mhurhangee/patent-ind-claim-en huggingface dataset:
A method for joining a substrate to silicone rubber, comprising the steps: a) making available the substrate, wherein the substrate has on its surface reactive groups, selected from the group consisting of hydroxy, alkoxy, acetoxy, ether, keto, aldehyde, ester, carboxy and/or halide group, b) making available silicone rubber, preferably in partially cross-linked and particularly preferably in fully cross-linked form, c) irradiating the silicone rubber with UV radiation of at least a wavelength of ≤ 250 nm, preferably ≤ 225 nm, and a radiation dose of 150 mJ/cm 2 - < 2 J/cm 2 in an oxygen-containing atmosphere, so that the silicone rubber has an oxygen content which is increased by ≥ 4 at%, relative to the total number of C, Si and O atoms contained in the surface, measured by means of XPS, d) contacting the substrate surface with the irradiated silicone rubber, with a material-formed bond being produced between the substrate surface and the silicone rubber. a) making available the substrate, wherein the substrate has on its surface reactive groups, selected from the group consisting of hydroxy, alkoxy, acetoxy, ether, keto, aldehyde, ester, carboxy and/or halide group, b) making available silicone rubber, preferably in partially cross-linked and particularly preferably in fully cross-linked form, c) irradiating the silicone rubber with UV radiation of at least a wavelength of ≤ 250 nm, preferably ≤ 225 nm, and a radiation dose of 150 mJ/cm 2 - < 2 J/cm 2 in an oxygen-containing atmosphere, so that the silicone rubber has an oxygen content which is increased by ≥ 4 at%, relative to the total number of C, Si and O atoms contained in the surface, measured by means of XPS, d) contacting the substrate surface with the irradiated silicone rubber, with a material-formed bond being produced between the substrate surface and the silicone rubber.
A method for monitoring the braking performance of a vehicle , the method including: providing a brake monitoring system having at least one microprocessor on the vehicle, for at least some braking events, the brake monitoring system determining a braking demand (B DEM ) and determining vehicle deceleration (B DEC ); differentiating between qualifying braking events and non-qualifying braking events, including determining a braking event is a non-qualifying event, at least in part, in response to determining that a delivery pressure is exerted for a period of time which is less than or equal to a threshold value; defining a data set of qualifying braking events, wherein each braking event in the data set includes a determined braking demand (B DEM ) and a determined vehicle deceleration (B DEC ); applying a statistical trend analysis method to the data set to generate a vehicle deceleration and braking demand straight line trend; providing a vehicle deceleration (B DEC ) and braking demand (B DEM ) reference; and comparing at least one trend value with at least one reference value.
A package, comprising: a substrate having at least one first circuit component coupled to a first surface of the substrate; and an electromagnetic interference, EMI, shield coupled to the substrate, the EMI shield including a metal casing configured to shield the package from radio frequency radiation and that includes a plurality of side walls that couple the EMI shield to the substrate, a dielectric layer coupled to at least a portion of an inner surface of the metal casing, a plurality of signal lines coupled to the dielectric layer and electrically isolated from the metal casing by the dielectric layer wherein the plurality of side walls include an inner side wall surface that includes the dielectric layer and at least a portion of the plurality of signal lines, and at least one second circuit component coupled to an inner surface of the EMI shield, at least a portion of the inner surface of the EMI shield facing the first surface of the substrate, and the plurality of signal lines configured to provide electrical signals to the second circuit component. a substrate having at least one first circuit component coupled to a first surface of the substrate; and an electromagnetic interference, EMI, shield coupled to the substrate, the EMI shield including a metal casing configured to shield the package from radio frequency radiation and that includes a plurality of side walls that couple the EMI shield to the substrate, a dielectric layer coupled to at least a portion of an inner surface of the metal casing, a plurality of signal lines coupled to the dielectric layer and electrically isolated from the metal casing by the dielectric layer wherein the plurality of side walls include an inner side wall surface that includes the dielectric layer and at least a portion of the plurality of signal lines, and at least one second circuit component coupled to an inner surface of the EMI shield, at least a portion of the inner surface of the EMI shield facing the first surface of the substrate, and the plurality of signal lines configured to provide electrical signals to the second circuit component. a metal casing configured to shield the package from radio frequency radiation and that includes a plurality of side walls that couple the EMI shield to the substrate, a dielectric layer coupled to at least a portion of an inner surface of the metal casing, a plurality of signal lines coupled to the dielectric layer and electrically isolated from the metal casing by the dielectric layer wherein the plurality of side walls include an inner side wall surface that includes the dielectric layer and at least a portion of the plurality of signal lines, and at least one second circuit component coupled to an inner surface of the EMI shield, at least a portion of the inner surface of the EMI shield facing the first surface of the substrate, and the plurality of signal lines configured to provide electrical signals to the second circuit component.
