mhurhangee/ep-ind-claims huggingface dataset:
A method, performed by a radio network device having a narrowband receiver, of receiving and processing a periodic, wideband network synchronization, sync, signal, the method comprising: identifying a candidate sync signal bandwidth and repetition pattern, wherein identifying a candidate sync signal bandwidth and repetition pattern comprises obtaining a candidate sync signal position from a sync raster known a priori or obtaining the candidate sync signal position via handover signaling; iteratively, for each of a plurality of sub-bands of the sync signal bandwidth, receiving and storing a signal over the duration of a sync signal repetition period; combining the plurality of sub-band signals to obtain a combined signal over the full sync signal bandwidth; and processing the combined signal to detect a sync signal and attempt synchronization with a wireless communication network, characterized in that combining the plurality of sub-band signals to obtain the combined signal comprises: upsampling each sub-band signal by zero padding and filtering such that each sub-band signal fits the full sync signal bandwidth; individually frequency translating each upsampled sub-band signal to a different position within the full sync signal bandwidth; and adding the translated, upsampled sub-band signals to generate a combined signal over the full sync signal bandwidth. identifying a candidate sync signal bandwidth and repetition pattern, wherein identifying a candidate sync signal bandwidth and repetition pattern comprises obtaining a candidate sync signal position from a sync raster known a priori or obtaining the candidate sync signal position via handover signaling; iteratively, for each of a plurality of sub-bands of the sync signal bandwidth, receiving and storing a signal over the duration of a sync signal repetition period; combining the plurality of sub-band signals to obtain a combined signal over the full sync signal bandwidth; and processing the combined signal to detect a sync signal and attempt synchronization with a wireless communication network, characterized in that combining the plurality of sub-band signals to obtain the combined signal comprises: upsampling each sub-band signal by zero padding and filtering such that each sub-band signal fits the full sync signal bandwidth; individually frequency translating each upsampled sub-band signal to a different position within the full sync signal bandwidth; and upsampling each sub-band signal by zero padding and filtering such that each sub-band signal fits the full sync signal bandwidth; individually frequency translating each upsampled sub-band signal to a different position within the full sync signal bandwidth; and adding the translated, upsampled sub-band signals to generate a combined signal over the full sync signal bandwidth.
Commissioning device for commissioning building technology devices installed on and/or in buildings, in particular operating devices for lighting means, the commissioning device comprising: - at least one optical sensor, preferably a 3D camera, configured to obtain images containing spatial information and to receive optical communication signals emitted from a building technology device, and - at least one processing unit configured to process received optical communication signals and to process the spatial images, characterised in that the spatial information is of three dimensions and that the at least one processing unit is configured to compute a spatial position of the building technology device by processing the produced spatial images and by evaluating the spatial information, wherein the at least one processing unit is configured to process the optical communication signals received from the building technology device in order to obtain information identifying the building technology device, and wherein the at least one processing unit is configured to associate the computed spatial position of the building technology device with the processed visual signals. - at least one optical sensor, preferably a 3D camera, configured to obtain images containing spatial information and to receive optical communication signals emitted from a building technology device, and - at least one processing unit configured to process received optical communication signals and to process the spatial images,
Method for biomass production using hydrogenotrophic microorganisms, comprising the steps of: - providing a reactor comprising a reactor vessel, at least one gas inlet and/or hydrogen production system, at least one fluid inlet, and at least one fluid outlet; - charging the reactor with at least one phototrophic micro-organism culture and a hydrogen-oxidising micro-organism culture; - providing a gas feed to the at least one gas inlet with the gas feed comprising an amount of hydrogen gas and/or producing hydrogen gas with the hydrogen production system; - providing a fluid feed to the at least one fluid inlet; - forming in-situ oxygen (O 2) by said phototrophic micro-organisms; - removing and/or taking up of hydrogen, carbon dioxide and/or NH3/NH4+ using the in-situ formed oxygen by said hydrogen-oxidising micro-organism culture; and - growing biomass; wherein said in-situ formation of oxygen by said phototrophic micro-organisms is controlled with an in-situ oxygen controller and/or redox controller. - providing a reactor comprising a reactor vessel, at least one gas inlet and/or hydrogen production system, at least one fluid inlet, and at least one fluid outlet; - charging the reactor with at least one phototrophic micro-organism culture and a hydrogen-oxidising micro-organism culture; - providing a gas feed to the at least one gas inlet with the gas feed comprising an amount of hydrogen gas and/or producing hydrogen gas with the hydrogen production system; - providing a fluid feed to the at least one fluid inlet; - forming in-situ oxygen (O 2) by said phototrophic micro-organisms; - removing and/or taking up of hydrogen, carbon dioxide and/or NH3/NH4+ using the in-situ formed oxygen by said hydrogen-oxidising micro-organism culture; and - growing biomass;
