mhurhangee/ep-ind-claims huggingface dataset:
Isolation transformer with low unwanted resonances, comprising - an input winding, an output winding and a third winding, - a transformer core, - a capacitive element and - a resistive element, wherein - the capacitive element, the resistive element and the third winding are connected in series, - the input winding, the output winding and the third winding are magnetically coupled, - the capacitive element, the resistive element and the third winding form an attenuation circuit for unwanted resonances, - the input winding is wound onto the transformer core, - the output winding is wound onto the transformer core, - the third winding is wound onto the transformer core, characterized in that the input winding and the third winding are wound on the transformer core in a bifilar manner in order to arrange the third winding close to the input winding. - an input winding, an output winding and a third winding, - a transformer core, - a capacitive element and - a resistive element, - the capacitive element, the resistive element and the third winding are connected in series, - the input winding, the output winding and the third winding are magnetically coupled, - the capacitive element, the resistive element and the third winding form an attenuation circuit for unwanted resonances, - the input winding is wound onto the transformer core, - the output winding is wound onto the transformer core, - the third winding is wound onto the transformer core,
An antagonist of Leucine-rich alpha-2-glycoprotein 1 for use in the treatment or prevention of pathogenic vascularisation, wherein said antagonist is an antibody that binds to Lrg1.
A microcapsule system comprising an outer microcapsule having an outer capsule shell, the outer microcapsule containing: (a) at least one inner microcapsule enclosed therein having an inner capsule shell; and (b) a first fragrance composition; wherein the capsule shell of the outer microcapsule completely surrounds the inner microcapsule and the first fragrance composition, characterized in that the inner microcapsule contains a second fragrance composition which is completely surrounded by the inner capsule shell of the inner microcapsule and is different from the first fragrance composition, and in that the outer capsule shell is at least partially permeable to parts of the first fragrance composition and said parts are released by diffusion. (a) at least one inner microcapsule enclosed therein having an inner capsule shell; and (b) a first fragrance composition; characterized in that the inner microcapsule contains a second fragrance composition which is completely surrounded by the inner capsule shell of the inner microcapsule and is different from the first fragrance composition, and in that the outer capsule shell is at least partially permeable to parts of the first fragrance composition and said parts are released by diffusion.
A thermoplastic epoxy resin composition comprising an epoxy compound having two epoxy groups in one molecule, a compound having two phenolic hydroxyl groups in one molecule, and at least one compound selected from the group consisting of N,N-dibutylethanolamine, di(2-ethylhexyl)amine, N-ethylhexylamine, N,N-dimethyl-n-octylamine, and N,N-dimethyldecylamine as a curing accelerator.
An apparatus for measuring a slope change amount of a structure, the apparatus comprising: a bottom body having an upper surface that is a spherical surface having a predetermined radius of curvature; a ball freely oscillating on the upper surface of the bottom body and moving due to a gravitational force; and a camera for imaging the bottom body on which the ball is located, the apparatus further including: a housing in which an internal space is formed that accommodates the bottom body, the ball, and the camera; and a ball storing unit for limiting a behavior of the ball in the internal space, wherein: the bottom body is located on a bottom surface of the internal space; the camera is located on an upper surface of the internal space; the ball storing unit is a partition wall that shields the bottom surface from the upper surface; and the partition wall is a plate-like member formed of a transparent material. a bottom body having an upper surface that is a spherical surface having a predetermined radius of curvature; a ball freely oscillating on the upper surface of the bottom body and moving due to a gravitational force; and a camera for imaging the bottom body on which the ball is located, the apparatus further including: a housing in which an internal space is formed that accommodates the bottom body, the ball, and the camera; and a ball storing unit for limiting a behavior of the ball in the internal space, wherein: the bottom body is located on a bottom surface of the internal space; the camera is located on an upper surface of the internal space; the ball storing unit is a partition wall that shields the bottom surface from the upper surface; and the partition wall is a plate-like member formed of a transparent material. a housing in which an internal space is formed that accommodates the bottom body, the ball, and the camera; and a ball storing unit for limiting a behavior of the ball in the internal space, wherein: the bottom body is located on a bottom surface of the internal space; the camera is located on an upper surface of the internal space; the ball storing unit is a partition wall that shields the bottom surface from the upper surface; and the partition wall is a plate-like member formed of a transparent material. the bottom body is located on a bottom surface of the internal space; the camera is located on an upper surface of the internal space; the ball storing unit is a partition wall that shields the bottom surface from the upper surface; and the partition wall is a plate-like member formed of a transparent material.
