mhurhangee/ep-ind-claims huggingface dataset:
A method of manufacturing a high-voltage DC cable joint comprising a multi-wall layered construction having individual concentrically arranged layers, and that the method comprises moulding the joint by the following moulding process steps: A - moulding an inner conductive rubber layer on a mandrel, B - moulding a field grading rubber layer made from a predetermined tailored material formulation on to said conductive rubber layer, C - moulding an insulating rubber layer on to said field grading rubber layer, and D - moulding an outer conductive rubber layer to be arranged on to said insulating rubber layer and on to said field grading rubber layer, wherein the field grading rubber layer is configured to separate and to interconnect the conductive rubber layers (1; 4), and characterized in that the rubber layers are cross-linked by a by-product-free manufacturing method, and wherein the method comprises, prior to step B, mixing insulating rubber and a field grading filler material to achieve the predetermined tailored material formulation that comprises 30-40 w% insulating silicone, 2-12 w% conductive silicone and 50-60 w% of the field grading filler material, such that the conductivity at low electrical field strength of up to 2 kV/mm is about 10 -13 to 10 -11 S/m and at electrical field strength above 4 kV/mm is about 10 -7 to 10 -9 S/m. A - moulding an inner conductive rubber layer on a mandrel, B - moulding a field grading rubber layer made from a predetermined tailored material formulation on to said conductive rubber layer, C - moulding an insulating rubber layer on to said field grading rubber layer, and D - moulding an outer conductive rubber layer to be arranged on to said insulating rubber layer and on to said field grading rubber layer, wherein the field grading rubber layer is configured to separate and to interconnect the conductive rubber layers (1; 4), and characterized in that the rubber layers are cross-linked by a by-product-free manufacturing method, and wherein the method comprises, prior to step B, mixing insulating rubber and a field grading filler material to achieve the predetermined tailored material formulation that comprises 30-40 w% insulating silicone, 2-12 w% conductive silicone and 50-60 w% of the field grading filler material, such that the conductivity at low electrical field strength of up to 2 kV/mm is about 10 -13 to 10 -11 S/m and at electrical field strength above 4 kV/mm is about 10 -7 to 10 -9 S/m.
A loudspeaker comprising: - a magnetic circuit defining at least one air gap, and - a moving assembly adapted to vibrate with respect to the magnetic circuit along an axis of the loudspeaker, the moving assembly comprising a coil carrier, a coil attached to the coil carrier and located in the air gap, a membrane suitable for emitting sound waves, and a connection system connecting the membrane and the coil carrier, the membrane defining a front side of the loudspeaker along the axis, wherein: - the membrane is reversibly movable with respect to the connection system between an assembled position, in which the membrane is secured to the connection system, and a disassembled position, in which the membrane is away from the connection system, and - in the assembled position, the membrane forms a screen between the exterior of the loudspeaker and the magnetic circuit, opposing access to the magnetic circuit from the front side of the loudspeaker in the assembled position, characterized in that the membrane comprises a threaded part adapted to be screwed along the axis into or onto the connection system in the assembled position. - a magnetic circuit defining at least one air gap, and - a moving assembly adapted to vibrate with respect to the magnetic circuit along an axis of the loudspeaker, the moving assembly comprising a coil carrier, a coil attached to the coil carrier and located in the air gap, a membrane suitable for emitting sound waves, and a connection system connecting the membrane and the coil carrier, the membrane defining a front side of the loudspeaker along the axis, - the membrane is reversibly movable with respect to the connection system between an assembled position, in which the membrane is secured to the connection system, and a disassembled position, in which the membrane is away from the connection system, and - in the assembled position, the membrane forms a screen between the exterior of the loudspeaker and the magnetic circuit, opposing access to the magnetic circuit from the front side of the loudspeaker in the assembled position,
A method of processing video in a video processing system comprising the steps of: analyzing a plurality of consecutive images from a video signal; classifying the field of view of each of said plurality of images from said video signal in response to at least one size of a feature of the image; creating sets of sequential images from said plurality of images from said video signal based upon comparisons of metrics of consecutive images; classifying the field of view of each of said sets of sequential images; and selectively applying an image processing algorithm to at least those sets of sequential images representing a particular type of field of view; wherein said classifying the field of view of a set of sequential images comprises a statistical analysis of the classifications of the images in the set. analyzing a plurality of consecutive images from a video signal; classifying the field of view of each of said plurality of images from said video signal in response to at least one size of a feature of the image; creating sets of sequential images from said plurality of images from said video signal based upon comparisons of metrics of consecutive images; classifying the field of view of each of said sets of sequential images; and selectively applying an image processing algorithm to at least those sets of sequential images representing a particular type of field of view; wherein said classifying the field of view of a set of sequential images comprises a statistical analysis of the classifications of the images in the set.
