mhurhangee/ep-ind-claims huggingface dataset:
A process for flexographic printing of ink onto a polymeric film substrate in a central impression cylinder press, wherein the width of printed substrate is greater than 800 mm, to provide high opacity printing, the printing process comprising: transferring ink from an ink reservoir to an anilox roll; transferring the ink from the anilox roll to a printing plate; and applying the ink to the surface of the substrate by applying pressure between the printing plate and an impression surface and passing the substrate between the printing plate and the impression surface; wherein the ink is white ink comprising pigment selected from the group consisting of: titanium dioxide, zinc oxide, lithopone and zinc sulfide; wherein the thickness of the polymeric film substrate is from 12 to 100 micrometers and the ink volume transferred by the anilox roll is from 9-20 cm 3 /m 2, and wherein the printing plate is a high definition printing plate comprising at least 40 lines per centimeter, wherein the high definition printing plate comprises an array of dots which are round top dots with microcell structures; wherein the opacity of the polymeric film substrate before the printing process, measured according to ISO 6504-03, is less than 80% and the opacity of the printed film substrate after printing of the white ink is greater than 92%, measured according to ISO 6504-03. transferring ink from an ink reservoir to an anilox roll; transferring the ink from the anilox roll to a printing plate; and applying the ink to the surface of the substrate by applying pressure between the printing plate and an impression surface and passing the substrate between the printing plate and the impression surface; wherein the ink is white ink comprising pigment selected from the group consisting of: titanium dioxide, zinc oxide, lithopone and zinc sulfide; wherein the thickness of the polymeric film substrate is from 12 to 100 micrometers and the ink volume transferred by the anilox roll is from 9-20 cm 3 /m 2, and wherein the printing plate is a high definition printing plate comprising at least 40 lines per centimeter, wherein the high definition printing plate comprises an array of dots which are round top dots with microcell structures; wherein the opacity of the polymeric film substrate before the printing process, measured according to ISO 6504-03, is less than 80% and the opacity of the printed film substrate after printing of the white ink is greater than 92%, measured according to ISO 6504-03.
Arrangement for fastening posts for protective walls on concrete structures or foundations, which comprises the following features: - at least one anchor element is provided in the concrete body, which anchor element is either casted in, incorporated by adhesive bonding or through-anchored and to which a baseplate of the post is fastened; - the anchor element channels the load resulting from the effects on the protective wall into the structural body, wherein threaded bolts (8, 8'), which are connected to the anchor element, are guided through the baseplate; characterized in that - the threaded bolts (8, 8') channel the force centrally into the anchoring element by means of a conical seat/spherical washer system (9, 10) and a nut; - the connection is fixed with a defined prestressing force determined with respect to the effects occurring during the service life of the structure and is additionally secured with a captive securing nut; - a free stress path of the threaded bolt (8, 8') at least between bolt (8, 8') and a casting compound is surrounded with a viscoelastic coating for preventing frictional engagement between bolt and casting compound, thereby ensuring that expansion is not impeded. - at least one anchor element is provided in the concrete body, which anchor element is either casted in, incorporated by adhesive bonding or through-anchored and to which a baseplate of the post is fastened; - the anchor element channels the load resulting from the effects on the protective wall into the structural body, wherein threaded bolts (8, 8'), which are connected to the anchor element, are guided through the baseplate; characterized in that - the threaded bolts (8, 8') channel the force centrally into the anchoring element by means of a conical seat/spherical washer system (9, 10) and a nut; - the connection is fixed with a defined prestressing force determined with respect to the effects occurring during the service life of the structure and is additionally secured with a captive securing nut; - a free stress path of the threaded bolt (8, 8') at least between bolt (8, 8') and a casting compound is surrounded with a viscoelastic coating for preventing frictional engagement between bolt and casting compound, thereby ensuring that expansion is not impeded.
A composite comprising a fabric and a polyampholyte hydrogel, wherein the polyampholyte hydrogel is a hydrogel of a polymer bearing randomly dispersed cationic and anionic repeat groups; and at least a part of the fabric is coated with the polyampholyte hydrogel, wherein the polyampholyte hydrogel is selected from the group consisting of random polymers obtained by random polymerization of at least one cationic monomer selected from the group consisting of 3-(methacryloylamino)-propyltrimethylammonium chloride (MPTC), acryloyloxethyltrimethylammonium chloride (DMAEA-Q), methacrylatoethyl trimethyl ammonium chloride (MTAC) and 4-vinylpyridine chloride (4-VPC), and the anionic monomer sodium p-styrenesulfonate (NaSS), and wherein the molar fraction of the anionic monomer to the total of the anionic monomer and the cationic monomer is in a range from 0.4 to 0.6 and the total concentration of the anionic monomer and the cationic monomer in a monomer mixture is in a range from 1 to 5 mol/L.
