mhurhangee/ep-ind-claims huggingface dataset:
A flame resistant fabric shaped to cover at least a portion of a wearer's body, the fabric comprising first yarns combined with second yarns, the first yarns comprising filament yarns comprised of an inherently flame resistant material, the second yarns comprising spun yarns containing inherently flame resistant fibers, wherein the fabric includes a warp direction and a fill direction, and wherein the ratio between the filament yarns and the spun yarns is from 2:3 to 1:3 in both the warp direction and the fill direction, wherein the spun yarns contain polybenzimidazole fibers in an amount of more than about 30% by weight, and wherein the spun yarns contain said polybenzimidazole fibers in combination with aramid fibers.
Spring loaded brake with numerous coil springs for applying a force onto a braking element in order to produce a braking effect, and with numerous spring seats for retaining each one of the numerous coil springs, wherein the braking element encompasses a shaft on which a rotating braking element is arranged and to which it is moveably in an axial direction and non-rotatably attached, wherein, in order to generate the braking effect, the braking element is pressed against the rotating braking element, wherein each of the spring seats comprise a guide region extending along the respective coil spring, and a further region extending along the respective coil spring, characterized in that the further region is arranged between the guide region and the braking element and comprises a larger cross-section than the guide region.
Detritiation device comprising: i) a furnace for melting tritiated wastes comprising: - a crucible for receiving the tritiated wastes; - a bubbling device for introducing a hydrogenated bubbling gas into said crucible during the melting and treatment of the tritiated wastes in said furnace; and ii) a catalytic four-pole membrane reactor for the treatment of the gases originating from the melting and treatment of the tritiated wastes in said furnace, comprising a membrane to separate two gas flows, said membrane being permeable to isotopes of hydrogen. i) a furnace for melting tritiated wastes comprising: - a crucible for receiving the tritiated wastes; - a bubbling device for introducing a hydrogenated bubbling gas into said crucible during the melting and treatment of the tritiated wastes in said furnace; and - a crucible for receiving the tritiated wastes; - a bubbling device for introducing a hydrogenated bubbling gas into said crucible during the melting and treatment of the tritiated wastes in said furnace; and ii) a catalytic four-pole membrane reactor for the treatment of the gases originating from the melting and treatment of the tritiated wastes in said furnace, comprising a membrane to separate two gas flows, said membrane being permeable to isotopes of hydrogen.
A dielectric-thin-film forming composition for forming a BST dielectric thin film, comprising: a liquid composition for forming a thin film which takes a form of a mixed composite metal oxide in which a composite oxide B including Cu (copper) is mixed into a composite metal oxide A expressed by a formula: Ba 1-x Sr x Ti y O 3 wherein 0.2<x<0.6 and 0.9<y< 1.1, wherein the liquid composition is an organic metal compound solution in which a raw material for composing the composite metal oxide A and a raw material for composing the composite oxide B are dissolved in an organic solvent at a proportion of giving a metal atom ratio expressed by the formula shown above and at a molar ratio between A and B in the range of 0.001≤B/A<0.15, and the organic solvent is at least one solvent selected from a group consisting of carboxylic acid, alcohol, ester, acetone, methyl ethyl ketone, dimethyl ether, diethyl ether, cyclohexane, cyclohexanol, benzene, toluene, xylene, and tetrahydrofuran. a liquid composition for forming a thin film which takes a form of a mixed composite metal oxide in which a composite oxide B including Cu (copper) is mixed into a composite metal oxide A expressed by a formula: Ba 1-x Sr x Ti y O 3 wherein 0.2<x<0.6 and 0.9<y< 1.1, wherein the liquid composition is an organic metal compound solution in which a raw material for composing the composite metal oxide A and a raw material for composing the composite oxide B are dissolved in an organic solvent at a proportion of giving a metal atom ratio expressed by the formula shown above and at a molar ratio between A and B in the range of 0.001≤B/A<0.15, and the organic solvent is at least one solvent selected from a group consisting of carboxylic acid, alcohol, ester, acetone, methyl ethyl ketone, dimethyl ether, diethyl ether, cyclohexane, cyclohexanol, benzene, toluene, xylene, and tetrahydrofuran.
