plurality of lead wires, wherein each lead wire is shielded by a respective lead shield and connected to a respective one of a plurality of physiological signal sensors, and each of said plurality of first signal conductors having an output end coupled to a respective one of each of a plurality of second signal conductors which are adapted to connect to the patient monitor; b) a plurality of first shields each positioned for shielding a respective one of each of said first signal conductors and adapted to be connected to a respective one of said lead shields; c) said plurality of second signal conductors; d) a second shield arranged as a common shield positioned for shielding all of said plurality of second signal conductors; e) a plurality of resistors each connected between a respective one of each of said plurality of first shields and said second shield, so as to attenuate currents flowing through conductor paths generated by said plurality of lead shields, said plurality of first shields and said second shield; and f) a trunk block including said plurality of first signal conductors, said plurality of first shields, said plurality of second signal conductors, said second shield and said plurality of resistors.
An electrically heated aerosol-generating device for use with an aerosol-generating article, wherein the device comprises - a device housing including a receiving cavity within a proximal portion of the device for receiving at least a portion of the aerosol-generating article; - a sensing circuitry comprising a field generator, wherein the sensing circuitry is configured to measure a change of at least one property of the field generator caused by the presence of an indicator arranged at or within the article when the article is received in the receiving cavity; - at least one electrical heating device for heating an aerosol-forming substrate within the article when the article is received in the receiving cavity; characterized in that the device comprises a separating wall arranged adjacent to a distal end portion of the receiving cavity separating the receiving cavity within the proximal portion of the device from a distal portion of the device, wherein the field generator is arranged adjacent to a distal end portion of the receiving cavity opposite to a proximal end portion of the receiving cavity within the separating wall or circumferentially around a perimeter or outer circumference of the separating wall. - a device housing including a receiving cavity within a proximal portion of the device for receiving at least a portion of the aerosol-generating article; - a sensing circuitry comprising a field generator, wherein the sensing circuitry is configured to measure a change of at least one property of the field generator caused by the presence of an indicator arranged at or within the article when the article is received in the receiving cavity; - at least one electrical heating device for heating an aerosol-forming substrate within the article when the article is received in the receiving cavity;
An alkaline electroplating bath for depositing zinc alloys on substrates having an anode and a cathode comprising a zinc alloy bath, characterized in that the anode region and the cathode region are separated from each other by a filtration membrane, the size of the filtration membrane pores is in the range of 0.001 to 1.0 μm, and said zinc alloy bath comprising the following components: - 80-250 g/l NaOH or KOH - 5-20 g/l zinc in form of the soluble zinc salt - 0.02-10 g/l of alloy metal Ni, Fe, Co, Sn in form of soluble metal salts - 2-200 g/l complexing agent selected from polyalkenylamines, alkanolamines, polyhydroxycarboxylates, - 0.1-5 g/l aromatic or heteroaromatic brightening agent. - 80-250 g/l NaOH or KOH - 5-20 g/l zinc in form of the soluble zinc salt - 0.02-10 g/l of alloy metal Ni, Fe, Co, Sn in form of soluble metal salts - 2-200 g/l complexing agent selected from polyalkenylamines, alkanolamines, polyhydroxycarboxylates, - 0.1-5 g/l aromatic or heteroaromatic brightening agent.
A method of communicating using a communications device via a wireless access interface to perform device-to-device communications, the method comprising determining in accordance with predetermined conditions whether the communications device is within a coverage area for transmitting or receiving radio signals using a wireless access interface provided by a mobile communications network, and if the communications device is determined to be within the coverage area of the mobile communications network, transmitting or receiving signals via the wireless access interface to one or more other communications devices in accordance with device to device communications using communications resources of the wireless access interface allocated according to a first mode in which the mobile communications network performs resource allocation, or if the communications device is determined not to be within the coverage area of the mobile communications network, then transmitting or receiving signals via the wireless access interface to one or more other communications devices in accordance with device to device communications using communications resources of the wireless access interface allocated according to a second mode in which the communications device allocates resources from a predetermined set of resources, wherein if the communications device is determined to be within the coverage area of the mobile communications network, the transmitting or the receiving the signals via the wireless access interface using the first mode of resource allocation, includes accessing the mobile communications network to receive an allocation of the communications resources of the wireless access interface, characterized by detecting a failure condition in accessing the communications resources of the wireless access interface, and if the failure condition is detected then transmitting or receiving the signals via the wireless access interface by accessing the communications resources of the wireless access interface using the second mode of resource allocation.