mhurhangee/ep-ind-claims huggingface dataset:
A gas turbine blade, comprising: a root for connecting to a rotor of a gas turbine engine; a platform attached to the root and defining at least one groove; a platform impingement plate, comprising: a circumferential edge surrounding a cavity, the edge positioned to contact a first surface of the platform, a first plate surface and a second plate surface opposite said first plate surface, said first plate surface positioned to form the cavity between the first surface and the first plate surface, and an airfoil comprising a metallic substrate extending from a second surface of the platform opposite the first surface to a tip, the airfoil including a pressure side and a suction side, the pressure side and the suction side meeting at a trailing edge and a leading edge, wherein the plate first and second surfaces include at least one impingement hole through which a fluid flow flows to cool the first surface of the platform, characterised in that the blade further comprises a flat member having a face attached to the second plate surface and at least one end portion, wherein each end portion extends beyond the first and second plate surfaces and includes a curvature so that each curved end portion is inserted into a corresponding groove in the platform. a root for connecting to a rotor of a gas turbine engine; a platform attached to the root and defining at least one groove; a platform impingement plate, comprising: a circumferential edge surrounding a cavity, the edge positioned to contact a first surface of the platform, a first plate surface and a second plate surface opposite said first plate surface, said first plate surface positioned to form the cavity between the first surface and the first plate surface, and a circumferential edge surrounding a cavity, the edge positioned to contact a first surface of the platform, a first plate surface and a second plate surface opposite said first plate surface, said first plate surface positioned to form the cavity between the first surface and the first plate surface, and an airfoil comprising a metallic substrate extending from a second surface of the platform opposite the first surface to a tip, the airfoil including a pressure side and a suction side, the pressure side and the suction side meeting at a trailing edge and a leading edge, wherein the plate first and second surfaces include at least one impingement hole through which a fluid flow flows to cool the first surface of the platform, characterised in that the blade further comprises a flat member having a face attached to the second plate surface and at least one end portion, wherein each end portion extends beyond the first and second plate surfaces and includes a curvature so that each curved end portion is inserted into a corresponding groove in the platform.
Apparatus for feeding screws or similar fastening means from a filling device beneath a separating device for the screws or the like to a removal device for the screws or the like above the feed arm of a screwing device or a similar setting device, characterised by a push chain with a plurality of engaging shuttles, which can each hold a screw or the like and a drive device (17, 18), which cyclically advances the shuttles.
An electric pump comprising: a pump member, an electric motor positioned in a motor housing, including a stator, in which a rotor is rotatably mounted, said rotor comprising a rotor shaft driving the pump member, a motor controller with an inverter positioned within a controller housing and a heat sink, wherein the heat sink is a passive heat exchanger, a thermoelectric generator with one side thermally coupled to the inverter and with another side thermally coupled to the heat sink to generate electric current from a temperature differential between the inverter and the heat sink, characterized in that the upper side of the thermoelectric generator is directly attached to the inverter and the lower side is in contact with the heat sink, wherein the thermoelectric generator is placed in a recess in the heat sink forming a flush surface with the heat sink and the heat sink constitutes a wall of the controller housing. a pump member, an electric motor positioned in a motor housing, including a stator, in which a rotor is rotatably mounted, said rotor comprising a rotor shaft driving the pump member, a motor controller with an inverter positioned within a controller housing and a heat sink, wherein the heat sink is a passive heat exchanger, a thermoelectric generator with one side thermally coupled to the inverter and with another side thermally coupled to the heat sink to generate electric current from a temperature differential between the inverter and the heat sink, characterized in that the upper side of the thermoelectric generator is directly attached to the inverter and the lower side is in contact with the heat sink, wherein the thermoelectric generator is placed in a recess in the heat sink forming a flush surface with the heat sink and the heat sink constitutes a wall of the controller housing.
