mhurhangee/patent-ind-claim-en huggingface dataset:
A cabin attendant seat assembly, comprising: a frame assembly including spaced frame members disposed in a first vertical plane; a backrest mounted for reciprocating vertical translation between the spaced frame members; a seat pan mounted for pivoting motion relative to the frame assembly; and first and second links connecting the seat pan to the backrest such that upward pivoting motion of the seat pan moves the backrest vertically up and downward pivoting motion of the seat pan moves the backrest vertically down; wherein: the first and second links are symmetrically arranged on opposing sides of the seat pan and the backrest, wherein ends of the first and second links are coupled to the respective seat pan and the backrest through pivotal attachments, and wherein the first and second links move into a second vertical plane which is parallel to the first vertical plane to stow the seat pan and out of the first vertical plane to deploy the seat pan; and a thickness of the cabin attendant seat assembly, when the seat pan is stowed, is not greater than a thickness of a thicker of the backrest and the seat pan. a frame assembly including spaced frame members disposed in a first vertical plane; a backrest mounted for reciprocating vertical translation between the spaced frame members; a seat pan mounted for pivoting motion relative to the frame assembly; and first and second links connecting the seat pan to the backrest such that upward pivoting motion of the seat pan moves the backrest vertically up and downward pivoting motion of the seat pan moves the backrest vertically down; wherein: the first and second links are symmetrically arranged on opposing sides of the seat pan and the backrest, wherein ends of the first and second links are coupled to the respective seat pan and the backrest through pivotal attachments, and wherein the first and second links move into a second vertical plane which is parallel to the first vertical plane to stow the seat pan and out of the first vertical plane to deploy the seat pan; and a thickness of the cabin attendant seat assembly, when the seat pan is stowed, is not greater than a thickness of a thicker of the backrest and the seat pan. the first and second links are symmetrically arranged on opposing sides of the seat pan and the backrest, wherein ends of the first and second links are coupled to the respective seat pan and the backrest through pivotal attachments, and wherein the first and second links move into a second vertical plane which is parallel to the first vertical plane to stow the seat pan and out of the first vertical plane to deploy the seat pan; and a thickness of the cabin attendant seat assembly, when the seat pan is stowed, is not greater than a thickness of a thicker of the backrest and the seat pan.
A heterogeneous catalyst comprising platinum and rhodium on a support selected from the group consisting of zirconia comprised of zirconia and no more than 5 wt% of other materials, stabilized (doped) zirconia comprised of zirconia and between 1 wt% and 40 wt% of dopants, and mixtures thereof, wherein the molar ratio of platinum to rhodium is in the range of from 3:1 to 1:2, platinum is present in an amount in the range of from 0.4 wt% to 1.4 wt%, rhodium is present in an amount in the range of from 0.1 wt% to 0.8 wt%, and wherein the average pore diameter of the support is in the range of 5nm to 70nm.
A method for processing process data (P1, P2, ..., PN) at a data bus subscriber (7a, 7b,..., 7n) in a local bus , in particular a ring bus, comprising: receiving a first symbol of a data packet during a first number of working cycles, wherein the first symbol comprises first process data (Pi); loading at least one first instruction from an instruction list during the first number of working cycles, wherein the instruction list is selected on the basis of an instruction list index , wherein the instruction list index was received in a symbol of the data packet before the symbol with the first process data (Pi); receiving a second symbol of the data packet during a second number of working cycles, wherein the second symbol comprises second process data (P2); processing the first process data (P1) contained in the first symbol with the at least one loaded first instruction during the second number of working cycles; and loading at least one second instruction for processing the second process data (P2) from the second symbol during the second number of working cycles. receiving a first symbol of a data packet during a first number of working cycles, wherein the first symbol comprises first process data (Pi); loading at least one first instruction from an instruction list during the first number of working cycles, wherein the instruction list is selected on the basis of an instruction list index , wherein the instruction list index was received in a symbol of the data packet before the symbol with the first process data (Pi); receiving a second symbol of the data packet during a second number of working cycles, wherein the second symbol comprises second process data (P2); processing the first process data (P1) contained in the first symbol with the at least one loaded first instruction during the second number of working cycles; and loading at least one second instruction for processing the second process data (P2) from the second symbol during the second number of working cycles.
