mhurhangee/ep-ind-claims huggingface dataset:
An assembly comprising an electrical connector, a first printed circuit board, PCB, and a second PCB, the electrical connector comprising: a spring connecting the first PCB to the second PCB, wherein the spring includes: a first end portion in contact with the first PCB; a second end portion in contact with the second PCB; and a middle portion extending between the first end portion and the second end portion; a spacer surrounding the middle portion of the spring; a first seal seated in a first groove of the spacer and in contact with the first PCB; and a second seal seated in a second groove of the spacer and in contact with the second PCB. a spring connecting the first PCB to the second PCB, wherein the spring includes: a first end portion in contact with the first PCB; a second end portion in contact with the second PCB; and a middle portion extending between the first end portion and the second end portion; a first end portion in contact with the first PCB; a second end portion in contact with the second PCB; and a middle portion extending between the first end portion and the second end portion; a spacer surrounding the middle portion of the spring; a first seal seated in a first groove of the spacer and in contact with the first PCB; and a second seal seated in a second groove of the spacer and in contact with the second PCB.
A monitoring device (1, 1') for monitoring a monitored zone which is adjacent to a safety zone, wherein the monitoring device (1, 1') comprises: a light curtain device for detecting an object touching a boundary section located at a boundary between the monitored zone and the safety zone; a time-of-flight device (3, 3') for detecting a distance (d) to the object and/or a size of the object; an evaluation device for emitting an evaluation result based on the distance (d) to the object and/or on the size of the object determined by the time-of-flight device (3, 3'), and optionally based on a light curtain signal from the light curtain device; and a muting device for temporarily deactivating the light curtain device along a muting height (h) of the light curtain device as a function of the evaluation result, wherein the muting device is configured to determine the muting height (h) of the light curtain device based on an information about the distance to the object included in the evaluation result; and wherein the muting device is configured to determine the muting height (h) of the light curtain device such that it is equal to a height of the object derived from the distance to the object included in the evaluation result. a light curtain device for detecting an object touching a boundary section located at a boundary between the monitored zone and the safety zone; a time-of-flight device (3, 3') for detecting a distance (d) to the object and/or a size of the object; an evaluation device for emitting an evaluation result based on the distance (d) to the object and/or on the size of the object determined by the time-of-flight device (3, 3'), and optionally based on a light curtain signal from the light curtain device; and a muting device for temporarily deactivating the light curtain device along a muting height (h) of the light curtain device as a function of the evaluation result, wherein the muting device is configured to determine the muting height (h) of the light curtain device based on an information about the distance to the object included in the evaluation result; and wherein the muting device is configured to determine the muting height (h) of the light curtain device such that it is equal to a height of the object derived from the distance to the object included in the evaluation result.
An articulated tracked amphibious two-bodied vehicle (I; II; III; IV; V; VI; VII; VIII; IX; X) with a front vehicle unit and a rear vehicle unit, which are mutually pivotable, the vehicle comprising a floating device (100, 140; 200; 300; 400; 500, 560, 570; 600, 660, 670; 700; 760, 770; 800, 860, 870; 900, 940; 1000, 1080) characterized in that the floating device comprises a floating element configuration (100, 140; 200; 300; 400; 500, 560, 570; 600, 660, 670; 700; 760, 770; 800, 860, 870; 900, 940; 1000, 1080) extending along essentially the entire length of the long sides (10c, 10d, 20c, 20d) of the vehicle and being arranged to provide additional displacement, wherein said floating element configuration (100, 140; 200; 300; 400; 500, 560, 570; 600, 660, 670; 700; 760, 770; 800, 860, 870; 900, 940; 1000, 1080) comprises a floating element arrangement (100; 200; 300; 400; 500, 560, 570; 600, 660, 670; 700; 760, 770; 800, 860, 870; 900; 1000) being arrangeable to run in connection to the respective long side (10c, 10d, 20c, 20d) of the vehicle and wherein said floating element configuration (100, 140; 200; 300; 400; 500, 560, 570; 600, 660, 670; 700; 760, 770; 800, 860, 870; 900, 940; 1000, 1080) is arranged for accommodating mutual pivoting of said vehicle units (10, 20) during floating as well as non-floating drive either via said floating element arrangements (100; 200; 300; 400; 500, 560, 570; 600, 660, 670; 900; 1000) comprising a front and a rear floating element portion (110, 120; 210, 220; 310, 320; 410, 420; 510, 520; 610, 620; 910, 920) mutually pivotably connected to each other in connection to a linked waist portion (130; 230; 330; 430; 530; 630; 930) between the vehicle units (10, 20) or via said floating element arrangement (700, 760, 770; 800, 860, 870) comprising a rigid floating element (700; 800) inwardly and outwardly pivotably linked to said rear vehicle unit.
