mhurhangee/ep-ind-claims huggingface dataset:
A headlamp assembly (10,210) for a vehicle, comprising: a housing (15,215) for coupling the headlamp assembly (10,210) to a vehicle, the housing (15,215) including a reflector (20,21,220,221); a planar heat sink structure (25,225) having a first surface (35,235) and a second surface (36,236) a circuit board supported by the heat sink (25,225); a first light emitting diode assembly (65,265) supported by the first surface (35,235) of the heat sink structure (25,225) and a second light emitting diode assembly (90,290) supported by the second surface (36,236) of the heat sink structure (25,225), each of the first and second light emitting diode assemblies (65,90,265,290) being electrically connected to the circuit board; wherein the headlamp assembly (10,210) is adapted to emit a high beam and a low beam; wherein the headlamp assembly (10,210) is bisected by the planar heat sink structure (25,225); wherein the heat sink structure (25,225) is removably attached to the housing (15,215); and wherein the heat sink structure (25,225) includes a housing abutting edge (40,240) and a substantially straight edge (51,251), the housing abutting edge (40,240) being adapted to abut an inner surface of the housing (15,215) such that the housing (15,215) is bisected into first and second areas by the planar heat sink structure (25,225), characterized in that the housing abutting edge (40,240) of the heat sink structure (25,225) includes alignment ribs or alignment slots (50,250) positioned thereon for facilitating the attachment of the heat sink structure (25,225) to the housing (15,215). a housing (15,215) for coupling the headlamp assembly (10,210) to a vehicle, the housing (15,215) including a reflector (20,21,220,221); a planar heat sink structure (25,225) having a first surface (35,235) and a second surface (36,236) a circuit board supported by the heat sink (25,225); a first light emitting diode assembly (65,265) supported by the first surface (35,235) of the heat sink structure (25,225) and a second light emitting diode assembly (90,290) supported by the second surface (36,236) of the heat sink structure (25,225), each of the first and second light emitting diode assemblies (65,90,265,290) being electrically connected to the circuit board; wherein the headlamp assembly (10,210) is adapted to emit a high beam and a low beam; wherein the headlamp assembly (10,210) is bisected by the planar heat sink structure (25,225); wherein the heat sink structure (25,225) is removably attached to the housing (15,215); and wherein the heat sink structure (25,225) includes a housing abutting edge (40,240) and a substantially straight edge (51,251), the housing abutting edge (40,240) being adapted to abut an inner surface of the housing (15,215) such that the housing (15,215) is bisected into first and second areas by the planar heat sink structure (25,225), characterized in that the housing abutting edge (40,240) of the heat sink structure (25,225) includes alignment ribs or alignment slots (50,250) positioned thereon for facilitating the attachment of the heat sink structure (25,225) to the housing (15,215).
A protective helmet for a head, - comprising an outer shell, which is produced from a hard material, and - comprising an inner support device, which absorbs an impact to the head and which is arranged on the inner side of the outer shell, wherein the inner support device is divided into a shell-side insert and a head-side insert, and the sides of the head-side insert and of the shell-side insert, which face one other, correspond to one another at least partially, and the shell-side insert is rotatable from an initial position in at least one direction relative to the head-side insert, wherein, on the shell-side insert, at least one elevation is arranged, which engages with a recess, which is located on the head-side insert and which is larger than the elevation, and/or at least one elevation, which engages with a recess, which is located on the shell-side insert and which is larger than the elevation, is arranged on the head-side insert, characterized in that, in the initial position, the elevation at least partially touches at least one limiting means, wherein the limiting means is arranged at the insert, which encompasses a bore hole, and the limiting means is a web (20, 25, 32), a disk or a catch arm and the side of the head-side insert, which faces away from the head, at least partially encompasses a spherical surface. - comprising an outer shell, which is produced from a hard material, and - comprising an inner support device, which absorbs an impact to the head and which is arranged on the inner side of the outer shell, wherein the inner support device is divided into a shell-side insert and a head-side insert, and the sides of the head-side insert and of the shell-side insert, which face one other, correspond to one another at least partially, and the shell-side insert is rotatable from an initial position in at least one direction relative to the head-side insert, wherein, on the shell-side insert, at least one elevation is arranged, which engages with a recess, which is located on the head-side insert and which is larger than the elevation, and/or at least one elevation, which engages with a recess, which is located on the shell-side insert and which is larger than the elevation, is arranged on the head-side insert,
