mhurhangee/ep-ind-claims huggingface dataset:
A computer implemented method applicable for pairing mobile devices, comprising: in response to a pairing request from an application in a source device, establishing, at the source device, a first communication channel with a target device in proximity to the source device; detecting that the source device is in physical proximity to the target device; recording, at the source device, a trace of physical movements of the source device while the target device is located in the proximity to the source device sending a pairing message from the source device to the target device in proximity to the source device over the first communication channel, the pairing message including a secret and an identifier, the secret including a representation of the trace of physical movements of the source device, the identifier identifying the application; in response to receiving, at the source device, verification data back from the target device for a second communication channel separate from the first communication channel, verifying, by the source device, whether the source device and the target device are paired devices, wherein the source and target devices are paired if the verification data matches the trace of physical movements recorded; and if the source device and the target devices are verified as paired devices, establishing, by the source device, a coupling session for the application over the second communication channel between the source and target devices. in response to a pairing request from an application in a source device, establishing, at the source device, a first communication channel with a target device in proximity to the source device; detecting that the source device is in physical proximity to the target device; recording, at the source device, a trace of physical movements of the source device while the target device is located in the proximity to the source device sending a pairing message from the source device to the target device in proximity to the source device over the first communication channel, the pairing message including a secret and an identifier, the secret including a representation of the trace of physical movements of the source device, the identifier identifying the application; in response to receiving, at the source device, verification data back from the target device for a second communication channel separate from the first communication channel, verifying, by the source device, whether the source device and the target device are paired devices, wherein the source and target devices are paired if the verification data matches the trace of physical movements recorded; and if the source device and the target devices are verified as paired devices, establishing, by the source device, a coupling session for the application over the second communication channel between the source and target devices.
Electro-pneumatic parking brake assembly, comprising a brake cylinder which is operated by electro-pneumatic valve means, including a protection valve for providing a bi-stable safe state function, wherein an input port (3.1) of the protection valve is connected to a supply pressure source, an output port (3.2) is connected to the brake cylinder and an exhaust port (3.3) is connected to the ambient pressure, characterised in that the protection valve is a pivot-controlled bi-stable 3 by 2 valve containing two independently movable spring-retracted pistons (A and B), wherein the first piston corresponds to an input valve seat and the second piston corresponds to an exhaust valve seat, and both valve seats (C and E) are closed together independently of the output pressure at output port (3.2) if the control piston is charged by a pressure equal or higher than the supply pressure coming in control input port (3.4).
A braking system for a vehicle at least partially propelled by an electric traction motor, the braking system comprising: - an electric machine electrically connected to an electric source; - an air flow producing unit arranged in an air flow line of the braking system, the air flow producing unit being mechanically connected to, and operated by, the electric machine; and - an electrical brake resistor arrangement positioned in the air flow line in downstream fluid communication with the air flow producing unit to receive a flow of air supplied in the air flow line by the air flow producing unit, wherein the electric brake resistor is arranged in fluid communication between the air flow producing unit and an ambient environment, the electrical brake resistor arrangement being electrically connected to the electric source and arranged to heat air supplied from the air flow producing unit by electrical power received from the electric source, and to supply heated air to the ambient environment. - an electric machine electrically connected to an electric source; - an air flow producing unit arranged in an air flow line of the braking system, the air flow producing unit being mechanically connected to, and operated by, the electric machine; and - an electrical brake resistor arrangement positioned in the air flow line in downstream fluid communication with the air flow producing unit to receive a flow of air supplied in the air flow line by the air flow producing unit, wherein the electric brake resistor is arranged in fluid communication between the air flow producing unit and an ambient environment, the electrical brake resistor arrangement being electrically connected to the electric source and arranged to heat air supplied from the air flow producing unit by electrical power received from the electric source, and to supply heated air to the ambient environment.
A kitchen appliance with a cooking vessel and an accessory for being attached to the cooking vessel, wherein the accessory features a sensor arrangement for determining at least one operating state in the cooking vessel, characterized in that the accessory is a measuring cup having a measuring volume with a bottom.
