mhurhangee/ep-ind-claims huggingface dataset:
Method for determining a reference position as a basis for correcting an absolute position of a vehicle, as located by means of a global navigation satellite system called GNSS, comprising: - capturing an output signal (20, 28, 34) from a motion recording sensor (18, 26, 32) of the vehicle, - identifying whether the output signal (20, 28, 34) has a characteristic profile representing a signal pattern dependent on unevennesses of the road, - capturing the absolute position of the vehicle by means of the GNSS if the output signal has the characteristic profile, - storing the characteristic profile of the output signal together with the absolute position as a reference position, and - correcting an already stored reference position, at which the characteristic profile has already been captured, on the basis of the absolute position by means of a learning method or by forming a mean value if the stored reference position is in a region around the absolute position. - capturing an output signal (20, 28, 34) from a motion recording sensor (18, 26, 32) of the vehicle, - identifying whether the output signal (20, 28, 34) has a characteristic profile representing a signal pattern dependent on unevennesses of the road, - capturing the absolute position of the vehicle by means of the GNSS if the output signal has the characteristic profile, - storing the characteristic profile of the output signal together with the absolute position as a reference position, and - correcting an already stored reference position, at which the characteristic profile has already been captured, on the basis of the absolute position by means of a learning method or by forming a mean value if the stored reference position is in a region around the absolute position.
An insert for balancing a joint during repair of the joint to provide a balanced joint upon completion of the repair, the insert comprising: (a) a top plate configured to interface with a first bone structure of the joint; (b) a bottom plate configured to interface with a second bone structure of the joint opposite the first bone structure; (c) at least one actuator; (d) one or more force sensors configured to capture at least one of (i) data indicative of a force applied to the insert (ii) data indicative of the force applied by the at least one actuator, or (iii) a combination thereof; and (e) a processor communicatively coupled to the one or more force sensors and configured to receive the data from the one or more force sensors, characterised in that the at least one actuator includes one or more bellows (181, 182) made of an inflatable material, the one or more bellows configured to inflate and distribute a pneumatic force and apply an actuation force to the top plate and to the bottom plate. (a) a top plate configured to interface with a first bone structure of the joint; (b) a bottom plate configured to interface with a second bone structure of the joint opposite the first bone structure; (c) at least one actuator; (d) one or more force sensors configured to capture at least one of (i) data indicative of a force applied to the insert (ii) data indicative of the force applied by the at least one actuator, or (iii) a combination thereof; and (e) a processor communicatively coupled to the one or more force sensors and
An optical absorption spectrometer (200, 300, 400, 500) comprising: a sample volume; at least one light source configured to emit at least one beam into the sample volume comprising an absorbing medium, the light source comprising a laser; at least one detector array positioned to detect at least a portion of the beam emitted by the light source; at least one beam modification element positioned between the detector array and the light source to selectively change a shape of the beam emitted by the light source as detected by the detector array; and a control circuit coupled to the beam modification element, wherein the control circuit is configured to perform operations comprising: making a determination that the shape of the beam should be changed based on a position and/or angle of the beam as detected by the detector array, causing the beam modification element to change the shape of the beam detected by the detector array in response to the position and/or angle as detected by the detector array; and selectively changing the shape of the beam by the beam modification element to ensure spectrometer performance and calibration fidelity by addressing spatial sensitivity variations across the active surface of the detector array such as to reduce the accuracy offsets due to age and environmental factors. a sample volume; at least one light source configured to emit at least one beam into the sample volume comprising an absorbing medium, the light source comprising a laser; at least one detector array positioned to detect at least a portion of the beam emitted by the light source; at least one beam modification element positioned between the detector array and the light source to selectively change a shape of the beam emitted by the light source as detected by the detector array; and a control circuit coupled to the beam modification element, wherein the control circuit is configured to perform operations comprising: making a determination that the shape of the beam should be changed based on a position and/or angle of the beam as detected by the detector array, causing the beam modification element to change the shape of the beam detected by the detector array in response to the position and/or angle as detected by the detector array; and selectively changing the shape of the beam by the beam modification element to ensure spectrometer performance and calibration fidelity by addressing spatial sensitivity variations across the active surface of the detector array such as to reduce the accuracy offsets due to age and environmental factors.
An epoxy resin comprising a reaction product of 1,2,3-trihydroxybenzene and an epihalohydrin, the epoxy resin containing a cyclic compound that has a cyclic structure containing, as constitutional atoms, two adjacent oxygen atoms derived from 1,2,3-trihydroxybenzene, the cyclic compound being contained in an amount of 0.040 to 0.115 mol based on 100 g of the epoxy resin. the epoxy resin containing a cyclic compound that has a cyclic structure containing, as constitutional atoms, two adjacent oxygen atoms derived from 1,2,3-trihydroxybenzene, the cyclic compound being contained in an amount of 0.040 to 0.115 mol based on 100 g of the epoxy resin.
