mhurhangee/ep-ind-claims huggingface dataset:
Process for mounting a window pane into a framing structure, especially a framing structure in a vehicle, comprising the steps of i) providing an adhesive system comprising a component A and a component B, wherein ▪ component A comprises a polyurethane pre-polymer, and ▪ component B comprises an amine or a polyol, preferably a polyol; ii) applying an adhesive system comprising the component A, the component B to the at least one window pane or the framing structure; iii) joining the at least one window pane and the framing structure by means of the applied adhesive system; iv) at least partially curing the applied adhesive system comprising the component A and the component B; v) filling gap(s) between the at least partially cured adhesive system and the frame structure and/or between the at least partially cured adhesive system and a neighbouring, second window pane with component A. i) providing an adhesive system comprising a component A and a component B, wherein ▪ component A comprises a polyurethane pre-polymer, and ▪ component B comprises an amine or a polyol, preferably a polyol; ▪ component A comprises a polyurethane pre-polymer, and ▪ component B comprises an amine or a polyol, preferably a polyol; ii) applying an adhesive system comprising the component A, the component B to the at least one window pane or the framing structure; iii) joining the at least one window pane and the framing structure by means of the applied adhesive system; iv) at least partially curing the applied adhesive system comprising the component A and the component B; v) filling gap(s) between the at least partially cured adhesive system and the frame structure and/or between the at least partially cured adhesive system and a neighbouring, second window pane with component A.
Sensor arrangement for detecting a differential angle, having at least one magnetic field-sensitive sensor element that is able to evaluate the magnetic field information of a magnetic circuit consisting of a magnetic pole wheel, which is connectable to a shaft, and ferromagnetic flux rings (14, 16) with teeth (18, 20), wherein the teeth (18, 20) extend in the radial direction of the shaft for taking a radial reading of the magnetic field information of the magnetic pole wheel and engaging in one another in the radial direction, wherein the flux rings (14, 16) have different radii, wherein at least one magnetic flux collecting element (22, 24) is provided for collecting the magnetic flux of at least one flux ring (14, 16) and the magnetic flux collecting element(22, 24) has a first shell and a second shell with different radii parallel to the flux ring (14, 16).
1. A multi tuned, portable, storable, Ku-band very small aperture terminal antenna for transmitting to and receiving from a satellite, comprising a feed horn; an antenna reflector that is configured to be assembled and disassembled into discrete physical subsections; wherein the discrete physical subsections are configured to be stacked to reduce storage volume; wherein the feed horn is axially symmetric no matter the rotational orientation of the assembled antenna reflector, characterized in that the assembled antenna reflector consists of a number of pie-shaped zones of equal degrees comprising alternating frequency patterns that maintain radial symmetry of the assembled antenna reflector; wherein the pie-shaped zones of the assembled antenna reflector consists of portions of Fresnel zone plate patterns each tuned to a desired frequency.
A mapping catheter comprising: an elongated body configured and arranged for insertion into patient vasculature, wherein a distal end of the elongated body comprises: a distal portion comprising a plurality of electrodes, a proximal portion disposed proximal to the distal portion, and a reduced-dimension portion disposed between the proximal portion and the distal portion, the reduced-dimension portion having a cross-sectional dimension that is less than corresponding cross-sectional dimensions of both a proximally-positioned adjacent section of the proximal portion and a distally-positioned adjacent section of the distal portion; wherein the distal end is formed, at least in part, from a memory shape material that bends into a preformed shape upon release from a confined space, the preformed shape comprising a first loop formed, at least in part, by the distal portion, wherein the first loop is transverse to a longitudinal axis of the proximal portion, characterized in that the reduced-dimension portion is configured and arranged to bend such that the reduced-dimension section advances distally through the first loop when the first loop is held in a fixed position and a force is applied along the longitudinal axis of the proximal portion in a distal direction. an elongated body configured and arranged for insertion into patient vasculature, wherein a distal end of the elongated body comprises: a distal portion comprising a plurality of electrodes, a proximal portion disposed proximal to the distal portion, and a reduced-dimension portion disposed between the proximal portion and the a distal portion comprising a plurality of electrodes, a proximal portion disposed proximal to the distal portion, and a reduced-dimension portion disposed between the proximal portion and the distal portion, the reduced-dimension portion having a cross-sectional dimension that is less than corresponding cross-sectional dimensions of both a proximally-positioned adjacent section of the proximal portion and a distally-positioned adjacent section of the distal portion; wherein the distal end is formed, at least in part, from a memory shape material that bends into a preformed shape upon release from a confined space, the preformed shape comprising a first loop formed, at least in part, by the distal portion, wherein the first loop is transverse to a longitudinal axis of the proximal portion,