A method for providing a film, said method comprising the steps of: i) providing a base layer, which is water and/or oxygen resistant, wherein the base layer is selected from the group consisting of a metal foil, preferably aluminum foil, a polymer, such as a polymer made from polyamide, polyvinylidene chloride, silicium or aluminium oxide coated polyesters, and/or fluro polymers; ii) coextruding a layer comprising a tie layer and a contact layer to provide a coextrusion layer; iii) coating the coextrusion layer to the base layer; iv) allowing the coextrusion layer coated to the base layer to adhere to provide an aggressive chemical resistant film, the aggressive chemical being nicotine, fentanyl, lidocaine or rivastigmine, the film comprising the tie layer and the contact layer formed as a coextrusion layer coated to the base layer, wherein the tie layer comprises at least one layer; and, wherein the contact layer comprises a polymer having a RED value based on Hansens Solubility parameter towards an aggressive chemical (measured as defined in the description), namely nicotine, fentanyl, lidocine or rivastigmine, of > 0.8, more preferred a RED value in the range of 0.8 to 10, even more preferred 0.8 to 5, and most preferred 1 to 2, and wherein the contact layer comprises an ethylene vinyl alcohol. i) providing a base layer, which is water and/or oxygen resistant, wherein the base layer is selected from the group consisting of a metal foil, preferably aluminum foil, a polymer, such as a polymer made from polyamide, polyvinylidene chloride, silicium or aluminium oxide coated polyesters, and/or fluro polymers; ii) coextruding a layer comprising a tie layer and a contact layer to provide a coextrusion layer; iii) coating the coextrusion layer to the base layer; iv) allowing the coextrusion layer coated to the base layer to adhere to provide an aggressive chemical resistant film, the aggressive chemical being nicotine, fentanyl, lidocaine or rivastigmine, the film comprising the tie layer and the contact layer formed as a coextrusion layer coated to the base layer, wherein the tie layer comprises at least one layer; and,
A method (400, 600) for wireless communications by a user equipment, UE, capable of communicating in frequency division duplexing, FDD, and time division duplexing, TDD, modes, comprising: obtaining (402, 604) a FDD-specific feature group indicators, FGIs, set and a TDD-specific FGIs set, wherein the FDD-specific FGIs set comprises an indication of a set of features supported by the UE in FDD mode that are not supported by the UE in TDD mode and the TDD-specific FGIs set comprises an indication of a set of features supported by the UE in TDD mode that are not supported by the UE in FDD mode; and signaling (404, 406), from the UE, at least one of the FDD-specific FGIs set or TDD-specific FGIs set to a base station. obtaining (402, 604) a FDD-specific feature group indicators, FGIs, set and a TDD-specific FGIs set, wherein the FDD-specific FGIs set comprises an indication of a set of features supported by the UE in FDD mode that are not supported by the UE in TDD mode and the TDD-specific FGIs set comprises an indication of a set of features supported by the UE in TDD mode that are not supported by the UE in FDD mode; and signaling (404, 406), from the UE, at least one of the FDD-specific FGIs set or TDD-specific FGIs set to a base station.
A stent graft delivery system, comprising: a) a handle that includes i. a distal grip, and ii. a handle body extending from one end of the distal grip, the handle body defining a conduit and a track along a portion of the length of the distal grip and the handle body; b) an internal lead screw assembly within the track that includes a threaded portion that extends through the track, characterized in that the internal lead screw assembly is moveable along a major axis of the conduit; the stent graft delivery system further including: c) a lead screw nut that extends about the handle body and is threadably engaged with the threaded portion of the internal lead screw assembly, whereby rotation of the lead screw nut while abutting the distal grip causes retraction of the internal lead screw assembly relative to the handle and wherein the lead screw nut simultaneously is slidable along the handle body while engaged with the internal lead screw assembly, thereby providing at least two mechanisms for causing movement of the internal lead screw assembly relative to the handle. a) a handle that includes i. a distal grip, and ii. a handle body extending from one end of the distal grip, the handle body defining a conduit and a track along a portion of the length of the distal grip and the handle body; i. a distal grip, and ii. a handle body extending from one end of the distal grip, the handle body defining a conduit and a track along a portion of the length of the distal grip and the handle body; b) an internal lead screw assembly within the track that includes a threaded portion that extends through the track, characterized in that the internal lead screw assembly is moveable along a major axis of the conduit; the stent graft delivery system further including: c) a lead screw nut that extends about the handle body and is threadably engaged with the threaded portion of the internal lead screw assembly, whereby rotation of the lead screw nut while abutting the distal grip causes retraction of the internal lead screw assembly relative to the handle and wherein the lead screw nut simultaneously is slidable along the handle body while engaged with the internal lead screw assembly, thereby providing at least two mechanisms for causing movement of the internal lead screw assembly relative to the handle.