A method for forming an electrolytic capacitor comprising: providing an anode with an anode lead extending therefrom; forming a dielectric on said anode to form an anodized anode; applying a first dispersion wherein said first dispersion comprises conducting polymer and polyanion, wherein said polyanion and conducting polymer are in a first weight ratio thereby forming a first dispersion layer, wherein said first weight ratio is no more than 6; and applying a second dispersion on said first dispersion layer wherein said second dispersion comprises said conducting polymer and said polyanion characterized in that said polyanion and said conducting polymer are in a second weight ratio wherein said second weight ratio is lower than said first weight ratio. providing an anode with an anode lead extending therefrom; forming a dielectric on said anode to form an anodized anode; applying a first dispersion wherein said first dispersion comprises conducting polymer and polyanion, wherein said polyanion and conducting polymer are in a first weight ratio thereby forming a first dispersion layer, wherein said first weight ratio is no more than 6; and applying a second dispersion on said first dispersion layer wherein said second dispersion comprises said conducting polymer and said polyanion characterized in that said polyanion and said conducting polymer are in a second weight ratio wherein said second weight ratio is lower than said first weight ratio.
A process for producing food and beverage products, the process comprising using an immersing liquid of a particle size-controlled malt sprout obtained by immersing said malt sprout in a liquid to allow the components of the malt sprout to seep out into the liquid.
An adaptable ostomy base plate comprising a flexible top film and having at least a first and a second section, at least a first elastic skin-friendly adhesive on a proximal surface of said flexible top film, a stoma-receiving through-going hole in said first section, said first section being adjacent to and extending radially from said through-going hole and said second section surrounding said first section, and one or more release liners, wherein at least said first section has a first substantially convex shape for initial engagement with a peristomal skin surface, characterized in that at least said first section is invertible from a first substantially convex shape to a first substantially concave shape to fittingly engage said first section to a topography of the peristomal skin surface for permanent engagement thereto, wherein said second section has a second substantially concave shape.
A method performed in a radio base station of a telecommunication network for indicating a status of the radio base station wherein said method comprises: generating a congestion status flag based on a measured usage of a transport network associated with said radio base station and based on a measured performance of said radio base station, wherein the flag has more than two possible values, and wherein highest and lowest of said values indicate full congestion and no congestion, respectively, and one or more intermediate values indicate respective different intermediate levels of congestion; and sending said congestion status flag to at least one other radio base station. generating a congestion status flag based on a measured usage of a transport network associated with said radio base station and based on a measured performance of said radio base station, wherein the flag has more than two possible values, and wherein highest and lowest of said values indicate full congestion and no congestion, respectively, and one or more intermediate values indicate respective different intermediate levels of congestion; and sending said congestion status flag to at least one other radio base station.
A microwave-heating crisp plate, comprising: a body defining a food-supporting surface and an outer surface opposite the food-supporting surface, characterized by a coating applied over at least a portion of the outer surface, including: a base polymer material defining a matrix; carbon nanotubes having a low Curie temperature of about 210 °C; and ferrite particles having a high Curie temperature of about 350 °C; wherein the carbon nanotubes and the ferrite particles are dispersed throughout the matrix. a body defining a food-supporting surface and an outer surface opposite the food-supporting surface, characterized by a coating applied over at least a portion of the outer surface, including: a base polymer material defining a matrix; carbon nanotubes having a low Curie temperature of about 210 °C; and ferrite particles having a high Curie temperature of about 350 °C; a base polymer material defining a matrix; carbon nanotubes having a low Curie temperature of about 210 °C; and ferrite particles having a high Curie temperature of about 350 °C; wherein the carbon nanotubes and the ferrite particles are dispersed throughout the matrix.