Control arrangement for the actuation of actuators of a water fitting, in particular of water outlet valves, wherein the actuation of the actuators renders the operating parameters for the outlet operation of the water fitting manipulable, wherein the control arrangement has at least one electrical control unit and at least two operator control elements for inputting operator control parameters, wherein the control unit is coupled for control purposes to the actuators, on the one hand, and to the operator control elements, on the other hand, and performs the actuation of the actuators on the basis of the operator control parameters, wherein at least one operator control element is configured as a variably actuatable input screen having a display and control panels for inputting operator control parameters, wherein at least two logical operator control levels are defined, each of which has at least two associated operator control parameters that can be input, characterized in that at least two logical operator control levels each have an associated separate operator control element, configured as an input screen, for inputting the operator control parameters of the respective logical operator control level, in that the input screens are arranged physically separately from one another and in that the operator control elements configured as an input screen are each associated with an operator control unit and in that these operator control units are each configured to be separately installable.
A multilayer controlled release solid oral dosage formulation comprising (a) a core comprising one or more active agents and one or more enteric materials; and (b) two or more barrier layers, one above the core and one below the core, comprising one or more swellable, erodible, or gellable polymers; and wherein, upon administration to a subject, the active agent is released with an ascending release rate in response to the changes in pH as the dosage formulation descends the GI tract. (a) a core comprising one or more active agents and one or more enteric materials; and (b) two or more barrier layers, one above the core and one below the core, comprising one or more swellable, erodible, or gellable polymers; and
Device for shaping a straight, elongate plastics hollow profile workpiece, which is heated to a hot-forming temperature, into an arc, in which device the workpiece is supported at least on a side thereof intended for the outer arc by a flexible shaping bar (13, 29) that is adapted to conform with the profile, and rests, so as to be movable transversely to a longitudinal extension, on a working plane between an inner arc template that determines the inner contour of the arc and a pressing apparatus that can be moved against the inner arc template and that comprises two pressing heads (15, 16) that press against the shaping bar (13, 29), characterised in that in an initial position for shaping, the pressing heads (15, 16) have a distance between one another that extends over the arc to be formed and, during shaping, can be moved out of the initial position approximately mutually parallel against the inner arc template by pressing against external regions of the shaping bar (13, 29) for the outer arc.
A device for monitoring respiration of a subject, the device comprising: a transducer arranged to be worn on an arm of the subject, an analyzer operatively coupled to the transducer, the transducer being arranged for radiating energy under control of the analyzer, the analyzer being arranged for processing a signal received from the transducer, for determining a respiration rate of the subject in dependence on the Doppler frequency shifts in the reflected energy received by the transducer. characterized by the transducer being arranged for radiating energy towards the chest of the subject and receiving the energy reflected by the chest of the subject. a transducer arranged to be worn on an arm of the subject, an analyzer operatively coupled to the transducer, the transducer being arranged for radiating energy under control of the analyzer, the analyzer being arranged for processing a signal received from the transducer, for determining a respiration rate of the subject in dependence on the Doppler frequency shifts in the reflected energy received by the transducer.
A method for forming a medical thread structure, comprising the steps of: interlocking a plurality of filaments (1202, 1204) to form an interlocked thread electrode lead having distal and proximal ends, wherein at least one of said plurality of filaments has a conductive core coated with a nonconductive coating, with the conductive core exposed on the circumferential surface of the interlocked thread electrode lead; wherein filaments within the interlocked thread electrode lead have both vertical portions and horizontal portions, such that a horizontal portion of a filament is configured to pass between vertical portions of other filaments and lock therewith; integrating a bulk or filaments of functional material between at least part of said plurality of filaments or placing a tube or jacket of functional material around said plurality of filaments; and applying heat to said interlocked thread electrode lead, characterized by thereby causing melting of said functional material to fill gaps in said interlocked thread electrode lead and create a barrier that prevents any pressure or fluidic leakages between distal and proximal sides of the barrier. interlocking a plurality of filaments (1202, 1204) to form an interlocked thread electrode lead having distal and proximal ends, wherein at least one of said plurality of filaments has a conductive core coated with a nonconductive coating, with the conductive core exposed on the circumferential surface of the interlocked thread electrode lead; wherein filaments within the interlocked thread electrode lead have both vertical portions and horizontal portions, such that a horizontal portion of a filament is configured to pass between vertical portions of other filaments and lock therewith; integrating a bulk or filaments of functional material between at least part of said plurality of filaments or placing a tube or jacket of functional material around said plurality of filaments; and applying heat to said interlocked thread electrode lead, characterized by thereby causing melting of said functional material to fill gaps in said interlocked thread electrode lead and create a barrier that prevents any pressure or fluidic leakages between distal and proximal sides of the barrier.