A method at a wireless device operating in a wireless communication network for performing inter-frequency measurements with respect to two or more frequency layers, said method comprising: receiving measurement configuration information from a node in the wireless communication network, said measurement configuration information indicating a first performance requirement based on a first cell detection strength threshold of Signal-to-Interference-plus-Noise Ratio, SINR, for making inter-frequency measurements on a first frequency layer and a different, second performance requirement based on a second cell detection strength threshold of SINR for making inter-frequency measurements on a second frequency layer; determining first and second measurement rates, i.e. number of measurement gaps per time unit, respectively, based on the first and second performance requirements; allocating measurement gaps for making inter-frequency measurements on the first and second frequency layers, respectively, in proportion to the first and second measurement rates; and performing inter-frequency measurements on the first and second frequency layers in the respectively allocated measurement gaps. receiving measurement configuration information from a node in the wireless communication network, said measurement configuration information indicating a first performance requirement based on a first cell detection strength threshold of Signal-to-Interference-plus-Noise Ratio, SINR, for making inter-frequency measurements on a first frequency layer and a different, second performance requirement based on a second cell detection strength threshold of SINR for making inter-frequency measurements on a second frequency layer; determining first and second measurement rates, i.e. number of measurement gaps per time unit, respectively, based on the first and second performance requirements; allocating measurement gaps for making inter-frequency measurements on the first and second frequency layers, respectively, in proportion to the first and second measurement rates; and performing inter-frequency measurements on the first and second frequency layers in the respectively allocated measurement gaps.
Light-emitting component having at least one substrate, a first electrode and a second electrode, and also an active layer, wherein the active layer comprises at least one ionic emitter complex, characterized in that the ionic emitter complex is configured for ligand-centered emission, - wherein the light-emitting component is an organic electrochemical cell, - wherein the ionic emitter complex comprises at least one central cation and at least one ligand coordinated thereto wherein the central cation is an alkali metal or alkaline earth metal cation or ammonium or substituted derivatives thereof, - wherein the at least one ligand is a small molecule, - wherein the small molecule is uncharged, and so the ionic emitter complex is positively charged, - wherein the ionic emitter complex is configured such that the proportion of ligand-centered emission is greater than the proportion of emission based on intermetallic transitions. - wherein the light-emitting component is an organic electrochemical cell, - wherein the ionic emitter complex comprises at least one central cation and at least one ligand coordinated thereto wherein the central cation is an alkali metal or alkaline earth metal cation or ammonium or substituted derivatives thereof, - wherein the at least one ligand is a small molecule, - wherein the small molecule is uncharged, and so the ionic emitter complex is positively charged, - wherein the ionic emitter complex is configured such that the proportion of ligand-centered emission is greater than the proportion of emission based on intermetallic transitions.
A method of identifying an electrical contact fault in a wind turbine blade electrical heating system, comprising: inserting a predetermined enforced off cycle between or within a switching duty cycle (301, 302), wherein the switching duty cycle (301, 302) controls the switching of one or more electrical contacts in the electrical heating system; measuring a current consumption during the predetermined enforced off cycle; determining if the measured current consumption exceeds a predetermined threshold; and performing a corrective action if the measured current consumption exceeds the predetermined threshold. inserting a predetermined enforced off cycle between or within a switching duty cycle (301, 302), wherein the switching duty cycle (301, 302) controls the switching of one or more electrical contacts in the electrical heating system; measuring a current consumption during the predetermined enforced off cycle; determining if the measured current consumption exceeds a predetermined threshold; and performing a corrective action if the measured current consumption exceeds the predetermined threshold.
A method of determining leakage rate of a compressed air system having a pressure sensor and a screw compressor driven by a frequency converter, wherein the method comprises setting a first pressure limit and a second pressure limit, the second pressure limit being higher than the first pressure limit, increasing the pressure of the compressed air system with the screw compressor until the pressure of the compressed air system reaches the second pressure limit, and during the increase of the pressure estimating the rotational speed of the screw compressor with the frequency converter at multiple of time instants, measuring the system pressure of the compressed air system at multiple of time instants, characterized in that the method comprises storing the determined rotational speed estimates and the measured system pressures together with timestamps, calculating the volume of the compressed air system from the determined rotational speed estimates and measured system pressures together with the stored timestamps and temperatures and pressures in the system at start and end of increase of the pressure and known constants, and letting the pressure to decrease from the compressed air system until the pressure falls to the first pressure limit, and measuring the system pressure at multiple of time instants during the decrease of the pressure, fitting an exponential curve on the pressure measurement data the exponential curve having a pressure decay coefficient, and using the pressure decay coefficient as a measure indicating the leaking condition of the compressed air system.
