mhurhangee/ep-ind-claims huggingface dataset:
An implant having a main body consisting entirely or in parts: (i) of a biocorrodible iron alloy of formula Fe-P, wherein the amount of P in the alloy is from 0.01 to 5 % by weight, and Fe plus impurities due to the production process account for the remainder of the alloy up to 100 % by weight; or (ii) of a biocorrodible iron alloy of formula Fe-Mn-X, wherein the amount of Mn in the alloy is from 5 to 30 % by weight, X stands for one or more elements selected from the group Pt, Pd, Ir, Rh, Re, Ru and Os, and an amount of X in the alloy is from 0.01 to 10 % by weight, and Fe plus impurities due to the production process account for the remainder of the alloy up to 100 % by weight; or (iii) of a biocorrodible iron alloy of formula Fe-Z, wherein Z stands for one or more elements selected from the group Pt, Ir and Os, and an amount of Z in the alloy is 5 to 30 % by weight, and Fe plus impurities due to the production process account for the remainder of the alloy up to 100 % by weight. (i) of a biocorrodible iron alloy of formula Fe-P, wherein the amount of P in the alloy is from 0.01 to 5 % by weight, and Fe plus impurities due to the production process account for the remainder of the alloy up to 100 % by weight; or (ii) of a biocorrodible iron alloy of formula Fe-Mn-X, wherein the amount of Mn in the alloy is from 5 to 30 % by weight, X stands for one or more elements selected from the group Pt, Pd, Ir, Rh, Re, Ru and Os, and an amount of X in the alloy is from 0.01 to 10 % by weight, and Fe plus impurities due to the production process account for the remainder of the alloy up to 100 % by weight; or (iii) of a biocorrodible iron alloy of formula Fe-Z, wherein Z stands for one or more elements selected from the group Pt, Ir and Os, and an amount of Z in the alloy is 5 to 30 % by weight, and Fe plus impurities due to the production process account for the remainder of the alloy up to 100 % by weight.
Loading door for a laundry treatment machine, having a door frame and a decorative ring, which can be detachably connected to the door frame by means of corresponding door-frame-side and decorative-ring-side connecting elements, wherein the connecting elements (15, 16) enter into a connecting engagement through a rotary movement of the decorative ring relative to the door frame, a further rotary movement of the decorative ring relative to the door frame brings the connecting elements (15, 16) out of engagement again and at least one detachable fixing element prevents the further rotary movement if necessary, characterised in that the door frame has a first recess adjusted to the dimensions of the fixing element, into which the fixing element can be inserted, and the fixing element is a hinge bracket which can connect to the door frame.
A laser pumped lamp comprising: - a source adapted for emitting optical radiation along an optical path, - a transparent holder arranged in the optical path, wherein the transparent holder comprises a fluorescent body having a shape that is elongated in a predetermined direction, and a collecting unit adapted for transmitting at least a portion of optical radiation emitted by the fluorescent body to an output of the lamp, characterized in that the transparent holder has a thermal conductivity that is equal to or larger than 10 W/mK. - a source adapted for emitting optical radiation along an optical path, - a transparent holder arranged in the optical path, wherein the transparent holder comprises a fluorescent body having a shape that is elongated in a predetermined direction, and a collecting unit adapted for transmitting at least a portion of optical radiation emitted by the fluorescent body to an output of the lamp, characterized in that the transparent holder has a thermal conductivity that is equal to or larger than 10 W/mK.
Device for contacting at least one voltage-carrying line of a small-animal deterrent with a base which is set up to receive the or each voltage-carrying line, and with an electrically conductive contact plate designed also to have at least one contact element, which plate can be connected to the base such that, in an interconnected contact arrangement of base and contact plate, the or at least one contact element is electrically connected to the or at least one voltage-carrying line, characterised in that a cover part is present against to which the or each contact plate (175, 178) abuts and is attached on the outside, that the cover part is pivotably attached to the base via a hinge arrangement and that, in a closing position, the cover part is secured against unintended swivelling to the base via at least one catch arrangement, and holds the or each contact plate (175, 178) in contact arrangement with the base.