A method for determining an accurate amount of consumable in a higher yield print cartridge for use in a printing device, wherein the higher yield print cartridge has a cartridge identification associated therewith and the higher yield print cartridge has an expected print yield that is different than an expected print yield of a corresponding lower yield cartridge manufactured for use in the printing device, the method comprising: determining that a higher yield print cartridge installed in a printing device has an identifier associated therewith; and characterized by: determining an amount of consumable that is loaded in the higher yield print cartridge based on the identifier, wherein the amount of consumable loaded in the higher yield print cartridge is a predetermined percentage higher than an amount of consumable loaded in the corresponding lower yield cartridge; and determining an amount of consumable remaining in the higher yield print cartridge by increasing a corresponding amount of consumable that would be remaining in the lower yield print cartridge by the predetermined percentage. determining that a higher yield print cartridge installed in a printing device has an identifier associated therewith; and characterized by: determining an amount of consumable that is loaded in the higher yield print cartridge based on the identifier, wherein the amount of consumable loaded in the higher yield print cartridge is a predetermined percentage higher than an amount of consumable loaded in the corresponding lower yield cartridge; and determining an amount of consumable remaining in the higher yield print cartridge by increasing a corresponding amount of consumable that would be remaining in the lower yield print cartridge by the predetermined percentage. determining an amount of consumable that is loaded in the higher yield print cartridge based on the identifier, wherein the amount of consumable loaded in the higher yield print cartridge is a predetermined percentage higher than an amount of consumable loaded in the corresponding lower yield cartridge; and determining an amount of consumable remaining in the higher yield print cartridge by increasing a corresponding amount of consumable that would be remaining in the lower yield print cartridge by the predetermined percentage.
A rotary printing device for cold foil coating of predetermined application areas on a web to be printed, with at least one transmission component for transmitting adhesive to the application areas of the web, with at least one foil transfer mechanism, which is formed for arranging transfer foil elements arranged on at least one transfer foil on the application areas provided with adhesive, and with at least one computing and control device for controlling the movement of at least the foil transfer mechanism, wherein the computing and control device is formed to capture preset and/or currently ascertained position data of the respective transfer foil element, to process it and to control the movement of at least the foil transfer mechanism based on this position data, wherein the foil transfer mechanism includes at least one transfer means with at least one printing block or die for pressing the transfer foil elements onto the application areas, and the transfer means and the at least one transmission component are coupled to each other via a virtual master axis. with at least one transmission component for transmitting adhesive to the application areas of the web, with at least one foil transfer mechanism, which is formed for arranging transfer foil elements arranged on at least one transfer foil on the application areas provided with adhesive, and with at least one computing and control device for controlling the movement of at least the foil transfer mechanism, wherein the computing and control device is formed to capture preset and/or currently ascertained position data of the respective transfer foil element, to process it and to control the movement of at least the foil transfer mechanism based on this position data, wherein the foil transfer mechanism includes at least one transfer means with at least one printing block or die for pressing the transfer foil elements onto the application areas, and the transfer means and the at least one transmission component are coupled to each other via a virtual master axis.
A vehicle comprising: a rotating electric machine for generating driving force for the vehicle; a rechargeable DC power supply for supplying and receiving electric power to and from said rotating electric machine; a detection unit (158, 160) for detecting a physical quantity (IB, VB) of at least any one of a voltage and current of said power storage device; a control unit for controlling said vehicle such that required electric power (Pm) required of said rotating electric machine is satisfied within an allowable range of electric power (Woutf, Winf) allowed to be input to and output from said rechargeable DC power supply, said allowable range of electric power ranging between a first boundary value and a second boundary value (Winf), characterized in that said control unit being configured to adjust a corresponding boundary value, being one of the first and second boundary value (Woutf, Winf), to be equal to said required electric power (Pm) at a first point in time when said physical quantity (IB, VB) detected by said detection unit (158, 160) is equal to a limit value (IB, IB), provided there is a divergence between said corresponding boundary value (Woutf, Winf) and said required electric power (Pm) at the first point in time. a rotating electric machine for generating driving force for the vehicle; a rechargeable DC power supply for supplying and receiving electric power to and from said rotating electric machine; a detection unit (158, 160) for detecting a physical quantity (IB, VB) of at least any one of a voltage and current of said power storage device; a control unit for controlling said vehicle such that required electric power (Pm) required of said rotating electric machine is satisfied within an allowable range of electric power (Woutf, Winf) allowed to be input to and output from said rechargeable DC power supply, said allowable range of electric power ranging between a first boundary value and a second boundary value (Winf), characterized in that said control unit being configured to adjust a corresponding boundary value, being one of the first and second boundary value (Woutf, Winf), to be equal to said required electric power (Pm) at a first point in time when said physical quantity (IB, VB) detected by said detection unit (158, 160) is equal to a limit value (IB, IB), provided there is a divergence between said corresponding boundary value (Woutf, Winf) and said required electric power (Pm) at the first point in time.