A method for determining the distance and radial velocity (v) of an object in relation to a measurement location, with which radar signals are transmitted and following reflection at the object are received again at the measurement location, wherein the transmitted radar signals are subdivided within a measurement cycle into numerous segments, in which they are varied in their frequency from a respective initial value (f A, f B) to a respective final value and the received reflected signals are subjected over a segment in each case to a first evaluation for detecting frequency peaks and additionally a subsequent second evaluation of the signals is carried out for the frequency peaks of all segments of the measurement cycle to determine a Doppler frequency component as a measure of the radial velocity (v), characterized in that the segments are subdivided into at least two groups (A, B) whose initial value (f A, f B) and/or final value of the varying frequency are different, that the segments (11, 12) of each group (A, B) are separately subjected to the second evaluation and that elimination of ambiguities of the determined velocity is carried out by determining a phase difference between the mutually corresponding signals arising during the second evaluation of the segments (11, 12) of each group (A, B).
Method for centralizing a casing in a well bore before cementing of the casing in the well bore, the method comprising the steps of: mounting at least one centralizer on the casing, the at least one centralizer comprising a receiving unit capable of receiving a wireless signal in form of a pressure wave, positioning the casing in the well bore at a desired position, providing a wireless signal generator for generation and transmission of a wireless signal in form of a pressure wave which the receiving unit of the at least one centralizer is capable of receiving, characterized in that the signal generator is transported down the well bore towards the casing and the signal generator is activated such that the signal generator transmits the wireless signal and whereafter the receiving unit, on reception of the wireless signal, activates the at least one centralizer and the at least one centralizer centralizes the casing in the well bore. mounting at least one centralizer on the casing, the at least one centralizer comprising a receiving unit capable of receiving a wireless signal in form of a pressure wave, positioning the casing in the well bore at a desired position, providing a wireless signal generator for generation and transmission of a wireless signal in form of a pressure wave which the receiving unit of the at least one centralizer is capable of receiving,
A magnetic sensor comprising: two or more magnetic tunnel junction magnetoresistive elements electrically connected to each other in series, a first electrode contacting at least a portion of a surface of a first MTJ magnetoresistive element and extending beyond an edge of the surface of the first MTJ magnetoresistive element; and a second electrode comprising a first end contacting at least a portion of an opposing surface of the first MTJ magnetoresistive element and a second end extending beyond an edge of the opposing surface of the first MTJ magnetoresistive element, and contacting at least a portion of a surface of a second MTJ magnetoresistive element; and characterised by an analyte-specific probe bound to a surface of the magnetic sensor, wherein facing surfaces of the extending portions of the first and second electrodes are non-overlapping, the first MTJ magnetoresistive element comprises a first free layer, the second MTJ magnetoresistive element comprises a second free layer, and the first and second MTJ magnetoresistive elements comprise a common antiferromagnetic layer and a common insulating layer (MgO) between the antiferromagnetic layer and the first and second free layers, and the magnetic sensor is configured to detect a magnetically-labeled analyte in a sample. two or more magnetic tunnel junction magnetoresistive elements electrically connected to each other in series, a first electrode contacting at least a portion of a surface of a first MTJ magnetoresistive element and extending beyond an edge of the surface of the first MTJ magnetoresistive element; and a second electrode comprising a first end contacting at least a portion of an opposing surface of the first MTJ magnetoresistive element and a second end extending beyond an edge of the opposing surface of the first MTJ magnetoresistive element, and contacting at least a portion of a surface of a second MTJ magnetoresistive element; and characterised by an analyte-specific probe bound to a surface of the magnetic sensor, wherein facing surfaces of the extending portions of the first and second electrodes are non-overlapping, the first MTJ magnetoresistive element comprises a first free layer, the second MTJ magnetoresistive element comprises a second free layer, and the first and second MTJ magnetoresistive elements comprise a common antiferromagnetic layer and a common insulating layer (MgO) between the antiferromagnetic layer and the first and second free layers, and the magnetic sensor is configured to detect a magnetically-labeled analyte in a sample.
