mhurhangee/ep-ind-claims huggingface dataset:
An order picking system (1, 1') for storing and retrieving medicament packages, wherein the order picking system (1, 1') comprises a dispensing rack having a plurality of dispensing shelves arranged one above the other, which dispensing shelves are inclined downward from a storage side of the dispensing rack toward a retrieval side of the dispensing rack and each has a plurality of parallel dispensing ducts, wherein a sliding barrier is provided in each case on a retrieval end located on the retrieval side of the dispensing rack of the corresponding dispensing duct; a dispensing mechanism with which the sliding barrier can be opened or overcome; a transport device running in a width direction (B A) of the dispensing rack on the retrieval side thereof and having a horizontally movable conveyor belt, and a control device controlling the dispensing mechanism and having an input module into which at least one order for requesting medicament packages from the order picking system (1, 1') can be input, wherein a sliding plate is arranged, which sliding plate extends on the retrieval side in front of the retrieval ends and which is inclined downward away from the retrieval ends in the width direction (B A) of the dispensing rack, wherein the transport device controlled by the control device extends along the sliding plate and can be displaced vertically on the retrieval side of the dispensing rack by means of the conveyor belt and the sliding plate, as a result of which the conveyor belt can be positioned at different conveying heights, characterized in that the conveyor belt can be displaced back and forth horizontally at the different conveying heights in opposite transport directions (T 1, T 2) by means of the control device and can also be stopped temporarily in front of at least one retrieval end in order to remove at least one medicament package, in that the medicament packages dispensed to the conveyor belt lie next to one another in a single row on the conveyor belt, and in that the number, grouping, and positional sequence of these medicament packages on the conveyor belt correspond to the at least one order for requesting medicament packages.
An encapsulation process including recovery of gel-mass from a gel-mass-containing waste material, comprising the steps of: (a) encapsulating a product thereby producing an encapsulated product and a gel-mass-containing waste material; (b) retrieving the gel-mass-containing waste material after said encapsulating step with sanitary mangle rolls which are a cleanable material, and employ sealed bearings and seals to prevent unnecessary contamination of the gel-mass containing waste material by ensuring that the mangle rolls are sanitary, which are associated with a drive gear which is coupled to a drive motor such that the mangle rolls rotate at a suitable speed to retrieve the gel-mass-containing waste material from the die rolls of an encapsulation machine; (c) introducing the gel-mass-containing waste material into a displacement liquid which is an oil-miscible liquid heated to a temperature in a range of from about 50 °C to about 90 °C, or more preferably 60° C to 80° C, or most preferably 65° C to 75° C to facilitate melting and melting the gel-mass-containing waste material to produce an oil phase and a non-oil phase; (d) separating the non-oil phase to provide a recovered gel-mass; (e) combining the recovered gel-mass with fresh encapsulating material to provide a combined encapsulating material; and (f) feeding the combined encapsulating material to step (a) for encapsulation of a same lot of the same product which was being encapsulated in the step (a) that produced the gel-mass-containing waste material from which the recovered gel-mass of step (d) was obtained. (a) encapsulating a product thereby producing an encapsulated product and a gel-mass-containing waste material; (b) retrieving the gel-mass-containing waste material after said encapsulating step with sanitary mangle rolls which are a cleanable material, and employ sealed bearings and seals to prevent unnecessary contamination of the gel-mass containing waste material by ensuring that the mangle rolls are sanitary, which are associated with a drive gear which is coupled to a drive motor such that the mangle rolls rotate at a suitable speed to retrieve the gel-mass-containing waste material from the die rolls of an encapsulation machine; (c) introducing the gel-mass-containing waste material into a displacement liquid which is an oil-miscible liquid heated to a temperature in a range of from about 50 °C to about 90 °C, or more preferably 60° C to 80° C, or most preferably 65° C to 75° C to facilitate melting and melting the gel-mass-containing waste material to produce an oil phase and a non-oil phase; (d) separating the non-oil phase to provide a recovered gel-mass; (e) combining the recovered gel-mass with fresh encapsulating material to provide a combined encapsulating material; and (f) feeding the combined encapsulating material to step (a) for encapsulation of a same lot of the same product which was being encapsulated in the step (a) that produced the gel-mass-containing waste material from which the recovered gel-mass of step (d) was obtained.
