mhurhangee/ep-ind-claims huggingface dataset:
Apparatus for a vehicle key, the apparatus comprising a first interface designed to communicate with a vehicle control system, a second interface designed to communicate via a radio connection, a control module designed to: receive proximity information from the vehicle control system via the first interface, establish a radio connection via the second interface if the proximity information indicates spatial proximity of the vehicle key to the vehicle control system, wherein a vehicle comprises the vehicle control system, and wherein the spatial proximity of the vehicle key to the vehicle control system corresponds to a presence of the vehicle key inside the vehicle. a first interface designed to communicate with a vehicle control system, a second interface designed to communicate via a radio connection, a control module designed to: receive proximity information from the vehicle control system via the first interface, establish a radio connection via the second interface if the proximity information indicates spatial proximity of the vehicle key to the vehicle control system, wherein a vehicle comprises the vehicle control system, and wherein the spatial proximity of the vehicle key to the vehicle control system corresponds to a presence of the vehicle key inside the vehicle. receive proximity information from the vehicle control system via the first interface, establish a radio connection via the second interface if the proximity information indicates spatial proximity of the vehicle key to the vehicle control system, wherein a vehicle comprises the vehicle control system, and wherein the spatial proximity of the vehicle key to the vehicle control system corresponds to a presence of the vehicle key inside the vehicle.
An additive for producing negative oxidation reduction potential (NORP) in a consumable material, wherein the additive comprises a mixture of: a. at least one inorganic reducing agent comprising particles of an elemental metal selected from magnesium, calcium, zinc, manganese, cobalt and combinations thereof; and b. at least one carrier, wherein the carrier is a base selected from the group consisting of sodium bicarbonate, potassium bicarbonate, sodium carbonate, potassium carbonate, magnesium carbonate, magnesium oxide, calcium carbonate, and combinations thereof, c. wherein the additive produces a NORP in the consumable material. a. at least one inorganic reducing agent comprising particles of an elemental metal selected from magnesium, calcium, zinc, manganese, cobalt and combinations thereof; and b. at least one carrier, wherein the carrier is a base selected from the group consisting of sodium bicarbonate, potassium bicarbonate, sodium carbonate, potassium carbonate, magnesium carbonate, magnesium oxide, calcium carbonate, and combinations thereof, c. wherein the additive produces a NORP in the consumable material.
A gas turbine moving blade comprising a shroud at a terminal end of a blade, wherein cooling air is adapted to be led into said blade to flow from a base portion to the terminal end thereof to be then led into said shroud and to flow out of a multiplicity of cooling passages (13,14,15;16,17,18;19,20,21;22,23,24) provided in said shroud, characterized in that there is formed a first cavity extending in said blade in an entire length thereof, a multiplicity of pin fins are arranged in said first cavity being supported by a wall of said first cavity, and said cooling passages (13,14,15;16,17,18;19,20,21;22,23,24) provided in said shroud are arranged such that each of said cooling passages (13,14,15;16,17,18;19,20,21;22,23,24) at its one end connects to said first cavity formed in said blade and at its other end opens in one side end portion of mutually opposing side end portions of said shroud.
A method for use in a wireless device of reporting positioning measurements, the method comprising: receiving network assistance information from a network node, the network assistance information for assisting the wireless device in performing Observed Time Difference Of Arrival, OTDOA, the network assistance information comprising: a list of reference cells; a list of neighbor cells; a rule for terminating Reference Signal Time Difference, RSTD, measurements; and performing (414, 416) RSTD measurement between a cell in the reference cell list and a cell in the neighbor cell list; upon determining the RSTD measurement satisfies the rule for terminating RSTD measurements: reporting the RSTD measurements to the network node, and terminating RSTD measurements; and upon determining the RSTD measurement does not satisfy the rule for terminating RSTD measurements, performing (414, 416) another RSTD measurement between the cell in the reference cell list and a cell in the neighbor cell list, wherein: the rule for terminating RSTD measurements indicates terminating RSTD measurements after taking at least a pre-determined number, N, of RSTD measurements having at least a pre-determined quality, X. a list of reference cells; a list of neighbor cells; a rule for terminating Reference Signal Time Difference, RSTD, measurements; and performing (414, 416) RSTD measurement between a cell in the reference cell list and a cell in the neighbor cell list; upon determining the RSTD measurement satisfies the rule for terminating RSTD measurements: reporting the RSTD measurements to the network node, and terminating RSTD measurements; and reporting the RSTD measurements to the network node, and terminating RSTD measurements; and upon determining the RSTD measurement does not satisfy the rule for terminating RSTD measurements, performing (414, 416) another RSTD measurement between the cell in the reference cell list and a cell in the neighbor cell list, wherein: the rule for terminating RSTD measurements indicates terminating RSTD measurements after taking at least a pre-determined number, N, of RSTD measurements having at least a pre-determined quality, X.
