mhurhangee/ep-ind-claims huggingface dataset:
A lighting device, comprising: a carrier comprising: at least one mounting portion for receiving at least one lighting module, wherein the at least one carrier has a triangular cross section at least in sections, with the at least one mounting portion being arranged on an edge of the triangular cross section; and a heat sink body portion arranged adjacent to the at least one mounting portion, wherein the heat sink body portion protrudes sidewards from the at least one mounting portion, at least one structure comprised by the at least one mounting portion for receiving the at least one lighting module, characterized in that the at least one structure comprises at least three mounting faces (6a, 6b, 6c) for receiving a respective at least one lighting module on each of the at least three mounting faces (6a, 6b, 6c), in that each of the at least three mounting faces (6a, 6b, 6c) has an arrangement direction and is configured for the at least one lighting module arranged along the arrangement direction, at least one lighting module mounted along the arrangement direction of each of the at least three mounting faces (6a, 6b, 6c), and and in that the at least one carrier further comprises at least one cavity for receiving at least one circuit board or a pre-molded package to be electrically coupled to the at least one lighting module. a carrier comprising: at least one mounting portion for receiving at least one lighting module, wherein the at least one carrier has a triangular cross section at least in sections, with the at least one mounting portion being arranged on an edge of the triangular cross section; and a heat sink body portion arranged adjacent to the at least one mounting portion, wherein the heat sink body portion protrudes sidewards from the at least one mounting portion, at least one structure comprised by the at least one mounting portion for receiving the at least one lighting module, characterized in that the at least one structure comprises at least three mounting faces (6a, 6b, 6c) for receiving a respective at least one lighting module on each of the at least three mounting faces (6a, 6b, 6c), in that each of the at least three mounting faces (6a, 6b, 6c) has an arrangement direction and is configured for the at least one lighting module arranged along the arrangement direction, at least one lighting module mounted along the arrangement direction of each of the at least three mounting faces (6a, 6b, 6c), and and in that the at least one carrier further comprises at least one cavity for receiving at least one circuit board or a pre-molded package to be electrically coupled to the at least one lighting module.
Energy storage module, comprising a plurality of storage cells (2', 2), which are connected electrically in series, for electrical energy, a module housing which encloses the storage cells (2', 2), a module connection, which is arranged on the module housing, for making external electrical contact with the storage cells (2', 2), a connection conductor which electrically connects the module connection to a first of the storage cells (2', 2) which are connected in series, and a cooling device, which is thermally coupled to the storage cells (2', 2), for absorbing and discharging thermal energy, wherein the connection conductor is designed and arranged in such a way that thermal energy which is created in it can be discharged, characterized in that the connection conductor is in the form of a rigid busbar with a planar cooling face which is arranged so as to bear against a heat sink of the cooling device by means of an electrically insulating and thermally conductive intermediate layer.
A method for preconditioning at least a part of an engine system of a vehicle, the engine system comprising an engine and an exhaust aftertreatment system, EATS, the method comprising: - providing predicted vehicle operational information comprising a vehicle operational initialization time and predicted engine operation (210, 220, 230), - determining whether or not cold-start emissions of the predicted engine operation achieves a threshold criterium, - in response to achieving the threshold criterium, preconditioning at least a part of the engine system such that at least said part of the engine system is preconditioned at a time of the vehicle operational initialization time, wherein determining whether or not cold-start emissions of the predicted engine operation achieves the threshold criterium comprises comparing estimated cold-start emissions associated with predicted engine operation with and without preconditioning of at least said part of the engine system, and wherein the threshold criterium is a reduced cold-start emission of the predicted engine operation with preconditioning of at least said part of the engine system. - providing predicted vehicle operational information comprising a vehicle operational initialization time and predicted engine operation (210, 220, 230), - determining whether or not cold-start emissions of the predicted engine operation achieves a threshold criterium, - in response to achieving the threshold criterium, preconditioning at least a part of the engine system such that at least said part of the engine system is preconditioned at a time of the vehicle operational initialization time,
A method, comprising: receiving, by one or more rack processors, sensor signals from one or more sensors of a server rack, wherein the sensor signals capture a physical environment of the server rack in a datacenter, and wherein the server rack includes one or more server computers (110, 120, 130) configured to provide one or more sensitive services; determining, by the one or more rack processors based on the sensor signals, a security status of the server rack; and sending, by the one or more rack processors, the security status to the one or more server computers (110, 120, 130) within the server rack. receiving, by one or more rack processors, sensor signals from one or more sensors of a server rack, wherein the sensor signals capture a physical environment of the server rack in a datacenter, and wherein the server rack includes one or more server computers (110, 120, 130) configured to provide one or more sensitive services; determining, by the one or more rack processors based on the sensor signals, a security status of the server rack; and sending, by the one or more rack processors, the security status to the one or more server computers (110, 120, 130) within the server rack.