A web funnel for condensing a fiber web, particularly on a draw frame, carding machine, or comber, having an inlet side implemented elongated in the X-direction at which the outspread fiber web made of individual fibers enters the web funnel and an outlet side spaced apart from the inlet side in the Z-direction, at which the fiber web exits the web funnel as a fiber sliver, having an outlet opening disposed on the outlet side, and having two guide surfaces (5a, 5b) disposed between the inlet side and outlet side and in each case adjacent to the outlet opening for the fiber web, in order to guide the fiber web flowing into the web funnel in the direction of the outlet opening, characterized in that at least one guide element (6, 12) is disposed in a region between the inlet side and the outlet opening limiting a component of the displacement of the fiber web in the X-direction and/or in the Y-direction, wherein the guide element (6, 12) is disposed for preventing the fibers from colliding with each other at least in the X-direction after the guide surfaces (5a, 5b) deflect the fiber web in the direction of the outlet opening.
A bottle crate with a crate base body from a first plastic with four side walls with an inmould foil being arranged in the area of at least one sidewall, wherein the surface of the inmould foil which is arranged at the sidewall has a relief, which is formed from at least an increase and a recess, with the relief being formed from the first plastic and/or a further material and/or from the inmould foil, characterized in that the at least one recess is covered at least partially with a cover of a second plastic, preferably moulded, and that the at least one increase is free from the cover with the second plastic.
A method (200, 400) of preparing a laminate, comprising: obtaining (225, 465) a first plastic substrate (111, 311, 511) having a front surface and a back surface; treating (230, 475) the front surface of the first plastic substrate or the back surface of the first plastic substrate; and laminating (235, 480) a second plastic substrate (112, 312, 512) on the treated front surface of the first plastic substrate or the treated back surface of the first plastic substrate, wherein the treating (230, 475) of the front surface of the first plastic substrate or the back surface of the first plastic substrate includes applying (231, 476) a polyurethane resin (120, 320, 520) to the front surface of the first plastic substrate or the back surface of the first plastic substrate and applying (232, 477) isopropyl alcohol, ethanol, or methanol to the applied polyurethane resin (120, 320, 520), wherein the method (200, 400) is implemented without chemical adhesives. obtaining (225, 465) a first plastic substrate (111, 311, 511) having a front surface and a back surface; treating (230, 475) the front surface of the first plastic substrate or the back surface of the first plastic substrate; and laminating (235, 480) a second plastic substrate (112, 312, 512) on the treated front surface of the first plastic substrate or the treated back surface of the first plastic substrate, wherein the treating (230, 475) of the front surface of the first plastic substrate or the back surface of the first plastic substrate includes applying (231, 476) a polyurethane resin (120, 320, 520) to the front surface of the first plastic substrate or the back surface of the first plastic substrate and applying (232, 477) isopropyl alcohol, ethanol, or methanol to the applied polyurethane resin (120, 320, 520), wherein the method (200, 400) is implemented without chemical adhesives.
A computer implemented method of automatically calibrating a vehicle parameter of an automated industrial vehicle, the method comprising: measuring a vehicle parameter during automated industrial vehicle operation, wherein the vehicle parameter represents a physical characteristic related to the industrial vehicle and wherein the vehicle parameter changes over time; characterized in that the method further comprises: analyzing error in a system measurement comprising an actual value y that is not directly observable and an observed value ŷ, wherein the observed value ŷ is obtained using noisy sensor readings s = {s 1, s 2,... s n} in a measurement model ŷ = f( s, p) where p = {p 1, p 2,... p n} from two different measurement models ŷ 1, ŷ 2, wherein y ^ 1 = f s 1 p 1, y ^ 2 = f s 2 p 2, s 1 and s 2 represent first and second sets of noisy sensor readings, and p 1 and p 2 represent first and second sets of parameters that relate the first and second sets of noisy sensor readings from two independent measures of the vehicle parameter to the system measurement; calculating an observed error ∈ = ŷ 1 - ŷ 2 over a period of time; and observing a bias in the observed error and adjusting the first and second sets of parameters p 1 and p 2 based on the bias. measuring a vehicle parameter during automated industrial vehicle operation, wherein the vehicle parameter represents a physical characteristic related to the industrial vehicle and wherein the vehicle parameter changes over time; analyzing error in a system measurement comprising an actual value y that is not directly observable and an observed value ŷ, wherein the observed value ŷ is obtained using noisy sensor readings s = {s 1, s 2,... s n} in a measurement model ŷ = f( s, p) where p = {p 1, p 2,... p n} from two different measurement models ŷ 1, ŷ 2, wherein y ^ 1 = f s 1 p 1, y ^ 2 = f s 2 p 2, s 1 and s 2 represent first and second sets of noisy sensor readings, and p 1 and p 2 represent first and second sets of parameters that relate the first and second sets of noisy sensor readings from two independent measures of the vehicle parameter to the system measurement; calculating an observed error ∈ = ŷ 1 - ŷ 2 over a period of time; and s 1 and s 2 represent first and second sets of noisy sensor readings, and p 1 and p 2 represent first and second sets of parameters that relate the first and second sets of noisy sensor readings from two independent measures of the vehicle parameter to the system measurement; calculating an observed error ∈ = ŷ 1 - ŷ 2 over a period of time; and observing a bias in the observed error and adjusting the first and second sets of parameters p 1 and p 2 based on the bias.