A heat exchanger to cool an oil flow with an air flow and a fuel flow, the heat exchanger comprising: at least one oil flow layer to receive the oil flow; an air flow layer to receive the air flow, wherein the air flow layer is in thermal communication with the at least one oil flow layer; a fuel flow layer to receive the fuel flow, wherein the fuel flow layer is in thermal communication with the at least one oil flow layer; wherein the at least one oil flow layer includes an air cooled oil flow layer and a fuel cooled oil flow layer; and further comprising a proportioning valve to direct the oil flow between the air cooled oil flow layer and the fuel cooled oil flow layer. at least one oil flow layer to receive the oil flow; an air flow layer to receive the air flow, wherein the air flow layer is in thermal communication with the at least one oil flow layer; a fuel flow layer to receive the fuel flow, wherein the fuel flow layer is in thermal communication with the at least one oil flow layer; wherein the at least one oil flow layer includes an air cooled oil flow layer and a fuel cooled oil flow layer; and further comprising a proportioning valve to direct the oil flow between the air cooled oil flow layer and the fuel cooled oil flow layer.
A bottle closure assembly for use in the efficient production of sparkling wines comprising: (i) a stopper for sealing engagement within the finish and/or neck portion(s) of a bottle; (ii) a passage within said stopper extending longitudinally from a wine-side opening at one end thereof; and (iii) a valve member located within said passage; wherein the valve member is selectively gravity-responsive thus allowing passage of liquid and/or solid and/or gaseous materials to be permitted or prevented dependent upon the orientation of the bottle closure assembly, wherein the passage comprises an enlarged chamber, and wherein the valve member is eccentrically weighted and is rotatable under gravity relative to the enlarged chamber. (i) a stopper for sealing engagement within the finish and/or neck portion(s) of a bottle; (ii) a passage within said stopper extending longitudinally from a wine-side opening at one end thereof; and (iii) a valve member located within said passage; wherein the valve member is selectively gravity-responsive thus allowing passage of liquid and/or solid and/or gaseous materials to be permitted or prevented dependent upon the orientation of the bottle closure assembly, wherein the passage comprises an enlarged chamber, and wherein the valve member is eccentrically weighted and is rotatable under gravity relative to the enlarged chamber.
A track adjuster, comprising: a pair of tracks; a lockset configured to selectively restrict movement of the pair of tracks; a first lever configured to actuate an actuator of the lockset; a second lever configured to actuate the first lever; and a spring configured to apply a first biasing force to the first lever in a first rotational direction and apply a second biasing force to the first lever in a second rotational direction, characterized in that the spring is a torsion spring wrapped at least partially around a cross member adapted to connect the pair of tracks with a second pair of tracks. a pair of tracks; a lockset configured to selectively restrict movement of the pair of tracks; a first lever configured to actuate an actuator of the lockset; a second lever configured to actuate the first lever; and a spring configured to apply a first biasing force to the first lever in a first rotational direction and apply a second biasing force to the first lever in a second rotational direction, characterized in that the spring is a torsion spring wrapped at least partially around a cross member adapted to connect the pair of tracks with a second pair of tracks.
An aerosolisable formulation comprising (i) water in an amount of at least 30 wt.% based on the aerosolisable formulation (ii) nicotine; (iii) at least one acid; and (iv) one or more flavours; and (v) one or more encapsulating materials, wherein the encapsulating material encapsulates at least one of the one or more flavours in preference to protonated nicotine; wherein the molar ratio of (a) encapsulating material encapsulating the one or more flavours to (b) unencapsulated flavours is greater than the molar ratio of (c) encapsulating material encapsulating nicotine to (d) unencapsulated nicotine. (i) water in an amount of at least 30 wt.% based on the aerosolisable formulation (ii) nicotine; (iii) at least one acid; and (iv) one or more flavours; and (v) one or more encapsulating materials, wherein the encapsulating material encapsulates at least one of the one or more flavours in preference to protonated nicotine; wherein the molar ratio of (a) encapsulating material encapsulating the one or more flavours to (b) unencapsulated flavours is greater than the molar ratio of (c) encapsulating material encapsulating nicotine to (d) unencapsulated nicotine.
A powder metallurgy method, comprising the steps of pressing an iron-based mixed powder into a green compact and then sintering the green compact, wherein the iron-based mixed powder contains an iron-based powder, and 0.05% to 2.0% by mass of a flaky powder having an average particle size of longitudinal size of 100 μm or less, a thickness of 10 μm or less, and an aspect ratio (longitudinal size-to-thickness ratio) of 5 or more with respect to the iron-based mixed powder.