A process for isolating methionine produced by fermentation, which comprises a) heating a methionine-containing biomass-containing fermentation broth produced in the fermentation of a methionine-producing microorganism to a temperature of from 60 to 120°C which is sufficient to increase the solubility of methionine in the liquid phase, b) obtaining therefrom a methionine-enriched liquid phase, the biomass being separated off from the enriched fermentation broth and c) crystallizing out methionine, if appropriate after concentrating the enriched liquid phase; the biomass separated off in stage b) being g1) if appropriate washed, the liquid used for washing being heated if appropriate, and g3) dried. a) heating a methionine-containing biomass-containing fermentation broth produced in the fermentation of a methionine-producing microorganism to a temperature of from 60 to 120°C which is sufficient to increase the solubility of methionine in the liquid phase, b) obtaining therefrom a methionine-enriched liquid phase, the biomass being separated off from the enriched fermentation broth and c) crystallizing out methionine, if appropriate after concentrating the enriched liquid phase; the biomass separated off in stage b) being g1) if appropriate washed, the liquid used for washing being heated if appropriate, and g3) dried.
A hydrocarbon synthesis process using synthesis gas stream containing H 2 and CO, comprising: (a) generating a synthesis gas stream in a pressure swing reformer whereby the synthesis gas stream contains greater than a 2:1 mole ratio of H 2:CO; and (b) separating a portion of the hydrogen from the synthesis gas stream to provide a synthesis gas stream containing a 2:1 mole ratio of H 2:CO; (c) introducing the synthesis gas stream of step (b) into a hydrocarbon synthesis reactor for conversion to liquid products therein. (a) generating a synthesis gas stream in a pressure swing reformer whereby the synthesis gas stream contains greater than a 2:1 mole ratio of H 2:CO; and (b) separating a portion of the hydrogen from the synthesis gas stream to provide a synthesis gas stream containing a 2:1 mole ratio of H 2:CO; (c) introducing the synthesis gas stream of step (b) into a hydrocarbon synthesis reactor for conversion to liquid products therein.
A method for facilitating selection at a user equipment of a wireless network of a first type through which to communicate, said method comprising: receiving at the user equipment a second network identifier that contains location information including a country code and a network code sent by a network of a second type of wireless networks; receiving a first network identifier of a network of a first type of wireless networks; and selecting (104, 72, 108, 112, 116, 118) the network of a first type of wireless networks through which to communicate, the selection made of the network from available networks of the first type indexed together with the country code in a list of networks of the first type, wherein the list is maintained at the user equipment. receiving at the user equipment a second network identifier that contains location information including a country code and a network code sent by a network of a second type of wireless networks; receiving a first network identifier of a network of a first type of wireless networks; and selecting (104, 72, 108, 112, 116, 118) the network of a first type of wireless networks through which to communicate, the selection made of the network from available networks of the first type indexed together with the country code in a list of networks of the first type, wherein the list is maintained at the user equipment.
A multi-layer fabric comprising an inflating part; and a co-woven part surrounding the inflating part, wherein at least one layer of the inflating part comprises a first region formed of two or more types of weaves comprising 1/1 plain weave, wherein the first region is formed by inserting a weave other than 1/1 plain weave every 2 to 5 1/1 plain weave, wherein the first region is formed of 1/1 plain weave and 2/1 twill weave. wherein at least one layer of the inflating part comprises a first region formed of two or more types of weaves comprising 1/1 plain weave, wherein the first region is formed by inserting a weave other than 1/1 plain weave every 2 to 5 1/1 plain weave, wherein the first region is formed of 1/1 plain weave and 2/1 twill weave.
An siRNA for use in treating or preventing an intestinal disease, wherein the siRNA is targeted to the DNA sequence of any one of SEQ ID NOs: 43, 44, 45 and 46 and is to be directly injected.