A packaging system comprising: a first box part comprising a plurality of lid walls, wherein a first lid wall comprises an aperture; a latch slidably disposed within the aperture; and a second box part comprising a plurality of tray walls, wherein a first tray wall comprises a channel sized to slidably receive the latch, wherein: the channel comprises: a locking channel segment; and an assembly channel segment that intersects an edge of the first tray wall; and the second box part is configured to fit within the first box part such that: the assembly channel segment is aligned with the latch when the latch is in a first position within the aperture, and the latch is slidable within the locking channel segment to a second position. a first box part comprising a plurality of lid walls, wherein a first lid wall comprises an aperture; a latch slidably disposed within the aperture; and a second box part comprising a plurality of tray walls, wherein a first tray wall comprises a channel sized to slidably receive the latch, wherein: the channel comprises: a locking channel segment; and an assembly channel segment that intersects an edge of the first tray wall; and the second box part is configured to fit within the first box part such that: the assembly channel segment is aligned with the latch when the latch is in a first position within the aperture, and the latch is slidable within the locking channel segment to a second position. the channel comprises: a locking channel segment; and an assembly channel segment that intersects an edge of the first tray wall; and the second box part is configured to fit within the first box part such that: the assembly channel segment is aligned with the latch when the latch is in a first position within the aperture, and the latch is slidable within the locking channel segment to a second position. a locking channel segment; and an assembly channel segment that intersects an edge of the first tray wall; and the second box part is configured to fit within the first box part such that: the assembly channel segment is aligned with the latch when the latch is in a first position within the aperture, and the latch is slidable within the locking channel segment to a second position. the assembly channel segment is aligned with the latch when the latch is in a first position within the aperture, and the latch is slidable within the locking channel segment to a second position.
An anhydrous wound debriding composition comprising: (a) a dispersed phase comprising a liquid hydrophilic polyol and at least one proteolytic enzyme; and (b) a hydrophobic continuous phase comprising a hydrophobic base; wherein the amount of the liquid hydrophilic polyol is within ± 10% w/w of the optimum amount of the liquid hydrophilic polyol and wherein the optimum amount of the liquid hydrophilic polyol correlates to the highest enzymatic activity of the anhydrous wound debriding composition and is determined by: obtaining a series of compositions comprising the dispersed phase and the continuous phase, wherein each composition in the series of compositions include an identical amount of the proteolytic enzyme and a different amount of the liquid hydrophilic polyol; determining the enzymatic activity of each composition in the series of compositions; determining the highest point on a graph that plots the enzymatic activity versus the amount of liquid hydrophilic polyol included in each composition of the series of compositions, wherein the highest point on the graph correlates to the optimum amount of liquid hydrophilic polyol. (a) a dispersed phase comprising a liquid hydrophilic polyol and at least one proteolytic enzyme; and (b) a hydrophobic continuous phase comprising a hydrophobic base; wherein the amount of the liquid hydrophilic polyol is within ± 10% w/w of the optimum amount of the liquid hydrophilic polyol and wherein the optimum amount of the liquid hydrophilic polyol correlates to the highest enzymatic activity of the anhydrous wound debriding composition and is determined by: obtaining a series of compositions comprising the dispersed phase and the continuous phase, wherein each composition in the series of compositions include an identical amount of the proteolytic enzyme and a different amount of the liquid hydrophilic polyol; determining the enzymatic activity of each composition in the series of compositions; determining the highest point on a graph that plots the enzymatic activity versus the amount of liquid hydrophilic polyol included in each composition of the series of compositions, wherein the highest point on the graph correlates to the optimum amount of liquid hydrophilic polyol.