An accessory device for an ostomy system comprising a monitor device and an ostomy appliance , the ostomy appliance comprising a base plate , the accessory device comprising: a memory ; a processor ; and an interface coupled to the processor and configured to communicate with the monitor device , wherein the interface comprises a display device and is configured to obtain monitor data from the monitor device coupled to the ostomy appliance , wherein the processor is configured to: determine an operating state of the ostomy appliance ; determine respective locations of one or more changing rooms based on the operating state; and output to the display device directions to a changing room of the one or more changing rooms. a memory ; a processor ; and an interface coupled to the processor and configured to communicate with the monitor device , wherein the interface comprises a display device and is configured to obtain monitor data from the monitor device coupled to the ostomy appliance , wherein the processor is configured to: determine an operating state of the ostomy appliance ; determine respective locations of one or more changing rooms based on the operating state; and output to the display device directions to a changing room of the one or more changing rooms. determine an operating state of the ostomy appliance ; determine respective locations of one or more changing rooms based on the operating state; and output to the display device directions to a changing room of the one or more changing rooms.
Double pedal system for an industrial truck , comprising: - a first spring-reset pedal ; - a second spring-reset pedal ; wherein the first and the second spring-reset pedals are provided so as to be mechanically independent of one another, and are each provided with a device for electronically capturing the current actuation path of the corresponding pedal ; and a control unit which is operatively coupled to the devices for electronically capturing the actuation paths of the two pedals , and is designed to determine a travel target value from the current actuation paths of the two pedals , characterized in that the control unit is designed to determine the travel target value by calculating the difference between the two current actuation paths of the pedals . - a first spring-reset pedal ; - a second spring-reset pedal ; wherein the first and the second spring-reset pedals are provided so as to be mechanically independent of one another, and are each provided with a device for electronically capturing the current actuation path of the corresponding pedal ; and a control unit which is operatively coupled to the devices for electronically capturing the actuation paths of the two pedals , and is designed to determine a travel target value from the current actuation paths of the two pedals , characterized in that the control unit is designed to determine the travel target value by calculating the difference between the two current actuation paths of the pedals . wherein the first and the second spring-reset pedals are provided so as to be mechanically independent of one another, and are each provided with a device for electronically capturing the current actuation path of the corresponding pedal ; and a control unit which is operatively coupled to the devices for electronically capturing the actuation paths of the two pedals , and is designed to determine a travel target value from the current actuation paths of the two pedals , characterized in that the control unit is designed to determine the travel target value by calculating the difference between the two current actuation paths of the pedals .
A hard-metal comprising at least 13 volume % of a metal carbide selected from the group consisting of TiC, VC, ZrC, NbC, MoC, HfC, TaC, WC or a combination thereof, a binder phase which is Me-Cr-Si-C eutectic comprising one or more of iron-group metals or alloy thereof and 0.1 to 10 weight% Si and 0.1 to 10 weight% Cr and having a liquidus temperature at 1280 degrees C or lower and 3 to 39 volume% of diamond or cBN grains coated with a protective coating or a mixture thereof, wherein Me is any of Co, Ni and Fe, and the binder phase further comprises 1 to 20 weight % of dissolved carbon, wherein the hard-metal has a density of at least 99.5% of the theoretical density.
Method for controlling an x-ray imaging device , in particular a computed tomography device, the x-ray imaging device comprising an x-ray source and a photon counting detector as an x-ray detector , wherein for an image acquisition process of a patient: - at least one input parameter describing an attenuation property of the patient and/or a purpose of the image acquisition is determined, - at least one operation parameter of the x-ray detector is determined and/or adapted dependent on the at least one input parameter, and - image acquisition is performed using the determined at least one operation parameter, wherein the at least one operation parameter is at least partly derived from the at least one input parameter in an optimisation process, in which an image quality measure, namely the contrast to noise ratio, is maximised, wherein a contrast to noise ratio is calculated from the at least one input parameter and at least one candidate parameter for the operation parameter using a theoretical model and/or a model trained by machine learning. - at least one input parameter describing an attenuation property of the patient and/or a purpose of the image acquisition is determined, - at least one operation parameter of the x-ray detector is determined and/or adapted dependent on the at least one input parameter, and - image acquisition is performed using the determined at least one operation parameter,
A front loader comprising: a mast ; a mounting bracket that defines a channel configured to receive a mounting frame of a work vehicle; a latch disposed within the channel and pivotally coupled to the mounting bracket , the latch pivotable between a first, latched position configured to couple the mast to the mounting frame, and a second, unlatched position; a latching lever disposed within the channel and coupled to the latch, the latching lever configured to move the latch between the first, latched position and the second, unlatched position based on a position of the mounting frame; an indicator lever coupled to the latch, wherein the indicator lever is movable by the latch to indicate whether the latch is in the first, latched position or the second, unlatched position; wherein the mast includes a pair of linkages and the mounting bracket further comprises a second mounting bracket that forms a pair of mounting brackets configured to couple the pair of linkages to the mounting frame; and further comprising a first gauge coupled to one mounting bracket of the pair of mounting brackets and a second gauge coupled to the other mounting bracket of the pair of mounting brackets, the indicator lever cooperates with the first gauge to indicate whether the latch is in the first, latched position or second, unlatched position and the latch including an unlatch lever coupled to an indicator arrow that cooperates with the second gauge to indicate whether the latch is in the first, latched position or second, unlatched position. a mast ; a mounting bracket that defines a channel configured to receive a mounting frame of a work vehicle; a latch disposed within the channel and pivotally coupled to the mounting bracket , the latch pivotable between a first, latched position configured to couple the mast to the mounting frame, and a second, unlatched position; a latching lever disposed within the channel and coupled to the latch, the latching lever configured to move the latch between the first, latched position and the second, unlatched position based on a position of the mounting frame; an indicator lever coupled to the latch, wherein the indicator lever is movable by the latch to indicate whether the latch is in the first, latched position or the second, unlatched position; wherein the mast includes a pair of linkages and the mounting bracket further comprises a second mounting bracket that forms a pair of mounting brackets configured to couple the pair of linkages to the mounting frame; and further comprising a first gauge coupled to one mounting bracket of the pair of mounting brackets and a second gauge coupled to the other mounting bracket of the pair of mounting brackets, the indicator lever cooperates with the first gauge to indicate whether the latch is in the first, latched position or second, unlatched position and the latch including an unlatch lever coupled to an indicator arrow that cooperates with the second gauge to indicate whether the latch is in the first, latched position or second, unlatched position.
