mhurhangee/ep-ind-claims huggingface dataset:
Molding process of a disposable element composed of high-impact polystyrene, and obtained through at least one injection molding system equipped with at least one press element, said press element being equipped with at least one temperature regulating element adapted to regulate at least one temperature value of the walls of at least one die of said press element, depending on at least one temperature value of said high-impact polystyrene injected in said die, said molding process comprising the steps of: - providing said press element of said molding system; - providing at least one die inside said press element of said molding system; - activating said temperature regulating element; - injecting said high-impact polystyrene inside said die in liquid phase with at least one starting temperature value of 200°C; - contacting said high-impact polystyrene with the walls of said die having a temperature lower than that of said high-impact polystyrene; - starting at least one cooling process of the high-impact polystyrene inside said die; characterized in that it further comprises the steps of: - evaluating by said regulating element a difference between a temperature value of the high-impact polystyrene and a temperature value of said walls of said die, and obtaining at least one difference value; - if said difference value is not equal to at least one reference value, regulating, by said regulating element, said temperature value of said walls of said die in a temperature range included between 40°C and 70°C; - if said difference value is equal to said reference value, continuing said cooling process of said high-impact polystyrene inside said die; - activating a plurality of extractors; and - expelling said disposable element from said die. - providing said press element of said molding system; - providing at least one die inside said press element of said molding system; - activating said temperature regulating element; - injecting said high-impact polystyrene inside said die in liquid phase with at least one starting temperature value of 200°C; - contacting said high-impact polystyrene with the walls of said die having a temperature lower than that of said high-impact polystyrene; - starting at least one cooling process of the high-impact polystyrene inside said die; - evaluating by said regulating element a difference between a temperature value of the high-impact polystyrene and a temperature value of said walls of said die, and obtaining at least one difference value; - if said difference value is not equal to at least one reference value, regulating, by said regulating element, said temperature value of said walls of said die in a temperature range included between 40°C and 70°C; - if said difference value is equal to said reference value, continuing said cooling process of said high-impact polystyrene inside said die; - activating a plurality of extractors; and - expelling said disposable element from said die.
An organic light emitting diode, OLED, array substrate, comprising: gate lines, data lines, and a plurality of pixel units defined by the gate lines and the data lines, wherein each pixel unit comprises a first region which emits light, a second region which is transparent and a third region which is non-transparent, the first region is provided with an organic light emitting diode, the second region is provided with a conductive unit, the conductive unit is connected to the data lines arranged at a same layer with a source/drain electrode through a via-hole penetrating through a planarization layer in the third region, and the source/drain electrode is made of a metal material; from a cross sectional view of the OLED array substrate along a direction perpendicular to a base substrate, each of the first region, the second region and the third region is provided with a gate insulating layer, an interlayer insulating layer, a passivation layer and a planarization layer; the first region is further provided with a gate electrode, the source/drain electrode, an anode and a cathode; and the third region is further provided with the data lines arranged at the same layer with the source/drain electrode, and the conductive unit. wherein each pixel unit comprises a first region which emits light, a second region which is transparent and a third region which is non-transparent, the first region is provided with an organic light emitting diode, the second region is provided with a conductive unit, the conductive unit is connected to the data lines arranged at a same layer with a source/drain electrode through a via-hole penetrating through a planarization layer in the third region, and the source/drain electrode is made of a metal material; from a cross sectional view of the OLED array substrate along a direction perpendicular to a base substrate, each of the first region, the second region and the third region is provided with a gate insulating layer, an interlayer insulating layer, a passivation layer and a planarization layer; the first region is further provided with a gate electrode, the source/drain electrode, an anode and a cathode; and the third region is further provided with the data lines arranged at the same layer with the source/drain electrode, and the conductive unit.
An apparatus (218, 318, 418), comprising: an elongate carrier member having first and second portions (205, 207); and a plurality of stimulating contacts disposed along at least a first surface of the second portion, characterized in that the carrier member comprises a transition region (202, 302, 402) having a generally zigzag or sinuous shape such that the second portion of the elongate carrier member is offset from the first portion of the carrier member, and the elongate carrier member is an intra-cochlea carrier member and the transition region (202, 302, 402) is configured so that, after insertion into a recipient's cochlea, the transition region (202, 302, 402) prevents movement of the apparatus (218, 318, 418) out of the cochlea (240, 340, 440). an elongate carrier member having first and second portions (205, 207); and a plurality of stimulating contacts disposed along at least a first surface of the second portion, characterized in that the carrier member comprises a transition region (202, 302, 402) having a generally zigzag or sinuous shape such that the second portion of the elongate carrier member is offset from the first portion of the carrier member, and the elongate carrier member is an intra-cochlea carrier member and the transition region (202, 302, 402) is configured so that, after insertion into a recipient's cochlea, the transition region (202, 302, 402) prevents movement of the apparatus (218, 318, 418) out of the cochlea (240, 340, 440).
