mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: receiving a signal, which carries data that is encoded with an Error Correction Code, ECC; correcting one or more of a phase, a frequency, a timing, a gain, and a channel response of the received signal with an adaptive receiver loop; computing soft input metrics b ̃ i j for the data over the corrected signal; and decoding the ECC using a decoder, which estimates soft output metrics c ̃ i j based on the soft input metrics b ̃ i j, by operating the decoder in a pattern that alternates between external iterations that update one or more of the soft input metrics b ̃ i j based on one or more of the soft output metrics c ̃ i j, and internal iterations that update the soft output metrics c ̃ i j but not the soft input metrics b ̃ i j; providing the soft input metrics b ̃ i j, and not the soft output metrics c ̃ i j, as input to the adaptive receiver loop; and adjusting the adaptive receiver loop based on the soft input metrics b ̃ i j in a schedule that is defined relative to the pattern of the external and the internal iterations of the decoder. receiving a signal, which carries data that is encoded with an Error Correction Code, ECC; correcting one or more of a phase, a frequency, a timing, a gain, and a channel response of the received signal with an adaptive receiver loop; computing soft input metrics b ̃ i j for the data over the corrected signal; and decoding the ECC using a decoder, which estimates soft output metrics c ̃ i j based on the soft input metrics b ̃ i j, by operating the decoder in a pattern that alternates between external iterations that update one or more of the soft input metrics b ̃ i j based on one or more of the soft output metrics c ̃ i j, and internal iterations that update the soft output metrics c ̃ i j but not the soft input metrics b ̃ i j; providing the soft input metrics b ̃ i j, and not the soft output metrics c ̃ i j, as input to the adaptive receiver loop; and adjusting the adaptive receiver loop based on the soft input metrics b ̃ i j in a schedule that is defined relative to the pattern of the external and the internal iterations of the decoder.
An apparatus, comprising: - means for storing tunnel model data defining target tunnel profile (20, 62) for rock processing by a mobile rock processing machine, - means for receiving operational tunnel profile data generated on the basis of scanning of surroundings of the rock processing machine and defining a realized tunnel profile (24, 63), - means for detecting current position of a tool of the rock processing machine, - means for defining difference between the target tunnel profile (20, 62) and the realized tunnel profile (24, 63) on the basis of the position of the tool and on the basis of the tunnel model data and the realized tunnel profile (24, 63) data, and - means for indicating the difference between the target tunnel profile (20, 62) and the realized tunnel profile (24, 63) on the basis of the position of the tool in a 2D or 3D view displaying the target tunnel profile (20, 62) and the realized tunnel profile (24, 63) at least at the position of tool and indicating the position of the tool, wherein the apparatus is configured to - define allowed tolerance for deviating from the target tunnel profile (20, 62), and - indicate the allowed tolerance in the displayed realized tunnel profile (24, 63), or - determine at least excess rock areas exceeding the allowed tolerance in the realized tunnel profile (24, 63) and indicate at least the excess rock areas in the displayed realized tunnel profile (24, 63). - means for storing tunnel model data defining target tunnel profile (20, 62) for rock processing by a mobile rock processing machine, - means for receiving operational tunnel profile data generated on the basis of scanning of surroundings of the rock processing machine and defining a realized tunnel profile (24, 63), - means for detecting current position of a tool of the rock processing machine, - means for defining difference between the target tunnel profile (20, 62) and the realized tunnel profile (24, 63) on the basis of the position of the tool and on the basis of the tunnel model data and the realized tunnel profile (24, 63) data, and - means for indicating the difference between the target tunnel profile (20, 62) and the realized tunnel profile (24, 63) on the basis of the position of the tool in a 2D or 3D view displaying the target tunnel profile (20, 62) and the realized tunnel profile (24, 63) at least at the position of tool and indicating the position of the tool, wherein the apparatus is configured to - define allowed tolerance for deviating from the target tunnel profile (20, 62), and - indicate the allowed tolerance in the displayed realized tunnel profile (24, 63), or - determine at least excess rock areas exceeding the allowed tolerance in the realized tunnel profile (24, 63) and indicate at least the excess rock areas in the displayed realized tunnel profile (24, 63).
A knife assembly (50, 52, 54) adapted for installation in a centrifugal-type cutting apparatus and cutting food product in the centrifugal-type cutting apparatus, the knife assembly (50, 52, 54) comprising: a knife having a corrugated shape to produce a large-amplitude food product slice having a periodic shape, the corrugated shape comprising peaks and valleys to produce the periodic shape; at least one julienne tab metallurgically joined to a convex side of at least one peaks of the knife by a metallurgical joint, the julienne tab being oriented along the peak to cut the food product slice into strips. a knife having a corrugated shape to produce a large-amplitude food product slice having a periodic shape, the corrugated shape comprising peaks and valleys to produce the periodic shape; at least one julienne tab metallurgically joined to a convex side of at least one peaks of the knife by a metallurgical joint, the julienne tab being oriented along the peak to cut the food product slice into strips.