A nitric oxide generating formulation, comprising: an S-nitrosothiol (RSNO) powder; a salt; and an additive to control or accelerate a rate of release of NO from RSNO after the RSNO powder, the salt, and the additive are dissolved into a liquid carrier, wherein a) the NO generating formulation is an antimicrobial sinonasal treatment formulation, and the salt is selected from the group consisting of sodium chloride, sodium bicarbonate, calcium chloride, a sodium phosphate buffer, a potassium phosphate buffer, and combinations thereof; or b) the NO generating formulation is a catheter lock solution formulation, and the salt is selected from the group consisting of sodium chloride, sodium bicarbonate, a sodium phosphate buffer, a potassium phosphate buffer, and combinations thereof. an S-nitrosothiol (RSNO) powder; a salt; and an additive to control or accelerate a rate of release of NO from RSNO after the RSNO powder, the salt, and the additive are dissolved into a liquid carrier, wherein a) the NO generating formulation is an antimicrobial sinonasal treatment formulation, and the salt is selected from the group consisting of sodium chloride, sodium bicarbonate, calcium chloride, a sodium phosphate buffer, a potassium phosphate buffer, and combinations thereof; or b) the NO generating formulation is a catheter lock solution formulation, and the salt is selected from the group consisting of sodium chloride, sodium bicarbonate, a sodium phosphate buffer, a potassium phosphate buffer, and combinations thereof. a) the NO generating formulation is an antimicrobial sinonasal treatment formulation, and the salt is selected from the group consisting of sodium chloride, sodium bicarbonate, calcium chloride, a sodium phosphate buffer, a potassium phosphate buffer, and combinations thereof; or b) the NO generating formulation is a catheter lock solution formulation, and the salt is selected from the group consisting of sodium chloride, sodium bicarbonate, a sodium phosphate buffer, a potassium phosphate buffer, and combinations thereof.
A mounting mat suitable for mounting a pollution control element into a housing of a pollution control device, the mat being a polycrystalline, alumina-silica fiber mat impregnated with an organosilicon compound selected from the group consisting of siloxane compounds, alkoxy group-containing silanes, hydrolysates and condensates of these compounds, and combinations thereof wherein the mat contains less than 1 %, more preferably less than 0.75 %, even more preferably less than 0.5 %, less than 0.25 % and less than 0.1 % by weight and most preferably no organic binder, and wherein the term organic binder does not include organosilicon compounds.
A battery pack comprising: a pack case configured to form an exterior; a cell assembly accommodated in the pack case, and comprising a plurality of battery cells respectively including electrode leads; a pack cover configured to cover the pack case so as to package the cell assembly; and a lead connecting substrate provided between the cell assembly and the pack cover, configured to connect the electrode leads of the plurality of battery cells to one another, and including insert-molded terminals penetrating through the pack cover to be connected to an external power supply, and characterized in that the pack cover comprises terminal through units, through which the terminals penetrate, and the lead connecting substrate comprises terminal insert units, in which the terminals are insert-molded, and said terminal insert units are welded with the terminal through units. a pack case configured to form an exterior; a cell assembly accommodated in the pack case, and comprising a plurality of battery cells respectively including electrode leads; a pack cover configured to cover the pack case so as to package the cell assembly; and a lead connecting substrate provided between the cell assembly and the pack cover, configured to connect the electrode leads of the plurality of battery cells to one another, and including insert-molded terminals penetrating through the pack cover to be connected to an external power supply, and characterized in that the pack cover comprises terminal through units, through which the terminals penetrate, and the lead connecting substrate comprises terminal insert units, in which the terminals are insert-molded, and said terminal insert units are welded with the terminal through units.
Process for producing an electrode stack for a battery cell, comprising the following steps: - provision of a strip-shaped anode element comprising an anodic power outlet lead onto which an anodic active material has been applied, - provision of a strip-shaped cathode element comprising a cathodic power outlet lead onto which a cathodic active material has been applied, - provision of a strip-shaped separator element, - production of a strip-shaped composite element by application of the separator element onto the anode element, - cutting of the composite element to give plate-shaped composite segments and cutting of the cathode element to give plate-shaped cathode segments, - stacking of segments (52, 56, 58) in such a way that composite segments and cathode segments are arranged alternately. - provision of a strip-shaped anode element comprising an anodic power outlet lead onto which an anodic active material has been applied, - provision of a strip-shaped cathode element comprising a cathodic power outlet lead onto which a cathodic active material has been applied, - provision of a strip-shaped separator element, - production of a strip-shaped composite element by application of the separator element onto the anode element, - cutting of the composite element to give plate-shaped composite segments and cutting of the cathode element to give plate-shaped cathode segments, - stacking of segments (52, 56, 58) in such a way that composite segments and cathode segments are arranged alternately.
