mhurhangee/patent-ind-claim-en huggingface dataset:
A separation unit for separating a web material having a web width (W) along preformed lines of weakness, said separation unit having a width direction (W') and comprising at least a first shaft extending along a first longitudinal axis in said width direction (W') and at least a second shaft extending along a second longitudinal axis in parallel with said first shaft , said second longitudinal axis being positioned at a distance (d1) from said first longitudinal axis in a direction perpendicular to said width direction (W'), said separation unit further comprising at least one first protrusion element extending perpendicularly from said first shaft and being arranged to be rotatable about said first longitudinal axis , and at least one second protrusion element extending perpendicularly from said second shaft and being arranged to be rotatable about said second longitudinal axis , wherein, in a use position of said separation unit , said first and second protrusion elements are arranged in a staggered relationship such that said protrusion element of said first shaft is partially overlapping with said protrusion element of said second shaft with a radial overlap length (L) in a direction perpendicular to said shafts , thus forming an undulating passage for said web material between said shafts with said web width (W) extending in said width direction (W'), characterised by at least one contact element being arranged in biased abutment against at least one of said first and second protrusion elements in a direction perpendicular to said first or second longitudinal axis about which said at least one protrusion element is rotatably arranged. at least one first protrusion element extending perpendicularly from said first shaft and being arranged to be rotatable about said first longitudinal axis , and at least one second protrusion element extending perpendicularly from said second shaft and being arranged to be rotatable about said second longitudinal axis , wherein, in a use position of said separation unit , said first and second protrusion elements are arranged in a staggered relationship such that said protrusion element of said first shaft is partially overlapping with said protrusion element of said second shaft with a radial overlap length (L) in a direction perpendicular to said shafts , thus forming an undulating passage for said web material between said shafts with said web width (W) extending in said width direction (W'), characterised by at least one contact element being arranged in biased abutment against at least one of said first and second protrusion elements in a direction perpendicular to said first or second longitudinal axis about which said at least one protrusion element is rotatably arranged.
Tool for machining plate-shaped workpieces , in particular metal sheets, - with an upper tool , which has a clamping shank and a base body , which lie in a common position axis , and with at least one tool body arranged on the base body opposite the clamping shank , - with a lower tool , which has a base body with a support surface for the workpiece , and with a counter-tool body provided on the base body , the base body having a position axis , which is aligned perpendicular to the support surface , - wherein the upper tool and lower tool are movable towards each other in a stroke direction for machining a workpiece arranged therebetween, characterized in in that at least one grinding tool is provided - on the base body of the lower tool pointing in the direction of the upper tool and/or - on a scraper associated with the tool body of the upper tool pointing in the direction of the lower tool and/or - on a base body of the upper tool pointing in the direction of the lower tool . - with an upper tool , which has a clamping shank and a base body , which lie in a common position axis , and with at least one tool body arranged on the base body opposite the clamping shank , - with a lower tool , which has a base body with a support surface for the workpiece , and with a counter-tool body provided on the base body , the base body having a position axis , which is aligned perpendicular to the support surface , - wherein the upper tool and lower tool are movable towards each other in a stroke direction for machining a workpiece arranged therebetween, characterized in in that at least one grinding tool is provided - on the base body of the lower tool pointing in the direction of the upper tool and/or - on a scraper associated with the tool body of the upper tool pointing in the direction of the lower tool and/or - on a base body of the upper tool pointing in the direction of the lower tool .