Method of preparing a sample for imaging under cryogenic conditions or diffraction experiments under cryogenic conditions, comprising the steps of applying a sample to a sample carrier , in particular a grid, the sample carrier comprising a film on a support and vitrifying the sample, wherein the sample is vitrified by directing a jet of liquid coolant to the center of the sample carrier and onto the sample so that the sample is vitrified first in the center of the support and from there towards the edge of the support.
A magnetic component adapted for a stator pole configured to transfer magnetic flux in an axially skewed direction around a stator coil of a transverse electric machine, said magnetic component comprising: a unitary structure that does not have joined parts or layers after the formation of the structure comprising a magnetic region and a non-magnetic region , wherein the magnetic region comprises a magnetic phase and an electrically insulating phase , the electrically insulating phase disposed in a plane parallel to said axially skewed magnetic flux in the magnetic phase during an operation of the transverse electric machine; and the non-magnetic region comprises a non-magnetic phase , and wherein the magnetic phase comprises a metallic material and the non-magnetic phase comprises a nitrogenated metallic material formed by controlled nitrogenation of the metallic material, wherein the magnetic region and the non-magnetic region are adjacent to each other. a unitary structure that does not have joined parts or layers after the formation of the structure comprising a magnetic region and a non-magnetic region , wherein the magnetic region comprises a magnetic phase and an electrically insulating phase , the electrically insulating phase disposed in a plane parallel to said axially skewed magnetic flux in the magnetic phase during an operation of the transverse electric machine; and the non-magnetic region comprises a non-magnetic phase , and wherein the magnetic phase comprises a metallic material and the non-magnetic phase comprises a nitrogenated metallic material formed by controlled nitrogenation of the metallic material, wherein the magnetic region and the non-magnetic region are adjacent to each other.
A system for securing a medical device to a medical valve instrument, comprising: a medical device having an elongate body and an exterior surface; an adapter tool defining a lumen along a longitudinal axis , the adapter tool adhered or otherwise mounted to the elongate medical device comprising a generally tapered body portion configured to engage an inlet port of a hemostasis valve, the generally tapered body portion defining the lumen , the body portion including one or more protrusions extending outwardly from a longitudinal axis of the body portion to sealingly engage with a component of the inlet port of the hemostasis valve; wherein the one or more protrusions comprise a first threaded protrusion and a second threaded protrusion that, respectively, extend at least partially around an exterior of the generally tapered body portion , characterized in that the first and second threaded protrusions have different pitches. a medical device having an elongate body and an exterior surface; an adapter tool defining a lumen along a longitudinal axis , the adapter tool adhered or otherwise mounted to the elongate medical device comprising a generally tapered body portion configured to engage an inlet port of a hemostasis valve, the generally tapered body portion defining the lumen , the body portion including one or more protrusions extending outwardly from a longitudinal axis of the body portion to sealingly engage with a component of the inlet port of the hemostasis valve; a generally tapered body portion configured to engage an inlet port of a hemostasis valve, the generally tapered body portion defining the lumen , the body portion including one or more protrusions extending outwardly from a longitudinal axis of the body portion to sealingly engage with a component of the inlet port of the hemostasis valve;
Feed device for a metal melt (M) in an injection molding device, with a reservoir for the metal melt (M) and with a feed duct, in which the metal melt (M) can be fed to a mold cavity, wherein the feed duct comprises a cylinder bore , in which a piston is arranged axially displaceably, and wherein a collection chamber for the metal melt (M), from which the metal melt (M) can be introduced into the mold cavity through a continuing line as a consequence of an axial displacement of the piston , is provided in the cylinder bore , wherein the cylinder bore is surrounded by a first heater , which has at least one heating element , characterized in that at its end facing away from the collection chamber , the piston has a driving device and/or a control device , that a cooling device is associated with the driving device and/or the control device such that this/these can be cooled by the cooling device ; and that a partition , through which the piston passes, is provided between the first heater and the cooling device .