Installation (2; 20) for cooling products, such as it comprises: - means (40; 22, 25) for passing a mist or a gas against a lower face of a wall (42; 23) having an upper face of generally planar shape intended to receive the products, the wall delimiting an enclosure which has at least two internal ducts (64, 66) defining predetermined paths for the passage of the mist or gas in the enclosure, the installation being arranged to evacuate water from the upper face, and - at least one mist diffuser (16; 91, 92) arranged to diffuse the mist which has passed against the lower face or a mist which comprises the gas which has passed against the lower face. - means (40; 22, 25) for passing a mist or a gas against a lower face of a wall (42; 23) having an upper face of generally planar shape intended to receive the products, the wall delimiting an enclosure which has at least two internal ducts (64, 66) defining predetermined paths for the passage of the mist or gas in the enclosure, the installation being arranged to evacuate water from the upper face, and - at least one mist diffuser (16; 91, 92) arranged to diffuse the mist which has passed against the lower face or a mist which comprises the gas which has passed against the lower face.
An electronic device comprising: a flexible display comprising a first portion, a second portion and a third portion that is disposed between the first portion and the second portion; a first body for supporting the first portion; a second body for supporting the second portion; a hinge unit for foldably connecting the first body and the second body, the hinge unit comprising a support member configured to be bendable and supported by the first body and the second body, a plurality of slit members which support the third portion, which are arranged on the support member and are spaced apart by a predetermined interval, and which each comprise a fixed end that is supported by the support member and a free end that extends from the fixed end toward the flexible display, and a separation preventing member connecting adjacent slit members, wherein, when the first body and the second body are folded, distance between the free ends of the plurality of slit members adjacent to the third portion changes, and wherein the separation preventing member prevents distance between the free ends of the slit members adjacent to each other from being apart from each other more than a predetermined distance. a flexible display comprising a first portion, a second portion and a third portion that is disposed between the first portion and the second portion; a first body for supporting the first portion; a second body for supporting the second portion; a hinge unit for foldably connecting the first body and the second body, the hinge unit comprising a support member configured to be bendable and supported by the first body and the second body, a plurality of slit members which support the third portion, which are arranged on the support member and are spaced apart by a predetermined interval, and which each comprise a fixed end that is supported by the support member and a free end that extends from the fixed end toward the flexible display, and a separation preventing member connecting adjacent slit members, a support member configured to be bendable and supported by the first body and the second body, a plurality of slit members which support the third portion, which are arranged on the support member and are spaced apart by a predetermined interval, and which each comprise a fixed end that is supported by the support member and a free end that extends from the fixed end toward the flexible display, and a separation preventing member connecting adjacent slit members, wherein, when the first body and the second body are folded, distance between the free ends of the plurality of slit members adjacent to the third portion changes, and wherein the separation preventing member prevents distance between the free ends of the slit members adjacent to each other from being apart from each other more than a predetermined distance.
An acoustic dampener, for a gas turbine engine, comprising: a cylindrical body wall defining a volume; a first cavity having a hole for allowing fluid communication between the first cavity and a first fluid source; a second cavity; and an orifice plate for separating the first cavity of the acoustic dampener from the second cavity of the acoustic dampener, said orifice plate having a hole for allowing fluid communication between the first cavity of the acoustic dampener and the second cavity of the acoustic dampener; wherein the cylindrical body wall comprises a predetermined quantity of holes for allowing fluid communication between the second cavity and a second fluid source. a cylindrical body wall defining a volume; a first cavity having a hole for allowing fluid communication between the first cavity and a first fluid source; a second cavity; and an orifice plate for separating the first cavity of the acoustic dampener from the second cavity of the acoustic dampener, said orifice plate having a hole for allowing fluid communication between the first cavity of the acoustic dampener and the second cavity of the acoustic dampener; wherein the cylindrical body wall comprises a predetermined quantity of holes for allowing fluid communication between the second cavity and a second fluid source.