An egg identification system for determining viability of an avian egg, the system comprising: a plurality of emitter assemblies, each emitter assembly being configured to emit electromagnetic radiation toward one of a plurality of eggs conveyed in an egg flat, wherein a power of the emitted electromagnetic radiation from each emitter assembly is modulated at a frequency unique to the frequencies of adjacent emitter assemblies and with a sinusoidal power variation in optical power; a plurality of detector assemblies each corresponding to a respective emitter assembly, each detector assembly being configured with an electrical filtering means to concurrently detect the magnitude of the power variation in the emitted electromagnetic radiation at frequency of the respective emitter assembly while rejecting the emitted electromagnetic radiation at the frequencies of the adjacent emitter assemblies in the electrical domain, each detector assembly being configured to locate an electrical signal power within a narrow frequency band; and a processor configured to process an output signal of each detector assembly to determine whether the electromagnetic radiation transmitted through a respective egg as detected by each detector assembly is indicative of a viable or non-viable egg. a plurality of emitter assemblies, each emitter assembly being configured to emit electromagnetic radiation toward one of a plurality of eggs conveyed in an egg flat, wherein a power of the emitted electromagnetic radiation from each emitter assembly is modulated at a frequency unique to the frequencies of adjacent emitter assemblies and with a sinusoidal power variation in optical power; a plurality of detector assemblies each corresponding to a respective emitter assembly, each detector assembly being configured with an electrical filtering means to concurrently detect the magnitude of the power variation in the emitted electromagnetic radiation at frequency of the respective emitter assembly while rejecting the emitted electromagnetic radiation at the frequencies of the adjacent emitter assemblies in the electrical domain, each detector assembly being configured to locate an electrical signal power within a narrow frequency band; and a processor configured to process an output signal of each detector assembly to determine whether the electromagnetic radiation transmitted through a respective egg as detected by each detector assembly is indicative of a viable or non-viable egg.
A method for manufacturing structural steel components with local reinforcement (350, 375), the method comprising: selecting at least a zone of the component to be reinforced; providing a steel blank; deforming the blank in a press tool to form a product such that a groove (110, 210, 310, 401, 501) comprising an inner surface and an outer surface is created in the product; and depositing a reinforcement material (140, 244, 340, 370) on the inner surface of the groove (110, 210, 310, 401, 501); locally heating the reinforcement material (140, 244, 340, 370) and the groove (110, 210, 310, 401, 501) in the zone to be reinforced of the product to mix the melted reinforcement material (140, 244, 340, 370) with the melted portion of the product. selecting at least a zone of the component to be reinforced; providing a steel blank; deforming the blank in a press tool to form a product such that a groove (110, 210, 310, 401, 501) comprising an inner surface and an outer surface is created in the product; and depositing a reinforcement material (140, 244, 340, 370) on the inner surface of the groove (110, 210, 310, 401, 501); locally heating the reinforcement material (140, 244, 340, 370) and the groove (110, 210, 310, 401, 501) in the zone to be reinforced of the product to mix the melted reinforcement material (140, 244, 340, 370) with the melted portion of the product.
A method comprising: receiving of signal data that indicates a set of one or more distinct signal sources from which signals are received at a mobile device for each of a plurality of different times; determining whether the mobile device is moving outside a specified area at a current time of the plurality of different times based on the signal data; if the mobile device is determined to be not moving outside the specified area, then causing at least in part an incrementing of a count for a stationary state associated with the set of one or more distinct signal sources at the current time; determining a primary set of stationary states, each stationary state in the primary set associated with a frequently incremented count for one or more similar sets of one or more distinct signal sources when the mobile device is not moving outside the specified area; and causing at least in part initiation of delivery of a service to the mobile device based on each stationary state in the determined primary set of stationary states. receiving of signal data that indicates a set of one or more distinct signal sources from which signals are received at a mobile device for each of a plurality of different times; determining whether the mobile device is moving outside a specified area at a current time of the plurality of different times based on the signal data; if the mobile device is determined to be not moving outside the specified area, then causing at least in part an incrementing of a count for a stationary state associated with the set of one or more distinct signal sources at the current time; determining a primary set of stationary states, each stationary state in the primary set associated with a frequently incremented count for one or more similar sets of one or more distinct signal sources when the mobile device is not moving outside the specified area; and causing at least in part initiation of delivery of a service to the mobile device based on each stationary state in the determined primary set of stationary states.