A cell delivery system, comprising: an elongated needle body comprising a first sheath portion along a longitudinal axis and a second central carrier portion along the longitudinal axis, the central carrier portion having a shaft along the longitudinal axis and terminating in a distal tip adapted for tissue penetration, the distal tip being part of a nose or end portion; said first portion and second portion capable of transition from a first configuration for insertion into tissue to a second configuration for delivery of cells when a portion of said body is adjacent a tissue location where therapy is desired; and said first and second portions defining a first cavity defined by an interior surface of the sheath portion so that the shaft is within said first cavity, said first cavity being adapted to hold a plurality of cells when said needle body is in said first configuration, wherein in said first configuration the first cavity is not open to the body, the nose or end portion seals one end of the first cavity and the needle body maintains a continous smooth transition on an outside surface from the nose or end portion to the sheath portion, and wherein when said needle body is in said second configuration, said first cavity is open for allowing delivery of a plurality of cells toward a tissue location where therapy is desired, wherein said central carrier portion includes a coupling surface near said distal tip, said coupling surface arranged to abut said interior surface of said sheath portion to align said central carrier portion within said cavity. an elongated needle body comprising a first sheath portion along a longitudinal axis and a second central carrier portion along the longitudinal axis, the central carrier portion having a shaft along the longitudinal axis and terminating in a distal tip adapted for tissue penetration, the distal tip being part of a nose or end portion; said first portion and second portion capable of transition from a first configuration for insertion into tissue to a second configuration for delivery of cells when a portion of said body is adjacent a tissue location where therapy is desired; and said first and second portions defining a first cavity defined by an interior surface of the sheath portion so that the shaft is within said first cavity, said first cavity being adapted to hold a plurality of cells when said needle body is in said first configuration, wherein in said first configuration the first cavity is not open to the body, the nose or end portion seals one end of the first cavity and the needle body maintains a continous smooth transition on an outside surface from the nose or end portion to the sheath portion, and wherein when said needle body is in said second configuration, said first cavity is open for allowing delivery of a plurality of cells toward a tissue location where therapy is desired, wherein said central carrier portion includes a coupling surface near said distal tip, said coupling surface arranged to abut said interior surface of said sheath portion to align said central carrier portion within said cavity.
A work vehicle debris accumulation control system utilized onboard a work vehicle having an operator station and a work vehicle compartment (44, 74, 118, 150), the work vehicle debris accumulation control system comprising: a display device located in the operator station of the work vehicle; a three dimensional,3D, imaging device (52, 160) having a field of view, FOV, encompassing a debris-gathering region of the work vehicle compartment (44, 74, 118, 150); and a controller operably coupled to the display device and to the 3D imaging device (52, 160), the controller configured to: calculate a debris accumulation volume in the debris-gathering region of the work vehicle compartment (44, 74, 118, 150) based, at least in part, on 3D imaging data provided by the 3D imaging device (52, 160); estimate the debris accumulation risk level based, at least in part, on the calculated debris accumulation volume; and generate a first visual alert on the display device when the debris accumulation risk level surpasses a first predetermined threshold. a display device located in the operator station of the work vehicle; a three dimensional,3D, imaging device (52, 160) having a field of view, FOV, encompassing a debris-gathering region of the work vehicle compartment (44, 74, 118, 150); and a controller operably coupled to the display device and to the 3D imaging device (52, 160), the controller configured to: calculate a debris accumulation volume in the debris-gathering region of the work vehicle compartment (44, 74, 118, 150) based, at least in part, on 3D imaging data provided by the 3D imaging device (52, 160); estimate the debris accumulation risk level based, at least in part, on the calculated debris accumulation volume; and generate a first visual alert on the display device when the debris accumulation risk level surpasses a first predetermined threshold. calculate a debris accumulation volume in the debris-gathering region of the work vehicle compartment (44, 74, 118, 150) based, at least in part, on 3D imaging data provided by the 3D imaging device (52, 160); estimate the debris accumulation risk level based, at least in part, on the calculated debris accumulation volume; and generate a first visual alert on the display device when the debris accumulation risk level surpasses a first predetermined threshold.
