mhurhangee/ep-ind-claims huggingface dataset:
A cardboard cup of the type comprising a generally frustoconical side wall and a hollow pedestal which extends from this side wall, the hollow pedestal comprising a bottom wall, a circular edge and a peripheral wall which axially connects the circular edge to the bottom wall, the cup having at least one internal boss in the side wall, at a distance from the pedestal wall, the peripheral wall of the hollow pedestal being flared in the direction of the circular edge, at least in the vicinity thereof, and the flaring of the peripheral wall of the hollow pedestal being such that the boss has an axial stop at the circular edge of the pedestal of a counterpart cup, the axial stop being active upon inserting the counterpart cup, characterised in that the flaring of the peripheral wall of the hollow pedestal is such that the circular edge has a diameter substantially greater than a diameter of the side wall where the boss connects to the remainder of the side wall, so that the circular edge of the counterpart cup and the boss together provide a sealed junction between the hollow pedestal of the counterpart cup and the side wall when the axial stop is active.
Method for organising items of laundry to be treated, which are provided with an identifier, comprising the steps (a) providing a storage container for items of laundry to be treated, wherein a reader for the identifiers is assigned to the storage container, said reader being designed to read the identifier if an item of laundry to be treated is introduced into the storage container; b) introducing the items of laundry to be treated into the storage container so that with the aid of the identifiers of the items of laundry, the items of laundry introduced into the storage container can be registered by the reader, c) creating an index of contents of the items of laundry available after introduction into the storage container, wherein properties important to the treatment are assigned to each item of laundry; d) evaluating the index of contents in respect of a load of laundry to be removed therefrom for at least one treatment program; and e) displaying a result of the evaluation on a display device characterised in that the introduction of the items of laundry into the storage container and the removal of the items of laundry from the storage container is evaluated in respect of a user behavior over a predetermined reference period. (a) providing a storage container for items of laundry to be treated, wherein a reader for the identifiers is assigned to the storage container, said reader being designed to read the identifier if an item of laundry to be treated is introduced into the storage container; b) introducing the items of laundry to be treated into the storage container so that with the aid of the identifiers of the items of laundry, the items of laundry introduced into the storage container can be registered by the reader, c) creating an index of contents of the items of laundry available after introduction into the storage container, wherein properties important to the treatment are assigned to each item of laundry; d) evaluating the index of contents in respect of a load of laundry to be removed therefrom for at least one treatment program; and e) displaying a result of the evaluation on a display device
A non-centrifugal method for producing a high-density frozen cell bank, the method comprising: a) culturing cells in a perfusion bioreactor to a first cell density by continuously removing growth medium from a culture and replacing with fresh growth medium, wherein the bioreactor is agitated for efficient mixing and gas exchange, wherein the bioreactor is coupled to a cell retention system comprising an alternating tangential flow filtration system including a filter; b) non-centrifugally concentrating the cells cultured in the perfusion bioreactor coupled to the cell retention system, wherein the cells are concentrated to a second cell density greater than the first cell density by removing the growth medium from the culture using the filter and, thereby reducing the volume of the growth medium to produce a concentrated cell population of about 1×10 8 cells/mL; and c) cryopreserving the concentrated cell population to produce a high-density frozen cell bank, wherein the high-density frozen mammalian cell bank has a post-thaw viability of at least 90%, wherein the pH and dissolved oxygen of the culture are controlled by non-automated methods, and wherein the bioreactor is rocked at between 6 rpm and 22 rpm. a) culturing cells in a perfusion bioreactor to a first cell density by continuously removing growth medium from a culture and replacing with fresh growth medium, wherein the bioreactor is agitated for efficient mixing and gas exchange, wherein the bioreactor is coupled to a cell retention system comprising an alternating tangential flow filtration system including a filter; b) non-centrifugally concentrating the cells cultured in the perfusion bioreactor coupled to the cell retention system, wherein the cells are concentrated to a second cell density greater than the first cell density by removing the growth medium from the culture using the filter and, thereby reducing the volume of the growth medium to produce a concentrated cell population of about 1×10 8 cells/mL; and c) cryopreserving the concentrated cell population to produce a high-density frozen cell bank, wherein the high-density frozen mammalian cell bank has a post-thaw viability of at least 90%, wherein the pH and dissolved oxygen of the culture are controlled by non-automated methods, and wherein the bioreactor is rocked at between 6 rpm and 22 rpm.
