mhurhangee/ep-ind-claims huggingface dataset:
A device for accommodating a disposable container having - a receptacle with at least one receptacle wall, which limits a receptacle interior of the receptacle for accommodating the disposable container, and - a tempering unit for tempering the receptacle wall; wherein an illumination device is arranged at an inside of the receptacle wall tempered by the tempering unit facing the receptacle interior, which is designed to emit light into the receptacle interior of the receptacle. - a receptacle with at least one receptacle wall, which limits a receptacle interior of the receptacle for accommodating the disposable container, and - a tempering unit for tempering the receptacle wall; wherein an illumination device is arranged at an inside of the receptacle wall tempered by the tempering unit facing the receptacle interior, which is designed to emit light into the receptacle interior of the receptacle.
Device for connecting two ends of foil by means of tape, the device comprising: - a frame; - a plurality of foil supplies adjacently mounted on the frame, the plurality of foil supplies comprising: - a first foil supply arranged to supply a first foil (8-12;91) at a first position; - a plurality of further foil supplies arranged to supply respective ends of further foils at respective further positions; - a carriage sub frame mounted to the frame so as to be movable with respect to the frame between at least the first position at which the first foil is supplied and a selected one of the further positions at which an end of a further foil is positioned, the carriage sub frame supporting at least a foil end holding unit arranged for holding an end of the first foil supplied from the first foil supply; - a tape dispenser (93;120) for dispensing tape to connect the foil ends, the tape dispenser being mounted on the movable carriage sub frame; wherein the carriage sub frame (94,101) is configured to hold the end of the first foil and the end of the further foil when the carriage sub frame has moved from the first position to the selected further position and wherein the device is further configured to dispense tape on the further foil end when the carriage sub frame has moved from the first position to the selected further position and both the end of the first foil and the end of the further foil are held by the carriage sub frame (94,101). - a frame; - a plurality of foil supplies adjacently mounted on the frame, the plurality of foil supplies comprising: - a first foil supply arranged to supply a first foil (8-12;91) at a first position; - a plurality of further foil supplies arranged to supply respective ends of further foils at respective further positions; - a carriage sub frame mounted to the frame so as to be movable with respect to the frame between at least the first position at which the first foil is supplied and a selected one of the further positions at which an end of a further foil is positioned, the carriage sub frame supporting at least a foil end holding unit arranged for holding an end of the first foil supplied from the first foil supply; - a tape dispenser (93;120) for dispensing tape to connect the foil ends, the tape dispenser being mounted on the movable carriage sub frame; - a first foil supply arranged to supply a first foil (8-12;91) at a first position; - a plurality of further foil supplies arranged to supply respective ends of further foils at respective further positions; - a carriage sub frame mounted to the frame so as to be movable with respect to the frame between at least the first position at which the first foil is supplied and a selected one of the further positions at which an end of a further foil is positioned, the carriage sub frame supporting at least a foil end holding unit arranged for holding an end of the first foil supplied from the first foil supply; - a tape dispenser (93;120) for dispensing tape to connect the foil ends, the tape dispenser being mounted on the movable carriage sub frame;
A water supply apparatus, wherein - a mixing apparatus is provided for mixing, in a mixing container, water carried in the mixing apparatus; - relative to the mixing container, a base apparatus is arranged which has a base chamber that is hydraulically connected to a water conduit (11, 12, 13) of the water supply apparatus and which has an opening to the surroundings; - a sealing device is installed in the base chamber for closing off the opening of the base chamber from the surroundings; - the sealing device has a wall area with predetermined breaking point which has a compressive strength that is lower than the compressive strength of wall areas of other components of the water supply apparatus which, in the operating state, enclose cavities that can be filled with water, and which separate these cavities that can be filled with water from the surroundings; characterized in that - the mixing container encloses a mixing chamber; in that - an opening is provided in the bottom area of the mixing chamber, which connects the mixing chamber to the base chamber; and in that - when the sealing device is installed, the opening to the base chamber is closed. - a mixing apparatus is provided for mixing, in a mixing container, water carried in the mixing apparatus; - relative to the mixing container, a base apparatus is arranged which has a base chamber that is hydraulically connected to a water conduit (11, 12, 13) of the water supply apparatus and which has an opening to the surroundings; - a sealing device is installed in the base chamber for closing off the opening of the base chamber from the surroundings; - the sealing device has a wall area with predetermined breaking point which has a compressive strength that is lower than the compressive strength of wall areas of other components of the water supply apparatus which, in the operating state, enclose cavities that can be filled with water, and which separate these cavities that can be filled with water from the surroundings; characterized in that - the mixing container encloses a mixing chamber; in that - an opening is provided in the bottom area of the mixing chamber, which connects the mixing chamber to the base chamber; and in that - when the sealing device is installed, the opening to the base chamber is closed.