Method for preparing a laser welding process on a workpiece, comprising the steps: detecting the position of a joint site on the workpiece using a sensor device in a first measurement zone in front of a laser beam position, detecting the position of the joint site with the sensor device in a second measurement zone at the laser beam position and/or in a third measurement zone after the laser beam position, detecting the laser beam position in the second measurement zone with the sensor device, and comparing the positions of the joint site in the respective measurement zones (17a to 17c) and the laser beam position for adaptation of the position, alignment and/or coordinate system of the sensor device and/or a laser machining head relative to the workpiece, characterized in that to detect the laser beam position, with the laser beam a test point is generated on the workpiece and the coordinate system of the sensor device is adapted to the laser beam position detected in this way until the laser beam position is at a nominal position. detecting the position of a joint site on the workpiece using a sensor device in a first measurement zone in front of a laser beam position, detecting the position of the joint site with the sensor device in a second measurement zone at the laser beam position and/or in a third measurement zone after the laser beam position, detecting the laser beam position in the second measurement zone with the sensor device, and comparing the positions of the joint site in the respective measurement zones (17a to 17c) and the laser beam position for adaptation of the position, alignment and/or coordinate system of the sensor device and/or a laser machining head relative to the workpiece,
A camera lens assembly, including: a support member; a moving member (218, 404) having a major planar surface and AF terminal pads (206, 410) located at or near the major planar surface, wherein the moving member is mounted to the support member; and an auto focus assembly (212, 430) having AF terminal pads (210, 406), wherein the auto focus assembly is mounted to the moving member and the AF terminal pads of the auto focus assembly are electrically connected to the AF terminal pads of the moving member, characterised in that the AF terminal pads are located on an inner diameter of the moving member. a support member; a moving member (218, 404) having a major planar surface and AF terminal pads (206, 410) located at or near the major planar surface, wherein the moving member is mounted to the support member; and an auto focus assembly (212, 430) having AF terminal pads (210, 406), wherein the auto focus assembly is mounted to the moving member and the AF terminal pads of the auto focus assembly are electrically connected to the AF terminal pads of the moving member, characterised in that the AF terminal pads are located on an inner diameter of the moving member.
A filter having a housing with at least a coalescing filter element, two drains (212, 214) in the housing and a drain valve assembly connected to the drains (212, 214), the drain valve assembly comprising: first and second pneumatic valves (82A, 82B) each having an inlet connected to a respective drain (212, 214), an outlet and a valve element for selectively connecting the inlet to the outlet in response to a pilot pressure on a pilot port; and a third electric-pneumatic valve connected to the pilot port of each first and second valves (82A, 82B) for providing the pilot pressure from an inlet port to the pilot ports when the third valve is actuated. first and second pneumatic valves (82A, 82B) each having an inlet connected to a respective drain (212, 214), an outlet and a valve element for selectively connecting the inlet to the outlet in response to a pilot pressure on a pilot port; and a third electric-pneumatic valve connected to the pilot port of each first and second valves (82A, 82B) for providing the pilot pressure from an inlet port to the pilot ports when the third valve is actuated.
A propulsion system for an aircraft comprising: - a gas turbine comprising: a combustion chamber, an ignition device for igniting the combustion chamber, a compressor for supplying air to the combustion chamber, the compressor being equipped with a compressor shaft, and an electric starter for driving the compressor shaft, the gas turbine being designed so that the combustion chamber can be ignited by the ignition device in a first ignition range of rotational speeds of the compressor shaft; - a start-up control device designed to: with the combustion chamber switched off, control the electric starter to accelerate the compressor shaft, and with the compressor shaft accelerated, control the ignition device to attempt an ignition of the combustion chamber; characterised in that, since the gas turbine is designed in such a way that the combustion chamber can additionally be ignited by the ignition device in a second ignition range of rotational speeds of the compressor shaft which is greater than the first ignition range, but not between these two ignition ranges (P1, P3), the control device is designed, when the compressor shaft is accelerated, to accelerate the latter up to the second ignition range in order to attempt to ignite the combustion chamber in the latter. - a gas turbine comprising: a combustion chamber, an ignition device for igniting the combustion chamber, a compressor for supplying air to the combustion chamber, the compressor being equipped with a compressor shaft, and an electric starter for driving the compressor shaft, the gas turbine being designed so that the combustion chamber can be ignited by the ignition device in a first ignition range of rotational speeds of the compressor shaft; - a start-up control device designed to: with the combustion chamber switched off, control the electric starter to accelerate the compressor shaft, and with the compressor shaft accelerated, control the ignition device to attempt an ignition of the combustion chamber;