Injection-moulded plastic object having - at least one 2-D barcode element (11, 12) on the outside of the plastic object, and - at least one chip which can be written to and read out in a wireless fashion, wherein further writing to the chip can be disabled by wireless signal after the chip is first written to but can continue to be read out, characterized in that the injection-moulded plastic object has a closure cap for containers, which has a screw thread, and wherein the chip is fitted onto the inside of the closure cap. - at least one 2-D barcode element (11, 12) on the outside of the plastic object, and - at least one chip which can be written to and read out in a wireless fashion, wherein further writing to the chip can be disabled by wireless signal after the chip is first written to but can continue to be read out, characterized in that the injection-moulded plastic object has a closure cap for containers, which has a screw thread, and wherein the chip is fitted onto the inside of the closure cap.
A system (12; 112) for adjusting a variable position vane (13; 113) in an aircraft engine, the system (12; 112) comprising: a fluid-actuated actuator (34; 116) operatively connected to cause positional adjustment of the variable position vane (13; 113); a transducer (36; 118; 224); a servo valve (32; 114) including a valve member (38; 120) cooperating with a spool (40; 122A) to control a flow of fluid to the fluid-actuated actuator (34; 116), the servo valve (32; 114) configured to control the flow of fluid to the fluid-actuated actuator (34; 116) based on an input indicative of a pressure of air pressurized by a compressor of the aircraft engine and positional feedback from the variable position vane (13; 113); the transducer (36; 118; 224) is configured to generate the input to the servo valve (32; 114) based on a received signal indicative of the pressure of the air pressurized by the compressor of the aircraft engine; and characterised in that the valve member (38; 120) and the spool (40; 122A) are separately rotatable about a common axis. a fluid-actuated actuator (34; 116) operatively connected to cause positional adjustment of the variable position vane (13; 113); a transducer (36; 118; 224); a servo valve (32; 114) including a valve member (38; 120) cooperating with a spool (40; 122A) to control a flow of fluid to the fluid-actuated actuator (34; 116), the servo valve (32; 114) configured to control the flow of fluid to the fluid-actuated actuator (34; 116) based on an input indicative of a pressure of air pressurized by a compressor of the aircraft engine and positional feedback from the variable position vane (13; 113); the transducer (36; 118; 224) is configured to generate the input to the servo valve (32; 114) based on a received signal indicative of the pressure of the air pressurized by the compressor of the aircraft engine; and characterised in that the valve member (38; 120) and the spool (40; 122A) are separately rotatable about a common axis.
A planetary gear system comprising: a sun gear rotatable about an axis; planetary gears circumferentially arranged about and intermeshing with the sun gear, each of the planetary gears supported by a bearing; and a carrier supporting the bearings and configured to rotate about the axis and carry the planetary gears, the carrier including a first wall supporting the bearings and having spaced apart lateral surfaces (84, 86), and a scupper arranged between the lateral surfaces and providing an inlet, the inlet having a first circumferential dimension, and a passage fluidly interconnecting the scupper to one of the bearings, the passage having a second circumferential dimension less than the first circumferential dimension, and characterized by said bearings being journal bearings and wherein said inlet is provided in one of the lateral surfaces facing the sun gear. a sun gear rotatable about an axis; planetary gears circumferentially arranged about and intermeshing with the sun gear, each of the planetary gears supported by a bearing; and a carrier supporting the bearings and configured to rotate about the axis and carry the planetary gears, the carrier including a first wall supporting the bearings and having spaced apart lateral surfaces (84, 86), and a scupper arranged between the lateral surfaces and providing an inlet, the inlet having a first circumferential dimension, and a passage fluidly interconnecting the scupper to one of the bearings, the passage having a second circumferential dimension less than the first circumferential dimension, and characterized by said bearings being journal bearings and wherein said inlet is provided in one of the lateral surfaces facing the sun gear.
A bearing cage of bearing device, in particular a ball bearing or roller bearing, the bearing cage comprising an outer flange and a bearing seat, which are joined together via a plurality of spring beams (3, 5, 7), characterized in that the bearing cage is produced by means of a a generative manufacturing method, and that the bearing cage comprises a first intermediate ring joined to the outer flange via first spring beams, and that the first intermediate ring is joined to a second intermediate ring via second spring beams, that the second intermediate ring is joined to the bearing seat via third spring beams, and that the second spring beams are arranged offset with respect to the first spring beams and/or the third spring beams are arranged offset with respect to the second spring beams.
Open end spinning device for an open end spinning machine having a drivable spinning rotor, the rotor cup of which is accommodated in a rotor housing, having a drive for the spinning rotor, which is arranged in a drive housing, and having at least one accommodation for a cover element, which closes the rotor housing during the spinning operation, wherein the open end spinning device has a stop for the cover element for positioning the cover element in the axial direction of the spinning rotor, wherein the stop is of adjustable design, characterized in that the rotor housing has the stop for the cover element.
