mhurhangee/ep-ind-claims huggingface dataset:
Device for separating a load from the pallet supporting it, comprising at least one set of plate elements (3, 5) operated by respective insertion elements at least on a geometric plane defined by the surface of the pallet supporting the load to insinuate between the load and said surface of the pallet and operated by respective lifting elements to separate the load from the pallet; said device further comprising two side walls, right and left, mutually parallel, arranged vertically and assigned to face respective opposite side faces of the load and further comprising at least one rotation element for each plate element (3, 5) assigned to the rotation of said plate element (3, 5) to orient it with respect to said geometric plane, characterized in that said at least one set of plate elements (3, 5) comprises a right plate-like element and a left plate-like element each sliding in a respective swivel and slide element of the rotation element, where each swivel and slide element is connected to the lower edge of the respective right or left side wall in a rotatable way around a horizontal rotation axis parallel to said lower edge.
A heat exchanger, in particular for a motor vehicle, with several blocks (B1-B6), wherein a respective plurality of tubes is arranged in the individual blocks (B1-B6) between two collection sections, one of which is arranged at the top and the other one at the bottom, wherein the heat exchanger, as seen in the air flow direction, is formed in two rows and wherein at least one aperture is provided in at least one collection section, characterised in that the aperture(s) is (are) exclusively arranged in or between trailing blocks (B4, B5, B6), as seen in the flow direction of the medium flowing through the heat exchanger, wherein the aperture(s) is (are) exclusively arranged in or at the transition to the last block flowed through from below or at the transition to the second last block and that exactly one or two apertures are provided, wherein the aperture /at least one aperture is arranged at the end of the first third of the lower collection section of the last block flowed through from below, wherein the aperture(s) is (are) formed by a sheet which is inserted into a recess in the collection section and soldered thereto.
Apparatus for producing three-dimensional work pieces, the apparatus comprising: - a process chamber accommodating a carrier and a powder application device for applying a raw material powder onto the carrier, - an irradiation device for selectively irradiating electromagnetic or particle radiation onto the raw material powder applied onto the carrier in order to produce a work piece made of said raw material powder by an additive layer construction method, - a gas circuit comprising a circulation line adapted to supply gas to the process chamber and to discharge gas loaded with particulate impurities from the process chamber, and - a raw material powder circuit comprising a circulation line adapted to supply raw material powder to the process chamber and to discharge excess raw material powder from the process chamber, characterized in that a drying device which contains a drying agent is arranged in the raw material powder circuit wherein the drying device comprises a humidity permeable container filled with the drying agent. - a process chamber accommodating a carrier and a powder application device for applying a raw material powder onto the carrier, - an irradiation device for selectively irradiating electromagnetic or particle radiation onto the raw material powder applied onto the carrier in order to produce a work piece made of said raw material powder by an additive layer construction method, - a gas circuit comprising a circulation line adapted to supply gas to the process chamber and to discharge gas loaded with particulate impurities from the process chamber, and - a raw material powder circuit comprising a circulation line adapted to supply raw material powder to the process chamber and to discharge excess raw material powder from the process chamber,
A method in a controller communicably attached with a Digital Subscriber Line modem pair (122, 142), the method comprising: periodically or aperiodically collecting operational data from the DSL modem pair, wherein the operational data comprises at least historical performance data relating to the modem performance of the DSL modem pair; analysing at least a portion of the collected operational data for noise power fluctuation for the DSL modem pair; generating a margin-related parameter set to affect operation of the DSL modem pair based on the operational data analysed which includes the noise power fluctuation for the DSL modem pair; and instructing the DSL modem pair to adopt the margin-related parameter set for use during training or operation to permit better operation and to operate in accordance with the margin-related parameter set. periodically or aperiodically collecting operational data from the DSL modem pair, wherein the operational data comprises at least historical performance data relating to the modem performance of the DSL modem pair; analysing at least a portion of the collected operational data for noise power fluctuation for the DSL modem pair; generating a margin-related parameter set to affect operation of the DSL modem pair based on the operational data analysed which includes the noise power fluctuation for the DSL modem pair; and instructing the DSL modem pair to adopt the margin-related parameter set for use during training or operation to permit better operation and to operate in accordance with the margin-related parameter set.