A stand-up bag for consumer goods comprising: a front wall; a back wall; first and second opposing sidewalls; a foldable top; and a bottom, wherein an interior for storing the consumer goods is defined between the front wall, the back wall, the first and second side walls, the top and the bottom, wherein each side wall comprises three or more fold lines, which form two or more indents extending along the side wall from the bottom to the top and wherein the fold lines of the first side wall are aligned with the fold lines of the second side wall such that the side walls form an accordion or bellows type structure, wherein the bag is expandable and collapsible such that the distance between the front wall and the back wall increases as the bag is expanded and decreases as the bag is collapsed, and wherein the top forms a fin when the top is unfolded, wherein the top comprises a first face extending from the front wall and a second face extending from the back wall, wherein a portion of an inner surface of the first face and a portion of an inner surface of the second face contact to form the fin, and wherein when the top is folded down, the first and second faces (112, 114) of the top are substantially parallel to the bottom and the fin is substantially flat against one of the first face or the second face of the top; and wherein when the top is folded down and the bag is expanded, the bag has a rectangular shape. a front wall; a back wall; first and second opposing sidewalls; a foldable top; and a bottom, wherein an interior for storing the consumer goods is defined between the front wall, the back wall, the first and second side walls, the top and the bottom, wherein each side wall comprises three or more fold lines, which form two or more indents extending along the side wall from the bottom to the top and wherein the fold lines of the first side wall are aligned with the fold lines of the second side wall such that the side walls form an accordion or bellows type structure, wherein the bag is expandable and collapsible such that the distance between the front wall and the back wall increases as the bag is expanded and decreases as the bag is collapsed, and wherein the top forms a fin when the top is unfolded, wherein the top comprises a first face extending from the front wall and a second face extending from the back wall, wherein a portion of an inner surface of the first face and a portion of an inner surface of the second face contact to form the fin, and wherein when the top is folded down, the first and second faces (112, 114) of the top are substantially parallel to the bottom and the fin is substantially flat against one of the first face or the second face of the top; and wherein when the top is folded down and the bag is expanded, the bag has a rectangular shape.
A user terminal comprising: a receiving section configured to receive downlink control information and a Physical Downlink Shared Channel, PDSCH, by using at least one of a plurality of transmission time intervals, TTIs, contained in one subframe; and a control section configured to control reception of the PDSCH through at least one of the plurality of TTIs based on the downlink control information, wherein the receiving section receives the downlink control information through one TTI, of the plurality of TTIs in the subframe, following a predetermined number of symbols where a Physical Downlink Control Channel, PDCCH, is allocated. a receiving section configured to receive downlink control information and a Physical Downlink Shared Channel, PDSCH, by using at least one of a plurality of transmission time intervals, TTIs, contained in one subframe; and a control section configured to control reception of the PDSCH through at least one of the plurality of TTIs based on the downlink control information, wherein the receiving section receives the downlink control information through one TTI, of the plurality of TTIs in the subframe, following a predetermined number of symbols where a Physical Downlink Control Channel, PDCCH, is allocated.
An electrically conductive composition comprising: a binder; filler particles having an electrically conductive core plated with silver; electrically conductive filler particles; and a solvent, wherein said composition has a sheet resistivity of less than 0.100 Ohm/square/25 micron, wherein said sheet resistivity is measured according to the method described in the description; and, wherein said binder comprises a thermoplastic polymer selected from the group consisting of polyesters, phenolic resins, copolymer of polyvinylalcohol, polyvinylacetate and polyvinylchloride, and mixtures thereof; and I or a thermoset polymer selected from the group consisting of phenolics, urethanes, phenoxy resins, polyesters, epoxies, melamines and mixtures thereof, and wherein said solvent is selected from the group consisting of 1,4-butanediol diglycidyl ether, p-tert-butyl-phenyl glycidyl ether, allyl glycidyl ether, glycerol diglycidyl ether, butyldiglycol, 2-(2-butoxyethoxy)-ethylester, butylglycolacetate, acetic acid, 2-butoxyethylester, butylglycol, 2-butoxyethanol, isophorone, 3,3,5 trimethyl-2-cyclohexene-1-one, dimethylsuccinate, dimethylglutarate, dimethyladipate, dipropylene glycol (mono)methyl ether, propylacetate, glycidyl ether of alkyl phenol and mixtures therereof. a binder; filler particles having an electrically conductive core plated with silver; electrically conductive filler particles; and a solvent,
A computer-implemented method of medical imaging, comprising: receiving, for a current active time window (204A-N) and during a brain activity analysis session (200, 500), fMRI data of a region of interest of a subject in an active state; generating from the fMRI data a transverse relaxation, T2 ∗, map using a predefined model of fMRI data variations; comparing the generated T2 ∗ map with a reference T2 ∗ map; estimating a blood-oxygen-level dependent (BOLD) response of the region of interest during the current active time window (204A-N) using the results of the comparison; receiving fMRI data obtained in a resting state period of the subject, subdividing the resting time period to a set of successive non-overlapping reference time windows (202A-N), wherein a reference time window has the same length as the active time window; generating a T2 ∗ map for each determined reference time window and combining the generated T2 ∗ maps of the determined reference time windows resulting in the reference T2* map; excluding from the set of reference time windows a predefined subset of time windows occurring at the beginning of the resting state period, for the generating of the T2* maps. receiving, for a current active time window (204A-N) and during a brain activity analysis session (200, 500), fMRI data of a region of interest of a subject in an active state; generating from the fMRI data a transverse relaxation, T2 ∗, map using a predefined model of fMRI data variations; comparing the generated T2 ∗ map with a reference T2 ∗ map; estimating a blood-oxygen-level dependent (BOLD) response of the region of interest during the current active time window (204A-N) using the results of the comparison; receiving fMRI data obtained in a resting state period of the subject, subdividing the resting time period to a set of successive non-overlapping reference time windows (202A-N), wherein a reference time window has the same length as the active time window; generating a T2 ∗ map for each determined reference time window and combining the generated T2 ∗ maps of the determined reference time windows resulting in the reference T2* map; excluding from the set of reference time windows a predefined subset of time windows occurring at the beginning of the resting state period, for the generating of the T2* maps.
