mhurhangee/ep-ind-claims huggingface dataset:
A heat pump apparatus, comprising: a compressor including a cylindrical shell, the compressor being configured to compress a refrigerant; and a shell heat exchanger including a helical conduit wound around an outer circumference of the shell, the shell heat exchanger being configured to transfer heat of the shell to a heating medium flowing through the conduit, characterized in that the shell heat exchanger includes: a plurality of segments (23b, 23c); and joining portions (23d, 23e; 23k, 23m) configured to connect end portions of adjacent segments (23b, 23c); the segments (23b, 23c) each at least partially have an arc-like shape along the outer circumference of the shell when viewed from an axial direction of the shell; the segments (23b, 23c) are removable in a radial direction of the shell when the joining portions (23d, 23e; 23k, 23m) are separated. a compressor including a cylindrical shell, the compressor being configured to compress a refrigerant; and a shell heat exchanger including a helical conduit wound around an outer circumference of the shell, the shell heat exchanger being configured to transfer heat of the shell to a heating medium flowing through the conduit, characterized in that the shell heat exchanger includes: a plurality of segments (23b, 23c); and joining portions (23d, 23e; 23k, 23m) configured to connect end portions of adjacent segments (23b, 23c); a plurality of segments (23b, 23c); and joining portions (23d, 23e; 23k, 23m) configured to connect end portions of adjacent segments (23b, 23c); the segments (23b, 23c) each at least partially have an arc-like shape along the outer circumference of the shell when viewed from an axial direction of the shell; the segments (23b, 23c) are removable in a radial direction of the shell when the joining portions (23d, 23e; 23k, 23m) are separated.
A method for turbine operation, comprising: determining current performance parameters of a turbine by modeling, by a primary model, the current performance parameters of the turbine, wherein modeling the current performance parameters of the turbine comprises modeling at least one of: (a) a condition associated with turbine degradation; or (b) a condition associated with turbine efficiency, and wherein the current performance parameters are provided to a predictive model and wherein the predictive model is based at least in part on at least one output from the primary model; characterized in that the method further comprises: providing at least one external factor for future operation of the turbine, wherein the at least one external factor comprises at least one of: (a) ambient temperature; (b) ambient pressure; (c) ambient humidity; or (d) fuel composition; modeling, by the predictive model, at least one operating characteristic of the turbine based at least in part on the current performance parameters of the turbine and the at least one external factor; and adjusting the current operation of the turbine based on the at least one operating characteristic modeled by the predictive model. determining current performance parameters of a turbine by modeling, by a primary model, the current performance parameters of the turbine, wherein modeling the current performance parameters of the turbine comprises modeling at least one of: (a) a condition associated with turbine degradation; or (b) a condition associated with turbine efficiency, and wherein the current performance parameters are provided to a predictive model and wherein the predictive model is based at least in part on at least one output from the primary model; characterized in that the method further comprises: providing at least one external factor for future operation of the turbine, wherein the at least one external factor comprises at least one of: (a) ambient temperature; (b) ambient pressure; (c) ambient humidity; or (d) fuel composition; modeling, by the predictive model, at least one operating characteristic of the turbine based at least in part on the current performance parameters of the turbine and the at least one external factor; and adjusting the current operation of the turbine based on the at least one operating characteristic modeled by the predictive model. providing at least one external factor for future operation of the turbine, wherein the at least one external factor comprises at least one of: (a) ambient temperature; (b) ambient pressure; (c) ambient humidity; or (d) fuel composition; modeling, by the predictive model, at least one operating characteristic of the turbine based at least in part on the current performance parameters of the turbine and the at least one external factor; and adjusting the current operation of the turbine based on the at least one operating characteristic modeled by the predictive model.
Cooking device having a housing and a cooking compartment which can be closed by a door, and having a guide apparatus which has at least one guiding rail to which the door is coupled and with which the door can be stowed into a receiving space into the housing when being moved into the open state, characterised in that the guide apparatus is designed to adjust the elevation of the door in the closed state relative to the housing, wherein the guiding rail is designed as a height adjustment device for adjusting the elevation of the door, wherein a lower wall panel of the guiding rail can be adjusted in height at least in sections to adjust the elevation of the door and wherein the wall panel is formed in the front region by an insert that can be moved in terms of height.
A sintered valve seat press-fitted into a cylinder head of an internal engine; said valve seat having a two-layer structure comprising a seat layer repeatedly abutting a valve face, and a support layer abutting bottom and inner peripheral surfaces of a valve-seat-press-fitting opening of a cylinder head; said seat layer containing at least one selected from Co-based hard particles and Fe-based hard particles in a matrix of Cu or its alloy; and said support layer containing at least one selected from Fe particles and Fe alloy particles in a matrix of Cu or its alloy.