A system comprising: first and second sources (210, 216; 310, 311) configured to provide power to first and second medium-voltage direct current, MVDC, buses, respectively; the first and second MVDC buses connected to first and second variable-voltage variable-frequency, VVVF, power converters (220, 221; 320, 322), respectively; a rotating electrical machine (202; 302) having first and second primary stator windings (203, 204; 303, 304) and first and second secondary stator windings , each primary stator winding (203, 204; 303, 304) electrically connected to one of the first and second MVDC buses via one of the first and second VVVF power converters (220, 221; 320, 322), the rotating electrical machine (202; 302) configured to receive the power from the first and second MVDC buses, each secondary stator winding configured to provide output power to a pulsed load (234; 334, 335); a flywheel energy storage (208; 308) coupled to the rotating electrical machine (202; 302) and configured to store inertial energy; and at least one battery or ultra-capacitor subsystem (228; 328) electrically connected to the rotating electrical machine (202; 302), the at least one battery or ultra-capacitor subsystem (228; 328) configured to receive electrical energy from and provide electrical energy to the rotating electrical machine (202; 302); wherein each VVVF power converter (220, 221; 320, 322) is configured to operate the rotating electrical machine (202; 302) at adjustable speeds and stored energy levels. first and second sources (210, 216; 310, 311) configured to provide power to first and second medium-voltage direct current, MVDC, buses, respectively; the first and second MVDC buses connected to first and second variable-voltage variable-frequency, VVVF, power converters (220, 221; 320, 322), respectively; a rotating electrical machine (202; 302) having first and second primary stator windings (203, 204; 303, 304) and first and second secondary stator windings , each primary stator winding (203, 204; 303, 304) electrically connected to one of the first and second MVDC buses via one of the first and second VVVF power converters (220, 221; 320, 322), the rotating electrical machine (202; 302) configured to receive the power from the first and second MVDC buses, each secondary stator winding configured to provide output power to a pulsed load (234; 334, 335); a flywheel energy storage (208; 308) coupled to the rotating electrical machine (202; 302) and configured to store inertial energy; and at least one battery or ultra-capacitor subsystem (228; 328) electrically connected to the rotating electrical machine (202; 302), the at least one battery or ultra-capacitor subsystem (228; 328) configured to receive electrical energy from and provide electrical energy to the rotating electrical machine (202; 302); wherein each VVVF power converter (220, 221; 320, 322) is configured to operate the rotating electrical machine (202; 302) at adjustable speeds and stored energy levels.
A use of one or more additives of formula (I) below: wherein: - R 1 represents a C 1 to C 18 linear or branched, saturated or unsaturated alkyl chain, optionally substituted by a heteroatom, - R 3 represents a C 1 to C 18 linear or branched, saturated or unsaturated alkyl chain, optionally substituted by a heteroatom, - R 2 represents a group -(CH 2 ) 2 CO-OR 4 , wherein R 4 represents: - a group of formula (II) below: to reduce the ageing of a phase-change material selected from C 4 to C 40 linear or branched aliphatic α,ω-dicarboxylic acids. - R 1 represents a C 1 to C 18 linear or branched, saturated or unsaturated alkyl chain, optionally substituted by a heteroatom, - R 3 represents a C 1 to C 18 linear or branched, saturated or unsaturated alkyl chain, optionally substituted by a heteroatom, - R 2 represents a group -(CH 2 ) 2 CO-OR 4 , - a group of formula (II) below: to reduce the ageing of a phase-change material selected from C 4 to C 40 linear or branched aliphatic α,ω-dicarboxylic acids.