Extremity dummy which forms a lower-leg dummy (1, 2, 3, 4, 5), comprising a first and a second dummy section (1, 2), which are connected in an articulated manner by a first joint element that has at least one axis of rotation (G1, G2) and that represents the ankle joint, wherein a. the first dummy section represents a lower-leg section of a lower-leg extremity, and b. the second dummy section represents a foot section, in particular a metatarsal section and/or rear foot section, of a lower-leg extremity, characterized in that the first joint element represents the upper and lower ankle joint, and the mobility in the physiological human joint can be simulated by coupling of at least two joint axes in the first joint element, wherein each of the plurality of axes of rotation (G1, G2) of the joint element is assigned a sensor by which the angular position or change in angle of the connected dummy sections (1, 2) with respect to the assigned axis of rotation (G1, G2) can be measured, and the first dummy section representing the lower-leg section has, at its upper end, a force introduction connection via which a force can be introduced into the dummy section and by which the dummy section can be twisted about its axial extent. a. the first dummy section represents a lower-leg section of a lower-leg extremity, and b. the second dummy section represents a foot section, in particular a metatarsal section and/or rear foot section, of a lower-leg extremity,
A method of operating a policy and charging rules function, PCRF, of a visited PLMN for handling an unauthenticated emergency IMS call from a roaming user equipment, UE, the method comprising receiving an identity request from a visited proxy call session control function, P-CSCF, the identity request comprising an IP address for the roaming UE; and mapping the IP address of the roaming UE to one or more other identifiers of the roaming UE; and sending said one or more other identifiers to the visited P-CSCF. mapping the IP address of the roaming UE to one or more other identifiers of the roaming UE; and sending said one or more other identifiers to the visited P-CSCF.
A nutritional composition comprising: (i) a carbohydrate source; (ii) a fat source; and (iii) a protein equivalent source, wherein a) 20% to 80% of the protein equivalent source includes a peptide component comprising the individual peptides of SEQ ID NO 4, SEQ ID NO 13, SEQ ID NO 17, SEQ ID NO 21, SEQ ID NO 24, SEQ ID NO 30, SEQ ID NO 31, SEQ ID NO 32, SEQ ID NO 51, SEQ ID NO 57, SEQ ID NO 60, and SEQ ID NO 63; and b) 20% to 80% of the protein equivalent source comprises an intact protein, a partially hydrolyzed protein, or combinations thereof, for use in reducing the production of proinflammatory cytokines in a subject. (i) a carbohydrate source; (ii) a fat source; and (iii) a protein equivalent source, wherein a) 20% to 80% of the protein equivalent source includes a peptide component comprising the individual peptides of SEQ ID NO 4, SEQ ID NO 13, SEQ ID NO 17, SEQ ID NO 21, SEQ ID NO 24, SEQ ID NO 30, SEQ ID NO 31, SEQ ID NO 32, SEQ ID NO 51, SEQ ID NO 57, SEQ ID NO 60, and SEQ ID NO 63; and b) 20% to 80% of the protein equivalent source comprises an intact protein, a partially hydrolyzed protein, or combinations thereof, for use in reducing the production of proinflammatory cytokines in a subject. a) 20% to 80% of the protein equivalent source includes a peptide component comprising the individual peptides of SEQ ID NO 4, SEQ ID NO 13, SEQ ID NO 17, SEQ ID NO 21, SEQ ID NO 24, SEQ ID NO 30, SEQ ID NO 31, SEQ ID NO 32, SEQ ID NO 51, SEQ ID NO 57, SEQ ID NO 60, and SEQ ID NO 63; and b) 20% to 80% of the protein equivalent source comprises an intact protein, a partially hydrolyzed protein, or combinations thereof, for use in reducing the production of proinflammatory cytokines in a subject.