A method for enabling an extrusion-based additive manufacturing (AM) three-dimensional printing system to handle individual 3D parts of a print job comprising at least two 3D parts, the method comprising the steps of: - providing the print job that provides digital 3D representations of the at least two 3D parts; - slicing the print job to generate a set of slices for the digital 3D representations of the at least two 3D parts, each slice of the set of slices comprising geometrical data defining respective boundaries of a respective layer of AM feedstock material that is to be deposited from a nozzle of a printing head on one of a build surface and a previously deposited layer of AM feedstock material to print each 3D part taking into account said respective boundaries; - generating for each 3D part a respective individual set of geometrical data taking into account said geometrical data provided by each slice of the set of slices, wherein each individual set of geometrical data comprises geometrical data defining the respective boundaries of the respective layers of AM feedstock material that are to be taken into account for printing the respective 3D part; characterised by : - adapting sliced object data to parameters relating to an AM 3D printing system and making decisions based on run time data, including data relating to the respective printer, that was not available at the time of slicing. - providing the print job that provides digital 3D representations of the at least two 3D parts; - slicing the print job to generate a set of slices for the digital 3D representations of the at least two 3D parts, each slice of the set of slices comprising geometrical data defining respective boundaries of a respective layer of AM feedstock material that is to be deposited from a nozzle of a printing head on one of a build surface and a previously deposited layer of AM feedstock material to print each 3D part taking into account said respective boundaries; - generating for each 3D part a respective individual set of geometrical data taking into account said geometrical data provided by each slice of the set of slices, wherein each individual set of geometrical data comprises geometrical data defining the respective boundaries of the respective layers of AM feedstock material that are to be taken into account for printing the respective 3D part; - adapting sliced object data to parameters relating to an AM 3D printing system and making decisions based on run time data, including data relating to the respective printer, that was not available at the time of slicing.
A method of manufacturing an integrated circuit involving performing an electrostatic discharge, hereinafter referred to as ESD, test, the method comprising: detecting a weak frequency band (S1000) by sequentially radiating a plurality of first electromagnetic waves on a first test board including the integrated circuit ; detecting first peak-to-peak voltage signals (S2000) by sequentially radiating the plurality of first electromagnetic waves on a second test board including an electromagnetic wave receiving module ; detecting a frequency spectrum (S3000) by radiating a second electromagnetic wave on a housing including a third test board including the electromagnetic wave receiving module ; generating a second peak-to-peak voltage signal (S4000) based on the weak frequency band, the first peak-to-peak voltage signals and the frequency spectrum; and predicting an ESD characteristic (S5000) associated with an electronic system including the integrated circuit based on the second peak-to-peak voltage signal. detecting a weak frequency band (S1000) by sequentially radiating a plurality of first electromagnetic waves on a first test board including the integrated circuit ; detecting first peak-to-peak voltage signals (S2000) by sequentially radiating the plurality of first electromagnetic waves on a second test board including an electromagnetic wave receiving module ; detecting a frequency spectrum (S3000) by radiating a second electromagnetic wave on a housing including a third test board including the electromagnetic wave receiving module ; generating a second peak-to-peak voltage signal (S4000) based on the weak frequency band, the first peak-to-peak voltage signals and the frequency spectrum; and predicting an ESD characteristic (S5000) associated with an electronic system including the integrated circuit based on the second peak-to-peak voltage signal.
An apparatus comprising a processor and a memory for storing instructions to be executed by the processor , wherein the apparatus is a mobile edge computing server connectable to a radio access network element and the processor is configured to provide a connection to a core network, and to handle applications and/or services for a user equipment connected to the radio access network element, to handle charging and/or policy control for the applications and/or services, to indicate information regarding the applications and/or services for the user equipment to the core network, to indicate charging and/or charging control related capabilities to the core network, to receive access control and/or charging control information from the core network and to receive capability information from the core network, and to manage, control and/or route service data flows in connection with the applications and/or services for the user equipment connected to the radio access network element and perform related charging activities based on the received information.