Domestic appliance, in particular cooking appliance, having at least one first consumer unit (22, 24, 24'; 22a, 24a, 24'a; 21b, 22b, 23b, 24b), at least two voltage transformers (30, 32; 30a, 32a; 30b, 31b, 32b) and at least one switching arrangement (64, 64a, 64b), which is provided to produce at least a first and a second direct connection in at least one switching state simultaneously between the first consumer unit (22, 24, 24'; 22a, 24a, 24'a; 21b, 22b, 23b, 24b) and various of the at least two voltage transformers (30, 32; 30a, 32a; 30b, 31b, 32b), and which has a first switching element (72, 74; 72a, 74a; 72b, 74b, 75b, 77b) which is embodied as a single-pole on-off switch and is a component part at least of the first and the second connection, wherein the switching arrangement (64, 64a, 64b) has at least one second switching element (66, 68; 66a, 68a; 66b, 67b, 68b) which is embodied as a single-pole two-way switch and which is a component part at least of the first and/or the second connection, characterised by at least one further consumer unit (20, 26; 20a, 26a, 20b, 26b) which is provided to be connected directly to at least one voltage transformer (30, 32; 30a, 32a; 30b, 31b, 32b) via the second switching element (66, 68; 66a, 68a; 66b, 67b, 68b).
A method for evaluating virtual contents reproduced in motor vehicles, comprising the steps of: - transferring data to a server device external to vehicle, which data characterizes a route traveled by means of the respective motor vehicle during the reproduction of the virtual contents, the respective reproduced virtual contents and/or states of the respective vehicle occupants during the reproduction of the virtual contents, wherein the data is transferred to the server device only if it is captured that a respective reproduction of virtual contents was aborted by respective vehicle occupants in one of the motor vehicles; - if it is captured that a reproduction of virtual contents was aborted by a vehicle occupant in one of the motor vehicles, in addition: • capturing if the concerned vehicle occupant causes a different virtual content to be reproduced or omits a reproduction of any virtual contents thereafter, wherein relevant data is also transferred to the server device; and/or • outputting a query to the concerned vehicle occupant, why he has aborted the reproduction, wherein data relating to an answer of the vehicle occupant is also transferred to the server device; - evaluating the transferred data by means of the server device external to vehicle; - optimizing the reproduction of the virtual contents in the respective motor vehicle based on the evaluation of the transferred data. - transferring data to a server device external to vehicle, which data characterizes a route traveled by means of the respective motor vehicle during the reproduction of the virtual contents, the respective reproduced virtual contents and/or states of the respective vehicle occupants during the reproduction of the virtual contents, wherein the data is transferred to the server device only if it is captured that a respective reproduction of virtual contents was aborted by respective vehicle occupants in one of the motor vehicles; - if it is captured that a reproduction of virtual contents was aborted by a vehicle occupant in one of the motor vehicles, in addition: • capturing if the concerned vehicle occupant causes a different virtual content to be reproduced or omits a reproduction of any virtual contents thereafter, wherein relevant data is also transferred to the server device; and/or • outputting a query to the concerned vehicle occupant, why he has aborted the reproduction, wherein data relating to an answer of the vehicle occupant is also transferred to the server device; • capturing if the concerned vehicle occupant causes a different virtual content to be reproduced or omits a reproduction of any virtual contents thereafter, wherein relevant data is also transferred to the server device; and/or • outputting a query to the concerned vehicle occupant, why he has aborted the reproduction, wherein data relating to an answer of the vehicle occupant is also transferred to the server device; - evaluating the transferred data by means of the server device external to vehicle; - optimizing the reproduction of the virtual contents in the respective motor vehicle based on the evaluation of the transferred data.