A method for selecting a carrier set for device-to-device, D2D, multi-carrier aggregation, comprising: receiving, by the base station, a D2D communication request from the terminal, wherein the communication request includes expected frequency point information; if the terminal can support carrier aggregation in broadcast mode or carrier aggregation in unicast mode, the communication request also includes an indication of support for carrier aggregation in broadcast mode or an indication of support for carrier aggregation in unicast mode; sending (S201, S302), by the base station, according to the D2D communication request, carrier frequency information pre-configured for carrier set measurement and a reporting condition to the terminal, receiving, by a base station, reporting information from a terminal, the reporting information comprising a plurality of carriers meeting the reporting condition by the terminal after measurement; and selecting (S202, S305), by the base station, according to a resource status of the plurality of carriers in the reporting information, a carrier set for carrier aggregation used for D2D communication of the terminal from the plurality of carriers. receiving, by the base station, a D2D communication request from the terminal, wherein the communication request includes expected frequency point information; if the terminal can support carrier aggregation in broadcast mode or carrier aggregation in unicast mode, the communication request also includes an indication of support for carrier aggregation in broadcast mode or an indication of support for carrier aggregation in unicast mode; sending (S201, S302), by the base station, according to the D2D communication request, carrier frequency information pre-configured for carrier set measurement and a reporting condition to the terminal, receiving, by a base station, reporting information from a terminal, the reporting information comprising a plurality of carriers meeting the reporting condition by the terminal after measurement; and selecting (S202, S305), by the base station, according to a resource status of the plurality of carriers in the reporting information, a carrier set for carrier aggregation used for D2D communication of the terminal from the plurality of carriers.
A construction set for covering a substrate, in particular a floor substrate, comprising plate structural elements for covering the substrate, and connecting elements for joining together the neighbouring plate elements, while maintaining a fixed distance between them to form a dilatation gap, the connecting elements comprising at least two, located on a base, assembly protrusions seated in the neighbouring, connected plate elements equipped on their substrate side with identical assembly sections comprising at least one drilled assembly hole, and in the assembly holes there arc seated, by means of the assembly protrusions, the connecting elements joining the neighbouring plate elements, that preferably are cuboidal, having the identical thickness, wherein the length and/or width of the plate elements is a function of a value which is - upon subtracting the width of the dilatation gap - a distance between the two neighbouring assembly sections located along the same flank of the plate element, and also of the width of the dilatation gap, so that the length and/or width of the plate elements is determined by the relationship A+n(A+C), where n is equal to 0 or is a positive integer, and C is greater than O, and moreover along the flank of the plate element, a position of the assembly sections is determined according to the relationship 1/2A + n(A+C), so that each assembly section is within a constant distance from the nearest edge of the plate element, in which it is located and in a fixed position in relation to the nearest assembly section of the neighbouring plate element, wherein the construction set comprises the plate elements having dimensions determined for at least some values of the parameter n and comprises also the assembly sections with positions determined for at least some values of the parameter n.
No-frost refrigeration appliance with a freezer compartment and a forced-ventilation evaporator, which is arranged in an evaporation chamber and is essentially cuboid-shaped with an inflow side and an outflow side, which are oriented to be perpendicular to the flow direction of the air in the first part of the evaporator, and with flanks (14, 17) connecting the inflow side and the outflow side, wherein at least one rear part of the evaporator separates an upstream part and a downstream part of the evaporation chamber, with reference to the flow direction of the air through the evaporation chamber, from one another, wherein the upstream part of the evaporation chamber comprises an accumulation region, which is adjacent to a first of the flanks, is arranged in parallel with and adjacent to a front part of the evaporator in terms of flow, and is cooled by the front part of the evaporator, and a fan in the downstream part draws in air from the freezer compartment into the upstream part via inlet openings on a front rim of a tray, characterised in that the rear part touches an IR-reflecting layer on one side and a large-surface heating element on the other side, and that the front part of the evaporator comprises an injection point for refrigerant.