A method for estimating a charge level for a battery comprising the step of using a coulomb counter for estimating iteratively the State of Charge SoC i of said battery at a given time, from a previously estimated value SoC i-1 by the equation: SoC i = SoC i - 1 - dq i Q max, wherein dq i is the product of said measured load current i load by the time between two iterations, and Q max is the maximum charge Q max of said battery, wherein said maximum charge is given by: Q max = 60 ⋅ T max ⋅ i load, Wherein T max =60.[(Q i /i load) + (K.Q i /Δ)] and Δ = V cut-off - E 0 + R.i load, and wherein i load is the measured load current flowing through said battery, V cut-off is the cut-off voltage of said battery, R is the internal resistance of said battery, E 0 is a base voltage of said battery and K is a coefficient of said battery, said base voltage and said coefficient being defined by the Shepherd's equation V bat = E 0 - K ⋅ i load ⋅ Q Q - i load ⋅ t - R ⋅ i load + A ⋅ e / Q _B ⋅ i load ⋅ t Wherein Q is the available charge of said battery, t is the time between two iterations and A and B are constant coefficients;
A thermal bridge element in particular for a space flight instrument, a satellite, a transportation means, or a machine component, wherein a number of CFK layers stacked on top of one another is provided, wherein each of the CFK layers is composed of a plurality of heat-conductive carbon fibers embedded in a matrix; in at least two segments (11, 12), in particular in opposing end segments, the CFK layers are freed of the material of the matrix so that the carbon fibers of a respective CFK layer are exposed in the at least two segments (11, 12); the exposed segments (13, 14) of the carbon fibers are provided with an associated metallization (17, 18), by way of which the bridge element is connected to a thermally conductive connector element (21, 22), wherein the metallization (17, 18) encompasses the individual carbon fibers in the segments (13, 14) exposed from the matrix, wherein the metallized segments of the carbon fibers of at least one CFK layer are connected to one another in a material-fit manner.
A polyolefin composition comprising 88 to 93 wt% based on the weight of the polyolefin composition of a random copolymer of propylene, wherein the comonomer in the random copolymer of propylene is ethylene and there is only one comonomer, having - a comonomer content of 1.0 to 10 wt% based on the weight of the random copolymer of propylene, and - a xylene cold soluble content of below 10 wt%, and 7.0 to 12 wt% based on the weight of the polyolefin composition of a polymer of 1-butene having - a weight average molecular weight M w of 100,000 to 300,000 g/mol, - a molecular weight distribution M w /M n of below 6.0. 88 to 93 wt% based on the weight of the polyolefin composition of a random copolymer of propylene, wherein the comonomer in the random copolymer of propylene is ethylene and there is only one comonomer, having - a comonomer content of 1.0 to 10 wt% based on the weight of the random copolymer of propylene, and - a xylene cold soluble content of below 10 wt%, and - a comonomer content of 1.0 to 10 wt% based on the weight of the random copolymer of propylene, and - a xylene cold soluble content of below 10 wt%, 7.0 to 12 wt% based on the weight of the polyolefin composition of a polymer of 1-butene having - a weight average molecular weight M w of 100,000 to 300,000 g/mol, - a molecular weight distribution M w /M n of below 6.0. - a weight average molecular weight M w of 100,000 to 300,000 g/mol, - a molecular weight distribution M w /M n of below 6.0.
Apparatus for transmitting power supply signals and data signals between a position measuring device and downstream electronics, wherein the position measuring device has two power supply connections and two data transmission connections for bidirectional, differential data transmission, and the power supply signals and the data signals are transmitted via a main transmission path in the form of a mixed signal using a single line pair, wherein the apparatus comprises a four-wire/two-wire converter which has, on the measuring device side, two power supply connections and two data transmission connections which can be connected to the corresponding connections of the position measuring device, to which the mixed signal is supplied by the downstream electronics, and is configured to remove the power supply signals and those data signals which arrive at the four-wire/two-wire converter from the downstream electronics from the mixed signal and to output them to the position measuring device via the power supply connections and the data transmission connections and to insert data signals which are transmitted from the position measuring device to the downstream electronics into the mixed signal, characterized in that the four-wire/two-wire converter comprises a high-pass filter in order to couple the data signals into the mixed signal and out of the mixed signal and a low-pass filter in order to separate the power supply signals from the data signals, and wherein the connection to the position measuring device is effected via a first plug connector which can be connected to a corresponding counterpart on the position measuring device, and wherein the four-wire/two-wire converter is arranged in the housing of the first plug connector and outside the position measuring device.