A method for managing a remote user interface, RUI, in a remote user interface server, RUIS, the method comprising: determining whether an RUI list including at least one RUI has been updated; generating an update message and sending the update message to a remote user interface client, RUIC, if the RUI list has been updated; receiving a request message for updated RUI list information from the RUIC in response to the update message; and transmitting updated RUI list information to the RUIC in response to the request message for updated RUI list information, wherein the request message for updated RUI list information is transmitted from the RUIC based on at least one of location information included in the update message sent from the RUIS and predetermined location information. determining whether an RUI list including at least one RUI has been updated; generating an update message and sending the update message to a remote user interface client, RUIC, if the RUI list has been updated; receiving a request message for updated RUI list information from the RUIC in response to the update message; and transmitting updated RUI list information to the RUIC in response to the request message for updated RUI list information, wherein the request message for updated RUI list information is transmitted from the RUIC based on at least one of location information included in the update message sent from the RUIS and predetermined location information.
A control device for a vehicle that has two paths for transmitting an engine torque, each of the two paths includes a clutch (Cn, Cp) and a transmission mechanism (Tn, Tp) arranged downstream of the clutch (Cn, Cp), the transmission mechanisms (Tn, Tp) in the two paths share an output shaft, and each of the transmission mechanisms (Tn, Tp) includes a first gear (1i to 6i) rotating together with a driven member of the clutch, and a second gear (1 h to 6h) rotating together with the output shaft and engageable with the first gear (1 i to 6i) by a dog clutch, characterized in that the control device executes: normal travel control in which a transmitted torque capacity of each of the clutches (Cn, Cp) is set to a value that the clutch (Cn, Cp) has in engaged state, the transmission mechanism in a previous path (Tp) that is one of the two paths is set in an engaged state where the first gear and the second gear are engaged with each other, and the transmission mechanism in a next path (Tn) that is the other path is set in a neutral state where the first gear and the second gear are not engaged with each other; next clutch capacity reduction control in which the transmitted torque capacity of the clutch in the next path (Cn) is lowered in response to a gear shift command generated during the normal travel control; and next gear engagement control in which the first gear and the second gear of the transmission mechanism in the next path (Tn) become engaged with each other in a state where the transmitted torque capacity of the clutch in the next path (Cn) is higher than a value at the time when the clutch is disengaged, after the next clutch capacity reduction control is started. normal travel control in which a transmitted torque capacity of each of the clutches (Cn, Cp) is set to a value that the clutch (Cn, Cp) has in engaged state, the transmission mechanism in a previous path (Tp) that is one of the two paths is set in an engaged state where the first gear and the second gear are engaged with each other, and the transmission mechanism in a next path (Tn) that is the other path is set in a neutral state where the first gear and the second gear are not engaged with each other; next clutch capacity reduction control in which the transmitted torque capacity of the clutch in the next path (Cn) is lowered in response to a gear shift command generated during the normal travel control; and next gear engagement control in which the first gear and the second gear of the transmission mechanism in the next path (Tn) become engaged with each other in a state where the transmitted torque capacity of the clutch in the next path (Cn) is higher than a value at the time when the clutch is disengaged, after the next clutch capacity reduction control is started.
A medical manipulator comprising: a driving unit including a vibration-type actuator including a vibrating unit configured to generate a vibration wave, a moving unit configured to relatively rotatably move with respect to the vibrating unit, and a pressure application unit configured to apply a pressure between the vibrating unit and the moving unit; a manipulator unit connected to the driving unit and configured to be movable by being driven by the driving unit; a supporting unit configured to support the driving unit and the manipulator unit; a driving circuit connected to the vibrating unit and configured to apply an AC voltage to the vibrating unit; and a torque control unit configured to control a holding torque with which the moving unit is held by the vibrating unit, wherein the torque control unit is configured to output, to the vibrating unit, a holding torque control signal including a forward traveling wave signal and a reverse traveling wave signal appearing alternately in a time interval in which substantially no rotation occurs on the moving unit due to the forward traveling wave signal and the reverse traveling wave signal being output sequentially. a driving unit including a vibration-type actuator including a vibrating unit configured to generate a vibration wave, a moving unit configured to relatively rotatably move with respect to the vibrating unit, and a pressure application unit configured to apply a pressure between the vibrating unit and the moving unit; a manipulator unit connected to the driving unit and configured to be movable by being driven by the driving unit; a supporting unit configured to support the driving unit and the manipulator unit; a driving circuit connected to the vibrating unit and configured to apply an AC voltage to the vibrating unit; and a torque control unit configured to control a holding torque with which the moving unit is held by the vibrating unit, wherein the torque control unit is configured to output, to the vibrating unit, a holding torque control signal including a forward traveling wave signal and a reverse traveling wave signal appearing alternately in a time interval in which substantially no rotation occurs on the moving unit due to the forward traveling wave signal and the reverse traveling wave signal being output sequentially.