Forming device comprising a machine bed, a tool carrier mounted for relative movement on the machine bed for the accommodation of a tool, a drive device coupled to the tool carrier, a machine control for controlling the drive device and a monitoring device, which is designed for monitoring movements of the tool carrier and for providing a shut-down signal to a disconnecting device provided upstream of the drive device on the occurrence of a presettable monitoring case, wherein the monitoring device comprises at least one radiation source and a plurality of radiation detectors (27 to 32; 127 to 132) arranged opposite the radiation source, and wherein at least a part of the beams of rays emitted by the radiation source is oriented along a working edge of the tool, wherein the monitoring device is designed to monitor the application of rays to the plurality of radiation detectors (27 to 32; 127 to 132) when the tool carrier approaches the machine bed with a first speed of movement, a first radiation detector (28; 128) being arranged along a closing movement direction of the tool carrier at a distance from the working edge of the tool which corresponds to a stopping distance of the tool carrier when the drive device is shut down from the first speed of movement, and wherein the monitoring device is designed to determine a position of the tool carrier along the closing movement direction by means of the machine control and to provide a test signal from the machine control to the monitoring device when a presettable relative position determined by the machine control is reached, and to monitor an application of radiation to the radiation detectors (27 to 32; 127 to 132), a second radiation detector (27; 127) being arranged along the closing movement direction of the tool carrier at a distance from the working edge of the tool which corresponds to a sum of the stopping distance of the tool carrier when the drive device is shut down from the first speed of movement and a presettable safety margin, characterised in that the monitoring device is designed to make available the shut-down signal to the disconnecting device located upstream of the drive device if no radiation of the beam of rays is applied to the first radiation detector (28, 128) at the time of the provision of the test signal, and/or if radiation of the beam of rays is applied to the second radiation detector (27; 127) at the time of the provision of the test signal.
A printing press (1; 1*; 1**) comprising an ink-receiving cylinder (9; 8) receiving ink from an inking system (90-93, 90*, 93*; 95-99, 95*, 99*; 100-104, 100*, 104*) having a plurality of ink-applying cylinders or rollers (93, 93*; 99, 99*; 104, 104*) arranged one above the other around part of a circumference of the ink-receiving cylinder (9; 8), the ink-applying cylinders or rollers (93, 93*; 99, 99*; 104, 104*) being inked by a corresponding plurality of inking devices (90, 90*; 95, 95*; 100, 100*), the printing press (1; 1*; 1**) further comprising an inking carriage (52; 55; 57) supporting the plurality of inking devices (90, 90*; 95, 95*; 100, 100*), which inking carriage (52; 55; 57) can be moved with respect to the ink-receiving cylinder (9; 8) between a working position and a retracted position, characterised in that at least one selected inking device (90*; 95*; 100*) amongst the plurality of inking devices (90, 90*; 95, 95*; 100, 100*) of the inking system (90-93, 90*, 93*; 95-99, 95*, 99*; 100-104, 100*, 104*) is supported onto the inking carriage (52; 55; 57) via a movable frame (60; 65; 70), which movable frame (60; 65; 70) is supported by the inking carriage (52; 55; 57) to allow movement of the selected inking device (90*; 95*; 100*) with respect to the inking carriage (52; 55; 57) and with respect to a remaining part (90; 95; 100) of the plurality of inking devices (90, 90*; 95, 95*; 100, 100*).