A composition comprising a) 55-98.9 wt% of at least one type of triblock copolymer of formula R-B-A-B-R b) 0.1-15 wt% of at least one surfactant and c) 1-30 wt% of water, wherein A is a hydrophilic block having a number average molecular weight (Mn) of 100-1,000 Da, B is a hydrophobic block made from monomers comprising at least a monomer B1 and a monomer B2, wherein B1 and B2 have the largest weight contents in the hydrophobic block and B1 has a lower molecular weight than B2, wherein R is an end group which is H or a C1-C30 organic moiety, wherein the composition is fluid in a temperature range of 0°C to 37°C, wherein the weight % are relative to the sum of a), b) and c), and wherein the sum of components a), b) and c) is at least 80 wt% of the entire composition, preferably at least 90 wt%. a) 55-98.9 wt% of at least one type of triblock copolymer of formula R-B-A-B-R b) 0.1-15 wt% of at least one surfactant and c) 1-30 wt% of water,
A container for a food composition, comprising: - a thermoplastic hollow body comprising a generally planar bottom and a side wall extending along a longitudinal axis from said bottom as far as a top, and - a generally planar annular flange integral with the body and connected to the top of the body, the flange comprising a lower face, an upper face, an inner edge defining a circular upper opening of the container and outer straight side edges (11a, 11b, 11c, 11d), the outer straight side edges comprising two parallel outer straight side edges and at least one outer straight side edge perpendicular to the two parallel outer straight side edges, said opening having an inner diameter D int, characterized in that the flange comprises: - four first flange portions, each having a continuous cut out line defining one of said outer straight side edges, which define a virtual square, at least two of the outer straight side edges (11a, 11b, 11c, 11d) having a length l shorter than half of an inner diameter D int of said upper circular opening, two of the first flange portions being adjacent first flange portions, and - at least two second flange portions (14, 15) that each defines a corner of the flange, at least one of said second flange portions comprising an outer convex edge that extends between two adjacent of said outer straight side edges. - a thermoplastic hollow body comprising a generally planar bottom and a side wall extending along a longitudinal axis from said bottom as far as a top, and - a generally planar annular flange integral with the body and connected to the top of the body, the flange comprising a lower face, an upper face, an inner edge defining a circular upper opening of the container and outer straight side edges (11a, 11b, 11c, 11d), the outer straight side edges comprising two parallel outer straight side edges and at least one outer straight side edge perpendicular to the two parallel outer straight side edges, said opening having an inner diameter D int, - four first flange portions, each having a continuous cut out line defining one of said outer straight side edges, which define a virtual square, at least two of the outer straight side edges (11a, 11b, 11c, 11d) having a length l shorter than half of an inner diameter D int of said upper circular opening, two of the first flange portions being adjacent first flange portions, and - at least two second flange portions (14, 15) that each defines a corner of the flange, at least one of said second flange portions comprising an outer convex edge that extends between two adjacent of said outer straight side edges.
A method for exchanging heat between a heat exchange fluid and a perishable product fluid, the method comprising: providing a replaceable heat exchange cartridge to a base unit by engaging a base unit heat exchange outlet to a heat exchange enclosure inlet of the cartridge; and, engaging a base unit heat exchange inlet with a heat exchange enclosure outlet of the cartridge; providing the heat exchange fluid to an enclosure of the cartridge via the base unit heat exchange outlet and the heat exchange enclosure inlet of the cartridge; providing the perishable product fluid to a tube comprising a flexible portion in the enclosure; exchanging heat between the heat exchange fluid in the enclosure and the perishable product fluid in the tube; allowing the heat exchange fluid to exit the enclosure of the cartridge via the heat exchange enclosure outlet and the base unit heat exchange inlet; interrupting providing the perishable product fluid to the tube; compressing the flexible portion of the tube to decrease a volume of the tube and to press a substantial part of the perishable product fluid out of the tube and removing the replaceable cartridge from the base unit and replacing it with another cartridge. providing a replaceable heat exchange cartridge to a base unit by engaging a base unit heat exchange outlet to a heat exchange enclosure inlet of the cartridge; and, engaging a base unit heat exchange inlet with a heat exchange enclosure outlet of the cartridge; providing the heat exchange fluid to an enclosure of the cartridge via the base unit heat exchange outlet and the heat exchange enclosure inlet of the cartridge; providing the perishable product fluid to a tube comprising a flexible portion in the enclosure; exchanging heat between the heat exchange fluid in the enclosure and the perishable product fluid in the tube; allowing the heat exchange fluid to exit the enclosure of the cartridge via the heat exchange enclosure outlet and the base unit heat exchange inlet; interrupting providing the perishable product fluid to the tube; compressing the flexible portion of the tube to decrease a volume of the tube and to press a substantial part of the perishable product fluid out of the tube and removing the replaceable cartridge from the base unit and replacing it with another cartridge.