An anti-icing system for an annular inlet of a gas turbine engine comprising: a D-duct comprising an inlet lip and a bulkhead enclosing a mass of air within an annular space therebetween, the inlet lip having an inner lipskin and an outer lipskin; a high pressure source of hot gas; a conduit coupled at a first end to the high pressure source of hot gas, wherein an opposite end of the conduit penetrates the bulkhead at a penetration point; and an injector head (304; 900) within the D-duct coupled at the opposite end of the conduit and proximate the penetration point, the injector head (304; 900) in fluid communication with the high pressure source of hot gas; characterised in that the injector head (304; 900) comprises: a body having a first surface, a second surface (614; 914), a face, and an inlet; a sweeping jet nozzle having an exit port (724; 920) through the face, wherein the sweeping jet nozzle comprises a fluid oscillator defining a sweeping plane of the sweeping jet nozzle; and a distribution manifold within the body in fluid communication with the inlet and the sweeping jet nozzle, wherein a centerline of the sweeping jet nozzle is tangential to the inner lipskin. a D-duct comprising an inlet lip and a bulkhead enclosing a mass of air within an annular space therebetween, the inlet lip having an inner lipskin and an outer lipskin; a high pressure source of hot gas; a conduit coupled at a first end to the high pressure source of hot gas, wherein an opposite end of the conduit penetrates the bulkhead at a penetration point; and an injector head (304; 900) within the D-duct coupled at the opposite end of the conduit and proximate the penetration point, the injector head (304; 900) in fluid communication with the high pressure source of hot gas; characterised in that the injector head (304; 900) comprises: a body having a first surface, a second surface (614; 914), a face, and an inlet; a sweeping jet nozzle having an exit port (724; 920) through the face, wherein the sweeping jet nozzle comprises a fluid oscillator defining a sweeping plane of the sweeping jet nozzle; and a distribution manifold within the body in fluid communication with the inlet and the sweeping jet nozzle, wherein a centerline of the sweeping jet nozzle is tangential to the inner lipskin. a body having a first surface, a second surface (614; 914), a face, and an inlet; a sweeping jet nozzle having an exit port (724; 920) through the face, wherein the sweeping jet nozzle comprises a fluid oscillator defining a sweeping plane of the sweeping jet nozzle; and a distribution manifold within the body in fluid communication with the inlet and the sweeping jet nozzle, wherein a centerline of the sweeping jet nozzle is tangential to the inner lipskin.
An alkyl-modified vinyl acetal polymer obtained by subj ecting an alkyl-modified vinyl alcohol polymer to acetalization, the alkyl-modified vinyl alcohol polymer comprising a monomer unit represented by a general formula, the alkyl-modified vinyl alcohol polymer having: a viscosity average degree of polymerization P, determined in accordance with JIS K6726, of 150 or greater and 5,000 or less; a degree of saponification of 20 mol% or greater and 99.99 mol% or less; and a percentage of alkyl modification S, determined by proton NMR, with the monomer unit of 0.05 mol% or greater and 5 mol% or less, wherein, R 1 represents a linear or branched alkyl group having 10 to 29 carbon atoms; and R 2 represents a hydrogen atom or an alkyl group having 1 to 8 carbon atoms.
An Integrated Gasification Combined-Cycle system for retrofitting existing plants comprising: a pressure vessel (639, 739) comprising an internally-circulating fluidized bed carbonizer that forms a syngas and a char from a solid fuel, the carbonizer comprising a draft tube (650, 750), and a fluidized bed with an upper bed and a lower bed, wherein the upper bed is a thermal cracking fluidized bed, the lower bed is a carbonizing bed, and the lower bed is an annular bed that surrounds the draft tube (650, 750); a syngas cooler in communication with the carbonizer; a separator in communication with the syngas cooler that separates entrained char from the syngas; a char preparation system in communication with the separator configured to prepare the separated char to be injected into the carbonizer, the char preparation system comprising: a cooler configured to remove heat from the separated char, a pulverizer in communication with the cooler configured to pulverize the separated char, and an airlock in communication with the pulverizer; and an injector configured to receive the pulverized char from the char preparation system and wherein the system is configured such that the injector injects the pulverised char, along with a stream of air (610; 710) for combustion of the char, into an inlet of the draft tube (650; 750), whereby the pulverized char is burned to provide a source of heat to the carbonizer. a pressure vessel (639, 739) comprising an internally-circulating fluidized bed carbonizer that forms a syngas and a char from a solid fuel, the carbonizer comprising a draft tube (650, 750), and a fluidized bed with an upper bed and a lower bed, wherein the upper bed is a thermal cracking fluidized bed, the lower bed is a carbonizing bed, and the lower bed is an annular bed that surrounds the draft tube (650, 750); a syngas cooler in communication with the carbonizer; a separator in communication with the syngas cooler that separates entrained char from the syngas; a char preparation system in communication with the separator configured to prepare the separated char to be injected into the carbonizer, the char preparation system comprising: a cooler configured to remove heat from the separated char, a pulverizer in communication with the cooler configured to pulverize the separated char, and an airlock in communication with the pulverizer; and a cooler configured to remove heat from the separated char, a pulverizer in communication with the cooler configured to pulverize the separated char, and an airlock in communication with the pulverizer; and an injector configured to receive the pulverized char from the char preparation system and wherein the system is configured such that the injector injects the pulverised char, along with a stream of air (610; 710) for combustion of the char, into an inlet of the draft tube (650; 750), whereby the pulverized char is burned to provide a source of heat to the carbonizer.