A pressure detection device, configured to detect pressure intensity in a sealed cavity defined by a lid and a housing, and comprising: a pressure sensing assembly comprising a fixed part comprising a first coil and a movable part comprising a movable magnetic core, in which the movable magnetic core is configured to move relative to the first coil when a pressure change in the sealed cavity is sensed, so as to cause an inductance value of the first coil to change; and a detection unit connected with the pressure sensing assembly, and configured to acquire the pressure intensity in the sealed cavity according to a current sensing parameter of the pressure sensing assembly, wherein the detection unit comprises: a first coupling coil disposed in the lid; and a second coupling coil disposed in the housing and wirelessly coupled with the first coupling coil, wherein one of the second coupling coil and the first coupling coil is connected with the pressure sensing assembly a first capacitor connected in parallel with the first coil to constitute a first resonant circuit; a first induction coil serving as the first coupling coil, and connected in parallel or in series with the first coil in the first resonant circuit; and a first detection assembly configured to detect a resonant frequency of the first resonant circuit and acquire the pressure intensity in the sealed cavity according to the resonant frequency of the first resonant circuit. a pressure sensing assembly comprising a fixed part comprising a first coil and a movable part comprising a movable magnetic core, in which the movable magnetic core is configured to move relative to the first coil when a pressure change in the sealed cavity is sensed, so as to cause an inductance value of the first coil to change; and a detection unit connected with the pressure sensing assembly, and configured to acquire the pressure intensity in the sealed cavity according to a current sensing parameter of the pressure sensing assembly, wherein the detection unit comprises: a first coupling coil disposed in the lid; and a second coupling coil disposed in the housing and wirelessly coupled with the first coupling coil, wherein one of the second coupling coil and the first coupling coil is connected with the pressure sensing assembly a first coupling coil disposed in the lid; and a second coupling coil disposed in the housing and wirelessly coupled with the first coupling coil, wherein one of the second coupling coil and the first coupling coil is connected with the pressure sensing assembly a first capacitor connected in parallel with the first coil to constitute a first resonant circuit; a first induction coil serving as the first coupling coil, and connected in parallel or in series with the first coil in the first resonant circuit; and a first detection assembly configured to detect a resonant frequency of the first resonant circuit and acquire the pressure intensity in the sealed cavity according to the resonant frequency of the first resonant circuit.
An aqueous flame retardant dispersion comprising water; a brominated flame retardant which has an average particle size in the range of about 0.1 μm to about 20 μm, wherein the brominated flame retardant contains aromatically-bound bromine and is selected from a) brominated styrenic polymers which have weight average molecular weights of about 650 to about 950,000 and a bromine content of about 60 wt% or more, and/or b) a brominated anionic chain transfer vinyl aromatic polymer which contains about 70 wt% or more bromine; at least one dispersant; at least one wetting agent; and at least one thickener; wherein the flame retardant dispersion contains about 25 wt% or more brominated flame retardant, based on the total weight of the dispersion. a brominated flame retardant which has an average particle size in the range of about 0.1 μm to about 20 μm, wherein the brominated flame retardant contains aromatically-bound bromine and is selected from a) brominated styrenic polymers which have weight average molecular weights of about 650 to about 950,000 and a bromine content of about 60 wt% or more, and/or b) a brominated anionic chain transfer vinyl aromatic polymer which contains about 70 wt% or more bromine; at least one dispersant; at least one wetting agent; and at least one thickener; wherein the flame retardant dispersion contains about 25 wt% or more brominated flame retardant, based on the total weight of the dispersion.