An imaging display apparatus , comprising: display means configured to be disposed before eyes of a user for image display; first image signal generation means including an image section for capturing an image signal with a field of view direction of the user and a signal processing section for generating a display image signal based on an image signal captured by the imaging section; second image signal generation means for generating a display image signal of an image different from an image of the display image signal generated by the first image signal generation means; and control means for allowing, simultaneously on the display means , display of the image of the display image signal generated by the first image signal generation means and display of the image of the display image signal generated by the second image signal generation means, characterized in that the second image signal generation means includes a reproduction section that reproduces an image signal, and generates, based on the image signal reproduced by the reproduction section, the display image signal of the image different from the image of the display image signal generated by the first image signal generation means, so that at the same time a reproduced image and an image in the field of view direction can be displayed. display means configured to be disposed before eyes of a user for image display; first image signal generation means including an image section for capturing an image signal with a field of view direction of the user and a signal processing section for generating a display image signal based on an image signal captured by the imaging section; second image signal generation means for generating a display image signal of an image different from an image of the display image signal generated by the first image signal generation means; and control means for allowing, simultaneously on the display means , display of the image of the display image signal generated by the first image signal generation means and display of the image of the display image signal generated by the second image signal generation means, characterized in that the second image signal generation means includes a reproduction section that reproduces an image signal, and generates, based on the image signal reproduced by the reproduction section, the display image signal of the image different from the image of the display image signal generated by the first image signal generation means, so that at the same time a reproduced image and an image in the field of view direction can be displayed.
An electronic device for measuring photoplethysmographic, PPG, signals, the device comprising: a plurality of light emitters (706; 716) comprising a first light emitter and a second light emitter configured to generate a plurality of light paths (721; 729), and a plurality of light sensors (704; 714) comprising a first light sensor and a second light sensor located on the surface of the electronic device and arranged such that a first light path and a second light path of the plurality of light paths (721; 729) have the same separation distance (di), wherein: the first light path is coupled to the first light emitter , and the first light sensor ; the second light path is coupled to the second light emitter and the second light sensor ; wherein the plurality of light sensors (704; 714) are configured to detect the first and second light paths (721; 729) having the same separation distances (di); wherein the first and second light paths (721; 729) are non-overlapping; and logic coupled to the first and second light sensors (704; 714) and configured to detect a physiological signal from different light information received by the first and second light sensors (704; 714) from the first and second light paths (721; 729). the first light path is coupled to the first light emitter , and the first light sensor ; the second light path is coupled to the second light emitter and the second light sensor ; wherein the plurality of light sensors (704; 714) are configured to detect the first and second light paths (721; 729) having the same separation distances (di); wherein the first and second light paths (721; 729) are non-overlapping; and logic coupled to the first and second light sensors (704; 714) and configured to detect a physiological signal from different light information received by the first and second light sensors (704; 714) from the first and second light paths (721; 729). wherein the first and second light paths (721; 729) are non-overlapping; and logic coupled to the first and second light sensors (704; 714) and configured to detect a physiological signal from different light information received by the first and second light sensors (704; 714) from the first and second light paths (721; 729).
Method of driving a single-coil motor having a stator and a rotor and a coil, the method comprising the steps of: a) monitoring a first signal (Sp) indicative of the rotor position relative to the stator position, characterized by determining a start time (t0) when the first signal (Sp) passes a first threshold level (Tr1); b) at a first time (t1) defined as a predefined waiting period (Tw) after the start time (t0), providing control signals for energizing the coil for causing a current to flow in the coil; c) at a second time (t2) defined as a predefined prediction period (Tpred) after the start time (t0) or as a predefined prediction period (Tpred) after the first time (t1), providing control signals (C11, C12, C21, C22) for stopping or reducing the energization of the coil for allowing the current flowing in the coil to decrease; d) monitoring a second signal (Sc) indicative of the current flowing through the coil, and determining a third time (t3) when said second signal passes a second threshold level (Tr2); and monitoring the first signal (Sp), and determining a fourth time (t4) when the first signal (Sp) passes a third threshold level (Tr3); e) updating the prediction period (Tpred) as a function of the third and fourth time (t3, t4) to obtain an updated prediction period (Tpred); f) repeating steps b) to e) at least once, - using the fourth time (t4) instead of the start time (t0); and - using the updated prediction period (Tpred) instead of the predefined prediction period. a) monitoring a first signal (Sp) indicative of the rotor position relative to the stator position, characterized by determining a start time (t0) when the first signal (Sp) passes a first threshold level (Tr1); b) at a first time (t1) defined as a predefined waiting period (Tw) after the start time (t0), providing control signals for energizing the coil for causing a current to flow in the coil; c) at a second time (t2) defined as a predefined prediction period (Tpred) after the start time (t0) or as a predefined prediction period (Tpred) after the first time (t1), providing control signals (C11, C12, C21, C22) for stopping or reducing the energization of the coil for allowing the current flowing in the coil to decrease; d) monitoring a second signal (Sc) indicative of the current flowing through the coil, and determining a third time (t3) when said second signal passes a second threshold level (Tr2); and monitoring the first signal (Sp), and determining a fourth time (t4) when the first signal (Sp) passes a third threshold level (Tr3); e) updating the prediction period (Tpred) as a function of the third and fourth time (t3, t4) to obtain an updated prediction period (Tpred); f) repeating steps b) to e) at least once, - using the fourth time (t4) instead of the start time (t0); and - using the updated prediction period (Tpred) instead of the predefined prediction period. - using the fourth time (t4) instead of the start time (t0); and - using the updated prediction period (Tpred) instead of the predefined prediction period.