A method for producing bias compensated angular rate measurements from a ring laser gyroscope, the method comprising: periodically sampling an angle measurement output from a laser block sensor to obtain an angular rate measurement; obtaining a laser block temperature measurement (T block) for the laser block sensor; and further characterised by: obtaining a temperature gradient measurement (T diff) for at least one gradient line across a portion of the laser block sensor by measuring a difference in temperature across said portion of the laser block sensor calculating a rate bias error by applying parameters produced from the temperature measurement (T block) and the temperature gradient measurement (T diff) to a thermal gradient compensation model, wherein the thermal gradient compensation model includes at least one coefficient corresponding to the temperature gradient measurement (T diff); and calculating a difference between the angular rate measurement and the rate bias error to produce a bias compensated angular rate measurement (ω comp). periodically sampling an angle measurement output from a laser block sensor to obtain an angular rate measurement; obtaining a laser block temperature measurement (T block) for the laser block sensor; and further characterised by: obtaining a temperature gradient measurement (T diff) for at least one gradient line across a portion of the laser block sensor by measuring a difference in temperature across said portion of the laser block sensor calculating a rate bias error by applying parameters produced from the temperature measurement (T block) and the temperature gradient measurement (T diff) to a thermal gradient compensation model, wherein the thermal gradient compensation model includes at least one coefficient corresponding to the temperature gradient measurement (T diff); and calculating a difference between the angular rate measurement and the rate bias error to produce a bias compensated angular rate measurement (ω comp). obtaining a temperature gradient measurement (T diff) for at least one gradient line across a portion of the laser block sensor by measuring a difference in temperature across said portion of the laser block sensor calculating a rate bias error by applying parameters produced from the temperature measurement (T block) and the temperature gradient measurement (T diff) to a thermal gradient compensation model, wherein the thermal gradient compensation model includes at least one coefficient corresponding to the temperature gradient measurement (T diff); and calculating a difference between the angular rate measurement and the rate bias error to produce a bias compensated angular rate measurement (ω comp).
Compressed-air supply device of a rail vehicle, having a main compressor for generating compressed air for a pneumatic brake system, and having a vehicle battery for the supply of electrical energy, wherein compressed-air generating means are provided for the additional auxiliary-air supply for the operation of at least one pneumatic actuator in the context of an actuating drive for a pantograph, characterized in that the compressed-air generating means for the auxiliary-air supply comprise an electrical frequency inverter for the operation of the electric motor-driven main compressor of the rail vehicle at low rotational speed using electrical drive energy provided from the vehicle battery, wherein, to the compressed-air line which is connected to the main compressor, there is attached a secondary line in order for auxiliary air for the auxiliary-air supply to the actuator to be branched off from said compressed-air line.
Composition based on at least one unsaturated polymer, a reinforcing filler and a polysulfide compound of general formula: in which: n is a number greater than or equal to 2, Z represents an O atom or the -N - group, and R 1 and R 2 each represent a linear or branched divalent hydrocarbon group comprising from 1 to 18 carbon atoms. n is a number greater than or equal to 2, Z represents an O atom or the -N - group, and R 1 and R 2 each represent a linear or branched divalent hydrocarbon group comprising from 1 to 18 carbon atoms.
A portable virtual welding system for facilitating a virtual welding activity, comprising by: a control unit comprising a logic processor-based subsystem operable to execute coded instructions for generating an interactive welding environment that emulates a welding activity; a display unit operatively connected to the control unit for visually depicting the interactive welding environment; a hand-held input device for performing the virtual welding activity; and a case for removably housing at least one of the control unit, the display unit, and the hand-held input device, during storage or transport of the virtual welding system, wherein the hand-held input device is not integrated with the case but removably housed within the case for returning it after virtual welding activity; wherein the case is for storing and transporting the virtual welding system, characterized in that at least one of the control unit and the display unit are integrated with the case to remain in the case during virtual welding activity. a control unit comprising a logic processor-based subsystem operable to execute coded instructions for generating an interactive welding environment that emulates a welding activity; a display unit operatively connected to the control unit for visually depicting the interactive welding environment; a hand-held input device for performing the virtual welding activity; and a case for removably housing at least one of the control unit, the display unit, and the hand-held input device, during storage or transport of the virtual welding system, wherein the hand-held input device is not integrated with the case but removably housed within the case for returning it after virtual welding activity; wherein the case is for storing and transporting the virtual welding system, characterized in that at least one of the control unit and the display unit are integrated with the case to remain in the case during virtual welding activity.