Method for the automated joining-together of material strip ends (20, 21) of a winding bandage during the production of vehicle tires, having the following steps: a) continuously winding up a first winding bandage in order to produce a tyre blank, b) stopping the winding-up process and fixing the first winding bandage to a material guide, c) cutting the first winding bandage in the rear region of the material guide by way of a cutting device, d) arranging the rear material strip end of the first winding bandage in a groove of the material guide, e) positioning the material guide with the rear material strip end of the first winding bandage below a splicing unit, wherein the front material strip end of a second winding bandage has already been placed in the splicing unit, f) connecting the front material strip end of the second winding bandage to the rear material strip end of the first winding bandage, wherein the front and the rear material strip end (20, 21) lie one over the other in a predefined length region and a splicing roller arranged on the splicing unit is rolled on the material strip ends lying one over the other, and presses these against one another, over the splicing length, wherein the material strip ends (20, 21) lying one over the other are fixedly connected to one another, g) returning the splicing unit into an initial position, h) continuing the winding process in order to produce a tyre blank with the second winding bandage. a) continuously winding up a first winding bandage in order to produce a tyre blank, b) stopping the winding-up process and fixing the first winding bandage to a material guide, c) cutting the first winding bandage in the rear region of the material guide by way of a cutting device, d) arranging the rear material strip end of the first winding bandage in a groove of the material guide, e) positioning the material guide with the rear material strip end of the first winding bandage below a splicing unit, wherein the front material strip end of a second winding bandage has already been placed in the splicing unit, f) connecting the front material strip end of the second winding bandage to the rear material strip end of the first winding bandage, wherein the front and the rear material strip end (20, 21) lie one over the other in a predefined length region and a splicing roller arranged on the splicing unit is rolled on the material strip ends lying one over the other, and presses these against one another, over the splicing length, wherein the material strip ends (20, 21) lying one over the other are fixedly connected to one another, g) returning the splicing unit into an initial position, h) continuing the winding process in order to produce a tyre blank with the second winding bandage.
A pharmaceutical composition comprising prasugrel besylate having particle size of D 90 below 60μm, as measured by laser light diffraction and a surfactant in amount 4% to 8% by weight wherein the surfactant is selected from sodium lauryl sulfate and graft copolymer of polyethylene glycol / polyvinyl acetate / polyvinyl caprolactam.
A rubber laminate obtained by simultaneously cross-linking and curing a heat-curable fluororubber composition and a heat-curable silicone composition, both compositions being in contact with each other during cross-linking; the aforementioned heat-curable silicone rubber composition comprising: 100 parts by mass of an alkenyl-containing diorganopolysiloxane that comprises: 50 to 99 mass % of an alkenyl-containing diorganopolysiloxane that is capped at molecular terminals with alkenyl-containing organosilyl groups, is free of alkenyl groups in side molecular chains, and has a degree of polymerization in the range of 2,500 to 100,000; 1 to 50 mass % of an alkenyl-containing diorganopolysiloxane having two or more alkenyl groups in side molecular chains and having a degree of polymerization in the range of 2,500 to 100,000; 10 to 100 parts by mass of a fine silica powder having specific surface area in the range of 50 m 2 /g to 400 m 2 /g; 0.1 to 10 parts by mass of an organohydrogenpolysiloxane having in one molecule at least two silicon-bonded hydrogen atoms; and 0.1 to 5 part by mass of an organic peroxide. 100 parts by mass of an alkenyl-containing diorganopolysiloxane that comprises: 50 to 99 mass % of an alkenyl-containing diorganopolysiloxane that is capped at molecular terminals with alkenyl-containing organosilyl groups, is free of alkenyl groups in side molecular chains, and has a degree of polymerization in the range of 2,500 to 100,000; 1 to 50 mass % of an alkenyl-containing diorganopolysiloxane having two or more alkenyl groups in side molecular chains and having a degree of polymerization in the range of 2,500 to 100,000; 10 to 100 parts by mass of a fine silica powder having specific surface area in the range of 50 m 2 /g to 400 m 2 /g; 0.1 to 10 parts by mass of an organohydrogenpolysiloxane having in one molecule at least two silicon-bonded hydrogen atoms; and 0.1 to 5 part by mass of an organic peroxide. 50 to 99 mass % of an alkenyl-containing diorganopolysiloxane that is capped at molecular terminals with alkenyl-containing organosilyl groups, is free of alkenyl groups in side molecular chains, and has a degree of polymerization in the range of 2,500 to 100,000; 1 to 50 mass % of an alkenyl-containing diorganopolysiloxane having two or more alkenyl groups in side molecular chains and having a degree of polymerization in the range of 2,500 to 100,000; 10 to 100 parts by mass of a fine silica powder having specific surface area in the range of 50 m 2 /g to 400 m 2 /g; 0.1 to 10 parts by mass of an organohydrogenpolysiloxane having in one molecule at least two silicon-bonded hydrogen atoms; and 0.1 to 5 part by mass of an organic peroxide.