An arithmetic processing unit configured to compute a square root of a radicand, the arithmetic processing unit comprising: a first logic circuit configured to determine a first bit string (qi) which is a part of a bit string of a quotient (Q) ; a second logic circuit configured to calculate a first partial remainder (R) based on the first bit string and a partial remainder by performing a first operation that does not include an exponentiation operation in a partial remainder operation; a third logic circuit configured to calculate the partial remainder by performing a second operation that includes an exponentiation operation, using the first partial remainder and the first bit stringy a first register configured to store the first bit string determined by the first logic circuit, wherein the third logic circuit is configured to calculate the partial remainder using the first bit string stored in the first register in a preceding cycle in repetitions of operations; and a second register configured to store the first partial remainder calculated by the second logic circuit, wherein the first logic circuit is configured to determine the first bit string using the first partial remainder stored in the second register in a preceding cycle. a first logic circuit configured to determine a first bit string (qi) which is a part of a bit string of a quotient (Q) ; a second logic circuit configured to calculate a first partial remainder (R) based on the first bit string and a partial remainder by performing a first operation that does not include an exponentiation operation in a partial remainder operation; a third logic circuit configured to calculate the partial remainder by performing a second operation that includes an exponentiation operation, using the first partial remainder and the first bit stringy a first register configured to store the first bit string determined by the first logic circuit, wherein the third logic circuit is configured to calculate the partial remainder using the first bit string stored in the first register in a preceding cycle in repetitions of operations; and
Livestock shed provided with a roof and a ceiling that is suspended from the roof and is at a distance from the roof , which ceiling comprises ceiling panels , as well as a suspension system with which the ceiling panels are suspended from the roof , wherein the ceiling panels are mainly made of magnesium oxide, characterized in that the ceiling panels are provided with ventilation through holes , the size of the ventilation holes being 2-8% of the surface of the ceiling panels including the ventilation holes , the size of the ventilation holes meaning the cross-sectional area of all ventilation holes present in a ceiling panel together.
A gasket for formfitting the bottom part of a transition piece of a wind turbine, the gasket primarily manufactured in an elastomeric material and shaped as a hollow elongated body for surrounding at least a part of the pile structure, such as a pile for a monopile , a tripod, or a tetrapod, when mounted between the transition piece and the pile structure, such that the gasket stabilizes the position of the transition piece relative to the pile structure.
A metal-to-metal seal consisting of a first mating surface and a second mating surface ; wherein the first mating surface is provided with an annular projection having one or more annular grooves and wherein the projection is configured such that when the first and second surface are brought into mating contact, the annular projection of the first mating surface deforms the second mating surface to form a seal, wherein the projection has an isosceles triangular cross section; characterised in that the metal-to-metal seal does not comprise a gasket or liquid sealant.
A non-spherical microcapsule comprising: a) a core comprising a benefit agent, and b) a shell comprising nanoparticles having a diameter of 10 to 300 nm and polyurea; wherein said nanoparticle comprises ethyl cellulose. a) a core comprising a benefit agent, and b) a shell comprising nanoparticles having a diameter of 10 to 300 nm and polyurea;