An aluminum alloy for making an extruded and brazed aluminum product, the aluminum alloy comprising, in weight percent: up to 0.15 of Si; between 0.15 to 0.30 of Fe; between 0.9 to 1.2 Mn; between 0.03 and 0.10 Mg; between 0.10 and 0.20 Zn; up to 0.03 Cu; up to 0.04 Ti; and the balance being aluminum and unavoidable impurities; wherein (Mg + Mn) is equal to or higher than 0.99. up to 0.15 of Si; between 0.15 to 0.30 of Fe; between 0.9 to 1.2 Mn; between 0.03 and 0.10 Mg; between 0.10 and 0.20 Zn; up to 0.03 Cu; up to 0.04 Ti; and the balance being aluminum and unavoidable impurities; wherein (Mg + Mn) is equal to or higher than 0.99.
A compressor unit comprising: a compression section for compressing a gas and storing a pressure accumulator with the compressed gas; a drive portion that includes an electric motor as a drive source and drives the compression section ; and a control unit for controlling the electric motor , characterized in that the electric motor has an output characteristic in which a rated torque can be maintained against a change of a rotational speed in a standard rotation region (SR) that is a rotation region at or below a standard speed that is a maximum speed in which rotation can be made at the rated torque, and an output torque decreases from the rated torque according as the rotational speed of the electric motor increases in an overspeed region (PR) that is a rotation region continuous from the standard rotation region (SR) and above the standard speed, and the control unit is configured to repeatedly perform a gas supply control including, in at least a part of a storage process in which the compression section stores with the gas until a pressure in the pressure accumulator reaches a predetermined pressure, an overspeed operation control for allowing the electric motor to perform driving in the overspeed region (PR). a compression section for compressing a gas and storing a pressure accumulator with the compressed gas; a drive portion that includes an electric motor as a drive source and drives the compression section ; and a control unit for controlling the electric motor , characterized in that the electric motor has an output characteristic in which a rated torque can be maintained against a change of a rotational speed in a standard rotation region (SR) that is a rotation region at or below a standard speed that is a maximum speed in which rotation can be made at the rated torque, and an output torque decreases from the rated torque according as the rotational speed of the electric motor increases in an overspeed region (PR) that is a rotation region continuous from the standard rotation region (SR) and above the standard speed, and the control unit is configured to repeatedly perform a gas supply control including, in at least a part of a storage process in which the compression section stores with the gas until a pressure in the pressure accumulator reaches a predetermined pressure, an overspeed operation control for allowing the electric motor to perform driving in the overspeed region (PR).
Method for feeding in and for handling waste material in the channel section of a pneumatic waste material conveying system, in which method waste material or recycleable material is fed into a feed-in container from the input aperture of an input point of the pneumatic waste material conveying system and onwards into the channel section between the feed-in container and the material conveying pipe , from where the material is conveyed along with the transporting air via the material conveying pipe to the delivery end of the pneumatic waste material conveying system, where the material is separated from the transporting air, characterized in that in the method the material (w) is acted upon by the combined effect of suction generated by a partial-vacuum generator of the pneumatic waste material conveying system and replacement air in the channel section to achieve compression against an impediment in at least a part of the material (w) being conveyed to decrease the volume of the material in the channel section, by means of replacement air means conducting replacement air in a regulated manner into the channel section between the input point and the material (w), which means are adapted to open and close a pathway for replacement air, and by means of the impediment , arranged between the conveying pipe and the material (w) to be handled, before transportation of the material to the delivery end of the pneumatic waste material conveying system.