A manufacturing apparatus for a multilayer security paper, comprising - a first wet end which forms a first paper web, and a second wet end which forms a second paper web, - a device for applying security elements to the first paper web and - a couching device for joining the first and the second paper web (16, 14) into a total paper web, the couching device being disposed downstream of the device for applying security elements, wherein the device for applying security elements includes -- a feeding device (36, 48, 54) for feeding prepared and singled security elements and -- an application device (40, 52) for applying the singled security elements to the first paper web, characterized in that the application device (40, 52) and/or the feeding device (36, 48, 54) are/is arranged for applying the singled security elements in a transversally placed manner - with adjustable transversal orientation. - a first wet end which forms a first paper web, and a second wet end which forms a second paper web, - a device for applying security elements to the first paper web and - a couching device for joining the first and the second paper web (16, 14) into a total paper web, the couching device being disposed downstream of the device for applying security elements, -- a feeding device (36, 48, 54) for feeding prepared and singled security elements and -- an application device (40, 52) for applying the singled security elements to the first paper web,
Housed operating device (1, 1') for operating illumination means, wherein a housing, sealed against moisture, of the operating device (1, 1') has means for mechanically positioning and/or holding at least one communication adapter (5, 7), wherein the means are arranged on the housing in such a way that a positioned and/or held communication adapter (5, 7) communicates wirelessly through the housing wall with an interface of the operating device (1, 1'), which interface is arranged inside the housing, wherein the operating device (1, 1') is designed to wirelessly, in particular without contact and/or inductively, supply the at least one communication adapter (5, 7) with electricity, in particular via the interface, characterized in that the operating device (1, 1') is configured to communicate with the at least one communication adapter (5, 7) by altering or modulating the wireless supply when the at least one communication adapter (5, 7) is supplied wirelessly by means of the wireless supply.
A cartridge, comprising: a developing roller configured to rotate around a first rotational axis extending in a predetermined direction and to carry developer thereon, the developing roller having a first end and a second end that are apart from each other in the predetermined direction, a from-first-to-second direction being defined along the predetermined direction as being directed from the first end to the second end; a developing electrode formed of a conductive material and configured to be electrically connected to the developing roller, the developing electrode including a main part and a protruding portion that protrudes from the main part in the from-first-to-second direction; and a detection body, characterized in that the detection body is formed of an insulating material and is rotatably supported by the protruding portion, the detection body including a first opening that exposes part of the protruding portion and a covering portion (95, 136) configured to cover part of the protruding portion. a developing roller configured to rotate around a first rotational axis extending in a predetermined direction and to carry developer thereon, the developing roller having a first end and a second end that are apart from each other in the predetermined direction, a from-first-to-second direction being defined along the predetermined direction as being directed from the first end to the second end; a developing electrode formed of a conductive material and configured to be electrically connected to the developing roller, the developing electrode including a main part and a protruding portion that protrudes from the main part in the from-first-to-second direction; and a detection body,
Agricultural machine, in particular hay making machine or mowing machine, comprising a carrying frame (1, 4) and an undercarriage, at least one working device at the carrying frame (1, 4), the working device being adjustable via a lifting arm and by means of a double-actuated hydraulic cylinder from a low working position on the ground through a partially lifted position into a fully lifted transport position and vice versa, wherein the hydraulic cylinder for adjusting the lifting arm can be actuated by at least one control valve of a hydraulic system containing a pressure source and a tank and wherein the weight of the working device lifted into the partial lifted position is acting on the hydraulic cylinder in a direction towards the low working position, characterized in that the hydraulic cylinder having a piston at least for adjusting the working device from the partially lifted position into the low working position is operated as a single acting hydraulic cylinder and can be connected in the partially lifted position by a first working line at one side of the piston with the tank.
A method for correcting a resting blood flow velocity on the basis of an interval time between angiogram images, characterized by comprising: acquiring, in an angiography state, an average blood flow velocity V h from a coronary artery inlet to a distal end of a coronary artery stenosis; acquiring a time difference Δt between start times of two adjacent bolus injections of a contrast agent; obtaining a correction coefficient K according to the time difference Δt; obtaining a resting blood flow velocity V j according to the correction coefficient K and the average blood flow velocity V h. acquiring, in an angiography state, an average blood flow velocity V h from a coronary artery inlet to a distal end of a coronary artery stenosis; acquiring a time difference Δt between start times of two adjacent bolus injections of a contrast agent; obtaining a correction coefficient K according to the time difference Δt; obtaining a resting blood flow velocity V j according to the correction coefficient K and the average blood flow velocity V h.
A 10 amino acid cell-penetrating peptide characterized in that it comprises an amino acid sequence consisting of a beta-alanine or a serine in the N-terminal position, linked to a sequence consisting of 9 consecutive amino acids from the sequence RXWXRLWXRLR (SEQ ID NO: 7), wherein X in position 2 is R or S and X in positions 4 and 8 are, independently from each other, W or F.