A membrane bottom for a contact vessel, in particular for oxidation of SO 2 to SO 3, which comprises at least two segments, wherein, each segment, seen in top view parallel to a longitudinal axis L, has a projection surface which is a section of a circular ring about a center M, with the longitudinal axis L extending through the center M; and wherein each segment has an inner edge facing the center, an outer edge opposite the inner edge seen radially from the center, and two side edges, the side edges laterally delimiting the projection surface of the segment from the inner edge to the outer edge in radial direction seen from the center. wherein in order to form the membrane bottom, the at least two segments are arranged adjacent to one another in a plane extending through their projection surfaces and are laterally supported on support surfaces along their radial side edges, while being firmly connected thereto, wherein the support surfaces are provided by a holding means which substantially has an outer shape of a T-beam or Y-beam or cross profile beam, wherein the lateral projections of the T-beam or Y-beam or cross profile beam provide the support surfaces and the length of the T-beam or Y-beam or cross profile beam corresponds to the length of the holding means which is equal to or preferably longer than that of the side edge of the segment. each segment, seen in top view parallel to a longitudinal axis L, has a projection surface which is a section of a circular ring about a center M, with the longitudinal axis L extending through the center M; and wherein each segment has an inner edge facing the center, an outer edge opposite the inner edge seen radially from the center, and two side edges, the side edges laterally delimiting the projection surface of the segment from the inner edge to the outer edge in radial direction seen from the center. wherein in order to form the membrane bottom, the at least two segments are arranged adjacent to one another in a plane extending through their projection surfaces and are laterally supported on support surfaces along their radial side edges, while being firmly connected thereto, wherein the support surfaces are provided by a holding means which substantially has an outer shape of a T-beam or Y-beam or cross profile beam, wherein the lateral projections of the T-beam or Y-beam or cross profile beam provide the support surfaces and the length of the T-beam or Y-beam or cross profile beam corresponds to the length of the holding means which is equal to or preferably longer than that of the side edge of the segment.
A carpet comprising: (a) a primary backing; and (b) a secondary backing comprised of at least two layers, wherein a first layer comprises a flat weave, wherein the first layer comprises an open area of 15% or less and wherein a second layer comprises a fibrous layer and is entangled with the first layer. (a) a primary backing; and (b) a secondary backing comprised of at least two layers, wherein a first layer comprises a flat weave, wherein the first layer comprises an open area of 15% or less and wherein a second layer comprises a fibrous layer and is entangled with the first layer.
Apparatus for applying a layer of material to a leading edge of a wind turbine blade, the apparatus comprising: a flexible substrate capable of supporting the layer of material, the flexible substrate being reconfigurable between convex and concave configurations; and a support structure for supporting the flexible substrate in the concave and convex configurations, wherein, the flexible substrate and support structure are configured such that in use, with the flexible substrate in the convex configuration, the layer of material can be offered up to the leading edge of the wind turbine blade in a convex form to define an initial area of contact between the layer of the material and the leading edge, and thereafter the flexible substrate can be reconfigured into the concave configuration by increasing the area of contact between the layer of material and the leading edge, such that the layer of material is applied to, and adopts to the contours of, at least a portion of the leading edge. a flexible substrate capable of supporting the layer of material, the flexible substrate being reconfigurable between convex and concave configurations; and a support structure for supporting the flexible substrate in the concave and convex configurations, wherein, the flexible substrate and support structure are configured such that in use, with the flexible substrate in the convex configuration, the layer of material can be offered up to the leading edge of the wind turbine blade in a convex form to define an initial area of contact between the layer of the material and the leading edge, and thereafter the flexible substrate can be reconfigured into the concave configuration by increasing the area of contact between the layer of material and the leading edge, such that the layer of material is applied to, and adopts to the contours of, at least a portion of the leading edge.