An eyeglasses lens processing apparatus including a processing device of an eyeglasses lens and a grinding water treatment device, comprising: a centrifugal separator (210, 210B) that includes a dehydration tank (211, 211B) into which grinding water used in the processing device of the eyeglasses lens is introduced, and separates the grinding water into water and processing chips by rotation of the dehydration tank; a scraping unit (600, 600B) that scrapes out the processing chips accumulated on a side wall inside the dehydration tank; an opening provided in the dehydration tank and through which the processing chips scraped out by the scraping unit are ejected to an outside of the dehydration tank; a filter provided in an outer region, which is between the opening and the side wall inside the dehydration tank, outside the opening, and through which the water separated from the grinding water by rotation of the dehydration tank passes to allow the processing chips to be present inside the dehydration tank, a water receiving unit configured to receive water discharged from the dehydration tank (211, 211B) and positioned below the filter to receive the water that has passed through the filter at the bottom portion of the dehydration tank (211, 211B), wherein the opening is formed at a bottom portion of the dehydration tank such that the dropped processing chips scraped out by the scraping unit pass through the openings, and the filter is provided at the bottom portion of the dehydration tank in the outer region outside the opening. a centrifugal separator (210, 210B) that includes a dehydration tank (211, 211B) into which grinding water used in the processing device of the eyeglasses lens is introduced, and separates the grinding water into water and processing chips by rotation of the dehydration tank; a scraping unit (600, 600B) that scrapes out the processing chips accumulated on a side wall inside the dehydration tank; an opening provided in the dehydration tank and through which the processing chips scraped out by the scraping unit are ejected to an outside of the dehydration tank; a filter provided in an outer region, which is between the opening and the side wall inside the dehydration tank, outside the opening, and through which the water separated from the grinding water by rotation of the dehydration tank passes to allow the processing chips to be present inside the dehydration tank, a water receiving unit configured to receive water discharged from the dehydration tank (211, 211B) and positioned below the filter to receive the water that has passed through the filter at the bottom portion of the dehydration tank (211, 211B), wherein the opening is formed at a bottom portion of the dehydration tank such that the dropped processing chips scraped out by the scraping unit pass through the openings, and the filter is provided at the bottom portion of the dehydration tank in the outer region outside the opening.
A method for obtaining protein preparations from sunflower and/or canola seeds with the following steps - dehulling the sunflower or canola seeds up to a shell content of <5 wt% to obtain dehulled sunflower or canola seeds, or suppling dehulled sunflower or canola seeds with a shell content of <5 wt%; - partially deoiling the dehulled sunflower or canola seeds mechanically by pressing up to a fat or oil content of the dehulled sunflower or canola seeds in the range from >7 to <35 wt%; and - carrying out one or more extraction steps using at least one organic solvent or supercritical CO2, wherein -- at least one of the extraction steps produces further deoiling of the partially deoiled, dehulled sunflower or canola seeds and is carried out as a percolation or immersion extraction process after a previous or during a simultaneous comminution of a press cake obtained by the mechanical partial deoiling to a particle size <2 mm or a flake thickness <2 mm, and -- a deoiled, protein-containing flour or granulate is obtained as protein preparation with a residual oil content <4 wt% by means of the one or more extraction steps after a desolventization process. - dehulling the sunflower or canola seeds up to a shell content of <5 wt% to obtain dehulled sunflower or canola seeds, or suppling dehulled sunflower or canola seeds with a shell content of <5 wt%; - partially deoiling the dehulled sunflower or canola seeds mechanically by pressing up to a fat or oil content of the dehulled sunflower or canola seeds in the range from >7 to <35 wt%; and - carrying out one or more extraction steps using at least one organic solvent or supercritical CO2, wherein -- at least one of the extraction steps produces further deoiling of the partially deoiled, dehulled sunflower or canola seeds and is carried out as a percolation or immersion extraction process after a previous or during a simultaneous comminution of a press cake obtained by the mechanical partial deoiling to a particle size <2 mm or a flake thickness <2 mm, and -- a deoiled, protein-containing flour or granulate is obtained as protein preparation with a residual oil content <4 wt% by means of the one or more extraction steps after a desolventization process. -- at least one of the extraction steps produces further deoiling of the partially deoiled, dehulled sunflower or canola seeds and is carried out as a percolation or immersion extraction process after a previous or during a simultaneous comminution of a press cake obtained by the mechanical partial deoiling to a particle size <2 mm or a flake thickness <2 mm, and -- a deoiled, protein-containing flour or granulate is obtained as protein preparation with a residual oil content <4 wt% by means of the one or more extraction steps after a desolventization process.
Process for preparing methyl methacrylate from methacrolein in a continuous oxidative esterification reaction with oxygen and methanol which is conducted in the liquid phase at a pressure of 2 to 100 bar with a heterogeneous catalyst comprising supported gold-containing nanoparticles having a particle size less than 20 nm, characterized in that the liquid phase is withdrawn continuously from the reactor and the pH, after the withdrawal, is adjusted to a pH between 5 and 9 by means of addition of basic solution outside the reactor, and the withdrawn liquid phase having a pH between 5 and 9 is conducted back into the reactor to an extent of at least 50%.