A curable composition which contains a (meth)acrylic acid ester polymer having as constituent monomers a monomer having a reactive silicon group represented by the general formula: -SiR 1 a X 3-a (in the formula, R 1 represents a substituted or unsubstituted hydrocarbon group with 1 to 20 carbon atoms, X each independently represents a hydroxyl group or a hydrolyzable group, and a represents 0 or 1) and a polymerizable unsaturated group, and a macromonomer (a) having a polymerizable unsaturated group, in which the macromonomer (a) is a (meth)acrylic acid ester polymer, the hydrolyzable group is a hydrogen, a halogen, an alkoxy group, an alkenyloxy group, an aryloxy group, an acyloxy group, an amino group, an amide group, an aminooxy group, or a mercapto group, and Tg of a main chain constituting the polymer, calculated with the Fox Equation, is 0°C to 130°C, wherein the calculation is made without including the monomer having a reactive silicon group. and a polymerizable unsaturated group, and a macromonomer (a) having a polymerizable unsaturated group, in which the macromonomer (a) is a (meth)acrylic acid ester polymer, the hydrolyzable group is a hydrogen, a halogen, an alkoxy group, an alkenyloxy group, an aryloxy group, an acyloxy group, an amino group, an amide group, an aminooxy group, or a mercapto group, and Tg of a main chain constituting the polymer, calculated with the Fox Equation, is 0°C to 130°C, wherein the calculation is made without including the monomer having a reactive silicon group.
A device, comprising: a housing; a rotatable shaft having a longitudinal axis, wherein at least a portion of the shaft is within the housing; a movable carrier configured to be substantially within the housing and coupled to the shaft such that rotation of the shaft results in linear motion of the carrier along the longitudinal axis; a magnet having a magnetization axis disposed on the carrier so as to move with the carrier such that a range of rotation of the shaft results in a range of linear motion of the magnet along the longitudinal axis, the magnet oriented such that the magnetization axis is substantially perpendicular to the longitudinal axis; a magnetic sensor circuit positioned substantially within the housing such that the magnet moves relative to the magnetic sensor circuit, the magnetic sensor circuit configured to measure a first flux density along the magnetization axis and a second flux density along the direction of the longitudinal axis of the shaft, and generate an output signal representative of a position of the magnet within the range of linear motion of the magnet thereby allowing determination of a rotational position of the shaft within the range of rotation. a housing; a rotatable shaft having a longitudinal axis, wherein at least a portion of the shaft is within the housing; a movable carrier configured to be substantially within the housing and coupled to the shaft such that rotation of the shaft results in linear motion of the carrier along the longitudinal axis; a magnet having a magnetization axis disposed on the carrier so as to move with the carrier such that a range of rotation of the shaft results in a range of linear motion of the magnet along the longitudinal axis, the magnet oriented such that the magnetization axis is substantially perpendicular to the longitudinal axis; a magnetic sensor circuit positioned substantially within the housing such that the magnet moves relative to the magnetic sensor circuit, the magnetic sensor circuit configured to measure a first flux density along the magnetization axis and a second flux density along the direction of the longitudinal axis of the shaft, and generate an output signal representative of a position of the magnet within the range of linear motion of the magnet thereby allowing determination of a rotational position of the shaft within the range of rotation.
A pharmaceutical composition for use in preventing or treating an inflammatory disease, comprising Lactobacillus plantarum-derived extracellular vesicles as active ingredients.
An arrangement of a radio-frequency identifier tunable by dielectric inserts, utilizing radio-frequency identification and comprising a fixed part and a key, wherein the fixed part comprises an indication element and a decoding device which comprises a power supply unit, an evaluation and control unit, a decoding unit and a control element, wherein the decoding device is connected to a receiver which comprises a receiving antenna, an input amplifier and a block of filters and shaping circuits, wherein the decoding device is further connected to a transmitter which comprises a transmitting antenna, an output amplifier and a signal generator, wherein the key comprises at least one carrier connected with at least one dielectric insert, the carrier being provided with elementary resonators arranged into a periodic structure, wherein the carrier together with the elementary resonators forms a matrix.