A quantum computing method comprising: generating quantum processor control information for a group of devices housed in a quantum processor cell, each device in the group having a distinct operating frequency; generating a multiplexed control signal based on the quantum processor control information; communicating the multiplexed control signal from a first, higher temperature stage to a second, lower temperatures stage, wherein the second temperature stage comprises a low-noise, cryogenic environment; communicating the multiplexed control signal on a physical channel into an input signal processing system (128, 2330), the input signal processing system (128, 2330) operating in the low-noise, cryogenic environment; separating device control signals from the multiplexed control signal by de-multiplexing the multiplexed control signal in the input signal processing system (128, 2330), wherein the multiplexed control signal is de-multiplexed by a de-multiplexer device (2336, 2340) operating in the low-noise, cryogenic environment, and the de-multiplexer device (2336, 2340) separates the device control signal from an input channel onto multiple output channels, the output channels comprising a distinct physical channel for each device in the group; and communicating the respective device control signals on the output channels into the quantum processor cell for the group of devices, the quantum processor cell operating in the low-noise, cryogenic environment. generating quantum processor control information for a group of devices housed in a quantum processor cell, each device in the group having a distinct operating frequency; generating a multiplexed control signal based on the quantum processor control information; communicating the multiplexed control signal from a first, higher temperature stage to a second, lower temperatures stage, wherein the second temperature stage comprises a low-noise, cryogenic environment; communicating the multiplexed control signal on a physical channel into an input signal processing system (128, 2330), the input signal processing system (128, 2330) operating in the low-noise, cryogenic environment; separating device control signals from the multiplexed control signal by de-multiplexing the multiplexed control signal in the input signal processing system (128, 2330), wherein the multiplexed control signal is de-multiplexed by a de-multiplexer device (2336, 2340) operating in the low-noise, cryogenic environment, and the de-multiplexer device (2336, 2340) separates the device control signal from an input channel onto multiple output channels, the output channels comprising a distinct physical channel for each device in the group; and communicating the respective device control signals on the output channels into the quantum processor cell for the group of devices, the quantum processor cell operating in the low-noise, cryogenic environment.
A control apparatus for controlling a brake of a unit hauled by a vehicle, the vehicle comprising: - a plurality of brakes (55, 57) for braking the wheels of the vehicle; - a trailer brake for braking the hauled unit; - a parking brake for keeping the vehicle braked while it is stationary; wherein the control apparatus comprises: - a line for sending a fluid to the trailer brake through a control valve, in order to brake the hauled unit in certain working conditions; - a further line for sending a further fluid to the trailer brake in order to activate the trailer brake in other working conditions; - a valve device for controlling flow of the further fluid in the further line, the valve device being responsive to a signal indicative of the status of the parking brake. - a plurality of brakes (55, 57) for braking the wheels of the vehicle; - a trailer brake for braking the hauled unit; - a parking brake for keeping the vehicle braked while it is stationary; wherein the control apparatus comprises: - a line for sending a fluid to the trailer brake through a control valve, in order to brake the hauled unit in certain working conditions; - a further line for sending a further fluid to the trailer brake in order to activate the trailer brake in other working conditions; - a valve device for controlling flow of the further fluid in the further line, the valve device being responsive to a signal indicative of the status of the parking brake.
A fire blanket, comprising poorly flammable or non-flammable, flexible blanket material, wherein the blanket material is folded into a storage position, wherein the blanket material is provided with two rigid handles, which handles project at least partly outside the folded fire blanket, so that they can be grasped by at least one hand, wherein the handles are connected to the fire blanket material in a manner such that the hands are well protected from fire, preferably at at least 5 cm from the side edge of the blanket material, wherein the handles are fastened to the blanket material at a distance from the top edge of the blanket material, which distance is more than approximately 5 cm, and no more than half, preferably one third, of the height of the blanket material, and wherein the blanket material is folded up such that when the handles are moved apart, the fire blanket takes up an extinguishing position in which it has a relatively small front flap, a relatively large screening flap, and side flaps, wherein the handles comprise distancing elements that are fastened to the blanket material such that the flaps (7, 8, 9) can surround the fire while a blanket part can be held stretched to a greater or smaller extent and/or approximately horizontally above the fire.