A computer-implemented method for determining a multivariate process chart, the multivariate process chart to be used to control a process to produce a chemical, pharmaceutical, biopharmaceutical and/or biological product, the multivariate process chart including a first trajectory, an upper limit for the first trajectory and a lower limit for the first trajectory, the method comprising: providing a plurality of first-scale vessels, each of the first-scale vessels containing fluid for producing the product; receiving, by a first process control device, process parameters, the process parameters including process parameters to be controlled and process parameters to be measured; controlling, by the first process control device and at least partly in parallel, the process in each of the first-scale vessels; and periodically determining, at least in part by the first process control device, process parameter values for the process parameters from the fluid in each of the first-scale vessels; defining groups of the process parameter values according to a common characteristic, wherein each of the groups includes process parameter values determined from multiple ones of the first-scale vessels; determining at least one statistically representative value for each of the groups of process parameter values; establishing the first trajectory from the statistically representative values; determining the upper limit and the lower limit based on a measure of variation within each group. providing a plurality of first-scale vessels, each of the first-scale vessels containing fluid for producing the product; receiving, by a first process control device, process parameters, the process parameters including process parameters to be controlled and process parameters to be measured; controlling, by the first process control device and at least partly in parallel, the process in each of the first-scale vessels; and periodically determining, at least in part by the first process control device, process parameter values for the process parameters from the fluid in each of the first-scale vessels; defining groups of the process parameter values according to a common characteristic, wherein each of the groups includes process parameter values determined from multiple ones of the first-scale vessels; determining at least one statistically representative value for each of the groups of process parameter values; establishing the first trajectory from the statistically representative values; determining the upper limit and the lower limit based on a measure of variation within each group.
A combination of a plate provided with at least one aperture and a fastening arrangement comprising: a threaded fastener including a head, a shank and a laterally expandable member; a bridging member provided on the shank of the fastener, the bridging member being substantially annular and having an outer dimension so as to engage with the material of the plate around the aperture therein, the aperture through which the shank passes having a dimension greater than the dimension of the shank but less than the dimension of the head, the outer dimension of the bridging member being greater than a dimension of the laterally expandable member in a first configuration but less than the dimension of the laterally expandable member in a second expanded configuration; and a tubular member mounted on the shank of the threaded fastener between the head and the laterally expandable member, characterised in that the tubular member is provided internally thereof with a hollow cylinder of insulating material.
A method for removing the high particle size tail of the particle size distribution of a slurry while leaving smaller particles in the slurry comprising the steps of; (i) providing a filter media having a first and second side and being formed of at least one sheet of a fabric, said fabric comprising at least one layer comprising polymeric fibers having a mean number average fiber diameter of less than 1000 nm, and forming a nanoweb, (ii) supplying a slurry stream having a multiplicity of particle sizes comprising a first set of particles of maximum dimension less than 0.2 microns and a second set of larger particles of maximum individual dimension of greater than 0.45 microns to the first side of said filter media, and (iii) passing the slurry stream through said filter media to the second side thereof whereby at least a portion of the larger particles in the slurry are retained on the first side of said media, wherein the filtration efficiency of the fabric towards the first set of particles is less than 0.01 and the filtration efficiency towards the second set of particles is greater than 0.8. (i) providing a filter media having a first and second side and being formed of at least one sheet of a fabric, said fabric comprising at least one layer comprising polymeric fibers having a mean number average fiber diameter of less than 1000 nm, and forming a nanoweb, (ii) supplying a slurry stream having a multiplicity of particle sizes comprising a first set of particles of maximum dimension less than 0.2 microns and a second set of larger particles of maximum individual dimension of greater than 0.45 microns to the first side of said filter media, and (iii) passing the slurry stream through said filter media to the second side thereof whereby at least a portion of the larger particles in the slurry are retained on the first side of said media,
A stent for implant in a mammalian body comprising a tubular structure having a central axis defining a longitudinal direction and a circumferential sidewall having a wall thickness, and apertures extending through the sidewall, said apertures separating longitudinal struts having different widths and joined at apices, with a plurality of the struts grouped to define a cell, wherein in the circumferential direction of the stent, each cell comprises a first group of struts having a first thickness and a second group of struts having a second thickness different from the first thickness, with apices that are adjacent in the circumferential direction being offset with respect to one another in the longitudinal direction, characterised in that the struts of the first group of struts are thickened along the circumferential direction of the stent, and the struts of the second group of struts are both lengthened along the axial direction of the stent and thinned along the circumferential direction of the stent such that upon elongation of the stent the increased thickness of the struts of the first group of struts limits the increase in the angles between the struts of the first group of struts and thus results in more concentration of compressive strains in the vicinity of apices of the first group of struts, and the reduced thickness and increased length of the struts of the second group of struts results in less concentration of tensile strains in the vicinity of apices of the second group of struts.