Grinding machine for the complete machining of workpieces having a central bore (14.3), planar (14.1, 14.2) and/or non-planar (14.4) outer faces, said machine having a first grinding headstock with an external grinding wheel (3.1, 4.1) for machining the outer faces (14.1, 14.2, 14.4), a workpiece headstock for clamping the workpiece (14, 15), and a second grinding headstock with an internal grinding wheel (19.1) for machining the inner face of the bore (14.3), wherein the workpiece is able to be clamped in a first clamping position on a central axis (10.1) in a chuck of the workpiece headstock in order to be machined on at least a first (14.1) of the planar outer faces facing in the direction of the second grinding headstock and the bore (14.3), characterized in that the second grinding headstock bears a clamping device which is displaceable with regard to its central axis (20.1) such that it is retractable into the already ground bore (14.3) in the workpiece and the workpiece is able to be clamped there by the clamping device in a second clamping position in which the central axis (20.1) of the clamping device in the second clamping position is aligned with the central axis (10.1) of the chuck in the first clamping position and both clamping positions exist at least partially at the same time, wherein, after the first clamping position has been released, at least a second (14.2) of the planar outer faces facing in the direction of the workpiece headstock is able to be ground in the second clamping position by means of the external grinding wheel (3.1).
A method for analysing the composition of a gaseous mixture, preferably a gaseous stream, comprising at least two gaseous components, one of which is methane, the method comprising - contacting the gaseous mixture with a sensor, wherein the sensor comprises a sensor array comprising at least two sensor elements, wherein each of said sensor elements comprises a transducer coated with a coating comprising a polymeric material having at least one property that is responsive to one or more of said gaseous components when exposed thereto, wherein said sensor elements differ at least in the composition of the coating, wherein the coating of at least one sensor element comprises a compound with a selectivity for absorption of methane over ethane, and the coating of at least one other sensor element comprises a compound with a selectivity for absorption of ethane and/or propane over methane, - providing an energy input to said transducers that is converted to output signals based on said property, and - obtaining said output signals, wherein optionally said output signals are data signals, wherein the method is for determining the calorific value of said gaseous mixture. - contacting the gaseous mixture with a sensor, wherein the sensor comprises a sensor array comprising at least two sensor elements, wherein each of said sensor elements comprises a transducer coated with a coating comprising a polymeric material having at least one property that is responsive to one or more of said gaseous components when exposed thereto, wherein said sensor elements differ at least in the composition of the coating, wherein the coating of at least one sensor element comprises a compound with a selectivity for absorption of methane over ethane, and the coating of at least one other sensor element comprises a compound with a selectivity for absorption of ethane and/or propane over methane, - providing an energy input to said transducers that is converted to output signals based on said property, and - obtaining said output signals, wherein optionally said output signals are data signals,
A medical device, comprising: a flexible elongate member (13; 913) including a longitudinal axis (16; 916); and a tool (11; 601; 701; 801; 911) connected to the elongate member (13; 913) near a pivot (215; 915; 1015; 1115), wherein the tool (11; 601; 701; 801; 911) is extendable and retractable relative to the pivot (215; 915; 1015; 1115), is configured for at least one of suction and infusion, and said tool being characterized in that it is configured to pivot towards both sides of the longitudinal axis (16; 916) relative to the elongate member (13; 913) at the pivot (215; 915; 1015; 1115). a flexible elongate member (13; 913) including a longitudinal axis (16; 916); and a tool (11; 601; 701; 801; 911) connected to the elongate member (13; 913) near a pivot (215; 915; 1015; 1115), wherein the tool (11; 601; 701; 801; 911) is extendable and retractable relative to the pivot (215; 915; 1015; 1115), is configured for at least one of suction and infusion, and said tool being characterized in that it is configured to pivot towards both sides of the longitudinal axis (16; 916) relative to the elongate member (13; 913) at the pivot (215; 915; 1015; 1115).
A polycarbonate diol, comprising: repeating units represented by formula, formula and formula; and hydroxyl groups located at both terminals of the polycarbonate diol, wherein the molar ratio of formula to formula is from 1:99 to 99:1, and the molar ratio of the sum of formula and formula to formula is from 25:75 to 99:1, wherein: R 1 represents a C 2 -C 20 alkylene group excluding an alkylene group derived from 2-methyl-1,3-propanediol; R 2 represents a linear or branched C 2 -C 20 alkylene group; R 3 represents a linear or branched C 2 -C 10 alkylene group; and m and n are independently an integer from 0 to 10, and m + n ≥ 1. R 1 represents a C 2 -C 20 alkylene group excluding an alkylene group derived from 2-methyl-1,3-propanediol; R 2 represents a linear or branched C 2 -C 20 alkylene group; R 3 represents a linear or branched C 2 -C 10 alkylene group; and m and n are independently an integer from 0 to 10, and m + n ≥ 1.