Method for manufacturing an aqueous solution of a (meth)acrylic comb-branched polymer functionalized by side-chains of the alcoxy- or hydroxy-polyalkylene glycol type, implementing the reaction between the (meth)acrylic acid and at least one alcoxy-or hydroxy-polyalkylene glycol macromonomer of formula: R - - - R' - EO and PO respectively designate ethylene oxide and propylene oxide, the EO and PO groups refer to random or block distribution, - R designates a polymerizable unsaturated group, - R' represents hydrogen or an alkyl group having 1 to 4 carbon atoms, and preferentially hydrogen, said macromonomer being characterized: - in that it exhibits a molecular weight between 1,000 g/mol and 10,000 g/mol, more preferentially between 2,000 and 6,000 g/mol, - and in that the mass percentage of the PO group compared to the EO and PO groups is between 20% and 90%, preferentially between 50% and 90%, the said reaction taking place in the presence of less than 40% by weight of water compared to the total weight of water and polymer. - EO and PO respectively designate ethylene oxide and propylene oxide, the EO and PO groups refer to random or block distribution, - R designates a polymerizable unsaturated group, - R' represents hydrogen or an alkyl group having 1 to 4 carbon atoms, and preferentially hydrogen, - in that it exhibits a molecular weight between 1,000 g/mol and 10,000 g/mol, more preferentially between 2,000 and 6,000 g/mol, - and in that the mass percentage of the PO group compared to the EO and PO groups is between 20% and 90%, preferentially between 50% and 90%,
Frame device for plug-in cutting electrical appliances, said frame device comprising a frame designed to receive a plug-in cutting electrical appliance and a plug-in system mounted in the frame, comprising a mechanical transmission mechanism designed to be functionally connected to such an appliance inserted in said frame and to be actuated in several transmission positions, each corresponding to a functional position of the appliance, a removable operating member for actuating the transmission mechanism when functionally inserted in an operating opening of the frame, a main locking mechanism comprising a first locking member movable between a closed position preventing insertion of the operating member into the operating opening and an open position allowing said insertion, and a second locking member that is movable manually between a first position blocking the first locking member in the closed position and a second position releasing said locking member, and an additional locking mechanism capable of being moved, in each transmission position, firstly when the first locking member is in any one of the first and second positions, into a locked state preventing the kinematic movement of the transmission mechanism, and secondly into an unlocked state permitting said movement, characterized in that the second locking member is able to cooperate with the additional locking mechanism and can be moved manually, when the first locking member is in the open position, into a third position actuating, by means of said cooperation, the additional locking mechanism so as to bring said locking mechanism to the unlocked state.
Valve device with a valve housing and with a main piston arranged axially displaceably in a piston bore of the valve housing by means of which a first load connection and a second load connection can be connected alternately to to a first pressure port and a tank port (T1, T2) by the action of a first magnetic actuating system and a second magnetic actuating system, wherein the main piston can be displaced out from a centred, preferably mean, neutral position for connection of the first load port to the pressure port and the second load port to the tank port in a first direction and for reversed fluid-carrying connection of the ports (A, B, P, T1, T2) in an opposite direction, wherein a first pilot chamber is provided, which acts on a first rear side of the main piston with a pressure force, and a second pilot chamber is provided, which acts on a second piston rear side with a pressure force, wherein the first and the second pilot chamber are connected by means of a fluid-carrying connection to the pressure port, and a first pilot piston and a second pilot piston are provided and wherein these pilot pistons (14, 16) open or close a fluid-carrying connection between the pilot chambers (10, 12) and the tank port (T1, T2) wherein, in an actuated state of the respective pilot piston (14, 16), the main piston follows due the balance of forces on it from the movement of this pilot piston (14, 16) and thus the fluid-carrying connection between the pilot chamber (10, 12) of this pilot piston (14, 16) and the associated tank port (T1, T2), so that pilot oil flows, characterised in that the respective pilot piston (14, 16) is designed as a hollow piston which, in each of its travel positions, males a permanent, fluid-carrying connection from the pressure port to the pilot chamber (10, 12) of this pilot piston (14, 16) and to the associated rear side of the main piston.