Method for the realization of a microelectronic device which includes at least one semi-conductor zone (140, 240, 340, 440, 550, 650, 740, 840, 940) which rests on a support and which exhibits, in a direction parallel to the principal plane of the support, a Germanium concentration gradient, the Ge content increasing from centre to the periphery of said semi-conductor zone, the method comprising: a) The formation on a support of at least one oxidation mask (108, 208) which includes one or more holes (112, 122), where the holes reveal at least one first Si based semi-conductor zone including inclined flanks (121, 122) and having a central portion and a periphery portion, said periphery portion having a thickness smaller than the central portion thickness, b) The formation of at least one second semi-conductor zone (130, 230) based on Si 1-x Ge x (where 0 < x) on said first semi-conductor zone so as to protude from the mouth of the holes (112, 114), - planarizing the second semi-conductor zone so as to reach the level of the oxidation mask (102, 208) then, c) Thermal oxidation of said first semi-conductor zone and the second semi-conductor zone through said masking layer. a) The formation on a support of at least one oxidation mask (108, 208) which includes one or more holes (112, 122), where the holes reveal at least one first Si based semi-conductor zone including inclined flanks (121, 122) and having a central portion and a periphery portion, said periphery portion having a thickness smaller than the central portion thickness, b) The formation of at least one second semi-conductor zone (130, 230) based on Si 1-x Ge x (where 0 < x) on said first semi-conductor zone so as to protude from the mouth of the holes (112, 114), - planarizing the second semi-conductor zone so as to reach the level of the oxidation mask (102, 208) then, - planarizing the second semi-conductor zone so as to reach the level of the oxidation mask (102, 208) then, c) Thermal oxidation of said first semi-conductor zone and the second semi-conductor zone through said masking layer.
An iron oxide-zirconia composite oxide not using cerium comprising iron, zirconium, and a rare-earth element, wherein the total content of Fe 2 O 3, ZrO 2, and an oxide of the rare-earth element is not less than 90 mass%, the content of an iron oxide in terms of Fe 2 O 3 is 10 to 90 mass%, and an absolute value of covariance COV(Fe, Zr + X) of the composite oxide, which has been baked in the atmosphere at a temperature of 700 to 1300°C, determined by the following Formulae to, is not greater than 30: [Math. 1] R i Fe = I i Fe × 100 I i Fe + I i Zr + I i X R i Zr + X = I i Zr + I i X × 100 I i Fe + I i Zr + I i X COV Fe, Zr + X = 1 n ∑ i = 1 n R i Fe − R av Fe × R i Zr + X − R av Zr + X wherein in the formula, I i (Fe), I i (Zr), and I i respectively represent ratios of X-ray intensities of iron, zirconium, and the rare-earth element measured at a measurement point i, where i = 1 to n, to 100% intensities of the respective elements as measured by subjecting the composite oxide to a ray analysis through EPMA (WDX: wavelength dispersive X-ray spectrometry) under conditions of an accelerating voltage of 15 kV, a sample current of 50 nA, a minimum beam diameter not greater than 1 μm, and measurement intervals of 1 μm, where R av (Fe) and R av (Zr + X) represent mean values of R i (Fe) and R i (Zr + X), respectively, at all measurement points n.
A cabinet comprising a configuration system, the configuration system, comprising: a plurality of drawer slide receiving modules; and a plurality of hanging drawer slides, each hanging drawer slide coupled to one of the plurality of drawer slide receiving modules, each hanging drawer slide comprising a plurality of hooks of a first type, wherein at least one of the hanging drawer slides is configured to be withdrawn from the plurality of drawer slide receiving modules laterally along a longest axis of the hanging drawer slide, said longest axis of the hanging drawer slide is a horizontal axis, and wherein the plurality of drawer slide receiving modules are configured to be removably coupled to the cabinet in a plurality of different configurations, and characterized by a shelf drawer slide coupled to one of the plurality of drawer slide receiving modules, the shelf drawer slide configured to hold a plurality of items. a plurality of drawer slide receiving modules; and a plurality of hanging drawer slides, each hanging drawer slide coupled to one of the plurality of drawer slide receiving modules, each hanging drawer slide comprising a plurality of hooks of a first type, wherein at least one of the hanging drawer slides is configured to be withdrawn from the plurality of drawer slide receiving modules laterally along a longest axis of the hanging drawer slide, said longest axis of the hanging drawer slide is a horizontal axis, and wherein the plurality of drawer slide receiving modules are configured to be removably coupled to the cabinet in a plurality of different configurations, and characterized by a shelf drawer slide coupled to one of the plurality of drawer slide receiving modules, the shelf drawer slide configured to hold a plurality of items.