A robot cleaner, comprising: a cleaner body; wheels (150', 150") for running on a floor; a driving unit configured to provide a driving force; a driving pulley connected to the driving unit, and formed to be rotatable by receiving the driving force from the driving unit; first and second driven pulleys (152, 153) disposed at both sides of the driving pulley; and a belt enclosing the driving pulley and the first and second driven pulleys (152, 153), wherein the wheels (150', 150") comprise: main wheels provided at right and left sides of the cleaner body, and configured to be driven independently; and a supplementary wheel (150") configured to support the cleaner body together with the main wheels, and configured to assist a movement of the cleaner body. a cleaner body; wheels (150', 150") for running on a floor; a driving unit configured to provide a driving force; a driving pulley connected to the driving unit, and formed to be rotatable by receiving the driving force from the driving unit; first and second driven pulleys (152, 153) disposed at both sides of the driving pulley; and a belt enclosing the driving pulley and the first and second driven pulleys (152, 153), wherein the wheels (150', 150") comprise: main wheels provided at right and left sides of the cleaner body, and configured to be driven independently; and a supplementary wheel (150") configured to support the cleaner body together with the main wheels, and configured to assist a movement of the cleaner body. main wheels provided at right and left sides of the cleaner body, and configured to be driven independently; and a supplementary wheel (150") configured to support the cleaner body together with the main wheels, and configured to assist a movement of the cleaner body.
A filler for affinity chromatography, comprising: - a porous particle consisting of a polymer of vinyl monomer including a cross-linkable vinyl monomer that contains hydroxyl group but does not contain epoxy group and an epoxy group-containing non-cross-linkable vinyl monomer, or a cross-linkable vinyl monomer that contains hydroxyl group and epoxy group, - ligands bound to the porous particle, and - ring-opened epoxy groups on the surface of the porous particles, which are obtained by ring-opening of epoxy groups contained in the porous particles by using thioglycerol. - a porous particle consisting of a polymer of vinyl monomer including a cross-linkable vinyl monomer that contains hydroxyl group but does not contain epoxy group and an epoxy group-containing non-cross-linkable vinyl monomer, or a cross-linkable vinyl monomer that contains hydroxyl group and epoxy group, - ligands bound to the porous particle, and - ring-opened epoxy groups on the surface of the porous particles, which are obtained by ring-opening of epoxy groups contained in the porous particles by using thioglycerol.
A fiber reinforced polymer composition comprising (a) from 10 to 85 wt.-%, based on the total weight of the fiber reinforced polymer composition, of a polypropylene, (b) from 12.5 to 53 wt.-%, based on the total weight of the fiber reinforced polymer composition, of fibers, (c) from 2 to 12 wt.-%, based on the total weight of the fiber reinforced polymer composition, of glass bubbles, and (d) from 0.5 to 5 wt.-%, based on the total weight of the fiber reinforced polymer composition, of a polar modified polypropylene as coupling agent; wherein the fibers are glass fibers. (a) from 10 to 85 wt.-%, based on the total weight of the fiber reinforced polymer composition, of a polypropylene, (b) from 12.5 to 53 wt.-%, based on the total weight of the fiber reinforced polymer composition, of fibers, (c) from 2 to 12 wt.-%, based on the total weight of the fiber reinforced polymer composition, of glass bubbles, and (d) from 0.5 to 5 wt.-%, based on the total weight of the fiber reinforced polymer composition, of a polar modified polypropylene as coupling agent;
A refrigeration apparatus, the refrigeration apparatus comprising: a compression mechanism (2, 102) having a plurality of compression elements and configured so that refrigerant discharged from a first-stage compression element of the plurality of compression elements is sequentially compressed by a second-stage compression element; a heat source-side heat exchanger; a usage-side heat exchanger; an intercooler which is provided to an intermediate refrigerant tube for drawing refrigerant discharged from the first-stage compression element into the second-stage compression element, and which functions as a cooler of the refrigerant discharged from the first-stage compression element and drawn into the second-stage compression element; and an intercooler bypass tube connected to the intermediate refrigerant tube so as to bypass the intercooler; characterized in that a wet prevention control is performed using the intercooler bypass tube so that refrigerant does not flow to the intercooler when the heat source temperature of the intercooler or the outlet refrigerant temperature of the intercooler is equal to or less than the saturation temperature of the refrigerant fed from the first-stage compression element to the second-stage compression element. a compression mechanism (2, 102) having a plurality of compression elements and configured so that refrigerant discharged from a first-stage compression element of the plurality of compression elements is sequentially compressed by a second-stage compression element; a heat source-side heat exchanger; a usage-side heat exchanger; an intercooler which is provided to an intermediate refrigerant tube for drawing refrigerant discharged from the first-stage compression element into the second-stage compression element, and which functions as a cooler of the refrigerant discharged from the first-stage compression element and drawn into the second-stage compression element; and an intercooler bypass tube connected to the intermediate refrigerant tube so as to bypass the intercooler; characterized in that a wet prevention control is performed using the intercooler bypass tube so that refrigerant does not flow to the intercooler when the heat source temperature of the intercooler or the outlet refrigerant temperature of the intercooler is equal to or less than the saturation temperature of the refrigerant fed from the first-stage compression element to the second-stage compression element.