A method of operating a blast furnace by blowing at least a solid reducing material and a combustible gas into the furnace through tuyeres with a lance inserted into a blowpipe, characterized in that a tube-bundle type lance obtained by bundling a plurality of blowing tubes is used and when two kinds of a solid reducing material and a combustible gas or three kinds of a solid reducing material, a combustible gas and a gaseous reducing material is simultaneously blown into an inside of the blast furnace through a tube for blowing the solid reducing material, a tube for blowing the combustible gas and a tube for blowing the gaseous reducing material in the tube-bundle type lance, two or more tube-bundle type lances, each prepared by bundling plural blowing tubes (21, 22, 23) at a parallel state and housing them in an outer tube along its axial direction, are inserted into the blowpipe to approximate their front ends to each other and blowing is performed so that at least the blowing stream of the solid reducing material and the blowing stream of the combustible gas interfere with each other in the blowpipe.
A method of obtaining a cell population enriched for tumor-reactive T-cells, the method comprising: (a) obtaining a bulk population of T cells from a tumor sample; (b) specifically selecting CD8 + T cells that are 4-1BB+ /PD-1+ from the bulk population; and (c) separating the cells selected in (b) from unselected cells to obtain a cell population enriched for tumor-reactive T cells. (a) obtaining a bulk population of T cells from a tumor sample; (b) specifically selecting CD8 + T cells that are 4-1BB+ /PD-1+ from the bulk population; and (c) separating the cells selected in (b) from unselected cells to obtain a cell population enriched for tumor-reactive T cells.
Facility for air treatment for a vehicle, comprising at least one fan unit having at least as its components at least one fan motor, at least one fan wheel that can be driven by a fan motor, and at least one fan housing, wherein at least one surface region of the facility is provided to form a vehicle outer surface region, characterised in that the at least one fan unit comprises at least one electrically operable heating device configured such that at least one heating element of the electrically operable heating device is arranged in a respective finger guard arranged above the respective fan wheel or is arranged on the surface of the respective finger guard.
Method for preparing a compound of the formula where R 3 is selected from H and straight-chain, branched or cyclic C 1-12 -alkyl groups, (a) with the following steps: providing or preparing a compound of the formula where R 3 has the definition selected for formula, and also platinum-catalysed oxidation of the compound of the formula with gaseous oxygen to give the compound of the formula, wherein the platinum-catalysed oxidation step is carried out in an aqueous medium, at the start of the platinum-catalysed oxidation step the pH value is 7 or less than 7 and, on formation of the compound of the formula, decreases by at least 2 pH units. (a) with the following steps: providing or preparing a compound of the formula where R 3 has the definition selected for formula, and also platinum-catalysed oxidation of the compound of the formula with gaseous oxygen to give the compound of the formula, wherein the platinum-catalysed oxidation step is carried out in an aqueous medium, at the start of the platinum-catalysed oxidation step the pH value is 7 or less than 7 and, on formation of the compound of the formula, decreases by at least 2 pH units. where R 3 has the definition selected for formula, and also platinum-catalysed oxidation of the compound of the formula with gaseous oxygen to give the compound of the formula, wherein the platinum-catalysed oxidation step is carried out in an aqueous medium, at the start of the platinum-catalysed oxidation step the pH value is 7 or less than 7 and, on formation of the compound of the formula, decreases by at least 2 pH units.
A composition comprising: a poly(ester-carbonate-siloxane) copolymer; 1 to 5 wt% based on a total weight of the composition of a nanosilica having a D 50 particle size by volume of 5 to 50 nanometers measured as defined in the description; wherein the nanosilica has a hydrophobic coating; 1 to 10 wt% based on a total weight of the composition of a plurality of polysiloxane particles having a D 50 particle size by volume of 0.1 to 10 micrometers measured as defined in the description; and 0.005 to 5 wt% based on a total weight of the composition of a fluoropolymer. a poly(ester-carbonate-siloxane) copolymer; 1 to 5 wt% based on a total weight of the composition of a nanosilica having a D 50 particle size by volume of 5 to 50 nanometers measured as defined in the description; wherein the nanosilica has a hydrophobic coating; 1 to 10 wt% based on a total weight of the composition of a plurality of polysiloxane particles having a D 50 particle size by volume of 0.1 to 10 micrometers measured as defined in the description; and 0.005 to 5 wt% based on a total weight of the composition of a fluoropolymer.
A primary cloth for a tufted carpet comprising of a nonwoven fabric which is consisting of continuous filaments of more than 10 dtex in fineness; a shape of the continuous filament in the cross section has the following nearly 'Y4' shape which connects the bottom sides of nearly 'Y' parts to up, down, left and right; the continuous filament is consisting of polyester which has a nearly 'V' part of the nearly 'Y4' shape made of a low melting point polyester and a nearly '+' part excluding the nearly 'V' part made of a high melting point polyester; the continuous filaments are bonded one another by melting the low melting point polyester.