A method of preparing coated paperboard comprising the steps of: preparing a web of cellulosic fibers, said web having a basis weight of at least about 85 pounds per 3000 ft 2 (about 0.138 kg/m 2) of said web; calendering said web at least once to form a paperboard substrate, wherein each of said calendering steps is performed without substantially introducing moisture to said web; applying a basecoat to at least one surface of said paperboard substrate to form a coated paperboard, said basecoat including a pigment component containing at least one pigment, said pigment component having a sediment void volume of at least 45 percent when measured by a technique involving diluting the pigment blend with water to 50% by weight solids, centrifuging a 70g sample of the resulting slurry at 8000g for 90 minutes and calculating the volume of water remaining in the voids of the sediment after pouring off and weighing the supernatant liquid; and applying a top coat over said basecoat of said coated paperboard to form a top-coated paperboard having an outermost top-coated surface, wherein said outermost top-coated surface has a Parker Print Surf smoothness of at most 3 micrometres. preparing a web of cellulosic fibers, said web having a basis weight of at least about 85 pounds per 3000 ft 2 (about 0.138 kg/m 2) of said web; calendering said web at least once to form a paperboard substrate, wherein each of said calendering steps is performed without substantially introducing moisture to said web; applying a basecoat to at least one surface of said paperboard substrate to form a coated paperboard, said basecoat including a pigment component containing at least one pigment, said pigment component having a sediment void volume of at least 45 percent when measured by a technique involving diluting the pigment blend with water to 50% by weight solids, centrifuging a 70g sample of the resulting slurry at 8000g for 90 minutes and calculating the volume of water remaining in the voids of the sediment after pouring off and weighing the supernatant liquid; and applying a top coat over said basecoat of said coated paperboard to form a top-coated paperboard having an outermost top-coated surface, wherein said outermost top-coated surface has a Parker Print Surf smoothness of at most 3 micrometres.
A method for negatively isolating a polymerase complex from a mixed population of unbound polymerase complex components, said method comprising: (a) providing a reaction mixture comprising polymerase complex components, and a plurality of polymerase complexes each comprising a polymerase enzyme bound to a polynucleotide template; (b) binding unbound polymerase enzyme to a capture oligonucleotide comprising a purification moiety to form a capture oligonucleotide polymerase enzyme composite; and (c) binding said capture oligonucleotide polymerase enzyme composite to a solid support comprising a purification moiety-binding compound, thereby isolating said polymerase complexes from said polymerase-polynucleotide complex components. (a) providing a reaction mixture comprising polymerase complex components, and a plurality of polymerase complexes each comprising a polymerase enzyme bound to a polynucleotide template; (b) binding unbound polymerase enzyme to a capture oligonucleotide comprising a purification moiety to form a capture oligonucleotide polymerase enzyme composite; and (c) binding said capture oligonucleotide polymerase enzyme composite to a solid support comprising a purification moiety-binding compound,
A method for performing virtual private cloud, VPC, routing across multiple public cloud environments, the method comprising: creating a first virtual routing agent, VRA, for a first VPC of a first public cloud; sending a registration request to a VRA controller, wherein the registration request comprises a data structure that includes communication parameters of the first VRA; receiving the communication parameters of other VRAs for other VPCs located in other public cloud environments from the VRA controller; and using the communication parameters of the other VRAs for overlay routing of data packets from the first VPC of the first public cloud to other VPCs of other public clouds via the other VRAs of the other VPCs; characterised by that the data structure that includes the communication parameters comprises a cloud provider identifier, ID, a VPC ID, a VPC internal Internet Protocol, IP, address structure, a service metadata structure, and a security service data structure, wherein the VPC internal IP address structure includes private IP addresses of one or more network elements attached to the first VRA within the first VPC. creating a first virtual routing agent, VRA, for a first VPC of a first public cloud; sending a registration request to a VRA controller, wherein the registration request comprises a data structure that includes communication parameters of the first VRA; receiving the communication parameters of other VRAs for other VPCs located in other public cloud environments from the VRA controller; and using the communication parameters of the other VRAs for overlay routing of data packets from the first VPC of the first public cloud to other VPCs of other public clouds via the other VRAs of the other VPCs; characterised by that the data structure that includes the communication parameters comprises a cloud provider identifier, ID, a VPC ID, a VPC internal Internet Protocol, IP, address structure, a service metadata structure, and a security service data structure, wherein the VPC internal IP address structure includes private IP addresses of one or more network elements attached to the first VRA within the first VPC.