A method comprising: facilitating receipt of a first image and a second image, the first image and the second image being associated with a scene; determining a first aggregated cost volume associated with pixels of the first image for a plurality of disparity values, and determining a second aggregated cost volume associated with pixels of the second image for the plurality of disparity values; generating a first disparity map of the first image based on the first aggregated cost volume and generating a second disparity map of the second image based on the second aggregated cost volume; generating a confidence map for disparity values of the pixels of the first image in the first disparity map based on the first aggregated cost volume, the confidence map representing a set of confident pixels from the pixels of the first image; determining one or more infinity regions in the first image by determining a color segment in the first image as an infinity region if the color segment of the first image has a number of confident pixels exceeding a threshold percentage of total pixels present in the color segment; and generating a third disparity map based on the first disparity map by determining filtered disparity values for the pixels of the first image, wherein filtered disparity values for pixels of the one or more infinity regions in the first image are determined as a pre-defined disparity value. facilitating receipt of a first image and a second image, the first image and the second image being associated with a scene; determining a first aggregated cost volume associated with pixels of the first image for a plurality of disparity values, and determining a second aggregated cost volume associated with pixels of the second image for the plurality of disparity values; generating a first disparity map of the first image based on the first aggregated cost volume and generating a second disparity map of the second image based on the second aggregated cost volume; generating a confidence map for disparity values of the pixels of the first image in the first disparity map based on the first aggregated cost volume, the confidence map representing a set of confident pixels from the pixels of the first image; determining one or more infinity regions in the first image by determining a color segment in the first image as an infinity region if the color segment of the first image has a number of confident pixels exceeding a threshold percentage of total pixels present in the color segment; and generating a third disparity map based on the first disparity map by determining filtered disparity values for the pixels of the first image, wherein filtered disparity values for pixels of the one or more infinity regions in the first image are determined as a pre-defined disparity value.
A method for communication between a first Near Field Communications, NFC, device and a second NFC device which perform NFC, the method comprising: (a) transmitting (110,130), by a first NFC device, a data frame for providing a power source to operate a second NFC device to the second NFC device; (b) receiving (120,140), by the first NFC device, a response frame comprising a Logical Link Control, LLC, information frame including a more-data bit indicator set by the second NFC device, responding to the data frame in (a); and (c) checking, by the first NFC device, the more-data bit of the received response frame and waiting for a predetermined time to transmit a next data frame for providing a power source to operate the second NFC device if the more-date bit indicates the absence of more data or immediately transmitting the next data frame for providing the power source to operate the second NFC device without waiting for the predetermined time if the more-date bit indicates the presence of more data. (a) transmitting (110,130), by a first NFC device, a data frame for providing a power source to operate a second NFC device to the second NFC device; (b) receiving (120,140), by the first NFC device, a response frame comprising a Logical Link Control, LLC, information frame including a more-data bit indicator set by the second NFC device, responding to the data frame in (a); and (c) checking, by the first NFC device, the more-data bit of the received response frame and waiting for a predetermined time to transmit a next data frame for providing a power source to operate the second NFC device if the more-date bit indicates the absence of more data or immediately transmitting the next data frame for providing the power source to operate the second NFC device without waiting for the predetermined time if the more-date bit indicates the presence of more data.