A method of disintegrating pulp for use in cellulose acetate production, the method comprising: a primary disintegration step of disintegrating a pulp sheet, to which water has not been added, into pulp pieces having an average area of not more than 45 cm 2 by a disc refiner or a hammer mill; and a secondary disintegration step of disintegrating the pulp pieces with an impact shock exerted by a jet mill, wherein the jet mill includes: a cylindrical casing provided with an inlet and an outlet; and a rotor including a plurality of blades provided on its outer peripheral portion, the plurality of blades facing an inner peripheral surface of the casing. a primary disintegration step of disintegrating a pulp sheet, to which water has not been added, into pulp pieces having an average area of not more than 45 cm 2 by a disc refiner or a hammer mill; and a secondary disintegration step of disintegrating the pulp pieces with an impact shock exerted by a jet mill, wherein the jet mill includes: a cylindrical casing provided with an inlet and an outlet; and a rotor including a plurality of blades provided on its outer peripheral portion, the plurality of blades facing an inner peripheral surface of the casing. a cylindrical casing provided with an inlet and an outlet; and a rotor including a plurality of blades provided on its outer peripheral portion, the plurality of blades facing an inner peripheral surface of the casing.
A packaged plurality of chewing gum, comprising: a container; and a plurality of elongated chewing gum pellets housed within the container, the elongated chewing gum pellets having a curvilinear shaped surface, and comprising a dusting composition on the surface of each elongated chewing gum pellet; wherein each elongated chewing gum pellet is free of piece wrap and free of a coating; and wherein the dusting composition comprises a low hygroscopic dusting composition. a container; and a plurality of elongated chewing gum pellets housed within the container, the elongated chewing gum pellets having a curvilinear shaped surface, and comprising a dusting composition on the surface of each elongated chewing gum pellet; wherein each elongated chewing gum pellet is free of piece wrap and free of a coating; and wherein the dusting composition comprises a low hygroscopic dusting composition.
Method for manufacturing a single- or multi-layered substrate, which is suitable for a floor panel, wherein, for forming a substrate layer (9A-9B-9C), thermoplastic material (23A-23B-23C) is strewn, for example, onto a transport device, and this strewn thermoplastic material is consolidated under the influence of pressure and/or heat, preferably in a press device, the thermoplastic material (23A-23B-23C) to be strewn comprises micronized material, wherein said micronized material comprises PVC, characterized in that said micronized material comprises less than 15 parts of plasticizer per 100 parts of PVC.
A method of generating improved map data for use in a navigation device, the method comprising the steps of: displaying map data, suitable for route guidance algorithms, on a display of the electronic navigation device; receiving a first input from a user on a user interface of the navigation device to create a correction to an error in the map data directly on the device, the navigation device being able to use the created correction without external processing of the correction; downloading to the navigation device a correction to another error in the map data, said correction to another error being input by another user; receiving a second input from the user of the user interface to include or exclude from route calculations at least one of said created correction and said downloaded correction; and calculating a route to a destination based on the second input. displaying map data, suitable for route guidance algorithms, on a display of the electronic navigation device; receiving a first input from a user on a user interface of the navigation device to create a correction to an error in the map data directly on the device, the navigation device being able to use the created correction without external processing of the correction; downloading to the navigation device a correction to another error in the map data, said correction to another error being input by another user; receiving a second input from the user of the user interface to include or exclude from route calculations at least one of said created correction and said downloaded correction; and calculating a route to a destination based on the second input.
A method of palletizing objects coming from a plurality of production lines, characterized in that use is made of shuttle robots suitable for moving trolleys (106, 106') under the control of a monitoring and control unit in order to handle the objects (102, 103) to a palletizing station where the objects are stowed on a pallet, in that the palletizing station is shared between said plurality of production lines for producing the objects (102, 103), which objects are packaged in rectangular box shapes, and in that it further comprises the following steps: - using the shuttle robots to move (209, 212, 215) the objects (102, 103) for processing on distribution trolleys from the outlets of the production lines so as to place them in a transshipment station where each object is trans-shipped from a distribution trolley to an accumulation trolley on which the object is stacked on other externally identical rectangular box shaped objects that are to be palletized on a same pallet; - using the shuttle robots under the control of the monitoring and control unit to move the accumulation trolleys full of stacked objects to a buffer storage zone where the identical rectangular box shaped objects on the accumulation trolley are grouped together by batches in shuttle robot travel aisles, the objects of a batch being for stowing on a same pallet; and - preparing a palletizing plan by means of the monitoring and control unit when it is detected that all of the objects making up a batch to be palletized are stacked on one or more accumulation trolleys situated in the buffer storage zone, and once said palletizing plan has been prepared, moving said accumulation trolleys carrying the objects of the batch for palletizing from the buffer storage zone in order to stow them on a pallet. - using the shuttle robots to move (209, 212, 215) the objects (102, 103) for processing on distribution trolleys from the outlets of the production lines so as to place them in a transshipment station where each object is trans-shipped from a distribution trolley to an accumulation trolley on which the object is stacked on other externally identical rectangular box shaped objects that are to be palletized on a same pallet; - using the shuttle robots under the control of the monitoring and control unit to move the accumulation trolleys full of stacked objects to a buffer storage zone where the identical rectangular box shaped objects on the accumulation trolley are grouped together by batches in shuttle robot travel aisles, the objects of a batch being for stowing on a same pallet; and - preparing a palletizing plan by means of the monitoring and control unit when it is detected that all of the objects making up a batch to be palletized are stacked on one or more accumulation trolleys situated in the buffer storage zone, and once said palletizing plan has been prepared, moving said accumulation trolleys carrying the objects of the batch for palletizing from the buffer storage zone in order to stow them on a pallet.