Method for controlling a medical imaging system, comprising the steps: - Providing a data record for a patient, containing indication data, - Mapping at least the indication data into an ontology, - Providing a control data library comprising control data records for at least one medical imaging system, - Automatically determining a control data record from the control data library as a function of the indication data mapped into the ontology, by means of an inference and/or numerical modelling on the basis of a preset allocation of semantic objects within the ontology, - Controlling the medical imaging system with the determined control data record, - Reconstructing and/or graphically post-processing an image data record, wherein the reconstructing and/or graphical post-processing takes place automatically or semi-automatically on the basis of the determined control data record after the controlling of the selected medical imaging system and a recording of the image data record by the medical imaging system. - Providing a data record for a patient, containing indication data, - Mapping at least the indication data into an ontology, - Providing a control data library comprising control data records for at least one medical imaging system, - Automatically determining a control data record from the control data library as a function of the indication data mapped into the ontology, by means of an inference and/or numerical modelling on the basis of a preset allocation of semantic objects within the ontology, - Controlling the medical imaging system with the determined control data record, - Reconstructing and/or graphically post-processing an image data record, wherein the reconstructing and/or graphical post-processing takes place automatically or semi-automatically on the basis of the determined control data record after the controlling of the selected medical imaging system and a recording of the image data record by the medical imaging system.
A method of improving the speed and efficiency of JPEG digital image data decompression, comprising: performing JPEG decompression (210, 230) until retrieving a quantized digital image data vector v corresponding to an 8x8 block; examining the quantized digital image data vector v for the maximum index M of a non-zero coefficient; selecting a block size k of an inverse discrete cosine transform, according to the following algorithm: Select k=1 if M=0, else Select k=2 if M≤4 and v =0, else Select k=4 if M≤13 and v =0, else Select k=8, wherein block size k∈{1, 2, 4, 8} and v(n) is the n-th coefficient of the quantized digital image data vector v; scanning the digital image data vector v into a kxk coefficients block; dequantizing the kxk coefficients block; applying a kxk inverse discrete cosine transform to the dequantized coefficients block to produce a kxk block of digital image pixel data; scaling the kxk block of digital image pixel data by multiplying by k/8; and interpolating the scaled kxk block of digital image pixel data to provide an 8x8 block of digital image pixel data. performing JPEG decompression (210, 230) until retrieving a quantized digital image data vector v corresponding to an 8x8 block; examining the quantized digital image data vector v for the maximum index M of a non-zero coefficient; selecting a block size k of an inverse discrete cosine transform, according to the following algorithm: Select k=1 if M=0, else Select k=2 if M≤4 and v =0, else Select k=4 if M≤13 and v =0, else Select k=8, Select k=1 if M=0, else Select k=2 if M≤4 and v =0, else Select k=4 if M≤13 and v =0, else Select k=8, wherein block size k∈{1, 2, 4, 8} and v(n) is the n-th coefficient of the quantized digital image data vector v; scanning the digital image data vector v into a kxk coefficients block; dequantizing the kxk coefficients block; applying a kxk inverse discrete cosine transform to the dequantized coefficients block to produce a kxk block of digital image pixel data; scaling the kxk block of digital image pixel data by multiplying by k/8; and interpolating the scaled kxk block of digital image pixel data to provide an 8x8 block of digital image pixel data.