Anchor for mounting in planar building components made in a supporting-core-type of construction comprising first and second cover sheets (101 and 111, respectively) and at least one supporting core layer therebetween, said anchor to be inserted in a recess extending through the first cover sheet and through the supporting core layer in the form of a blind hole in parts of second cover sheet, with - the anchor comprising at least one spreader body and at least one wedge body, - the wedge body inserted at least partly into the spreader body having therein an opening for receiving a fastener screwed or struck thereinto, - the anchor being adapted to be inserted in recess, - the spreader body having at least two spreadable grip-behind elements, at least one locking zone and a support zone, - the wedge body having at least one cylindrical zone, at least one wedge zone and at least one locking zone, - the cylindrical zone being adapted to engage bore in first cover sheet, - the grip-behind elements of spreader body being adapted to be spread by wedge zone behind the first cover sheet to engage the latter, - the locking zones (40, 90) being adapted to interlockingly engage each other, and - the support zone of spreader body being adapted to at least radially engage the blind recess in second cover sheet. - the anchor comprising at least one spreader body and at least one wedge body, - the wedge body inserted at least partly into the spreader body having therein an opening for receiving a fastener screwed or struck thereinto, - the anchor being adapted to be inserted in recess, - the spreader body having at least two spreadable grip-behind elements, at least one locking zone and a support zone, - the wedge body having at least one cylindrical zone, at least one wedge zone and at least one locking zone, - the cylindrical zone being adapted to engage bore in first cover sheet, - the grip-behind elements of spreader body being adapted to be spread by wedge zone behind the first cover sheet to engage the latter, - the locking zones (40, 90) being adapted to interlockingly engage each other, and - the support zone of spreader body being adapted to at least radially engage the blind recess in second cover sheet.
Valve apparatus, in particular a proportional pressure control valve with a valve piston mounted such that it can be displaced in a longitudinal direction in a valve housing, said valve piston connecting a service port to a pressure supply port and to a tank or return port depending on its displacement position, and which can be controlled by means of an actuating device, particularly in the form of an actuating magnet through which current can pass, characterised in that a control device is provided between the valve piston and the actuating device, which allows the valve piston to be depressurised on its piston side facing the actuating device in the direction of the tank or return port in such a way that the valve piston is displaced in the direction of the actuating device at the supply and/or service port pressure that can be set during operation when said actuating device is not actuated.
A method of wireless communications for a user equipment, UE, comprising: receiving, from a base station, information indicative of a narrowband time-division duplex, TDD, frame structure of a group of TDD frame structures for narrowband communications; determining a first set of subframes in the TDD frame structure for receiving a downlink control channel from the base station, a last subframe in the first set of subframes being subframe n; determining a second set of subframes in the TDD frame structure used for receiving a downlink data channel from the base station, a first subframe in the second set of subframes being delayed based on k o number of subframes after the subframe n, a last subframe in the second set of subframes being subframe n + k o + x, x being an integer number; receiving, from the base station, first information associated with the k o number of subframes from the base station in a first delay field and second information associated with m o number of subframes in a second delay field in a downlink control information, DCI, transmission; and transmitting an acknowledgement / negative acknowledgement, ACK/NACK, associated with the downlink data channel in an uplink subframe in the TDD subframe structure, the uplink subframe being delayed m o number of subframes after the subframe n + k o + x, the m o number of subframes including at least one of a number of downlink subframes or a number of uplink subframes. receiving, from a base station, information indicative of a narrowband time-division duplex, TDD, frame structure of a group of TDD frame structures for narrowband communications; determining a first set of subframes in the TDD frame structure for receiving a downlink control channel from the base station, a last subframe in the first set of subframes being subframe n; determining a second set of subframes in the TDD frame structure used for receiving a downlink data channel from the base station, a first subframe in the second set of subframes being delayed based on k o number of subframes after the subframe n, a last subframe in the second set of subframes being subframe n + k o + x, x being an integer number; receiving, from the base station, first information associated with the k o number of subframes from the base station in a first delay field and second information associated with m o number of subframes in a second delay field in a downlink control information, DCI, transmission; and transmitting an acknowledgement / negative acknowledgement, ACK/NACK, associated with the downlink data channel in an uplink subframe in the TDD subframe structure, the uplink subframe being delayed m o number of subframes after the subframe n + k o + x, the m o number of subframes including at least one of a number of downlink subframes or a number of uplink subframes.