A drug infusion device comprising: a skin-adherable surface; a reservoir for holding a medicament a cannula arranged to be deployed beneath the skin of a patient that delivers the medicament to the patient; an actuator (151, 161) to drive a medicament from the reservoir to the cannula; an insertion needle port that receives an insertion needle and which fluidly communicates with the cannula, and characterized by: a septum configured to seal the insertion needle port; and a septum pincher configured to press against the septum to assist the septum in sealing the insertion needle port. a skin-adherable surface; a reservoir for holding a medicament a cannula arranged to be deployed beneath the skin of a patient that delivers the medicament to the patient; an actuator (151, 161) to drive a medicament from the reservoir to the cannula; an insertion needle port that receives an insertion needle and which fluidly communicates with the cannula, and characterized by: a septum configured to seal the insertion needle port; and a septum pincher configured to press against the septum to assist the septum in sealing the insertion needle port. a septum configured to seal the insertion needle port; and a septum pincher configured to press against the septum to assist the septum in sealing the insertion needle port.
Fault current limiter arrangement for a low, medium to high voltage electricity grid, consisting of a fault current limiter unit which is arranged in line with a vacuum interrupter (circuit breaker unit) comprising a fixed electrical contact which is connected to a lower electrical terminal and a movable electrical contact which is connected to an upper electrical terminal, in order to interrupt the current flow after the fault current limiter unit has limited the current flow in fault event, detected by fault current detection means, characterized in that the fault current limiter unit comprises a movable electrical sliding contact part which is electrically arranged between the upper electrical terminal of the vacuum interrupter (circuit breaker unit) or a simple connection terminal without vacuum interrupter and the movable electrical contact of the vacuum interrupter (circuit breaker unit), and which is movable between a short circuit position adjacent to the upper electrical terminal and a remote position far from the upper electrical terminal for providing a maximum electrical resistance for the current flow, wherein the movable electrical sliding contact part generates the maximum electrical resistance in connection with a metallic pushrod for acting the movable electrical contact of the vacuum interrupter (circuit breaker unit) and a metallic housing sleeve surrounding the pushrod and electrically connected to the upper electrical terminal.
Method for processing a cable, wherein the method comprises the following steps: pulling a loop of the cable over a guide body arranged on a loop placement surface, wherein the loop is pulled up to a predetermined length using a driven driver and wherein the guide body has a taper at its upper end; and placing the loop from the driver onto the loop placement surface, wherein the loop is placed over the guide body in such a way that the cable falls by gravity downward from the driver onto the loop placement surface over the taper of the guide body and in the process one side of the loop slides over a slope of the guide body. pulling a loop of the cable over a guide body arranged on a loop placement surface, wherein the loop is pulled up to a predetermined length using a driven driver and wherein the guide body has a taper at its upper end; and placing the loop from the driver onto the loop placement surface, wherein the loop is placed over the guide body in such a way that the cable falls by gravity downward from the driver onto the loop placement surface over the taper of the guide body and in the process one side of the loop slides over a slope of the guide body.
Method for designing a wind energy plant including the steps: - calculating an anticipated pitching moment (m SN) of the wind energy plant, - calculating an anticipated, height-dependent thrust moment of the wind energy plant, specifically for nominal operation of the wind energy plant, - calculating a height position in which a total of the pitching moment (m SN) and the thrust moment (m S) has a minimum, specifically 0 value, and - determining this height position as the position of a yaw bearing. - calculating an anticipated pitching moment (m SN) of the wind energy plant, - calculating an anticipated, height-dependent thrust moment of the wind energy plant, specifically for nominal operation of the wind energy plant, - calculating a height position in which a total of the pitching moment (m SN) and the thrust moment (m S) has a minimum, specifically 0 value, and - determining this height position as the position of a yaw bearing.