Method for separating mixed cellulose-plastic products wherein the following steps are performed: a) Mashing of the mixed cellulose-plastic products with water; b) Introducing the mash produced in step a) into a stirred autoclave and closing the stirred autoclave; c) Heating the mash during continuous stirring at a speed of 50 to 350 rpm to a temperature of 150 to 250°C at a pressure of 1.2 to 3.0 MPa; d) Holding the temperature and the pressure of the mash heated in step c) during continuous stirring for a hold time of 0.3 to 6 hours, wherein the cellulose is hydrolysed and the plastics are agglomerated to spherical objects; e) Cooling down, pressure relieving and opening of the stirred autoclave. a) Mashing of the mixed cellulose-plastic products with water; b) Introducing the mash produced in step a) into a stirred autoclave and closing the stirred autoclave; c) Heating the mash during continuous stirring at a speed of 50 to 350 rpm to a temperature of 150 to 250°C at a pressure of 1.2 to 3.0 MPa; d) Holding the temperature and the pressure of the mash heated in step c) during continuous stirring for a hold time of 0.3 to 6 hours, wherein the cellulose is hydrolysed and the plastics are agglomerated to spherical objects; e) Cooling down, pressure relieving and opening of the stirred autoclave.
Method of operating a boarding system for a vehicle, the method comprising the steps of in reading an inclination signal representing an inclination of the entry system relative to a reference; reading at least one process signal representing a movement process of at least one boarding element of the boarding system, wherein the at least one process signal represents a characteristic curve of a current behaviour of at least one drive element of the boarding system during the movement process; and determining an operating signal for operating the boarding system using the inclination signal and the at least one process signal, the operating signal being determined as a function of a deviation between the characteristic curve and a reference characteristic curve and/or between the characteristic curve and an inclination-specific reference characteristic curve, wherein the reference characteristic curve represents a desired behaviour of at least one drive element of the boarding system during the movement process and the inclination-specific reference characteristic curve represents a desired behaviour specific to the current inclination of the boarding system of at least one drive element of the boarding system during the movement process. in reading an inclination signal representing an inclination of the entry system relative to a reference; reading at least one process signal representing a movement process of at least one boarding element of the boarding system, wherein the at least one process signal represents a characteristic curve of a current behaviour of at least one drive element of the boarding system during the movement process; and determining an operating signal for operating the boarding system using the inclination signal and the at least one process signal, the operating signal being determined as a function of a deviation between the characteristic curve and a reference characteristic curve and/or between the characteristic curve and an inclination-specific reference characteristic curve, wherein the reference characteristic curve represents a desired behaviour of at least one drive element of the boarding system during the movement process and the inclination-specific reference characteristic curve represents a desired behaviour specific to the current inclination of the boarding system of at least one drive element of the boarding system during the movement process.
A method of forming a magnetic tunnel junction, MTJ, storage element, the method comprising: forming an MTJ, comprising a pinned layer, a barrier layer and a free layer; characterized in that the method further comprises: forming an inner top electrode on the free layer; patterning the inner top electrode utilizing lithography and etching; forming an outer top electrode on the inner top electrode, encapsulating the inner top electrode; etching the outer top electrode; and etching the MTJ utilizing the outer top electrode and the inner top electrode as a mask. forming an inner top electrode on the free layer; patterning the inner top electrode utilizing lithography and etching; forming an outer top electrode on the inner top electrode, encapsulating the inner top electrode; etching the outer top electrode; and etching the MTJ utilizing the outer top electrode and the inner top electrode as a mask.
Apparatus in a mobile telephone for identification of an artificially created magnetic field, comprising: a) at least one magnetic field sensor for measuring the earth's magnetic field; b) at least one evaluation unit for evaluating a measuring signal of the magnetic field sensor based on the artificially created magnetic field; and c) at least one function unit connected with the evaluation unit for executing, by the mobile telephone, a function as a result of the evaluation of the measured signal; d) wherein the function unit is adapted to transmit a first signal via a first data channel to a control unit, wherein the first signal is one of an activation signal or a signature of the artificially created magnetic field. a) at least one magnetic field sensor for measuring the earth's magnetic field; b) at least one evaluation unit for evaluating a measuring signal of the magnetic field sensor based on the artificially created magnetic field; and c) at least one function unit connected with the evaluation unit for executing, by the mobile telephone, a function as a result of the evaluation of the measured signal; d) wherein the function unit is adapted to transmit a first signal via a first data channel to a control unit, wherein the first signal is one of an activation signal or a signature of the artificially created magnetic field.