mhurhangee/ep-ind-claims huggingface dataset:
A system comprising an online glove stripping and inverting mechanism for stripping and inverting an elastomeric glove from a mold and re-donning the elastomeric glove on a second mechanism for secondary online processing; wherein the online glove stripping and inverting mechanism comprises a cuff rolling device for rolling a portion of the cuff of the glove distally away from a mold base and toward the finger and palm areas of the elastomeric glove, thereby forming a rolled portion of the cuff and an exposed portion of a surface of the mold; a gripping device having one or more gripping members (86, 88), the gripping device configured to engage the exposed portion of the surface of the mold; and, a roll-back device for unrolling the rolled portion of the cuff proximally toward the mold base and away from the elastomeric glove finger and palm areas thereby forming an unrolled cuff, the roll-back device configured to unroll the rolled portion of the cuff over and onto a portion of the one or more gripping members (86, 88) such that the one or more gripping members are interposed between the mold surface and at least a portion of the unrolled cuff; wherein the second mechanism comprises a glove donning device (100, 200, 300, 400, 500) comprising a mandrel. a cuff rolling device for rolling a portion of the cuff of the glove distally away from a mold base and toward the finger and palm areas of the elastomeric glove, thereby forming a rolled portion of the cuff and an exposed portion of a surface of the mold; a gripping device having one or more gripping members (86, 88), the gripping device configured to engage the exposed portion of the surface of the mold; and, a roll-back device for unrolling the rolled portion of the cuff proximally toward the mold base and away from the elastomeric glove finger and palm areas thereby forming an unrolled cuff, the roll-back device configured to unroll the rolled portion of the cuff over and onto a portion of the one or more gripping members (86, 88) such that the one or more gripping members are interposed between the mold surface and at least a portion of the unrolled cuff; wherein the second mechanism comprises a glove donning device (100, 200, 300, 400, 500) comprising a mandrel.
Computer-implemented method for reducing friction within a machine tool, comprising the method steps: a) reading a plurality of surrogate models for approximating friction compensation within a given machine tool, wherein each surrogate model (SM1,..., SMm) is configured such that it assigns a friction compensation result value to a given friction compensation parameter set for reducing friction within a machine tool, and wherein a weighting factor (w1,..., wm) is assigned to each surrogate model (SM1,..., SMm), the weighting factor representing a goodness-of-fit of a surrogate model to a machine tool, b) reading a friction compensation parameter set, c) determining a friction compensation result value (CPR1,..., CPRm) for each surrogate model (SM1,..., SMm) using the compensation parameter set, d) determining a weighted average friction compensation value (CPRav) of the friction compensation result values using the respective weighting factor (w1,...,wm) of the respective surrogate model (SM1,..., SMm), e) determining a quality indicator for the friction compensation parameter set based on the weighted average friction compensation value (CPRav), f) outputting the friction compensation parameter set (CPopt), if the quality indicator fulfills a given quality criterion, or otherwise repeating steps b) to e) until the quality indicator fulfills the given quality criterion, g) applying the outputted friction compensation parameter set (CPopt) to the machine tool for reducing friction within the machine tool. a) reading a plurality of surrogate models for approximating friction compensation within a given machine tool, wherein each surrogate model (SM1,..., SMm) is configured such that it assigns a friction compensation result value to a given friction compensation parameter set for reducing friction within a machine tool, and wherein a weighting factor (w1,..., wm) is assigned to each surrogate model (SM1,..., SMm), the weighting factor representing a goodness-of-fit of a surrogate model to a machine tool, b) reading a friction compensation parameter set, c) determining a friction compensation result value (CPR1,..., CPRm) for each surrogate model (SM1,..., SMm) using the compensation parameter set, d) determining a weighted average friction compensation value (CPRav) of the friction compensation result values using the respective weighting factor (w1,...,wm) of the respective surrogate model (SM1,..., SMm), e) determining a quality indicator for the friction compensation parameter set based on the weighted average friction compensation value (CPRav), f) outputting the friction compensation parameter set (CPopt), if the quality indicator fulfills a given quality criterion, or otherwise repeating steps b) to e) until the quality indicator fulfills the given quality criterion, g) applying the outputted friction compensation parameter set (CPopt) to the machine tool for reducing friction within the machine tool.