A casing half shell (120, 122) for a turbine system (100, 102), wherein the casing half shell (120, 122) comprises: • a body (112, 113) having an open interior for enclosing parts of the turbine system (100, 102), • a first working fluid flow path defined in the body (112, 113) for directing a first working fluid flow in the open interior in a first direction, • a second working fluid flow path defined in the body (112, 113) for directing a second working fluid flow in the open interior in a second direction that is opposed to the first direction, • a working fluid dam extending radially and axially in the body (112, 113) between the first working fluid flow path and the second working fluid flow path, the working fluid dam including a stress-mitigating slot extending radially therein, and • a fill member mounted in the stress-mitigating slot, and wherein the body (112, 113) further includes a packing head main fit upstream of the working fluid dam and a diaphragm mounting element downstream of the working fluid dam, and characterised in that the stress-mitigating slot extends adjacent an axially facing surface of the packing head main fit, and the fill member is fixedly coupled to the packing head main fit. • a body (112, 113) having an open interior for enclosing parts of the turbine system (100, 102), • a first working fluid flow path defined in the body (112, 113) for directing a first working fluid flow in the open interior in a first direction, • a second working fluid flow path defined in the body (112, 113) for directing a second working fluid flow in the open interior in a second direction that is opposed to the first direction, • a working fluid dam extending radially and axially in the body (112, 113) between the first working fluid flow path and the second working fluid flow path, the working fluid dam including a stress-mitigating slot extending radially therein, and • a fill member mounted in the stress-mitigating slot, and wherein the body (112, 113) further includes a packing head main fit upstream of the working fluid dam and a diaphragm mounting element downstream of the working fluid dam, and
Pump installation comprising a liquid pump, a vacuum pump for withdrawing air from the liquid pump, and a muffler for the vacuum pump, wherein the vacuum pump comprises a diaphragm chamber in which a pumping diaphragm is contained, and an air outlet for exhausting air from the diaphragm chamber, characterized in that the muffler comprises a muffler cap that is detachably mounted to the vacuum pump to receive air from the air outlet, and a muffler outlet for exhausting the air that is received, wherein the muffler cap comprises a cover wall (82, 83) that merges into a circumferential wall (84, 85, 86), wherein the circumferential wall comprises a free end edge along which the muffler is mounted to the vacuum pump, wherein in the mounted condition the muffler cap and the vacuum pump together bound a muffler chamber, wherein the muffler comprises muffler baffles in the muffler chamber, wherein in the dismounted condition of the muffler the free end edge bounds an access opening of the muffler cap and the muffler baffles extend towards the access opening.
A honing ring for the surface machining of toothed workpieces, in particular for the surface machining of toothed gears, including an annular body of ceramic in which abrasive agent is embedded and which at an inner peripheral surface has a tooth arrangement which can be brought into contact with the toothed workpiece, wherein the annular body of ceramic is surrounded in a radial direction by at least one outer ring which substantially comprises at least one synthetic resin and is of an inner ring thickness, characterised in that the outer ring is of an outer ring thickness of more than 15 mm, wherein a ratio of outer ring thickness to inner ring thickness is between 2.5:1 and 1.5:1.
A wind turbine generator including a rotor having variable pitch blades operationally connected thereto, an AC generator for supplying output current electricity, and output power and output current sensors (267, 255) to provide signals dependent on output power and current, respectively, said wind turbine generator comprising; - a current feedback control system for receiving an output current signal indicative of output current and maintaining the level of output current of the wind turbine at substantially the same level during a low voltage condition as its level during a normal conditions; and characterised in that said wind turbine generator further comprises: - a blade pitch control system for receiving output power signals indicative of output power so as to vary the pitch of the blades to maintain a rotor speed that is substantially the same before and during a low voltage condition. - a current feedback control system for receiving an output current signal indicative of output current and maintaining the level of output current of the wind turbine at substantially the same level during a low voltage condition as its level during a normal conditions; and - a blade pitch control system for receiving output power signals indicative of output power so as to vary the pitch of the blades to maintain a rotor speed that is substantially the same before and during a low voltage condition.
