mhurhangee/ep-ind-claims huggingface dataset:
A portable decorative element including a rigid structure having decorative perforations, receiving on its rear face, in a position of use, a trimming forming a visible plate through these perforations, able to be elastically bent, characterised in that the rear face of the rigid structure comprises at least two shoulders arranged opposite to each other along a longitudinal axis of the rigid structure and against which, in the position of use, transverse edges of the trimming are reversibly elastically pressed in order to clamp this trimming causing it to be pushed against the rear face of the structure.
A method of obtaining lactose from a lactose-containing liquid source comprising subjecting a lactose-containing liquid source to a lactose crystallisation process to generate one or more lactose-containing liquid streams, subjecting the one or more lactose-containing liquid streams to (i) heat, (ii) pH adjustment, or (iii) heat and pH adjustment, subjecting the one or more lactose-containing liquid streams to one or more processes to generate a lactose-containing extract, the one or more processes comprising i) a first step, to remove one or more of cells, proteins, polypeptides, polysaccharides, lipid, ions or salts, comprising a) centrifugal separation to produce a light phase and a heavy phase with optional ultrafiltration or nanofiltration of the light phase, or b) ultrafiltration to generate an ultrafiltration permeate and an ultrafiltration retentate, and ii) a second step comprising nanofiltration of a) the light phase from the centrifugal separator, or b) the permeate from ultrafiltration, or c) the retentate from nanofiltration, adding at least a portion of the lactose-containing extract to the lactose-containing liquid source before, during or after entry into the crystallisation process. i) a first step, to remove one or more of cells, proteins, polypeptides, polysaccharides, lipid, ions or salts, comprising a) centrifugal separation to produce a light phase and a heavy phase with optional ultrafiltration or nanofiltration of the light phase, or b) ultrafiltration to generate an ultrafiltration permeate and an ultrafiltration retentate, and a) centrifugal separation to produce a light phase and a heavy phase with optional ultrafiltration or nanofiltration of the light phase, or b) ultrafiltration to generate an ultrafiltration permeate and an ultrafiltration retentate, and ii) a second step comprising nanofiltration of a) the light phase from the centrifugal separator, or b) the permeate from ultrafiltration, or c) the retentate from nanofiltration, a) the light phase from the centrifugal separator, or b) the permeate from ultrafiltration, or c) the retentate from nanofiltration,
A door for a cooling appliance, comprising a door body and at least one decoration strip connected to the door body, wherein the door body comprises a front plate, a door lining, a pair of side plates, an upper end cap, a lower end cap, and a thermal insulation space enclosed by the front plate, the door lining, the pair of side plates, the upper end cap, and the lower end cap; wherein one of the upper end cap and the lower end cap comprises a stop portion transversely protruding from the side plate, a tail end surface of an end of the decoration strip abutting the stop portion which is used for positioning the decoration strip during connection of the decoration strip to the corresponding side plate, wherein when the decoration strip is connected to the door body, the end of the decoration strip is stopped by using the stop portion, and as viewed in a transverse direction, the other end of the decoration strip covers at least a part of a side end surface of the other of the upper end cap and the lower end cap, the door comprising a decoration panel adhered to a front side of the front plate, the decoration strip being entirely located behind the decoration panel. wherein one of the upper end cap and the lower end cap comprises a stop portion transversely protruding from the side plate, a tail end surface of an end of the decoration strip abutting the stop portion which is used for positioning the decoration strip during connection of the decoration strip to the corresponding side plate, wherein when the decoration strip is connected to the door body, the end of the decoration strip is stopped by using the stop portion, and as viewed in a transverse direction, the other end of the decoration strip covers at least a part of a side end surface of the other of the upper end cap and the lower end cap, the door comprising a decoration panel adhered to a front side of the front plate, the decoration strip being entirely located behind the decoration panel.