Silencer for a firearm, in particular a shotgun, with a middle part (10a, 10b), which comprises at least two substantially semi-circular chamber partition wall elements (15a, 15b), which are spaced from one another in the longitudinal direction thereof and respectively have a firing-through opening (11a, 11b), wherein the firing-through openings (11a, 11b) are aligned correspondingly with one another; a housing part, into which the middle part (10a, 10b) is introduced, wherein at least one chamber is formed between the at least two substantially semi-circular chamber partition wall elements (15a, 15b) and the inner wall of the housing part; and an attachment part, which can at least be connected to the housing part and which can preferably be arrested at the muzzle of the firearm; the at least two substantially semi-circular chamber partition wall elements (15a, 15b) respectively have on their outer sides at least one chamfer (12a, 12b), wherein the at least one chamfer (12a, 12b) respectively forms together with the inner wall of the housing part a lateral passage for explosive gases and the middle part (10a, 10b) has a longitudinal plate-shaped and uninterrupted base element (13a, 13b), from which the substantially semi-circular chamber partition wall elements (15a, 15b) protrude, wherein the lateral passages are arranged alternately and wherein the alternately arranged lateral passages and the at least one chamber form a meandering flow path for the explosive gases.
An offshore facility comprising: a floating platform; a metal processing apparatus disposed on the floating platform; a power generation system adapted to supply power to the metal processing apparatus; and a power management module and a substation for consolidating and distributing a power output from the power generation system; wherein the power generation system comprises a combination of a plurality of wind turbines and at least one gas turbine generator; characterized in that the offshore facility further comprises an exhaust air blower system for directing an exhaust gas from the at least one gas turbine generator towards the plurality of wind turbines, the exhaust air blower system comprising: an air suction duct configured to draw ambient air into a flow of the exhaust gas, through perforations via venturi effect as the exhaust air flows through the air suction duct, and a blower trumpet disposed in front of each wind turbine and fluidly connected to the air suction duct. a floating platform; a metal processing apparatus disposed on the floating platform; a power generation system adapted to supply power to the metal processing apparatus; and a power management module and a substation for consolidating and distributing a power output from the power generation system; wherein the power generation system comprises a combination of a plurality of wind turbines and at least one gas turbine generator; characterized in that the offshore facility further comprises an exhaust air blower system for directing an exhaust gas from the at least one gas turbine generator towards the plurality of wind turbines, the exhaust air blower system comprising: an air suction duct configured to draw ambient air into a flow of the exhaust gas, through perforations via venturi effect as the exhaust air flows through the air suction duct, and a blower trumpet disposed in front of each wind turbine and fluidly connected to the air suction duct. an air suction duct configured to draw ambient air into a flow of the exhaust gas, through perforations via venturi effect as the exhaust air flows through the air suction duct, and a blower trumpet disposed in front of each wind turbine and fluidly connected to the air suction duct.
An immunoassay method for detection of a detection target, said method using a test device, the method comprising: extracting an antigen of a detection target in an analyte with an extraction agent, wherein the antigen is a polysaccharide; and detecting the detection target with a detection reagent capable of binding the antigen, wherein the extraction agent is a nitrous acid generated on the test device by a contact reaction between a nitrite salt and a heterocyclic compound having at least one skeleton selected from the group consisting of a cyclic ester and a cyclic imide, wherein the heterocyclic compound having a cyclic ester skeleton is a five-membered ring compound having 1 to 2 oxygen atoms, wherein the heterocyclic compound having cyclic imide skeleton is a five- or six-membered ring compound having 1 to 3 nitrogen atoms, wherein the detection target is a gram-positive bacteria or a gram-positive bacteria and viruses, and wherein the detection reagent contains an antibody derived from at least one animal species selected from rabbit, goat, and mouse. extracting an antigen of a detection target in an analyte with an extraction agent, wherein the antigen is a polysaccharide; and detecting the detection target with a detection reagent capable of binding the antigen, wherein the extraction agent is a nitrous acid generated on the test device by a contact reaction between a nitrite salt and a heterocyclic compound having at least one skeleton selected from the group consisting of a cyclic ester and a cyclic imide, wherein the heterocyclic compound having a cyclic ester skeleton is a five-membered ring compound having 1 to 2 oxygen atoms, wherein the heterocyclic compound having cyclic imide skeleton is a five- or six-membered ring compound having 1 to 3 nitrogen atoms, wherein the detection target is a gram-positive bacteria or a gram-positive bacteria and viruses, and wherein the detection reagent contains an antibody derived from at least one animal species selected from rabbit, goat, and mouse.