An insulated structure, comprising: a wrapper having a top surface and a bottom surface; a liner operably coupled to the wrapper and defining an insulation cavity that includes insulation materials; a machine compartment at least partially defined by the wrapper; a base plate operably coupled to the bottom surface of the wrapper proximate the machine compartment; base rails (26, 94, 96) operably coupled to the base plate and at least partially defining the machine compartment, each of the base rails (26, 94, 96) including attachment flanges (28, 116, 118) and a mounting wall, and a machine plate operably coupled to the base rails (26, 94, 96) and defining a lower portion of the machine compartment, wherein the base rails each include a support body from which the attachment flanges extend and to which the mounting wall is coupled, wherein the attachment flanges include a first attachment flange and a second attachment flange and wherein the support body includes a bottom portion from which the mounting wall and parallel side portions extend, characterised in that the attachment flanges are coupled to and extend from the side portions, wherein the first attachment flange extends medially toward a center of the support body, wherein the second attachment flange extends laterally away from the support body and wherein the insulated structure is a vacuum insulated structure. a wrapper having a top surface and a bottom surface; a liner operably coupled to the wrapper and defining an insulation cavity that includes insulation materials; a machine compartment at least partially defined by the wrapper; a base plate operably coupled to the bottom surface of the wrapper proximate the machine compartment; base rails (26, 94, 96) operably coupled to the base plate and at least partially defining the machine compartment, each of the base rails (26, 94, 96) including attachment flanges (28, 116, 118) and a mounting wall, and a machine plate operably coupled to the base rails (26, 94, 96) and defining a lower portion of the machine compartment, wherein the base rails each include a support body from which the attachment flanges extend and to which the mounting wall is coupled, wherein the attachment flanges include a first attachment flange and a second attachment flange and wherein the support body includes a bottom portion from which the mounting wall and parallel side portions extend, characterised in that the attachment flanges are coupled to and extend from the side portions, wherein the first attachment flange extends medially toward a center of the support body, wherein the second attachment flange extends laterally away from the support body and wherein the insulated structure is a vacuum insulated structure.
A mechanical thrombectomy apparatus for removing a clot (539, 639) from a vessel, the apparatus comprising: an elongate inversion support catheter (501, 601) having a distal end and a distal end opening; an elongate puller (545, 645, 805) extending within the elongate inversion support catheter (501, 601); and a flexible tractor tube (544, 644, 801) having a free first end and a second end that is coupled to a distal end region of the elongate puller (545, 645, 805), wherein the flexible tractor tube (544, 644, 801) is inverted over the elongate inversion support catheter (501, 601) and is held within the elongate inversion support catheter (501, 601) in a collapsed first configuration; characterized in that the thrombectomy apparatus further comprises an annular bias element (525, 625, 803) disposed at least partially around the free first end of the flexible tractor tube (544, 644, 801), wherein the flexible tractor tube (544, 644, 801) is configured to be extended from the distal end opening of the elongate inversion support catheter (501, 601) and to expand into an expanded second configuration, and wherein the annular bias element (525, 625, 803) is configured to be extended from the distal end opening of the elongate inversion support catheter (501, 601) and to expand along with the flexible tractor tube from the collapsed first configuration to the expanded second configuration, and wherein the annular bias element has a diameter that is larger than an outer diameter of the elongate inversion support catheter (501, 601) when the flexible tractor tube (544, 644, 801) is in the expanded second configuration. an elongate inversion support catheter (501, 601) having a distal end and a distal end opening; an elongate puller (545, 645, 805) extending within the elongate inversion support catheter (501, 601); and a flexible tractor tube (544, 644, 801) having a free first end and a second end that is coupled to a distal end region of the elongate puller (545, 645, 805), wherein the flexible tractor tube (544, 644, 801) is inverted over the elongate inversion support catheter (501, 601) and is held within the elongate inversion support catheter (501, 601) in a collapsed first configuration; characterized in that the thrombectomy apparatus further comprises an annular bias element (525, 625, 803) disposed at least partially around the free first end of the flexible tractor tube (544, 644, 801), wherein the flexible tractor tube (544, 644, 801) is configured to be extended from the distal end opening of the elongate inversion support catheter (501, 601) and to expand into an expanded second configuration, and wherein the annular bias element (525, 625, 803) is configured to be extended from the distal end opening of the elongate inversion support catheter (501, 601) and to expand along with the flexible tractor tube from the collapsed first configuration to the expanded second configuration, and wherein the annular bias element has a diameter that is larger than an outer diameter of the elongate inversion support catheter (501, 601) when the flexible tractor tube (544, 644, 801) is in the expanded second configuration.
Circuit breaker for switching electrical voltages, comprising a first electrode, which can be connected to a first pole of the voltage which is to be switched, and a second electrode, which can be connected to a second pole of the voltage which is to be switched, wherein switching means (34, 36, 38) are provided, which switching means are suitable for moving at least one of the electrodes (18, 22) along a switching path (sl, sr) depending on the switching state, and in this way moving the electrodes (18, 22) towards one another or away from one another, wherein more than one auxiliary electrode is provided, which auxiliary electrode is located close to the switching path (sl, sr), characterized in that the auxiliary electrodes are at a greater distance from one another in the region of the switching path (sl, sr) than on that side which is averted from the switching path (sl, sr).