A method of preparing a lens blank for a further operation of surfacing of said lens blank configured to transform the lens blank into a surfaced lens at the end thereof for further transformation into a lens having a lens shape and destined to be coupled to a frame, the operation of surfacing including processing the lens blank so that the surfaced lens exhibits a crib diameter (D crib), the method being implemented using a processing module and comprising: - based on input data which define the lens shape, defining a temporary crib diameter (D temp) so that said temporary crib diameter satisfies a set of constraints which includes at least: - a first constraint whereby the temporary crib diameter (D temp) is large enough for the surfaced lens having said temporary crib diameter to be suitable to be processed into said lens, - a second constraint whereby the temporary crib diameter is large enough for the surfaced lens having said temporary crib diameter to include a plurality of reference points (PREF) defined on the lens blank and which together identify an optical center of the lens, - choosing the crib diameter (D crib) as a function of the temporary crib diameter (D temp), said choosing the crib diameter being configured so that, when a step cribbing configuration is destined to be applied to the operation of surfacing, said crib diameter is chosen among at least one predetermined discrete value (Val i). - based on input data which define the lens shape, defining a temporary crib diameter (D temp) so that said temporary crib diameter satisfies a set of constraints which includes at least: - a first constraint whereby the temporary crib diameter (D temp) is large enough for the surfaced lens having said temporary crib diameter to be suitable to be processed into said lens, - a second constraint whereby the temporary crib diameter is large enough for the surfaced lens having said temporary crib diameter to include a plurality of reference points (PREF) defined on the lens blank and which together identify an optical center of the lens, - a first constraint whereby the temporary crib diameter (D temp) is large enough for the surfaced lens having said temporary crib diameter to be suitable to be processed into said lens, - a second constraint whereby the temporary crib diameter is large enough for the surfaced lens having said temporary crib diameter to include a plurality of reference points (PREF) defined on the lens - choosing the crib diameter (D crib) as a function of the temporary crib diameter (D temp), said choosing the crib diameter being configured so that, when a step cribbing configuration is destined to be applied to the operation of surfacing, said crib diameter is chosen among at least one predetermined discrete value (Val i).
A method for controlling the moisture content of bioresorbable polymer resin for melt processing comprising: providing a bioresorbable polymer resin as feed to an extruder for an extrusion process; passing a drying gas through the polymer resin feed during the extrusion process prior to being fed into the extruder to remove moisture from the polymer resin feed, wherein the drying gas has substantially no moisture content prior to passing through the polymer resin; characterized in that the method further comprises: maintaining the moisture content of the polymer resin feed during the extrusion process prior to being fed into the extruder above a lower limit of 50 ppm and below an upper limit of 1000 ppm as the polymer resin feed is fed to the extruder; and adjusting the temperature of the drying gas, the flow rate of the drying gas, or both to maintain the moisture content of the polymer resin feed above the lower limit and below the upper limit, wherein the temperature of the drying gas is initially set at 40°C to 70°C and is adjusted to the level of 25°C to 30°C after the moisture content of the polymer resin feed is reduced to between 50 and 100 ppm. providing a bioresorbable polymer resin as feed to an extruder for an extrusion process; passing a drying gas through the polymer resin feed during the extrusion process prior to being fed into the extruder to remove moisture from the polymer resin feed, wherein the drying gas has substantially no moisture content prior to passing through the polymer resin; characterized in that the method further comprises: maintaining the moisture content of the polymer resin feed during the extrusion process prior to being fed into the extruder above a lower limit of 50 ppm and below an upper limit of 1000 ppm as the polymer resin feed is fed to the extruder; and adjusting the temperature of the drying gas, the flow rate of the drying gas, or both to maintain the moisture content of the polymer resin feed above the lower limit and below the upper limit, maintaining the moisture content of the polymer resin feed during the extrusion process prior to being fed into the extruder above a lower limit of 50 ppm and below an upper limit of 1000 ppm as the polymer resin feed is fed to the extruder; and adjusting the temperature of the drying gas, the flow rate of the drying gas, or both to maintain the moisture content of the polymer resin feed above the lower limit and below the upper limit, wherein the temperature of the drying gas is initially set at 40°C to 70°C and is adjusted to the level of 25°C to 30°C after the moisture content of the polymer resin feed is reduced to between 50 and 100 ppm.
A method of lowering a load from a pipelay vessel on the surface of a body of water, the method comprising: holding a rigid rod on an upright launch axis, extending through a hold-back system on a pipelay tower of the vessel; mechanically coupling a lower end of the rod to the load; above the surface, connecting a wire to the load indirectly via the rod to suspend the load from the wire via the rod; operating the hold-back system to advance the rod downwardly relative to the pipelay tower, submerging the load, while the weight of the load is suspended from the hold-back system via the rod; when the load reaches a predetermined depth underwater, transferring the weight of the load from the hold-back system to the wire; continuing to lower the load in the water, suspended from the wire; detaching the rod from the load when the load has been lowered to a subsea location; and recovering the detached rod to the vessel by winding in the wire. holding a rigid rod on an upright launch axis, extending through a hold-back system on a pipelay tower of the vessel; mechanically coupling a lower end of the rod to the load; above the surface, connecting a wire to the load indirectly via the rod to suspend the load from the wire via the rod; operating the hold-back system to advance the rod downwardly relative to the pipelay tower, submerging the load, while the weight of the load is suspended from the hold-back system via the rod; when the load reaches a predetermined depth underwater, transferring the weight of the load from the hold-back system to the wire; continuing to lower the load in the water, suspended from the wire; detaching the rod from the load when the load has been lowered to a subsea location; and recovering the detached rod to the vessel by winding in the wire.