An adhesive comprising: (i) an organic polymer having - a main chain formed by a water-soluble polymer unit, and - a hydrophilic organic group capable of forming a hydrogen bond and a self-assembling group, which is an amino acid residue or an oligopeptide, bonded to the water-soluble polymer unit; and (ii) a curing agent, which is an amidating agent, a chelating agent or an electrolyte, wherein the water-soluble polymer by itself has a solubility in water at 25°C of ≥ 1 g/L. (i) an organic polymer having - a main chain formed by a water-soluble polymer unit, and - a hydrophilic organic group capable of forming a hydrogen bond and a self-assembling group, which is an amino acid residue or an oligopeptide, bonded to the water-soluble polymer unit; and - a main chain formed by a water-soluble polymer unit, and - a hydrophilic organic group capable of forming a hydrogen bond and a self-assembling group, which is an amino acid residue or an oligopeptide, bonded to the water-soluble polymer unit; and (ii) a curing agent, which is an amidating agent, a chelating agent or an electrolyte,
Method for bending extruded profiled elements, comprising the steps: a. Step A: Providing an extruded profile extending along a profile axis with at least one profile section in which the center of area of the cross-sectional shape is offset with respect to the profile axis. b. Step B: Bending of the at least one profile section such that the center of area (F2') of the cross-sectional shape (Q2') is shifted in the direction of the profile axis toward the inner side of the bending facing the center of curvature of the bending, and preferably coincides with the profile axis, characterised in that the profile section is arranged between two neighbouring sections adjacent along the profile axis wherein in step B the cross-sectional shape of the extruded profile in the profile section is aligned exactly or substantially to the cross-sectional shape of the extruded profile in the neighbouring sections. a. Step A: Providing an extruded profile extending along a profile axis with at least one profile section in which the center of area of the cross-sectional shape is offset with respect to the profile axis. b. Step B: Bending of the at least one profile section such that the center of area (F2') of the cross-sectional shape (Q2') is shifted in the direction of the profile axis toward the inner side of the bending facing the center of curvature of the bending, and preferably coincides with the profile axis,
A composition for manufacturing a molded hinge component comprising at least a first high-density polyethylene (HDPE) resin comprising: a. Melt Index of 0.5 dg/min to 10 dg/min, b. Density of 0.940 g/cm 3 to 0.968 g/cm 3, and c. Melt Flow Ratio Greater than 50; further comprising a second HDPE resin, wherein the second HDPE resin has a melt flow ratio less than 30; wherein density measurements were made in accordance with ASTM D792; wherein melt index measurements were made in accordance with ASTM D1238 at a temperature of 190 °C and at a load of 2.16 kg; and wherein the melt flow ratio is defined as the ratio of flow index divided by the melt index. a. Melt Index of 0.5 dg/min to 10 dg/min, b. Density of 0.940 g/cm 3 to 0.968 g/cm 3, and c. Melt Flow Ratio Greater than 50;
Assembly comprising a gas turbine and a heat exchanger for heating up a gas turbine process fluid (GTPF) by thermal energy, said gas turbine comprising a compressor, a combustor and a turbine downstream said combustor, whereby - said assembly comprising a first line to conduct said gas turbine process fluid (GTPF) downstream a compression by said compressor to said heat exchanger, - said assembly comprising a second line to conduct said gas turbine process fluid (GTPF) from said heat exchanger to said combustor to generate hot combustion gas from said warmed up gas turbine process fluid (GTPF) by burning fuel in said combustor, wherein said combustor is defined by a first shell element containing a main combustion zone, wherein said combustor is at least partly surrounded by a second shell element to provide an annular channel between said first shell element and said second shell element as a part of said first line, wherein said combustor comprises a burner upstream said main combustion zone, wherein said burner comprises main fuel nozzles to supply said fuel by said main fuel nozzles and at least one pilot injector to ignite and/or maintain combustion by said pilot injector, characterised in that said combustor comprises a central axis extending along a main flow direction of said gas turbine process fluid (GTPF) through said combustor, wherein said burner comprises several fuel injection devices respectively comprising the at least one pilot injector and the main fuel nozzles and respectively connected to a fuel supply line, wherein said fuel injection devices are arranged in an axial plane perpendicular to said central axis. - said assembly comprising a first line to conduct said gas turbine process fluid (GTPF) downstream a compression by said compressor to said heat exchanger, - said assembly comprising a second line to conduct said gas turbine process fluid (GTPF) from said heat exchanger to said combustor to generate hot combustion gas from said warmed up gas turbine process fluid (GTPF) by burning fuel in said combustor,