A propulsion system for an aircraft comprising: a gas turbine engine (102, 104); and an electric propulsion engine defining a central axis, the electric propulsion engine comprising: an electric motor; a fan rotatable about the central axis of the electric propulsion engine by the electric motor; a bearing supporting rotation of the fan; the propulsion system being characterized in that the electric propulsion engine further comprises a thermal management system (392,394), the thermal management system comprising a heat exchanger (393,395) and a thermal fluid circulation assembly, the thermal fluid circulation assembly in thermal communication with at least one of the electric motor or the bearing and further in thermal communication with the heat exchanger (393, 395) of the thermal management system (392, 394) of the gas turbine engine. a gas turbine engine (102, 104); and an electric propulsion engine defining a central axis, the electric propulsion engine comprising: an electric motor; a fan rotatable about the central axis of the electric propulsion engine by the electric motor; a bearing supporting rotation of the fan; the propulsion system being characterized in that the electric propulsion engine further comprises a thermal management system (392,394), the thermal management system comprising a heat exchanger (393,395) and a thermal fluid circulation assembly, the thermal fluid circulation assembly in thermal communication with at least one of the electric motor or the bearing and further in thermal communication with the heat exchanger (393, 395) of the thermal management system (392, 394) of the gas turbine engine. an electric motor; a fan rotatable about the central axis of the electric propulsion engine by the electric motor; a bearing supporting rotation of the fan; the propulsion system being characterized in that the electric propulsion engine further comprises a thermal management system (392,394), the thermal management system comprising a heat exchanger (393,395) and a thermal fluid circulation assembly, the thermal fluid circulation assembly in thermal communication with at least one of the electric motor or the bearing and further in thermal communication with the heat exchanger (393, 395) of the thermal management system (392, 394) of the gas turbine engine.
Method for separating argon by cryogenic distillation, in which: • a flow containing argon, oxygen and nitrogen and being more rich in argon than the air is sent to a distillation column, and • an argon-rich gas flow is withdrawn at the top of the column, characterized in that a portion of the argon-rich gas flow is mixed with beads having a diameter of less than 5 mm, preferably less than 100 pm, to form a gas mixture containing beads, the beads being made of an adsorptive material or coated with an adsorptive material, the adsorptive material being capable of adsorbing oxygen in the presence of argon at the column operating temperatures; the portion of the argon-rich gas flow mixed with the beads is condensed and then sent to the top of the column; and a bottom liquid containing beads is withdrawn from the column and treated to remove the beads, the beads removed being regenerated to remove the adsorbed oxygen and being again mixed with the portion of the argon-rich gas flow. • a flow containing argon, oxygen and nitrogen and being more rich in argon than the air is sent to a distillation column, and • an argon-rich gas flow is withdrawn at the top of the column,
A method of processing a sample and of preparing a droplet forming sample of forming droplets individually encapsulating a target component, the method comprising: storing a processing liquid containing a target component and a diluent for diluting the processing liquid in a reservoir of a sample processing chip, wherein the processing liquid is diluted in order to prepare a droplet forming sample for forming droplets individually encapsulating the target component; characterized by the method further comprising: agitating the processing liquid and the diluent in the reservoir by introducing a gas into the processing liquid and the diluent in the reservoir, wherein in the agitating, the gas is introduced into the reservoir for a predetermined time of 0.1 seconds or more and 60 seconds or less to agitate the processing liquid and the diluent, wherein the reservoir is a storage tank which is tube-shaped and connected to a substrate of the sample processing chip; and in the agitating, the processing liquid and the diluent are agitated by introducing the gas from a bottom of the storage tank and rising the gas in the storage tank. storing a processing liquid containing a target component and a diluent for diluting the processing liquid in a reservoir of a sample processing chip, wherein the processing liquid is diluted in order to prepare a droplet forming sample for forming droplets individually encapsulating the target component; characterized by the method further comprising: agitating the processing liquid and the diluent in the reservoir by introducing a gas into the processing liquid and the diluent in the reservoir, wherein in the agitating, the gas is introduced into the reservoir for a predetermined time of 0.1 seconds or more and 60 seconds or less to agitate the processing liquid and the diluent, wherein the reservoir is a storage tank which is tube-shaped and connected to a substrate of the sample processing chip; and in the agitating, the processing liquid and the diluent are agitated by introducing the gas from a bottom of the storage tank and rising the gas in the storage tank. agitating the processing liquid and the diluent in the reservoir by introducing a gas into the processing liquid and the diluent in the reservoir, wherein in the agitating, the gas is introduced into the reservoir for a predetermined time of 0.1 seconds or more and 60 seconds or less to agitate the processing liquid and the diluent, wherein the reservoir is a storage tank which is tube-shaped and connected to a substrate of the sample processing chip; and in the agitating, the processing liquid and the diluent are agitated by introducing the gas from a bottom of the storage tank and rising the gas in the storage tank.