An atmospheric cold steam engine, comprising an environmental heat source, a first heat exchanger filled with refrigerant fluid for absorbing environmental heat, refrigerant fluid circulation circuits, a means for feeding refrigerant fluid, an evaporator, a capacitor and a means for conversion of thermal energy into mechanical or other consumer-acceptable energy, characterized by comprising: - two closed non-connecting refrigerant fluid circuits, where the first refrigerant fluid circuit is placed inside the evaporator of the second refrigerant fluid circuit, and where the first refrigerant fluid circuit is designed for the transfer of the environmental thermal energy collected through a circuit and concentrated by a pump, to the second refrigerant fluid in the evaporator, thereby evaporating it; - a device for transforming the second refrigerant fluid thermal energy into mechanical energy, comprising the working chamber separated from the environment by a mobile membrane, where the membrane is connected to the mechanical energy output unit; - a tank for collecting the second refrigerant fluid condensed in the working chamber, having a valve for returning a part of the condensed fluid and waste thermal energy to an evaporator, and a pump for injecting the another part of the condensed fluid into the working chamber through a one-way valve and a nozzle to condense the second refrigerant fluid steam; - an additional heat exchanger between the first and second refrigerant fluids, designed for returning the waste heat remaining after its use for transforming heat into mechanical work in the mechanical energy output unit back to the environmental heat absorption circuit. - two closed non-connecting refrigerant fluid circuits, where the first refrigerant fluid circuit is placed inside the evaporator of the second refrigerant fluid circuit, and where the first refrigerant fluid circuit is designed for the transfer of the environmental thermal energy collected through a circuit and concentrated by a pump, to the second refrigerant fluid in the evaporator, thereby evaporating it; - a device for transforming the second refrigerant fluid thermal energy into mechanical energy, comprising the working chamber separated from the environment by a mobile membrane, where the membrane is connected to the mechanical energy output unit; - a tank for collecting the second refrigerant fluid condensed in the working chamber, having a valve for returning a part of the condensed fluid and waste thermal energy to an evaporator, and a pump for injecting the another part of the condensed fluid into the working chamber through a one-way valve and a nozzle to condense the second refrigerant fluid steam; - an additional heat exchanger between the first and second refrigerant fluids, designed for returning the waste heat remaining after its use for transforming heat into mechanical work in the mechanical energy output unit back to the environmental heat absorption circuit.
An electrophysiology catheter tip for use in ablation, the catheter tip comprising: an outer layer of an electrically and thermally conducting metal, the outer layer having a thickness of approximately 40 microns; an inner layer of an electrically and thermally conducting metal, the inner layer having a thickness of approximately 40 microns; a polymer layer between the inner and outer layer, wherein the polymer layer is a printed circuit board, PCB, having a thickness of approximately 50 microns; and a plurality of thermal bridges selectively positioned between the inner and outer layers and through the polymer layer increase the heat transfer of the catheter tip through the polymer layer such that when the catheter tip is set at an angle of 45° to tissue with a penetration depth of 0.8mm and approximately 0.63 Amperes are delivered to the outer layer of the tip, ablation can be performed for 30 seconds without the temperature of the catheter tip exceeding 130°C; and when approximately 0.90 Amperes are delivered to the outer layer of the tip, ablation can be performed for 4.5 seconds without the temperature of the catheter tip exceeding 130°C, wherein a diameter of each of the plurality of thermal bridges is approximately 60 microns. an outer layer of an electrically and thermally conducting metal, the outer layer having a thickness of approximately 40 microns; an inner layer of an electrically and thermally conducting metal, the inner layer having a thickness of approximately 40 microns; a polymer layer between the inner and outer layer, wherein the polymer layer is a printed circuit board, PCB, having a thickness of approximately 50 microns; and a plurality of thermal bridges selectively positioned between the inner and outer layers and through the polymer layer increase the heat transfer of the catheter tip through the polymer layer such that when the catheter tip is set at an angle of 45° to tissue with a penetration depth of 0.8mm and approximately 0.63 Amperes are delivered to the outer layer of the tip, ablation can be performed for 30 seconds without the temperature of the catheter tip exceeding 130°C; and when approximately 0.90 Amperes are delivered to the outer layer of the tip, ablation can be performed for 4.5 seconds without the temperature of the catheter tip exceeding 130°C, wherein a diameter of each of the plurality of thermal bridges is approximately 60 microns.
Cooking appliance apparatus with at least one first and at least one second heating frequency unit (10, 12) and with at least one control unit, which is provided to set a respective average output power (P ave1, P ave2) of the at least two heating frequency units (10, 12) while minimising a flicker coefficient and to operate the at least two heating frequency units (10, 12) in at least one first time interval (T A) with a first set of frequencies (f 1A, f 2A) and in at least one second time interval (T B) with a second set of frequencies (f 1B, f 2B) embodied differently from the first set, characterised in that the frequencies (f 1A, f 2A) of the first set of frequencies (f 1A, f 2A) differ from one another by at least 14 kHz and the frequencies (f 1B, f 2B) of the second set of frequencies (f 1B, f 2B) differ from one another by at least 14 kHz, wherein each set of frequencies (f 1A, f 2A, f 1B, f 2B) has a plurality of frequencies (f 1A, f 2A, f 1B, f 2B) which are all different from zero.