A head-mounted display device, comprising: a housing, suitable for covering a pair of eyeballs of the user; a pair of display modules, each of the pair of display modules comprising: a bracket, movably connected to the housing; a display panel, fixed to the bracket; and a lens, fixed to the bracket; a pair of cameras, respectively fixed to the pair of brackets to respectively capture images of the pair of eyeballs; a driving module, coupled to the pair of brackets to move the pair of brackets relative to the housing; and a control system, electrically connected to the pair of cameras and the driving module; characterized in that the control system is configured to calculate a deviation between a center of a pupil of the eyeball and a center of the image according to the image of the corresponding eyeball captured by one of the pair of cameras, and move the pair of brackets relative to the housing by the driving module according to the deviation. a housing, suitable for covering a pair of eyeballs of the user; a pair of display modules, each of the pair of display modules comprising: a bracket, movably connected to the housing; a display panel, fixed to the bracket; and a lens, fixed to the bracket; a bracket, movably connected to the housing; a display panel, fixed to the bracket; and a lens, fixed to the bracket; a pair of cameras, respectively fixed to the pair of brackets to respectively capture images of the pair of eyeballs; a driving module, coupled to the pair of brackets to move the pair of brackets relative to the housing; and a control system, electrically connected to the pair of cameras and the driving module; characterized in that the control system is configured to calculate a deviation between a center of a pupil of the eyeball and a center of the image according to the image of the corresponding eyeball captured by one of the pair of cameras, and move the pair of brackets relative to the housing by the driving module according to the deviation.
A fluid transfer device for interconnecting vessels (8; 91; 92; 93), the fluid transfer device comprising: a main body with a first body part providing a first hollow interior merging into a first open end for receiving a fluid obtaining vessel, such as a blood collection tube, and a second body part providing a second hollow interior merging into a second open end for receiving a fluid supplying vessel (91; 92; 93), such as a vial (91; 92; 93), a connection assembly with a double-ended cannula for connecting the first hollow interior with the second hollow interior, and a first encasing member encasing a first cannula part arranged within the first hollow interior, and an actuating member provided inside the first hollow interior, the actuating member being movably arranged along a longitudinal axis of the first body part, wherein the actuating member is in contact with the first encasing member for piercing the first encasing member by the cannula during a movement of the actuating member towards the second body part. a main body with a first body part providing a first hollow interior merging into a first open end for receiving a fluid obtaining vessel, such as a blood collection tube, and a second body part providing a second hollow interior merging into a second open end for receiving a fluid supplying vessel (91; 92; 93), such as a vial (91; 92; 93), a connection assembly with a double-ended cannula for connecting the first hollow interior with the second hollow interior, and a first encasing member encasing a first cannula part arranged within the first hollow interior, and an actuating member provided inside the first hollow interior, the actuating member being movably arranged along a longitudinal axis of the first body part, wherein the actuating member is in contact with the first encasing member for piercing the first encasing member by the cannula during a movement of the actuating member towards the second body part.
Method of reducing a pressure drop in an air intake line of a heat engine of a power train of a motor vehicle having a compressor of a turbocharger (4, 8)) and an auxiliary compressor in the air intake line, the unit operating, on the one hand, in an atmospheric operating phase and, on the other hand, in a supercharging operating phase in which the turbocharger (4, 8) and the auxiliary compressor are active when an engine torque request is issued, the auxiliary compressor being stopped or operating at idle speed when exceeding a predetermined maximum engine power threshold, an air flow in the intake line then being mainly bypassed from the auxiliary compressor, characterized in that, at the request of the driver of the vehicle, the compressor auxiliary is kept in operation when the threshold is exceeded predetermined, the air flow in the intake line being mainly through the auxiliary compressor.
A method for mapping symbols by a transmitter in a communication system supporting a plurality of sub-carriers, the method characterized by comprising: mapping symbols onto data sub-carriers of a sub-channel based on a first sequence, wherein the first sequence includes elements, the elements being generated by applying, to a basic orthogonal sequence, an offset and a number of cyclic shifting, said method being characterized in that the first sequence is expressed as: P f g j = { P f j + g P f j + g ≠ 0 g P f j + g = 0 where P f g j is a j th element of the first sequence, P f (j) is a j th element of the cyclic shifted basic orthogonal sequence, which is generated by cyclic-shifting the basic orthogonal sequence in a left direction by f times, f is the number of cyclic-shifting and is an integer value selected from 0 to M-1, g is the offset having an integer value from 0 to M, and M is the number of the data sub-carriers of the sub-channel, the number of the data sub-carriers of the sub-channel being equal to the number of symbols being mapped and to the number of elements. mapping symbols onto data sub-carriers of a sub-channel based on a first sequence, wherein the first sequence includes elements, the elements being generated by applying, to a basic orthogonal sequence, an offset and a number of cyclic shifting, said method being characterized in that the first sequence is expressed as: P f g j = { P f j + g P f j + g ≠ 0 g P f j + g = 0 where P f g j is a j th element of the first sequence, P f (j) is a j th element of the cyclic shifted basic orthogonal sequence, which is generated by cyclic-shifting the basic orthogonal sequence in a left direction by f times, f is the number of cyclic-shifting and is an integer value selected from 0 to M-1, g is the offset having an integer value from 0 to M, and M is the number of the data sub-carriers of the sub-channel, the number of the data sub-carriers of the sub-channel being equal to the number of symbols being mapped and to the number of elements.
