mhurhangee/ep-ind-claims huggingface dataset:
Exhaust gas treatment device for an exhaust system of an internal combustion engine, in particular in a motor vehicle, comprising: - at least one exhaust gas treatment element which is supported radially on a housing by a bearing material and is supported axially on the housing by a supporting device, - the supporting device comprising a carrier which is connected to the housing at at least one connecting point and has at least one receptacle for holding a supporting material which is in axial contact with the exhaust gas treatment element, the carrier comprising in the axial direction a cross-sectional contour which widens from the respective receptacles to the respective connecting points, characterised in that the carrier is attached to the housing at a plurality of connecting points which are spaced apart from one another in the circumferential direction, the carrier being spaced apart from the housing between adjacent connecting points, and in that the carrier is formed so as to be dome-shaped or arch-shaped between adjacent connecting points. - at least one exhaust gas treatment element which is supported radially on a housing by a bearing material and is supported axially on the housing by a supporting device, - the supporting device comprising a carrier which is connected to the housing at at least one connecting point and has at least one receptacle for holding a supporting material which is in axial contact with the exhaust gas treatment element, the carrier comprising in the axial direction a cross-sectional contour which widens from the respective receptacles to the respective connecting points, characterised in that the carrier is attached to the housing at a plurality of connecting points which are spaced apart from one another in the circumferential direction, the carrier being spaced apart from the housing between adjacent connecting points, and in that the carrier is formed so as to be dome-shaped or arch-shaped between adjacent connecting points.
Block formation device for a distributed database system comprising a number of node devices (20, 30-32), having: a first unit for selecting a number of transactions to be confirmed from a number of unconfirmed transactions provided in the distributed database system; a second unit for forming an unconfirmed block (61, 62) from the selected number of unconfirmed transactions, wherein a respective selected unconfirmed transaction is inspected in terms of validity and discarded in the event of a failed inspection, and otherwise is incorporated into the unconfirmed block (61, 62), and for providing the unconfirmed block (61, 62) in the distributed database system; and a third unit for receiving a timing cycle from a time source and for determining time slices of a predefined length (ΔT) on the basis of the timing cycle; wherein the first unit and the second unit are configured so as to perform the selection, the formation and the provision exactly once within a respective time slice. a first unit for selecting a number of transactions to be confirmed from a number of unconfirmed transactions provided in the distributed database system; a second unit for forming an unconfirmed block (61, 62) from the selected number of unconfirmed transactions, wherein a respective selected unconfirmed transaction is inspected in terms of validity and discarded in the event of a failed inspection, and otherwise is incorporated into the unconfirmed block (61, 62), and for providing the unconfirmed block (61, 62) in the distributed database system; and a third unit for receiving a timing cycle from a time source and for determining time slices of a predefined length (ΔT) on the basis of the timing cycle; wherein the first unit and the second unit are configured so as to perform the selection, the formation and the provision exactly once within a respective time slice.
Method for producing a machine component for an electrical machine, wherein the machine component is configured having a magnetically conducting material in which one or a plurality of magnetically non-conducting separation regions are provided, wherein the separation region by incorporating austenite-forming material in a fusing procedure of the magnetically conducting material of the machine component is formed such that an austenitic microstructure is formed in the magnetically conducting material of the machine component, wherein a doping element is applied in or to a barrier region between two opposite peripheries of the machine component, wherein the peripheries are mutually connected by the fusing procedure and the austenite-forming material of the doping element conjointly with the magnetically conducting material of the machine component forms the austenitic microstructure.
Arrangement for transmitting data and/or signals between a transmission control unit and a plurality of actuator control units (2A, 2B, 2C) for locally controlling adjusting movements for actuating switching devices, - at least one wireless communication transmission device (4, 5) being provided between the transmission control unit and the actuator control units (2A, 2B, 2C), said communication transmission device comprising at least one communication interface on the side of the transmission control unit and at least one communication interface on the side of the actuator control units, which interfaces wirelessly communicate with one another via a capacitive, inductive and/or optical transmission path, - the communication interface on the side of the actuator control units being connected to the actuator control units (2A, 2B, 2C) via a wired data bus, - the actuator control units (2A, 2B, 2C) and the communication interface on the side of the actuator control units being arranged in a movable manner relative to the transmission control unit. - at least one wireless communication transmission device (4, 5) being provided between the transmission control unit and the actuator control units (2A, 2B, 2C), said communication transmission device comprising at least one communication interface on the side of the transmission control unit and at least one communication interface on the side of the actuator control units, which interfaces wirelessly communicate with one another via a capacitive, inductive and/or optical transmission path, - the communication interface on the side of the actuator control units being connected to the actuator control units (2A, 2B, 2C) via a wired data bus, - the actuator control units (2A, 2B, 2C) and the communication interface on the side of the actuator control units being arranged in a movable manner relative to the transmission control unit.