A tire for a two-wheel vehicle, comprising a pair of bead portions , a pair of sidewall portions , and a tread portion continuous with the both sidewall portions , with the tread portion being divided into five portions in a surface of the tread portion by a central portion including a tire equatorial plane , a pair of edge portions including respective tread edges , and a pair of shoulder portions lying between the central portion and the respective edge portions in a tire width direction, wherein each of rubber of the central portion , rubber of the shoulder portions , and rubber of the edge portions contains a rubber component, characterized in that when a peak temperature of a loss tangent tan δ of the rubber of the central portion is represented by T p-C , a peak temperature of a loss tangent tan δ of the rubber of the shoulder portions is represented by T p-S , and a peak temperature of a loss tangent tan δ of the rubber of the edge portions is represented by T p-E , T p-C , T p-S , and T p-E satisfy formula below: T p − S > T p − E > T p − C when measurement of the peak temperature of a loss tangent tan δ of the rubbers is conducted by using a dynamic spectrometer under the temperature distribution conditions of from -30°C to 60°C, an initial strain of 10%, a dynamic strain of 1%, a frequency of 52 Hz, and a temperature raising rate of 2 °C/min. the tread portion being divided into five portions in a surface of the tread portion by a central portion including a tire equatorial plane , a pair of edge portions including respective tread edges , and a pair of shoulder portions lying between the central portion and the respective edge portions in a tire width direction, wherein each of rubber of the central portion , rubber of the shoulder portions , and rubber of the edge portions contains a rubber component, characterized in that when a peak temperature of a loss tangent tan δ of the rubber of the central portion is represented by T p-C , a peak temperature of a loss tangent tan δ of the rubber of the shoulder portions is represented by T p-S , and a peak temperature of a loss tangent tan δ of the rubber of the edge portions is represented by T p-E , T p-C , T p-S , and T p-E satisfy formula below: T p − S > T p − E > T p − C when measurement of the peak temperature of a loss tangent tan δ of the rubbers is conducted by using a dynamic spectrometer under the temperature distribution conditions of from -30°C to 60°C, an initial strain of 10%, a dynamic strain of 1%, a frequency of 52 Hz, and a temperature raising rate of 2 °C/min.
A compound which is a salt of 1-methyl-7-(1-methyl-1H-pyrazol-4-yl)-5-(4-(trifluoromethoxy)phenyl)-1,5-dihydro-4H-imidazo[4,5-c]pyridin-4-one (Compound I): wherein the salt is selected from the group consisting of besylate, hemi-edisylate, hemi-napadisylate, mono-hydrobromide, mono-nitrate, mono-sulfate, and mono-tosylate salts of Compound I, preferably a mono-tosylate salt of Compound I.
Torsionally elastic shaft coupling , having: - a first coupling part and a second coupling part which are mounted so as to be rotatable relative to one another, and - at least one spring arrangement , wherein - the shaft coupling has at least one cassette which is detachably connected to the second coupling part and in which a spring arrangement is mounted, wherein the cassette , together with the spring arrangement mounted therein, forms an exchangeable module , characterised in that the shaft coupling has at least two cassettes which are detachably connected to the second coupling part and in each of which a spring arrangement is mounted, wherein each cassette , together with the spring arrangement mounted therein, forms an exchangeable module , 14), and in that a first cassette has a larger outer diameter than a second cassette , wherein the first cassette has a recess into which the second cassette is inserted, and wherein the shaft coupling has at least one driver which is connected to the first coupling part and interacts with the spring arrangement . - a first coupling part and a second coupling part which are mounted so as to be rotatable relative to one another, and - at least one spring arrangement , wherein - the shaft coupling has at least one cassette which is detachably connected to the second coupling part and in which a spring arrangement is mounted, wherein the cassette , together with the spring arrangement mounted therein, forms an exchangeable module ,
A mobile device comprising: a circuit board on which an electronic circuit used to perform wireless communication with a vehicle-mounted device is mounted; a battery the surfaces of which being covered with a conductive member made of a metal or the like; a battery holder that holds the battery from which electric power is supplied to the electronic circuit ; and a case member in which the circuit board and the battery holder are accommodated; wherein a test port is provided on one plate surface of the circuit board , the test port being a terminal electrode used in test of the electronic circuit , and the battery is a button battery having two electrode surfaces; characterized in that the battery holder holds the battery at a position at which the battery faces the test port ; the battery holder holds the battery so that one of the two electrode surfaces of the battery faces the one plate surface; and the test port is disposed in an opposing space (R1) that faces the one plate surface and the one of the two electrode surfaces. a circuit board on which an electronic circuit used to perform wireless communication with a vehicle-mounted device is mounted; a battery the surfaces of which being covered with a conductive member made of a metal or the like; a battery holder that holds the battery from which electric power is supplied to the electronic circuit ; and a case member in which the circuit board and the battery holder are accommodated; wherein a test port is provided on one plate surface of the circuit board , the test port being a terminal electrode used in test of the electronic circuit , and the battery is a button battery having two electrode surfaces; characterized in that the battery holder holds the battery at a position at which the battery faces the test port ; the battery holder holds the battery so that one of the two electrode surfaces of the battery faces the one plate surface; and the test port is disposed in an opposing space (R1) that faces the one plate surface and the one of the two electrode surfaces.