Slot sealing material for an electric machine, which to accommodate an electric conductor arrangement has at least one slot with a slot opening, containing: - a magnetic filler, in particular a soft-magnetic filler, and - a reaction resin mixture comprising at least a resin component and a curing agent component, characterised in that - the curing agent component contains a dianhydride and - the slot sealing material contains a zeolith as a desiccant. - a magnetic filler, in particular a soft-magnetic filler, and - a reaction resin mixture comprising at least a resin component and a curing agent component, - the curing agent component contains a dianhydride and - the slot sealing material contains a zeolith as a desiccant.
A spinning method comprising: supporting a supported portion of a cylindrical work by a work supporting portion; pressing a roller of a spinning head against an outer peripheral surface of a processed portion of the work while revolving the roller; performing a forming process that points a tube axis of the processed portion of the work in a given direction by moving the processed portion relative to the work supporting portion or moving the work supporting portion relative to the processed portion in a direction perpendicular to a tube axis of the supported portion, while making a core bar inserted into the processed portion of the work contact an inner peripheral surface of the processed portion, characterised in that the forming process further comprises, reducing a diameter of the processed portion of the work by appropriately reducing a revolution diameter of the roller and moving the work supporting portion away from the spinning head in a direction parallel to the tube axis of the supported portion, at this time the core bar comes out from the processed portion of the cylindrical work as the work supporting portion moves. supporting a supported portion of a cylindrical work by a work supporting portion; pressing a roller of a spinning head against an outer peripheral surface of a processed portion of the work while revolving the roller; performing a forming process that points a tube axis of the processed portion of the work in a given direction by moving the processed portion relative to the work supporting portion or moving the work supporting portion relative to the processed portion in a direction perpendicular to a tube axis of the supported portion, while making a core bar inserted into the processed portion of the work contact an inner peripheral surface of the processed portion, characterised in that the forming process further comprises, reducing a diameter of the processed portion of the work by appropriately reducing a revolution diameter of the roller and moving the work supporting portion away from the spinning head in a direction parallel to the tube axis of the supported portion, at this time the core bar comes out from the processed portion of the cylindrical work as the work supporting portion moves.
A process for producing baked goods, which comprises using a mixture consisting of at least one baking raising agent and at least one substance selected from the group consisting of sulfites, bisulfites and metabisulfites in the production of the baked goods dough.
A patterned membrane structure in the form of a roll or sheet of industrial scale, comprising a microporous membrane layer, wherein the microporous membrane layer includes a plurality of flow lanes, the flow lanes are separated by hydrophobic separation channels, and the flow lanes and hydrophobic separation channels form a pattern.