A method for manufacturing decorative surfaces including, in order, the steps of: a) inkjet printing and UV curing an image on a first thermoplastic foil using a pigmented UV curable inkjet ink; b) applying a second thermoplastic foil on the inkjet printed image; and c) heat pressing the first and second thermoplastic foils into a decorative laminate; wherein the pigmented UV curable inkjet ink contains a polymerizable composition having 35 to 70 wt% of monofunctional polymerizable compounds and 30 to 65 wt% of polyfunctional polymerizable compounds, wherein the weight percentage wt% is based on the total weight of the polymerizable composition; wherein the pigmented UV curable inkjet ink contains a pigment in an amount of 0.1 to 20 wt% based on the total weight of the pigmented UV curable inkjet ink; and wherein at least one of the first and second thermoplastic foils is a transparent foil. a) inkjet printing and UV curing an image on a first thermoplastic foil using a pigmented UV curable inkjet ink; b) applying a second thermoplastic foil on the inkjet printed image; and c) heat pressing the first and second thermoplastic foils into a decorative laminate;
A control system for a vehicle including an engine having a plurality of cylinders, a catalyst provided in an exhaust pipe of the engine, and an automatic transmission that transmits power from the engine toward driving wheels, the control system comprising a fuel injection device, a throttle valve and an electronic control unit configured to: (i) perform torque down control to reduce torque of the engine by cutting off fuel supply to at least one of the cylinders of the engine during an inertia phase of a power-on upshift, (ii) perform a control for setting the throttle opening during execution of the torque down control, when an amount of nitrogen oxides deposited on the catalyst is larger than a given value, the control for setting the throttle opening including any one of the following: (a) setting the throttle opening to be smaller than a first value by a reduction degree, the first value being a throttle opening before the execution of the torque down control, and (b) setting the throttle opening to be smaller than a second value by the reduction degree, the second value being an increased throttle opening which is increased to compensate for at least a part of a torque reduction amount due to the torque down control fuel cut-off, by means of combustion in a cylinder to which the fuel continues to be supplied; characterized in that the reduction degree during execution of the torque down control is larger as an amount of nitrogen oxides deposited on the catalyst is larger. (i) perform torque down control to reduce torque of the engine by cutting off fuel supply to at least one of the cylinders of the engine during an inertia phase of a power-on upshift, (ii) perform a control for setting the throttle opening during execution of the torque down control, when an amount of nitrogen oxides deposited on the catalyst is larger than a given value, the control for setting the throttle opening including any one of the following: (a) setting the throttle opening to be smaller than a first value by a reduction degree, the first value being a throttle opening before the execution of the torque down control, and (b) setting the throttle opening to be smaller than a second value by the reduction degree, the second value being an increased throttle opening which is increased to compensate for at least a part of a torque reduction amount due to the torque down control fuel cut-off, by means of combustion in a cylinder to which the fuel continues to be supplied; (a) setting the throttle opening to be smaller than a first value by a reduction degree, the first value being a throttle opening before the execution of the torque down control, and (b) setting the throttle opening to be smaller than a second value by the reduction degree, the second value being an increased throttle opening which is increased to compensate for at least a part of a torque reduction amount due to the torque down control fuel cut-off, by means of combustion in a cylinder to which the fuel continues to be supplied;
An arrangement for separating out and removing screenings from wastewater passing through the arrangement, wherein the arrangement comprises a screening device including a screen surface, through which the wastewater flows during operation of the screening device and with the aid of which screenings carried along in the wastewater are at least partially retained, characterized in that the arrangement comprises at least one sensor which is designed for monitoring the screenings in the area upstream from the screen surface and/or in the area of the screen surface, and in that the arrangement comprises a controller which is designed for outputting a message when the screenings have one or several of the following properties and are recognized with the aid of the sensor: position of the screenings relative to a clearing element of the arrangement being in contact with the screenings, size, shape, material, height, width, length, density or reflectivity of the screenings, number of individual screenings approaching the screening device per unit of time.