A spray system comprising: a first fluid source (22a, 24a) configured to provide a first fluid; a second fluid source (22b, 24b) configured to provide a second fluid; a sprayer (28, 30) configured to combine and spray the first and second fluids; a first pump configured to pump the first fluid at a variable first pumping speed from the first fluid source (22a, 24a) to the sprayer; (28, 30); a second pump configured to pump the second fluid at a variable second pumping speed from the second fluid source (22b, 24b) to the sprayers (28, 30); a first pressure sensor disposed to sense a first output pressure of the first pump; and characterized by a controller configured to control the first pumping speed via a proportional-integral-derivative loop using the sensed first output pressure and a target spray pressure, and configured to command the second pumping speed to the first pumping speed times a target primary-to-secondary spray component flow ratio. a first fluid source (22a, 24a) configured to provide a first fluid; a second fluid source (22b, 24b) configured to provide a second fluid; a sprayer (28, 30) configured to combine and spray the first and second fluids; a first pump configured to pump the first fluid at a variable first pumping speed from the first fluid source (22a, 24a) to the sprayer; (28, 30); a second pump configured to pump the second fluid at a variable second pumping speed from the second fluid source (22b, 24b) to the sprayers (28, 30); a first pressure sensor disposed to sense a first output pressure of the first pump; and characterized by a controller configured to control the first pumping speed via a proportional-integral-derivative loop using the sensed first output pressure and a target spray pressure, and configured to command the second pumping speed to the first pumping speed times a target primary-to-secondary spray component flow ratio.
A piezoelectric drive, in particular for use in a moist environment, comprising: a housing having a chamber, which is hermetically sealed by an elastic membrane made of metal, a piezoelectric drive unit being arranged in the hermetically sealed chamber and adapted to be piezoelectrically deformed by electric actuation for driving a drive element, and the piezoelectric drive unit comprises at least one piezoelectric bending actuator generating, when electrically actuated, a bending deflection transversely to the elastic membrane, characterized in that the housing is made of metal and the elastic membrane is connected to the housing by soldering or welding.
A moulded plastic module suitable for use in a water screen or a conveyor belt, the module comprising first and second lengthwise ends, first and second hinge elements formed at the first and second lengthwise ends and defining widthwise first and second pivot axes (80, 81), respectively, a top surface extending between the first and second lengthwise ends, wherein the module is molded as one piece, and wherein a plurality of projections (20a-20c) are formed on the top surface, characterised by each projection having a plurality of fluid flow openings formed therein, wherein the fluid flow openings comprise slots elongated in the lengthwise direction of the module and a plurality of the slots extend continuously between two of the projections (20b, 20c).
A molding tool for forming and back-injecting a bendable sheet comprising - a mold, comprising a first mold half and a second mold half, wherein the first half is arranged opposite the second half forming a cavity for receiving the bendable sheet and a melt, and - at least one pin for holding and/or positioning the bendable sheet against the second half, wherein the pin is elastically mounted to or in the first mold half and points towards the second half of the mold, characterised in that the pin is retractable into the first mold half in response to a force exerted on the pin by a pressure of the injected melt during back injecting the bendable sheet and the at least one pin comprises a tiltably mounted head. - a mold, comprising a first mold half and a second mold half, wherein the first half is arranged opposite the second half forming a cavity for receiving the bendable sheet and a melt, and - at least one pin for holding and/or positioning the bendable sheet against the second half, wherein the pin is elastically mounted to or in the first mold half and points towards the second half of the mold,
A process for the oxidation of starch comprising the steps of: - providing a first root or tuber starch comprising at least 95 wt.% of amylopectin, based on dry substance of the starch; - providing a second root or tuber starch comprising from 65 to 85 wt.% of amylopectin, based on dry substance of the starch; and - subjecting the first and second starches to an oxidation treatment, wherein the first and second starches are blended before or after they are subjected to an oxidation treatment. - providing a first root or tuber starch comprising at least 95 wt.% of amylopectin, based on dry substance of the starch; - providing a second root or tuber starch comprising from 65 to 85 wt.% of amylopectin, based on dry substance of the starch; and - subjecting the first and second starches to an oxidation treatment,
A method for increasing the exhaust-gas temperature in the exhaust tract of a turbocharged multi-cylinder internal combustion engine having an exhaust-gas purification unit positioned downstream, having a heating device which can be activated when required and which is supplied with air from charge-pressure line of the internal combustion engine in phases in which the charge pressure is high enough that a defined and/or adequate amount of charge air can flow across into the heating device, wherein the heating device, for the supply of the air, is connected via a feed line to the charge-pressure line and a first throttle value is provided in the feed line, wherein the air heated in the heating device is introduced into the exhaust tract upstream of the exhaust-gas purification unit, wherein the heating device is supplied with a defined exhaust-gas stream from the exhaust-gas tract of the internal combustion engine at least in operating states of the internal combustion engine in which the charge pressure is not high enough that a defined and/or adequate amount of charge air can flow across into the heating device, wherein the exhaust-gas stream is branched off from an exhaust-gas line, in which a shut-off value is provided, upstream of the exhaust-gas turbine, characterized in that, with the first throttle value in the feed line closed, the shut-off value in the exhaust line is opened, and furthermore, a second throttle value, which is provided in a collecting line of an exhaust manifold, is activated such that an exhaust-gas quantity from only one cylinder of the internal combustion engine is conducted to the heating device.