A method for producing a plant belonging to the family of Solanaceae which has no traits of dwarfism and has a reduced risk for accumulation of glycoalkaloids, comprising suppressing the expression of a gene encoding an enzyme that reduces a double bond between C24 and C25 of the steroid skeleton of a plant belonging to the family Solanaceae, the gene consisting of any of the DNAs (a) to (d) below: (a) DNA consisting of the nucleotide sequence as shown in SEQ ID NO: 2 or 22; (b) DNA consisting of a nucleotide sequence having 85% or higher sequence identity with the nucleotide sequence as shown in SEQ ID NO: 2 or 22 and encoding a protein that reduces a double bond between C24 and C25 of the steroid skeleton of a plant belonging to the family Solanaceae; (c) DNA consisting of a degenerate isomer comprising the nucleotide sequence as shown in SEQ ID NO: 2 or 22; and (d) DNA encoding a protein consisting of the amino acid sequence as shown in SEQ ID NO:1 or 21, i) wherein the gene expression is suppressed by genetic recombination; or ii) wherein the gene expression is suppressed by deletion of a gene that encodes the enzyme. (a) DNA consisting of the nucleotide sequence as shown in SEQ ID NO: 2 or 22; (b) DNA consisting of a nucleotide sequence having 85% or higher sequence identity with the nucleotide sequence as shown in SEQ ID NO: 2 or 22 and encoding a protein that reduces a double bond between C24 and C25 of the steroid skeleton of a plant belonging to the family Solanaceae; (c) DNA consisting of a degenerate isomer comprising the nucleotide sequence as shown in SEQ ID NO: 2 or 22; and (d) DNA encoding a protein consisting of the amino acid sequence as shown in SEQ ID NO:1 or 21, i) wherein the gene expression is suppressed by genetic recombination; or ii) wherein the gene expression is suppressed by deletion of a gene that encodes the enzyme. i) wherein the gene expression is suppressed by genetic recombination; or ii) wherein the gene expression is suppressed by deletion of a gene that encodes the enzyme.
A receiver apparatus configured to receive a data waveform from across a data link, the receiver apparatus comprising: a neural network circuit to: receive a data waveform from the data link; sample the data waveform at a plurality of timing locations of the data waveform; and determine a single bit value for the data waveform based on the sample of the waveform form the plurality of timing locations, wherein the neural network circuit comprises a plurality of delay circuits to delay the data waveform, the plurality of delay circuits comprising: a first delay circuit in series with a second delay circuit (302b, 302a); wherein the neural network circuit comprises a first sampling element at an input to the first delay circuit, a second sampling element at an output of the first delay circuit, and a third sampling element (304b, 304a) at an output of the second delay circuit; and the receiver apparatus further comprising a plurality of activation function circuit elements to apply an activation function to one or more samples of the data waveform; and the receiver apparatus further comprising an output summer circuit, wherein each of the plurality of activation function circuit elements is coupled to the output summer circuit, the output summer circuit is to sum the outputs of each of the plurality of activation function circuit elements and is to output the single bit value representative of an interested bit from the data waveform. a neural network circuit to: receive a data waveform from the data link; sample the data waveform at a plurality of timing locations of the data waveform; and determine a single bit value for the data waveform based on the sample of the waveform form the plurality of timing locations, receive a data waveform from the data link; sample the data waveform at a plurality of timing locations of the data waveform; and determine a single bit value for the data waveform based on the sample of the waveform form the plurality of timing locations, wherein the neural network circuit comprises a plurality of delay circuits to delay the data waveform, the plurality of delay circuits comprising: a first delay circuit in series with a second delay circuit (302b, 302a); wherein the neural network circuit comprises a first sampling element at an input to the first delay circuit, a second sampling element at an output of the first delay circuit, and a third sampling element (304b, 304a) at an output of the second delay circuit; and the receiver apparatus further comprising a plurality of activation function circuit elements to apply an activation function to one or more samples of the data waveform; and the receiver apparatus further comprising an output summer circuit, wherein each of the plurality of activation function circuit elements is coupled to the output summer circuit, the output summer circuit is to sum the outputs of each of the plurality of activation function circuit elements and is to output the single bit value representative of an interested bit from the data waveform.
A light-emitting device fabricated from semiconductor materials, the light-emitting device comprising: a substrate formed from silicon; an optically active layer formed on the substrate, the optically active layer including Si nanocrystals disposed in a dielectric, the optically active layer doped with a rare earth element; an optical cavity in optical communication with the optically active layer, wherein the optical cavity comprises a dielectric layer deposited on an upper surface of the optically active layer, the dielectric layer including a distributed Bragg reflector, the distributed Bragg reflector including two sets of grating teeth, wherein the optical cavity is formed by etching the distributed Bragg reflector at each end of a waveguide structure; and electrical contacts in electrical communication with the optically active layer to electrically excite the optically active layer. a substrate formed from silicon; an optically active layer formed on the substrate, the optically active layer including Si nanocrystals disposed in a dielectric, the optically active layer doped with a rare earth element; an optical cavity in optical communication with the optically active layer, wherein the optical cavity comprises a dielectric layer deposited on an upper surface of the optically active layer, the dielectric layer including a distributed Bragg reflector, the distributed Bragg reflector including two sets of grating teeth, wherein the optical cavity is formed by etching the distributed Bragg reflector at each end of a waveguide structure; and electrical contacts in electrical communication with the optically active layer to electrically excite the optically active layer.