A method of control implemented in a variable speed drive for controlling an electric motor during backspin, wherein the method comprises: - determining, by the variable speed drive, a mechanical power value (P mech) occurring at a backspin speed (ω) and an estimated load torque (T est); characterized by - determining, by the variable speed drive, a specific electrical losses profile (P ref) occurring at a motor flux level, wherein the specific electrical losses profile (P ref) coincides with the mechanical power value (P mech); - determining, by the variable speed drive, a flux reference (φ ref) and a speed reference (ω ref) to be applied to the motor to coincide with the specific electrical losses profile (P ref); and - controlling, by the variable speed drive, the backspin speed of the motor to maintain the coincidence with the specific electrical losses profile (P ref). - determining, by the variable speed drive, a mechanical power value (P mech) occurring at a backspin speed (ω) and an estimated load torque (T est); characterized by - determining, by the variable speed drive, a specific electrical losses profile (P ref) occurring at a motor flux level, wherein the specific electrical losses profile (P ref) coincides with the mechanical power value (P mech); - determining, by the variable speed drive, a flux reference (φ ref) and a speed reference (ω ref) to be applied to the motor to coincide with the specific electrical losses profile (P ref); and - controlling, by the variable speed drive, the backspin speed of the motor to maintain the coincidence with the specific electrical losses profile (P ref).
Protein hydrolysate obtained from at least one protein source from bluefish comprising: a degree of hydrolysis of at least 10%, at least 80% of water-soluble proteins with a molecular weight of less than 1000 Da, at least 0.3% of phospholipids, and at least 0.5% of DHA and EPA. a degree of hydrolysis of at least 10%, at least 80% of water-soluble proteins with a molecular weight of less than 1000 Da, at least 0.3% of phospholipids, and at least 0.5% of DHA and EPA.
An AC/DC converter comprising: a first terminal and a second terminal, intended to receive an AC voltage (Vac); a third terminal and a fourth terminal, intended to supply a first DC voltage (Vout); at least one first capacitive element (C1, C2) connecting the third and fourth terminals; a fullwave rectifying bridge having input terminals (32, 34) respectively coupled to the first and second terminals and having output terminals respectively connected to the third and fourth terminals; at least one first inductive element, in series with a first switch, between one of the first and second terminals and one of the input terminals of the bridge, said first switch being a triac and controlling the turn-on phase angle of the bridge; a second inductive element, coupled to the first inductive element and forming with it a common-mode filter, and the second inductive element coupling said second terminal to a controllable connection element coupling a second input terminal of the bridge and the midpoint of the series association of the two capacitive elements. a first terminal and a second terminal, intended to receive an AC voltage (Vac); a third terminal and a fourth terminal, intended to supply a first DC voltage (Vout); at least one first capacitive element (C1, C2) connecting the third and fourth terminals; a fullwave rectifying bridge having input terminals (32, 34) respectively coupled to the first and second terminals and having output terminals respectively connected to the third and fourth terminals; at least one first inductive element, in series with a first switch, between one of the first and second terminals and one of the input terminals of the bridge, said first switch being a triac and controlling the turn-on phase angle of the bridge; a second inductive element, coupled to the first inductive element and forming with it a common-mode filter, and the second inductive element coupling said second terminal to a controllable connection element coupling a second input terminal of the bridge and the midpoint of the series association of the two capacitive elements.
Clutch for a rotary shaft, said clutch comprising an annular chamber, a housing and a thin-walled sleeve forming an axially extended thin wall of the annular chamber, which chamber is arranged to be supplied with a pressurized fluid for substantially elastic deformation of the sleeve, so that a surface of the sleeve engages a smooth complementary shaped surface so that the shaft is drivingly connected to the clutch, the clutch further comprising a trigger device and a channel system activatable by said trigger device upon a relative angular movement between the shaft and the housing, the chamber being connected to said channel system and the channel system being arranged to, when it is activated by said trigger device, assume a state in which the pressurized fluid can flow through the channel system away from the chamber, so that the shaft can rotate independently of the housing, wherein the clutch further comprises a control means arranged to receive said fluid flowing through the channel system away from the chamber, and also comprising a pump in turn arranged to pump fluid to the chamber so as to achieve said pressure therein, in that the control means is fixedly arranged in relation to the housing, so that the control means is arranged to rotate with the shaft, characterised in that the clutch further comprises a generator means arranged to harvest electric energy from the rotation of the shaft, and in that the generator means is arranged to power the control means.