An immunoglobulin single variable domain, which binds to TNFR1, and which is selected from any of the following amino acid sequences: (a) DOM1h-131-206 characterized by SEQ ID NO:16; and (b) an amino acid sequence that is at least 98%, 99% or 99,5% identical to the DOM1h-131-206 sequence shown in SEQ ID NO 1 and to which has been added an extension of a single alanine at the C terminus and which has reduced ADA binding as compared to the unmodified SEQ ID NO:1.
A heat exchanger comprising: a first manifold; a second manifold separated from the first manifold; a plurality of tube segments arranged in spaced parallel relationship and fluidly coupling the first manifold and the second manifold, the plurality of tube segments including a bend defining a first slab and a second slab, the second slab being arranged at an angle to the first slab; and a divider arranged within the first manifold to form a first manifold first section and a first manifold second section; and a divider arranged within the second manifold to form a second manifold first section and a second manifold second section; wherein the heat exchanger has a multi-pass configuration relative to an air flow including at least a first pass and a second pass, the first pass including a first portion of the plurality of tube segments and having a first flow orientation and the second pass including a second portion of the plurality of tube segments and having a second flow orientation, the second flow orientation being different than the first flow orientation, wherein a number of tube segments in the first portion and a number of tube segments in the second portion are different; characterised by a longitudinally elongated distributor insert being disposed within the second manifold second section. a first manifold; a second manifold separated from the first manifold; a plurality of tube segments arranged in spaced parallel relationship and fluidly coupling the first manifold and the second manifold, the plurality of tube segments including a bend defining a first slab and a second slab, the second slab being arranged at an angle to the first slab; and a divider arranged within the first manifold to form a first manifold first section and a first manifold second section; and a divider arranged within the second manifold to form a second manifold first section and a second manifold second section; wherein the heat exchanger has a multi-pass configuration relative to an air flow including at least a first pass and a second pass, the first pass including a first portion of the plurality of tube segments and having a first flow orientation and the second pass including a second portion of the plurality of tube segments and having a second flow orientation, the second flow orientation being different than the first flow orientation, wherein a number of tube segments in the first portion and a number of tube segments in the second portion are different; characterised by a longitudinally elongated distributor insert being disposed within the second manifold second section.
A reaction product of silicone resin polycondensate particles and polyvinyl chloride obtained by causing reaction of a material containing silicone resin polycondensate particles and a vinyl chloride monomer, the silicone resin polycondensate particles being obtained by causing reaction of a material mixture containing a first organosilicon compound having a structural unit represented by a formula below and serving as a siloxane, a second organosilicon compound represented by a formula below, a third organosilicon compound represented by a formula or formula below and a fourth organosilicon compound represented by a formula, formula, or formula below: in the formula, R1 and R2 each represent a phenyl group or a C1 to C3 alkyl group, and m represents an integer of from 1 to 20; CH 2 =CR3-(CH 2) p -SiR4 q 3-q... Formula in the formula, R3 represents a hydrogen atom or a methyl group, R4 and R5 each represent a hydrogen atom or a C1 to C3 alkyl group, p represents an integer of from 0 to 3, and q represents an integer of from 0 to 2; R6-Si 3... Formula in the formula, R6 and R7 each represent a C1 to C3 alkyl group; Si 4... Formula in the formula, R8 represents a C1 to C3 alkyl group; in the formula, R9 to R11 each represent an unsaturated hydrocarbon group or a C1 to C3 alkyl group, and R12 represents a hydrogen atom or a C1 to C3 alkyl group; in the formula, R13 to R18 each represent an unsaturated hydrocarbon group or a C1 to C3 alkyl group; in the formula, R19 to R21 each represent an unsaturated hydrocarbon group or a C1 to C3 alkyl group.