Processing equipment for collecting matter adhering to a surface of packages to be processed as waste, said equipment comprising: • a rotary cylindrical drum provided with orifices forming a screen for retaining the packages and for allowing the matter for collection to pass through; • a brush roller mounted inside the rotary drum in order to brush the inside surface of said drum; • motor means for driving the brush and the rotary drum in rotation; • an outer casing for collecting the matter that has passed through the wall of the cylindrical drum during processing; the equipment being characterized in that it includes: - resilient return means for returning the compression means to a normal operating position in order to flatten the packages -compression means for compressing against the inside face of the rotary drum, which means are mounted inside the rotary drum in the immediate vicinity of the inside surface of said drum. • a rotary cylindrical drum provided with orifices forming a screen for retaining the packages and for allowing the matter for collection to pass through; • a brush roller mounted inside the rotary drum in order to brush the inside surface of said drum; • motor means for driving the brush and the rotary drum in rotation; • an outer casing for collecting the matter that has passed through the wall of the cylindrical drum during processing; - resilient return means for returning the compression means to a normal operating position in order to flatten the packages -compression means for compressing against the inside face of the rotary drum, which means are mounted inside the rotary drum in the immediate vicinity of the inside surface of said drum.
An in vitro method of determining the fate of immunoglobulin charge variants of a polypeptide preparation, comprising; a) isolating serum or plasma from blood; b) depleting immunoglobulin from the said serum or plasma; c) spiking the immunoglobulin depleted serum or plasma with the polypeptide preparation d) incubating the spiked serum or plasma of step c for a period of time e) isolating immunoglobulin and immunoglobulin charge variants thereof from the spiked serum or plasma of step d, and f) quantifying the immunoglobulin and immunoglobulin charge variants isolated in step e. a) isolating serum or plasma from blood; b) depleting immunoglobulin from the said serum or plasma; c) spiking the immunoglobulin depleted serum or plasma with the polypeptide preparation d) incubating the spiked serum or plasma of step c for a period of time e) isolating immunoglobulin and immunoglobulin charge variants thereof from the spiked serum or plasma of step d, and f) quantifying the immunoglobulin and immunoglobulin charge variants isolated in step e.
A method for determining an efficiency of a drivetrain, in particular a drivetrain of a wind turbine, wherein the drivetrain has a motor-side end on a main shaft connectable to a motor and a generator-side end, between which ends a generator is arranged, wherein the engine and the generator may run both in motor and in generator operation, wherein in a first test, the motor-side end of the drivetrain is driven and a variable dependent on the main shaft torque is determined at the motor-side end of the drivetrain and an electrical power P elec is determined at the generator-side end of the drivetrain, characterized in that in a second test, the generator-side end of the drivetrain is driven by the generator as a motor, and the variable dependent on the main shaft torque is likewise determined at the motor-side end and the electrical power P elec is determined at the generator-side end, and an efficiency is determined from the electrical power values and the variables dependent on the main shaft torque determined in the first test and in the second test, in particular while taking into consideration at least one assumption predetermined on the basis of experiments or experience. wherein in a first test, the motor-side end of the drivetrain is driven and a variable dependent on the main shaft torque is determined at the motor-side end of the drivetrain and an electrical power P elec is determined at the generator-side end of the drivetrain, characterized in that in a second test, the generator-side end of the drivetrain is driven by the generator as a motor, and the variable dependent on the main shaft torque is likewise determined at the motor-side end and the electrical power P elec is determined at the generator-side end, and an efficiency is determined from the electrical power values and the variables dependent on the main shaft torque determined in the first test and in the second test, in particular while taking into consideration at least one assumption predetermined on the basis of experiments or experience.
An acoustic array combination comprising a first and a second acoustic array (30,60), each array (30, 60) being capable of generating multiple, angularly dispersed acoustic beams steerable by means of frequency from an input acoustic signal, wherein frequency steering is provided as a function of a blazed array design and/or a phase shift between neighboring transducer elements (32, 62), and wherein array (30, 60) faces of the first and second acoustic arrays (30, 60) are arranged at a fixed angular rotation to one another, and the transmitted and/or received fields of view are contiguous or overlapping, characterised in that each frequency-steerable acoustic array is multiple order and operable at a combination of at least two orders selected from the group consisting of m = 1/2, m = 1/4, m = 1/8, m = 1/16 and m = 1/n in the same array to produce the at least two orders and with different wiring provided for each order, wherein the order m of each array is the fraction of coherent wavelengths between two consecutive elements of the array at spacing d and n is any positive number. each array (30, 60) being capable of generating multiple, angularly dispersed acoustic beams steerable by means of frequency from an input acoustic signal, wherein frequency steering is provided as a function of a blazed array design and/or a phase shift between neighboring transducer elements (32, 62), and wherein array (30, 60) faces of the first and second acoustic arrays (30, 60) are arranged at a fixed angular rotation to one another, and the transmitted and/or received fields of view are contiguous or overlapping,