A method for folding paper by means of a folding machine featuring a folding station, wherein a portion of a paper web being supplied to said folding machine is initially folded in a first stack containing continuous sheets and the thusly formed first stack is transferred into a stacker after a threshold value has been reached such that it remains in contact with another portion of the paper web via a folded intermediate region, and wherein a section of the folded intermediate region serves as a base for the next stack of continuous sheets to be folded thereon, characterized in that - the folded intermediate region is withdrawn out of the folding station from the first, already folded stack before the first stack is transferred into the stacker, - the folded intermediate region is returned into the folding station while the first stack is transferred into the stacker, - the already folded intermediate region, which was returned into the folding station, subsequently serves as a base for the next stack to be folded and - the process of withdrawing the folded intermediate region after reaching a threshold value of the next stack is repeated until the entire supplied paper web is completely folded. - the folded intermediate region is withdrawn out of the folding station from the first, already folded stack before the first stack is transferred into the stacker, - the folded intermediate region is returned into the folding station while the first stack is transferred into the stacker, - the already folded intermediate region, which was returned into the folding station, subsequently serves as a base for the next stack to be folded and - the process of withdrawing the folded intermediate region after reaching a threshold value of the next stack is repeated until the entire supplied paper web is completely folded.
An apparatus, comprising: a first measurement wire for coupling to a head of the arc welding apparatus and to a first input of a feedback circuit to provide the head voltage and noise induced on the first measurement wire to the feedback circuit; and a first reference wire for coupling to a first reference node of the arc welding apparatus and to a second input of the first feedback circuit to provide noise induced on the first reference wire to the feedback circuit, wherein the first reference node is proximate to and electrically isolated from the head of the arc welding apparatus; and being characterised by a first feedback circuit configured to provide a head voltage of an arc welding apparatus to a power supply of the arc welding apparatus, wherein the first feedback circuit is configured to determine the head voltage as a difference between the noise of the first reference wire and the head voltage and noise of the first measurement wire. a first measurement wire for coupling to a head of the arc welding apparatus and to a first input of a feedback circuit to provide the head voltage and noise induced on the first measurement wire to the feedback circuit; and a first reference wire for coupling to a first reference node of the arc welding apparatus and to a second input of the first feedback circuit to provide noise induced on the first reference wire to the feedback circuit, wherein the first reference node is proximate to and electrically isolated from the head of the arc welding apparatus; and being characterised by a first feedback circuit configured to provide a head voltage of an arc welding apparatus to a power supply of the arc welding apparatus, wherein the first feedback circuit is configured to determine the head voltage as a difference between the noise of the first reference wire and the head voltage and noise of the first measurement wire.
Pneumatic tyre for road vehicles comprising a tread portion comprising an outer layer made with a compound A having a dynamic modulus at 30 °C of between 5 and 15 MPa and a tanδ at 60 °C of between 0.400 and 0.100, and an inner layer made with a compound B having a dynamic modulus at 30 °C that is lower than that of said compound A of a value of between 0.5 and 10 MPa and a tanδ at 60 °C that is lower than that of said compound A of value of between 0.01 and 0.20, wherein the dynamic modulus and the tanδ of compounds A and B are measured in accordance with the ISO 4664 standard; said outer layer and said inner layer being in contact with each other by means of a connection surface; said pneumatic tyre being characterized in that said connection surface has a corrugated conformation that is such to provide an alternated plurality of interpenetrating longitudinal portions; each of said interpenetrating portions extending parallel to an axis of rotation X of the pneumatic tyre.
A method comprising: detecting, by a victim base station, a presence of an atmospheric duct event; triggering, by the victim base station, transmission of a victim reference signal (RS-1) in response to detecting the event; a first reporting, by the victim base station to a central entity, the event, wherein the first reporting includes an ID of the victim base station, wherein the central entity triggers an aggressor base station to begin reference signal monitoring; and a second reporting, by the aggressor base station to the central entity, a second event in response to detecting the victim reference signal (RS-1). detecting, by a victim base station, a presence of an atmospheric duct event; triggering, by the victim base station, transmission of a victim reference signal (RS-1) in response to detecting the event; a first reporting, by the victim base station to a central entity, the event, wherein the first reporting includes an ID of the victim base station, wherein the central entity triggers an aggressor base station to begin reference signal monitoring; and a second reporting, by the aggressor base station to the central entity, a second event in response to detecting the victim reference signal (RS-1).
Use of α2 Macroglobulin (A2M) as a biomarker for the differential diagnosis of schizophrenia or other psychotic disorder from a further psychiatric disorder.