A method, comprising: receiving, at a network entity, a data flow packet from a packet data convergence protocol layer; detecting, at the network entity, a requested quality of service level of a new data flow or an existing data flow; wherein the detecting comprises receiving embedded in the data flow packet an indication of the quality of service level requested for the new or existing data flow retrieving, at the network entity, a parameter from a table, the parameter being linked to the requested quality of service level; and using, at the network entity, the parameter to create a new radio link layer processing instance for the new data flow or to update an existing radio link layer processing instance for the existing data flow. receiving, at a network entity, a data flow packet from a packet data convergence protocol layer; detecting, at the network entity, a requested quality of service level of a new data flow or an existing data flow; wherein the detecting comprises receiving embedded in the data flow packet an indication of the quality of service level requested for the new or existing data flow retrieving, at the network entity, a parameter from a table, the parameter being linked to the requested quality of service level; and using, at the network entity, the parameter to create a new radio link layer processing instance for the new data flow or to update an existing radio link layer processing instance for the existing data flow.
A multimeric polypeptide comprising: a heterodimeric polypeptide comprising a) a first polypeptide comprising, in order from N-terminus to C-terminus: i) a peptide epitope; and ii) a first major histocompatibility complex polypeptide; b) a second polypeptide comprising a second MHC polypeptide, and c) at least one immunomodulatory polypeptide, wherein the first and/or the second polypeptide comprises the at least one immunomodulatory polypeptide, wherein the first MHC polypeptide is a β2-microglobulin polypeptide, and wherein the second MHC polypeptide is an MHC class I heavy chain polypeptide, wherein the peptide epitope is a cancer-associated epitope, and optionally, wherein the multimeric polypeptide comprises an immunoglobulin (Ig) Fc polypeptide or a non-Ig scaffold. a heterodimeric polypeptide comprising a) a first polypeptide comprising, in order from N-terminus to C-terminus: i) a peptide epitope; and ii) a first major histocompatibility complex polypeptide; b) a second polypeptide comprising a second MHC polypeptide, and c) at least one immunomodulatory polypeptide, a) a first polypeptide comprising, in order from N-terminus to C-terminus: i) a peptide epitope; and ii) a first major histocompatibility complex polypeptide; i) a peptide epitope; and ii) a first major histocompatibility complex polypeptide; b) a second polypeptide comprising a second MHC polypeptide, and c) at least one immunomodulatory polypeptide, wherein the first and/or the second polypeptide comprises the at least one immunomodulatory polypeptide, wherein the first MHC polypeptide is a β2-microglobulin polypeptide, and wherein the second MHC polypeptide is an MHC class I heavy chain polypeptide, wherein the peptide epitope is a cancer-associated epitope, and optionally, wherein the multimeric polypeptide comprises an immunoglobulin (Ig) Fc polypeptide or a non-Ig scaffold.
A method for generating location data for locating a mobile communication end terminal in a cellular communication network, said communication network being comprised of a number of radio cells (40, 50, 60), said communication end terminal successively establishing a connection to a number of two or more radio cells (40, 50, 60) having the same and/or different field strengths, characterized in that the communication end terminal maintains the connection to the particular radio cell (40, 50, 60) for a defined time period, and in that after the defined time period has elapsed, the communication terminal terminates the connection to the radio cell (40, 50, 60) and establishes a connection to the next radio cell (40, 50, 60).
A method of synthesising aziridine or a salt thereof, said method comprising contacting imine, or a salt or one or more precursors thereof, with a diazo compound or a salt thereof in a solvent comprising a mixture of halocarbons in the presence of a catalyst: wherein R 1, R 2, R 3, R 4 and R 5 each independently represent any atom or group, and wherein the catalyst is a compound of formula or a salt thereof, or a compound of formula or a salt thereof: wherein X is O, S or NR 9, and R 6, R 7, R 8 and R 9 each independently represent any atom or group.