An aerodynamic brake for a vehicle, comprising: at least one rigid panel having a panel leading edge portion and a panel trailing edge portion, the panel trailing edge portion being configured to pivotably couple to a vehicle body; at least one flexible sheet having a sheet lower edge portion and a sheet upper edge portion, the sheet lower edge portion being configured to couple to the vehicle body, the sheet upper edge portion coupled to the panel leading edge portion; at least one panel actuator configured to pivot the at least one rigid panel for moving the at least one rigid panel between a stowed position and a deployed position; in the stowed position, the at least one rigid panel being configured to be proximate a vehicle body and covering the at least one flexible sheet in a folded state between the at least one rigid panel and a vehicle body; and in the deployed position, the panel leading edge portion being configured to pivot away from a vehicle body and the at least one flexible sheet being in an open state exposable to an oncoming airflow relative to a forward-moving direction of a vehicle for generating aerodynamic drag for slowing the vehicle. at least one rigid panel having a panel leading edge portion and a panel trailing edge portion, the panel trailing edge portion being configured to pivotably couple to a vehicle body; at least one flexible sheet having a sheet lower edge portion and a sheet upper edge portion, the sheet lower edge portion being configured to couple to the vehicle body, the sheet upper edge portion coupled to the panel leading edge portion; at least one panel actuator configured to pivot the at least one rigid panel for moving the at least one rigid panel between a stowed position and a deployed position; in the stowed position, the at least one rigid panel being configured to be proximate a vehicle body and covering the at least one flexible sheet in a folded state between the at least one rigid panel and a vehicle body; and in the deployed position, the panel leading edge portion being configured to pivot away from a vehicle body and the at least one flexible sheet being in an open state exposable to an oncoming airflow relative to a forward-moving direction of a vehicle for generating aerodynamic drag for slowing the vehicle.
Manual workstation having a tool system which has a manually guided tool for processing a workpiece, and a worker guidance device, which has at least one illumination device which is designed to generate a spot of light on a workpiece to be processed and to adjust the position of the spot of light, wherein the worker guidance device is equipped to indicate an assembly point on the workpiece to be processed by means of the spot of light, characterized in that the illumination device is equipped to emit an encoded light beam, and to transmit data to the tool by using the encoded light beam.
A fuel cell system comprising: a reformer that produces fuel from a raw material and reforming water; a fuel cell that uses the fuel from the reformer to generate power; a condenser that cools exhaust gas from the fuel cell and condenses water vapor in the exhaust gas; a condensed water tank that recovers condensed water produced by the condenser; a reforming water supplier that supplies the condensed water in the condensed water tank to the reformer as the reforming water; a water level detector that detects a water level of the condensed water in the condensed water tank; an exhaust gas cooler that supplies, to the condenser, a cooling medium that cools the exhaust gas; a cooling determiner that is used to determine an exhaust gas cooling capability in the condenser brought about by the cooling medium; and a controller that, when a first water level corresponding to a shortage of water in the condensed water tank is detected using the water level detector, implements a water-saving mode in which an output of the fuel cell is decreased regardless of an external power load and an amount of the reforming water used is reduced, and, characterized by when it is determined using the cooling determiner during the water-saving mode that the exhaust gas cooling capability in the condenser brought about by the cooling medium is equal to or greater than a prescribed value, the controller is configured to implement a water recovery mode in which the output of the fuel cell is increased regardless of the external power load and an amount of the condensed water recovered is increased. a reformer that produces fuel from a raw material and reforming water; a fuel cell that uses the fuel from the reformer to generate power; a condenser that cools exhaust gas from the fuel cell and condenses water vapor in the exhaust gas; a condensed water tank that recovers condensed water produced by the condenser; a reforming water supplier that supplies the condensed water in the condensed water tank to the reformer as the reforming water; a water level detector that detects a water level of the condensed water in the condensed water tank; an exhaust gas cooler that supplies, to the condenser, a cooling medium that cools the exhaust gas; a cooling determiner that is used to determine an exhaust gas cooling capability in the condenser brought about by the cooling medium; and a controller that, when a first water level corresponding to a shortage of water in the condensed water tank is detected using the water level detector, implements a water-saving mode in which an output of the fuel cell is decreased regardless of an external power load and an amount of the reforming water used is reduced, and, characterized by when it is determined using the cooling determiner during the water-saving mode that the exhaust gas cooling capability in the condenser brought about by the cooling medium is equal to or greater than a prescribed value, the controller is configured to implement a water recovery mode in which the output of the fuel cell is increased regardless of the external power load and an amount of the condensed water recovered is increased.