A management device communicable with a plurality of terminals (SD1, SDn) configured to transmit data, with a plurality of destination devices (ASV1,ASVn,DBSV1,DBSVn) configured to perform respective predetermined processes based on the data transmitted from the terminals (SD1, SDn), and with a relay device arranged via networks between the terminals (SD1, SDn) and the destination devices (ASV1,ASVn,DBSV1,DBSVn), the management device comprising a processor and a memory coupled to the processor, wherein the processor is configured to: receive from the destination devices (ASV1,ASVn,DBSV1,DBSVn) a request regarding data required by individual ones of the destination devices (ASV1,ASVn,DBSV1,DBSVn), and store the request in the memory; and based on the request stored in the memory, generate a data integration instruction to instruct a relay device to integrate data items that are to be relayed to the destination devices (ASV1,ASVn,DBSV1,DBSVn) and transmit the data integration instruction to the relay device; determine a priority order for the destination devices (ASV1,ASVn,DBSV1,DBSVn); monitor performance of a network between the terminals (SD1, SDn) and the relay device or performance of a network between the relay device and the destination devices; and generate a data relay instruction that instructs the relay device to transmit the integrated data items to the destination devices (ASV1,ASVn,DBSV1,DBSVn) at a frequency of data transmission designated for each of the destination devices (ASV1,ASVn,DBSV1,DBSVn) based on the result of the monitoring and the priority order; and transmit the data relay instruction to the relay device. receive from the destination devices (ASV1,ASVn,DBSV1,DBSVn) a request regarding data required by individual ones of the destination devices (ASV1,ASVn,DBSV1,DBSVn), and store the request in the memory; and based on the request stored in the memory, generate a data integration instruction to instruct a relay device to integrate data items that are to be relayed to the destination devices (ASV1,ASVn,DBSV1,DBSVn) and transmit the data integration instruction to the relay device; determine a priority order for the destination devices (ASV1,ASVn,DBSV1,DBSVn); monitor performance of a network between the terminals (SD1, SDn) and the relay device or performance of a network between the relay device and the destination devices; and generate a data relay instruction that instructs the relay device to transmit the integrated data items to the destination devices (ASV1,ASVn,DBSV1,DBSVn) at a frequency of data transmission designated for each of the destination devices (ASV1,ASVn,DBSV1,DBSVn) based on the result of the monitoring and the priority order; and transmit the data relay instruction to the relay device.
A subscriber identity module (303a-c) for access to a cellular network, having: a memory in which a communication profile is stored, the communication profile having a network slice identifier of a network slice (321a-c) of the mobile phone network; and a communication interface configured to establish a communication connection to the network slice (321 a-c) of the mobile phone network using the network slice identifier, wherein the communication profile is an initialization profile and wherein the initialization profile is adapted to download a subscriber profile when accessing the mobile phone network, comprising a unique subscriber identifier. a memory in which a communication profile is stored, the communication profile having a network slice identifier of a network slice (321a-c) of the mobile phone network; and a communication interface configured to establish a communication connection to the network slice (321 a-c) of the mobile phone network using the network slice identifier, wherein the communication profile is an initialization profile and wherein the initialization profile is adapted to download a subscriber profile when accessing the mobile phone network, comprising a unique subscriber identifier.
A network node for performing control channel monitoring according to a first mode or a second mode, the network node being configured to: obtain configuration information indicating the first mode and/or the second mode; and perform control channel monitoring based on the obtained configuration information, wherein, in the first mode, the network node is configured to perform control channel monitoring on a slot basis by monitoring a predefined number of resources in a time slot and, in the second mode, the network node is configured to perform control channel monitoring on a sub-slot basis by monitoring a predefined number of resources in a sub-slot, and wherein the network node is configured to perform control channel monitoring according to a non-default setting if the configuration information indicates a non-default setting, or according to a default setting otherwise. obtain configuration information indicating the first mode and/or the second mode; and perform control channel monitoring based on the obtained configuration information, wherein, in the first mode, the network node is configured to perform control channel monitoring on a slot basis by monitoring a predefined number of resources in a time slot and, in the second mode, the network node is configured to perform control channel monitoring on a sub-slot basis by monitoring a predefined number of resources in a sub-slot, and wherein the network node is configured to perform control channel monitoring according to a non-default setting if the configuration information indicates a non-default setting, or according to a default setting otherwise.
Implant screw for a dental crown, with a one-piece rod-shaped screw body (1; 41) which has an external thread section (2; 42) and a support section (8; 48) adjacent to the former, wherein the external thread section (2; 42) is designed for screwing into a jawbone and wherein the support section (8; 48) is designed for fixing a dental crown, wherein the support section (8; 48) forms with an end section (6; 46) of the external thread section (2; 42) an annular surface in which is formed at least one recess (12; 52) for accommodating an axially protruding pin of the dental crown, wherein the support section has several contact faces, convex in shape, and spaced apart from one another by concavely-shaped keying surfaces.