A device for protecting an articulation link between a driving shaft of a vehicle, for example a transmission shaft of a tractor, and a driven shaft, for example a driven shaft of a pulled tool, said protection device having a generally tubular body formed at one end by a fastening sleeve able to be secured to a part of a housing of the driving shaft, and at the opposite end by a concealing sleeve left free and able to overlap the articulation link, characterized in that at least one zone of the body of the protection device is made from an elastically deformable shape memory material, so as to allow a deformation of said body between a so-called security position in which the concealing sleeve overlaps the articulation link and a so-called access position in which the zone made from shape memory material is elastically deformed to at least partially expose the articulation link, without altering said material, the free end of the concealing sleeve being, in the so-called access position, turned over at least partially by a flap on the outer perimeter of the remaining zone of the tubular body.
A user equipment, UE,-initiated deregistration method by an access and mobility management function, AMF, in a wireless communication system, comprising: receiving a first message for requesting a deregistration from a user equipment, UE,, wherein the first message includes deregistration type information and first radio access type, RAT, information, wherein the deregistration type information informs whether the deregistration request is due to switch-off of the UE or not, wherein the first RAT information is related to a target RAT for the deregistration, and wherein the target RAT is a 3rd Generation Partnership Project, 3GPP, RAT, a non-3GPP RAT, or both the 3GPP and the non-3GPP RAT; transmitting a second message for requesting a release of a protocol data unit, PDU, session to a session management function, SMF, based on that the UE has the PDU session established based on the target RAT; and transmitting a deregistration accept message to the UE based on the deregistration type information. receiving a first message for requesting a deregistration from a user equipment, UE,, wherein the first message includes deregistration type information and first radio access type, RAT, information, wherein the deregistration type information informs whether the deregistration request is due to switch-off of the UE or not, wherein the first RAT information is related to a target RAT for the deregistration, and wherein the target RAT is a 3rd Generation Partnership Project, 3GPP, RAT, a non-3GPP RAT, or both the 3GPP and the non-3GPP RAT; transmitting a second message for requesting a release of a protocol data unit, PDU, session to a session management function, SMF, based on that the UE has the PDU session established based on the target RAT; and transmitting a deregistration accept message to the UE based on the deregistration type information.
Facade assembly for a building, comprising at least one facade element which can be fastened to a wall or to an inter-story ceiling of the building, and comprising at least one fire protection element which can be mounted between the facade element and the wall or the inter-story ceiling, the fire protection element comprising an insulation layer and at least one angle profile having two flanges (34, 36) arranged at an angle with respect to one another, one of the flanges of the angle profile being fastened to the facade element and the other flange of the angle profile abutting the insulation layer, characterized in that the angle profile is formed from an intumescent material or coated with an intumescent material at least in part.
A resin-coated carrier for an electrophotographic developer, comprising: a carrier core particle, wherein the core is selected from an iron powder core, a magnetite core, a resin carrier core, and a ferrite core; and a coating resin layer comprising a silicone resin or a modified silicone resin formed on a surface of the carrier core particle, wherein a titanium-ethyl acetoacetate chelate or a titanium-octylene glycol chelate is contained in the coating resin layer as a titanium chelate, wherein the content of the titanium-ethyl acetoacetate chelate or the titanium-octylene glycol chelate is 5.0 to 50.0% by weight based on coating resin solids, and wherein a charge control agent, an adhesion improver, and a crosslinking agent are contained in the coating resin layer, and wherein the charge control agent is an aminosilane coupling agent, the content thereof being 1.0 to 30.0% by weight based on coating resin solids; the adhesion improver is an epoxy group-containing silane coupling agent, the content thereof being 0.05 to 10.0% by weight based on coating resin solids; and the crosslinking agent is methyltris(methylethylketoxime)silane and/or vinyltris(methylethylketoxime)silane, the content thereof being 0.05 to 10.0% by weight based on coating resin solids. a carrier core particle, wherein the core is selected from an iron powder core, a magnetite core, a resin carrier core, and a ferrite core; and a coating resin layer comprising a silicone resin or a modified silicone resin formed on a surface of the carrier core particle, wherein a titanium-ethyl acetoacetate chelate or a titanium-octylene glycol chelate is contained in the coating resin layer as a titanium chelate, wherein the content of the titanium-ethyl acetoacetate chelate or the titanium-octylene glycol chelate is 5.0 to 50.0% by weight based on coating resin solids, and wherein a charge control agent, an adhesion improver, and a crosslinking agent are contained in the coating resin layer, and wherein the charge control agent is an aminosilane coupling agent, the content thereof being 1.0 to 30.0% by weight based on coating resin solids; the adhesion improver is an epoxy group-containing silane coupling agent, the content thereof being 0.05 to 10.0% by weight based on coating resin solids; and the crosslinking agent is methyltris(methylethylketoxime)silane and/or vinyltris(methylethylketoxime)silane, the content thereof being 0.05 to 10.0% by weight based on coating resin solids.