A method of calculating an analyte concentration of a sample, comprising: introducing a sample to an electrochemical cell that includes a first electrode and a second electrode; applying a first test voltage V 1 for a first time interval T 1 between the first electrode and the second electrode sufficient to at least partially oxidize a reduced mediator at the second electrode; applying a second test voltage V 2 for a second time interval T 2 between the first electrode and the second electrode sufficient to at least partially oxidize the reduced mediator at the first electrode; calculating an initial analyte concentration of the sample based on test current values determined during the first time interval T 1 and the second time interval T 2; calculating an error source of the sample; and calculating a corrected analyte concentration based on the initial analyte concentration and the error source, wherein the analyte is glucose and the error source is a hematocrit level H of the sample, such that the corrected glucose concentration G 2 is based on the initial glucose concentration G 1 and the hematocrit level H, and wherein a correction value Corr is calculated with a function dependent on a hematocrit level H as compared to a lower or upper predetermined hematocrit level H L or H U and the initial glucose concentration G 1 as compared to an upper or lower predetermined glucose concentration G U or G L, and the corrected glucose concentration G 2 is calculated based on the initial glucose concentration G 1, the hematocrit level H, and the correction value Corr. introducing a sample to an electrochemical cell that includes a first electrode and a second electrode; applying a first test voltage V 1 for a first time interval T 1 between the first electrode and the second electrode sufficient to at least partially oxidize a reduced mediator at the second electrode; applying a second test voltage V 2 for a second time interval T 2 between the first electrode and the second electrode sufficient to at least partially oxidize the reduced mediator at the first electrode; calculating an initial analyte concentration of the sample based on test current values determined during the first time interval T 1 and the second time interval T 2; calculating an error source of the sample; and calculating a corrected analyte concentration based on the initial analyte concentration and the error source, wherein the analyte is glucose and the error source is a hematocrit level H of the sample, such that the corrected glucose concentration G 2 is based on the initial glucose concentration G 1 and the hematocrit level H, and wherein a correction value Corr is calculated with a function dependent on a hematocrit level H as compared to a lower or upper predetermined hematocrit level H L or H U and the initial glucose concentration G 1 as compared to an upper or lower predetermined glucose concentration G U or G L, and the corrected glucose concentration G 2 is calculated based on the initial glucose concentration G 1, the hematocrit level H, and the correction value Corr.
A method of separating a mixture in an installation comprising: - a first system comprising a plurality of chromatography columns, an outlet line for collecting a raffinate and an outlet line for collecting an extract; - at least one second system placed downstream of a first system; and - at least one tank fed by one of said outlet lines of the first system and feeding the second system with a continuous stream; the method successively comprising, in a cyclic manner, in a given part of the first system: - a step of collecting a raffinate, a step of injecting the mixture to be separated, a step of collecting an extract, and a step of injecting a mobile phase; wherein the method further comprises the measurement of the purity and/or of the yield of at least one collected fraction chosen from the extract and the raffinate, said measurement of the purity and/or of the yield comprising the following steps: - the determination of the concentration of at least two species of the mixture to be separated in the fraction collected in the tank; - the determination of the purity and/or of the yield of at least one species of the fraction collected in the tank based on the concentrations of the at least two species of the mixture to be separated as determined in the fraction collected in the tank. - a first system comprising a plurality of chromatography columns, an outlet line for collecting a raffinate and an outlet line for collecting an extract; - at least one second system placed downstream of a first system; and - at least one tank fed by one of said outlet lines of the first system and feeding the second system with a continuous stream; - a step of collecting a raffinate, a step of injecting the mixture to be separated, a step of collecting an extract, and a step of injecting a mobile phase; - the determination of the concentration of at least two species of the mixture to be separated in the fraction collected in the tank; - the determination of the purity and/or of the yield of at least one species of the fraction collected in the tank based on the concentrations of the at least two species of the mixture to be separated as determined in the fraction collected in the tank.
A rotor blade of a wind energy installation having a profile (1 - 4) which has an upper side (suction side) and a lower side (pressure side), wherein the profile (1 - 4) has a camber line (21, 25) and a chord between the leading edge and the trailing edge of the profile (1 - 4), wherein the profile (1 - 4) has a relative profile thickness of more than 45 %, wherein at least one vortex generator (50, 50', 50", 50"') is arranged on the suction side of the rotor blade in the region of the profile (1 - 4), wherein the profile (1 - 4) is provided with a blunt trailing edge, wherein the thickness of the trailing edge is between 15 % and 70 % of the chord length, characterized in that the at least one vortex generator (50 - 50"') is arranged in a region from 20 % to 28 % of a relative profile depth of the profile (1 - 4).
A method for producing slat layers from slats arranged behind one another, wherein the slats are placed behind one another such that the sum of the slat length corresponds at least to the length of the slat layer to be produced, wherein at least one buffer station is provided for the slats of different lengths, from which buffer station the slats are removed for forming the slat layers, wherein the slats are combined on a conveying means such that the end slat inside the slat layer is so long and is severed such that the slat layer has the desired length, and the severed remaining piece of the end slat can be inserted into a subsequent slat layer, characterized in that the remaining piece of the end slat is taken from the conveying stream, is temporarily stored on a remaining piece conveying means, and is inserted in a subsequent slat layer according to a slat, wherein the severed remaining piece does not form the first piece of a directly next, subsequent slat layer.