A device for diagnosis of physiologic status and/or selection of spermatozoa of a semen sample based on chemotaxis, of the type having two communicated compartments (1a, 1b), characterized in that said compartments (1a, 1b) communication occurs through a duct or bridge located on the bottom, and above the lower level of the mentioned compartments (1a, 1b); by placing on the entrance of said compartments (1a, 1b) the appropriate closing means (3, 4) and appropriate air output ducts communicating the upper end of compartments (1a, 1b) with the exterior, wherein said closing means (3,4) comprises a plug with a projection and an elastic ring and wherein the lower end of compartments (1a, 1b) have a conical base.
Method for operating a slope clearing system of a blending bed, in particular of a circular blending bed for removing raw materials of a semicircular bulk material stockpile, which has an end face, wherein the bulk material is transported in the direction of a central post by means of a conveying device attached to the vertical central post, and wherein the conveying device has a plurality of conveying elements attached to a circulating transport means, characterized in that the conveying elements engage in the end face of the bulk material stockpile to remove the bulk material and the conveying device is moved along the end face of the bulk material stockpile. wherein the bulk material is transported in the direction of a central post by means of a conveying device attached to the vertical central post, and wherein the conveying device has a plurality of conveying elements attached to a circulating transport means, characterized in that the conveying elements engage in the end face of the bulk material stockpile to remove the bulk material and the conveying device is moved along the end face of the bulk material stockpile.
A method performed by a radio node for configuring a wireless device, the radio node and the wireless device operating in a wireless communications network, the method comprising: - configuring the wireless device with a plurality of Physical Uplink Control Channel, PUCCH, resource units, wherein the plurality of PUCCH resource units is associated with a number of downlink, DL, aggregated carriers; wherein, for at least some of the aggregated carriers in the number of downlink aggregated carriers, each aggregated carrier is allocated a different PUCCH resource unit within the plurality of PUCCH resource units, wherein each PUCCH resource unit is identifiable by a respective indicator in a respective single Downlink, DL, scheduling assignment (611, 612, 613), wherein the respective indicator comprises a Downlink Control Information, DCI, field which indicates the PUCCH resource unit together with serving cell index information. - configuring the wireless device with a plurality of Physical Uplink Control Channel, PUCCH, resource units, wherein the plurality of PUCCH resource units is associated with a number of downlink, DL, aggregated carriers;
A double-layered director, configured to be arranged directly above a corresponding high-frequency radiation unit, the double-layered director includes a first director and a second director installed above the first director, wherein the second director includes a dielectric substrate and a split copper foil installed on the dielectric substrate; the split copper foil includes a plurality of small copper foils, and the plurality of small copper foils are circumferentially arranged at intervals around a center of the second director; the small copper foils are of an annular sectoral shape; wherein the double-layered director is configured to weaken the influence of the resonant current of the director on the high-frequency radiation unit due to arrangement of the split copper on the electric substrate; and the first director is made of a whole piece of a metal sheet. the double-layered director includes a first director and a second director installed above the first director, wherein the second director includes a dielectric substrate and a split copper foil installed on the dielectric substrate; the split copper foil includes a plurality of small copper foils, and the plurality of small copper foils are circumferentially arranged at intervals around a center of the second director; the small copper foils are of an annular sectoral shape; wherein the double-layered director is configured to weaken the influence of the resonant current of the director on the high-frequency radiation unit due to arrangement of the split copper on the electric substrate; and the first director is made of a whole piece of a metal sheet.
A suction control handle for a medical suction device, said medical suction device being configured for creating a vacuum or connected to a vacuum supply, such that an airflow is present through the suction control handle during use, the suction control handle comprising: - an aeration hole for regulating the airflow through the suction control handle during use; and - a cover element attached to the suction control handle, and formed such that, in use, the airflow through the suction control handle can be gradually adjusted by covering the aeration hole, wholly or partly, by the cover element, the suction control handle characterized in that the cover element comprises an absorbent pad, said absorbent pad comprising an absorbent material for absorbing liquids or body fluids exiting through the aeration hole. - an aeration hole for regulating the airflow through the suction control handle during use; and - a cover element attached to the suction control handle, and formed such that, in use, the airflow through the suction control handle can be gradually adjusted by covering the aeration hole, wholly or partly, by the cover element,