A computer-implemented method for fixing an output power limit of a frequency converter comprising the following steps: - determining voltage differences ΔU i between at least two DC-link circuit (C 1, C 2) capacitors or at least two blocks of DC-link circuit capacitors for each of at least two different values of an output power P out(i) of a frequency converter, thus providing at least two sets of the voltage differences ΔU i, where i = (1, 2..., n), wherein the voltage differences ΔU i are determined during stable thermal conditions of the frequency converter; - determining a percentile value for each set of the voltage differences ΔU i in order to eliminate the highest errors occurring during determination of voltage differences ΔU i, wherein the elimination of the highest errors is done through rejection of values of the voltage differences ΔU i which are higher than the value of a determined percentile, where i = (1,2...,n); - determining characteristic ΔU = f(P out) from the values of the determined percentile, - determining a maximum allowable voltage difference ΔU maxallow, where ΔU maxallow = 1 3 ⋅ U dc where U dc - a voltage of a DC-link circuit - fixing a value of an output power limit P outlimit of the frequency converter for the determined maximum allowable voltage difference ΔU maxallow. - determining voltage differences ΔU i between at least two DC-link circuit (C 1, C 2) capacitors or at least two blocks of DC-link circuit capacitors for each of at least two different values of an output power P out(i) of a frequency converter, thus providing at least two sets of the voltage differences ΔU i, where i = (1, 2..., n), wherein the voltage differences ΔU i are determined during stable thermal conditions of the frequency converter; - determining a percentile value for each set of the voltage differences ΔU i in order to eliminate the highest errors occurring during determination of voltage differences ΔU i, wherein the elimination of the highest errors is done through rejection of values of the voltage differences ΔU i which are higher than the value of a determined percentile, where i = (1,2...,n); - determining characteristic ΔU = f(P out) from the values of the determined percentile, - determining a maximum allowable voltage difference ΔU maxallow, where ΔU maxallow = 1 3 ⋅ U dc where U dc - a voltage of a DC-link circuit - fixing a value of an output power limit P outlimit of the frequency converter for the determined maximum allowable voltage difference ΔU maxallow.
A side camera for a vehicle, comprising: a main body disposed at a left-hand side and/or a right-hand side of the vehicle; a blind-spot view camera of which at least a portion is accommodated in the main body and being configured to photograph a view in a lateral and rearward directions of the vehicle; a surround view camera, SVC, of which at least a portion is accommodated in the main body and being configured to photograph a view in a lateral direction of the vehicle; and a blind-spot view monitor disposed inside the vehicle to transmit an image captured by the blind-spot view camera, wherein, when the blind-spot view camera fails, an image transformation process is performed based on an image captured by the SVC and transmitted to the blind-spot view monitor, and when the blind-spot view monitor fails, an image captured by the blind-spot view camera is transmitted to another display device in the vehicle other than the blind-spot view monitor, wherein in the image transformation process, a portion of the image captured by the SVC, which corresponds to a photographable range of the blind-spot view camera, is set as a region of interest, ROI, and an undistortion process and a perspective transform process are performed upon the portion set as the ROI for correction thereof and a corrected image is transmitted to the blind-spot view monitor), characterized in that the undistortion process and the perspective transform process being performed using a pre-stored look-up table, LUT, based on mounting positions of the blind-spot view camera and the SVC and a corresponding lens distortion ratio.. a main body disposed at a left-hand side and/or a right-hand side of the vehicle; a blind-spot view camera of which at least a portion is accommodated in the main body and being configured to photograph a view in a lateral and rearward directions of the vehicle; a surround view camera, SVC, of which at least a portion is accommodated in the main body and being configured to photograph a view in a lateral direction of the vehicle; and a blind-spot view monitor disposed inside the vehicle to transmit an image captured by the blind-spot view camera, wherein, when the blind-spot view camera fails, an image transformation process is performed based on an image captured by the SVC and transmitted to the blind-spot view monitor, and when the blind-spot view monitor fails, an image captured by the blind-spot view camera is transmitted to another display device in the vehicle other than the blind-spot view monitor, wherein in the image transformation process, a portion of the image captured by the SVC, which corresponds to a photographable range of the blind-spot view camera, is set as a region of interest, ROI, and an undistortion process and a perspective transform process are performed upon the portion set as the ROI for correction thereof and a corrected image is transmitted to the blind-spot view monitor),