A one-component moisture curing composition comprising: a) at least one isocyanate-functional polyurethane polymer, b) at least one inorganic swelling agent selected from the group consisting of aluminum sulfate and magnesium sulfate, and c) at least one hydrophilic aldimine of the formula (I); wherein m is 2 or 3 A is a divalent or trivalent hydrocarbyl moiety containing ether groups and having average molecular weight in the range from 600 to 4,000 g/mol, preferably from 900 to 2,500 g/mol, and Z is a monovalent C 3 to C 30 hydrocarbyl moiety optionally containing ether, carbonyl, ester, amido, urethane, urea or tertiary amino groups, wherein the hydrophilic aldimine of formula (I) has a content of ethylene oxide units of at least 30.0 % by weight, based on the weight of the hydrophilic aldimine. a) at least one isocyanate-functional polyurethane polymer, b) at least one inorganic swelling agent selected from the group consisting of aluminum sulfate and magnesium sulfate, and c) at least one hydrophilic aldimine of the formula (I); wherein m is 2 or 3 A is a divalent or trivalent hydrocarbyl moiety containing ether groups and having average molecular weight in the range from 600 to 4,000 g/mol, preferably from 900 to 2,500 g/mol, and Z is a monovalent C 3 to C 30 hydrocarbyl moiety optionally containing ether, carbonyl, ester, amido, urethane, urea or tertiary amino groups, wherein the hydrophilic aldimine of formula (I) has a content of ethylene oxide units of at least 30.0 % by weight, based on the weight of the hydrophilic aldimine. m is 2 or 3 A is a divalent or trivalent hydrocarbyl moiety containing ether groups and having average molecular weight in the range from 600 to 4,000 g/mol, preferably from 900 to 2,500 g/mol, and Z is a monovalent C 3 to C 30 hydrocarbyl moiety optionally containing ether, carbonyl, ester, amido, urethane, urea or tertiary amino groups, wherein the hydrophilic aldimine of formula (I) has a content of ethylene oxide units of at least 30.0 % by weight, based on the weight of the hydrophilic aldimine.
A method for laminating glass sheets, in which method at least one laminating film is disposed between glass sheets, the thus formed sandwich structure sheet is conveyed along a roller track to a heating furnace, wherein the sandwich structure sheet moving in the heating furnace is heated by means of two-sided hot air blasting, which is carried out by several successive blowing aperture sections, wherein the air jets discharging from the blowing apertures impact with the sandwich structure sheet, and the heated sandwich structure sheet is conveyed between a pair of press rolls, characterised in that in the heating furnace, the hot air blasting of at least one blowing aperture section is cut off, reduced, or its impact with the sandwich structure sheet is prevented when the rear edge of the sandwich structure sheet approaches the blowing aperture section.
An image encoding apparatus comprising: an encoding unit configured to encode image data; a subsample information generating unit configured to generate subsample information of an image of the image data, the subsample information including hint information used as a reference for decoding processing of a subsample, which is a partial region which can be independently decoded; and a file generating unit configured to generate a file including encoded data of the image data generated by the encoding unit and management information of the encoded data, and arrange the subsample information generated by the subsample information generating unit in the management information, wherein the subsample information generating unit generates subsample information including a hint data type indicating a type of hint information included in the subsample information, a sample count indicating the number of continuous samples associated with the subsample information, and the hint information, characterized by the hint information including a level indicating a degree of load of decoding processing of the subsample, and the level being used as a reference for determining whether or not a decoding unit can decode the subsample, the subsample is a tile (Tile) in high efficiency video coding (HEVC), and an mcts_tier_flag and mcts_level_idc are extensionally added to an HEVC Decoder Configuration Record to indicate the level. an encoding unit configured to encode image data; a subsample information generating unit configured to generate subsample information of an image of the image data, the subsample information including hint information used as a reference for decoding processing of a subsample, which is a partial region which can be independently decoded; and a file generating unit configured to generate a file including encoded data of the image data generated by the encoding unit and management information of the encoded data, and arrange the subsample information generated by the subsample information generating unit in the management information, wherein the subsample information generating unit generates subsample information including a hint data type indicating a type of hint information included in the subsample information, a sample count indicating the number of continuous samples associated with the subsample information, and the hint information, characterized by the hint information including a level indicating a degree of load of decoding processing of the subsample, and the level being used as a reference for determining whether or not a decoding unit can decode the subsample, the subsample is a tile (Tile) in high efficiency video coding (HEVC), and an mcts_tier_flag and mcts_level_idc are extensionally added to an HEVC Decoder Configuration Record to indicate the level.