A gutter cover system for a gutter comprising a bracket and a cover section, wherein the bracket comprises an anchoring plate and a receptacle comprising at least one barb slot and preferably two barb slots; wherein the cover section comprises a top portion that extends forwardly from a rear edge of the cover section, a front wall extending downwardly from the top portion, and a ledge extending generally horizontally in front of the front wall; wherein the receptacle is configured to receive the rear edge of the cover section; and wherein the rear edge of the cover section comprises a barb connector, characterized in that the barb connector is a flap configured to fold against the cover section when the rear edge is inserted within the receptacle, and configured to spring back to its original conformation when there is space and to catch in the barb slot, wherein the barb slot is configured to prevent the barb connector from folding against the cover section and to hold the barb connector so that the rear edge cannot be removed from the receptacle. wherein the bracket comprises an anchoring plate and a receptacle comprising at least one barb slot and preferably two barb slots; wherein the cover section comprises a top portion that extends forwardly from a rear edge of the cover section, a front wall extending downwardly from the top portion, and a ledge extending generally horizontally in front of the front wall; wherein the receptacle is configured to receive the rear edge of the cover section; and wherein the rear edge of the cover section comprises a barb connector, characterized in that the barb connector is a flap configured to fold against the cover section when the rear edge is inserted within the receptacle, and configured to spring back to its original conformation when there is space and to catch in the barb slot, wherein the barb slot is configured to prevent the barb connector from folding against the cover section and to hold the barb connector so that the rear edge cannot be removed from the receptacle.
A digestive enzyme composition comprising: a) an enterically coated digestive enzyme product, wherein the enterically coated digestive product is pancrelipase in an amount of 5,000 IU USP lipase or greater; b) an administrable nutritional medium, present in an amount of 2 mL to 15 mL per each 5,000 to 20,000 lipase IU USP of the pancrelipase product, wherein the administrable nutritional medium is a soft food; c) a pharmaceutically acceptable low viscosity oily ingredient, wherein the low viscosity oily ingredient is selected from the group consisting of vegetable oils, synthetic oils, fatty acids, and a mixture thereof and wherein the low viscosity oily ingredient is added in amount of 5% to 25% volume/volume of administrable nutritional medium; wherein the composition is for administration through a G-tube having an internal diameter of at least 18 Fr. a) an enterically coated digestive enzyme product, wherein the enterically coated digestive product is pancrelipase in an amount of 5,000 IU USP lipase or greater; b) an administrable nutritional medium, present in an amount of 2 mL to 15 mL per each 5,000 to 20,000 lipase IU USP of the pancrelipase product, wherein the administrable nutritional medium is a soft food; c) a pharmaceutically acceptable low viscosity oily ingredient, wherein the low viscosity oily ingredient is selected from the group consisting of vegetable oils, synthetic oils, fatty acids, and a mixture thereof and wherein the low viscosity oily ingredient is added in amount of 5% to 25% volume/volume of administrable nutritional medium;
A cold shrink article made from a composition comprising an ethylene/α-olefin interpolymer, a filler, and an α,β-unsaturated carboxylic acid; wherein the cold shrink article comprises 100 parts of the ethylene/α-olefin interpolymer, 20-80 parts of the filler per 100 parts ethylene/α-olefin interpolymer (phr), and 1-10 phr of the α,β-unsaturated carboxylic acid; wherein the filler is a metal oxide; wherein the cold shrink article further comprises 5-10 phr plasticizer; wherein the cold shrink article has an ACBD strength of greater than 20 KV/mm as measured according to the method described in the description; wherein the cold shrink article is in the form of a flexible tube. an ethylene/α-olefin interpolymer, a filler, and an α,β-unsaturated carboxylic acid; wherein the cold shrink article comprises 100 parts of the ethylene/α-olefin interpolymer, 20-80 parts of the filler per 100 parts ethylene/α-olefin interpolymer (phr), and 1-10 phr of the α,β-unsaturated carboxylic acid; wherein the filler is a metal oxide; wherein the cold shrink article further comprises 5-10 phr plasticizer; wherein the cold shrink article has an ACBD strength of greater than 20 KV/mm as measured according to the method described in the description; wherein the cold shrink article is in the form of a flexible tube. wherein the cold shrink article comprises 100 parts of the ethylene/α-olefin interpolymer, 20-80 parts of the filler per 100 parts ethylene/α-olefin interpolymer (phr), and 1-10 phr of the α,β-unsaturated carboxylic acid; wherein the filler is a metal oxide; wherein the cold shrink article further comprises 5-10 phr plasticizer; wherein the cold shrink article has an ACBD strength of greater than 20 KV/mm as measured according to the method described in the description; wherein the cold shrink article is in the form of a flexible tube.