An oral composition comprising the following components,, and: 0.001 mass% or more and 1 mass% or less of a compound represented by the following formula: wherein R represents a linear or branched alkyl group having 8 to 18 carbon atoms, G represents a galactose residue, E represents a hydrogen atom or a methyl group, m represents an integer of 0, and n represents an integer of 1 to 30; wherein the composition comprises 1% mass or less of a compound of formula wherein m represents an integer of 0 to 200, 0.001 mass% or more and 0.1 mass% or less of a cationic bactericide; and 35 mass% or more of water, wherein the component is one or more selected from the group consisting of a quaternary ammonium compound and a biguanide compound. 0.001 mass% or more and 1 mass% or less of a compound represented by the following formula: wherein R represents a linear or branched alkyl group having 8 to 18 carbon atoms, G represents a galactose residue, E represents a hydrogen atom or a methyl group, m represents an integer of 0, and n represents an integer of 1 to 30; wherein the composition comprises 1% mass or less of a compound of formula wherein m represents an integer of 0 to 200, wherein R represents a linear or branched alkyl group having 8 to 18 carbon atoms, G represents a galactose residue, E represents a hydrogen atom or a methyl group, m represents an integer of 0, and n represents an integer of 1 to 30; wherein the composition comprises 1% mass or less of a compound of formula wherein m represents an integer of 0 to 200, 0.001 mass% or more and 0.1 mass% or less of a cationic bactericide; and 35 mass% or more of water,
A high-voltage connector arrangement with at least one first connector element for contacting a power source and at least one second connector element for contacting a consumer, furthermore comprising at least one filter assembly (100, 100 A, 100 B), wherein each of the at least one first connector element is connected respectively to one of the at least one second connector element by one of the at least one filter assembly (100, 100A, 100B), each of the at least one filter assembly having: a first and at least one second electrically conductive bus bar, wherein each bus bar (102, 104) respectively has a first terminal section which is connected to the respective first connector element, and a second terminal section which is connected to the respective second connector element, and a connecting section which is arranged between the first and second terminal sections (106, 108), a circuit carrier comprising a filter circuit arranged thereon, at least one ring core element, a filter housing which encompasses the filter circuit, the ring core element, and at least a part of the first and at least one second electrically conductive bus bars (102, 104), wherein the first and the at least one second bus bars (120, 104) run substantially parallel to each other and go through the at least one ring core element, and wherein the circuit carrier is arranged with the filter circuit in a region of the filter housing in which the connecting sections of the bus bars (102, 104) are accommodated, characterized in that the second terminal sections are configured as plug contact elements which are part of the second connector element and which can be connected to associated mating plug contacts, and wherein terminals are guided outwards on the filter housing to electrically contact the filter circuit. a first and at least one second electrically conductive bus bar, wherein each bus bar (102, 104) respectively has a first terminal section which is connected to the respective first connector element, and a second terminal section which is connected to the respective second connector element, and a connecting section which is arranged between the first and second terminal sections (106, 108), a circuit carrier comprising a filter circuit arranged thereon, at least one ring core element, a filter housing which encompasses the filter circuit, the ring core element, and at least a part of the first and at least one second electrically conductive bus bars (102, 104), wherein the first and the at least one second bus bars (120, 104) run substantially parallel to each other and go through the at least one ring core element, and wherein the circuit carrier is arranged with the filter circuit in a region of the filter housing in which the connecting sections of the bus bars (102, 104) are accommodated, characterized in that the second terminal sections are configured as plug contact elements which are part of the second connector element and which can be connected to associated mating plug contacts, and wherein terminals are guided outwards on the filter housing to electrically contact the filter circuit.
A fluid flow control device suitable for implanting in a bronchial passageway, comprising: a frame configured to retain the flow control device within the bronchial passageway; a membrane coupled to the frame, the membrane configured to seal against internal walls of the bronchial passageway; and a valve (805, 612) that resists fluid flow in an inspiratory direction through the bronchial passageway, characterized in that the valve (805, 612) has lips (810a, 810b) that define a variable-sized opening through which air can flow through the valve (805, 612), wherein the lips (810a, 810b) are at least partially spaced apart in parallel when the valve (805, 612) is exposed to no air flow, and wherein the valve's resistance to fluid flow varies as a function of a pressure differential across the valve. a frame configured to retain the flow control device within the bronchial passageway; a membrane coupled to the frame, the membrane configured to seal against internal walls of the bronchial passageway; and a valve (805, 612) that resists fluid flow in an inspiratory direction through the bronchial passageway, characterized in that the valve (805, 612) has lips (810a, 810b) that define a variable-sized opening through which air can flow through the valve (805, 612), wherein the lips (810a, 810b) are at least partially spaced apart in parallel when the valve (805, 612) is exposed to no air flow, and wherein the valve's resistance to fluid flow varies as a function of a pressure differential across the valve.