A method of processing food items such as pieces of meat, comprising the steps of: providing a stream of food items by means of a primary conveyor means, • allocating at least partly by means of a computer system (8, 20) one or more of said items to one of at least two workstations where said items are processed, e.g. cut and/or trimmed, resulting in one or more processed items, • registering in said computer system (8, 20) information about a return of at least one of said one or more processed items to said primary conveyor means, and • returning said at least one of said one or more processed items to said primary conveyor means in accordance with said information about a return, wherein the method further comprises keeping track of said items including when they are taken out and put back on the primary conveyor. • allocating at least partly by means of a computer system (8, 20) one or more of said items to one of at least two workstations where said items are processed, e.g. cut and/or trimmed, resulting in one or more processed items, • registering in said computer system (8, 20) information about a return of at least one of said one or more processed items to said primary conveyor means, and • returning said at least one of said one or more processed items to said primary conveyor means in accordance with said information about a return, wherein the method further comprises keeping track of said items including when they are taken out and put back on the primary conveyor.
Use of an aromatic polycarbonate prepared by the transesterification of a bisphenol and a diaryl carbonate and having: - a viscosity average molecular weight, Mv, of from 22000 to 32000 g/mol - a polydispersity, defined as Mw/Mn, of from 1.8 - 3.2, preferably from 2.0 - 3.0 - a melt-flow index of from 3.0 - 10 g/10 min as determined in accordance with ASTM D 1238 (1.2 kg, 300°C) - an amount of Fries branching of from 750 to 2500 ppm for the manufacture of bottles having a volume of at least 15 liter by means of an injection blow moulding or an extrusion blow moulding process. - a viscosity average molecular weight, Mv, of from 22000 to 32000 g/mol - a polydispersity, defined as Mw/Mn, of from 1.8 - 3.2, preferably from 2.0 - 3.0 - a melt-flow index of from 3.0 - 10 g/10 min as determined in accordance with ASTM D 1238 (1.2 kg, 300°C) - an amount of Fries branching of from 750 to 2500 ppm
A system comprising: a mapping facility configured to map an analysis channel associated with a frequency band to a stimulation channel that comprises three electrodes (E1-E3) communicatively coupled to an auditory prosthesis associated with a patient; a spectral analysis facility communicatively coupled to the mapping facility and configured to identify a spectral peak included in an audio signal presented to the patient, the spectral peak having a peak frequency included in the frequency band; and a stimulation strategy facility communicatively coupled to the spectral analysis facility, characterized in that the stimulation strategy facility is configured to direct the auditory prosthesis to apply electrical stimulation representative of the spectral peak to a stimulation site associated with the peak frequency by simultaneously stimulating at least two of the three electrodes at substantially fifty percent or less of their respective most comfortable current levels ("M levels") in accordance with a multi-monopolar current steering strategy, and the mapping facility is configured to map a low cutoff frequency of the analysis channel to a position located in between a first electrode and a second electrode of the three electrodes, a center frequency of the analysis channel to a position of the second electrode, and a high cutoff frequency of the analysis channel to a position located in between the second electrode and a third electrode of the three electrodes. a mapping facility configured to map an analysis channel associated with a frequency band to a stimulation channel that comprises three electrodes (E1-E3) communicatively coupled to an auditory prosthesis associated with a patient; a spectral analysis facility communicatively coupled to the mapping facility and configured to identify a spectral peak included in an audio signal presented to the patient, the spectral peak having a peak frequency included in the frequency band; and a stimulation strategy facility communicatively coupled to the spectral analysis facility, characterized in that the stimulation strategy facility is configured to direct the auditory prosthesis to apply electrical stimulation representative of the spectral peak to a stimulation site associated with the peak frequency by simultaneously stimulating at least two of the three electrodes at substantially fifty percent or less of their respective most comfortable current levels ("M levels") in accordance with a multi-monopolar current steering strategy, and the mapping facility is configured to map a low cutoff frequency of the analysis channel to a position located in between a first electrode and a second electrode of the three electrodes, a center frequency of the analysis channel to a position of the second electrode, and a high cutoff frequency of the analysis channel to a position located in between the second electrode and a third electrode of the three electrodes.