A flexible material for a flexible container comprising a fillable structural support volume and a product volume, the flexible material comprising a first laminate comprising a first gas barrier layer disposed between first and second sealable layers (2014, 2016), wherein the first and second sealable layers define opposed exterior layers of the first laminate, and characterized in that the flexible material further comprises: a second laminate joined to at least a portion of the first laminate by at least one seal, the second laminate comprising a third sealable layer defining an exterior layer of the second laminate, and a second gas barrier layer; wherein: the at least one seal joins a portion of the third sealable layer to at least a portion of the second sealable layer and defining at least one boundary of the structural support volume, the structural support volume being disposed between the first and second laminates, said fillable structural support volume between the first and second laminates forming a fillable space wherein the space is configured to be at least partially filled with one or more expansion materials, which can create tension in the one or more flexible materials, to form an expanded structural support volume; the at least one seal has a seal strength of 20 N/m to 10,000 N/m, as measured by ASTM F 88/F 88M - 09 with technique B (supported at 90 degrees) run at 200 mm/min in a tensile testing machine with specimens cut to 25.4 mm width, the layers of the first laminate have a lamination strength between each adjacent layer of 2 N/m to 10,000 N/m, as measured by ASTM F904-98 using a draw rate of 280 mm/min and with an unseparated portion of the sample left lose to move freely, and the layers of the second laminate have lamination strength between each adjacent layer of 2 N/m to 10,000 N/m. the at least one seal joins a portion of the third sealable layer to at least a portion of the second sealable layer and defining at least one boundary of the structural support volume, the structural support volume being disposed between the first and second laminates, said fillable structural support volume between the first and second laminates forming a fillable space wherein the space is configured to be at least partially filled with one or more expansion materials, which can create tension in the one or more flexible materials, to form an expanded structural support volume; the at least one seal has a seal strength of 20 N/m to 10,000 N/m, as measured by ASTM F 88/F 88M - 09 with technique B (supported at 90 degrees) run at 200 mm/min in a tensile testing machine with specimens cut to 25.4 mm width, the layers of the first laminate have a lamination strength between each adjacent layer of 2 N/m to 10,000 N/m, as measured by ASTM F904-98 using a draw rate of 280 mm/min and with an unseparated portion of the sample left lose to move freely, and the layers of the second laminate have lamination strength between each adjacent layer of 2 N/m to 10,000 N/m.
An MSM device including an element for producing motion and/or force, said device being selected from the group of actuators, sensor and energy harvesters and said element comprising a magnetic shape memory alloy specimen which has 5M-crystal structure in which twin boundary motion is facilitated primarily by twin boundaries type 2 with twinning plane deviating about + 2-4 degrees from the or equivalent crystallographic plane by rotation about [-101] or equivalent crystallographic direction wherein the alloy is 5-layered Ni-Mn-Ga magnetic shape memory alloy, and wherein the MSM effect is based on the rearrangement of crystallographic domains (twin variants) in an applied magnetic field, which lowers magnetization energy and wherein the twinning stress for the MSM alloy specimen is less than 0.3MPa.
A system comprising: a downhole tool (50; 72) having a plurality of electric leads; and a release device (56; 74) comprising: an outer shell configured to mechanically couple to the downhole tool, wherein the outer shell is configured to form a cavity that is fluidly separate from wellbore fluids contained within a wellbore while the outer shell is mechanically coupled to the downhole tool; a contact block configured to electrically couple to the plurality of electric leads, wherein the contact block is configured to electrically decouple from the plurality of electric leads while the outer shell remains mechanically coupled to the downhole tool, and wherein the contact block is configured to remain in the cavity after electrically decoupling from the plurality of electric leads; a driveshaft coupled to the outer shell and the contact block; and a motor coupled to the driveshaft, wherein the motor is configured to rotate the driveshaft to electrically decouple or mechanically decouple, or both, the release device, from the downhole tool; wherein rotation of the driveshaft causes the release device to electrically decouple the contact block from the plurality of electric leads, and to mechanically decouple the outer shell from the downhole tool and wherein rotation of the contact block about a first direction is configured to electrically decouple the contact block from the plurality of electric leads, and rotation of the outer shell about a second direction, opposite of the first direction, is configured to mechanically decouple the outer shell from the downhole tool. a downhole tool (50; 72) having a plurality of electric leads; and a release device (56; 74) comprising: an outer shell configured to mechanically couple to the downhole tool, wherein the outer shell is configured to form a cavity that is fluidly separate from wellbore fluids contained within a wellbore while the outer shell is mechanically coupled to the downhole tool; a contact block configured to electrically couple to the plurality of electric leads, wherein the contact block is configured to electrically decouple from the plurality of electric leads while the outer shell remains mechanically coupled to the downhole tool, and wherein the contact block is configured to remain in the cavity after electrically decoupling from the plurality of electric leads; a driveshaft coupled to the outer shell and the contact block; and a motor coupled to the driveshaft, wherein the motor is configured to rotate the driveshaft to electrically decouple or mechanically decouple, or both, the release device, from the downhole tool; wherein rotation of the driveshaft causes the release device to electrically decouple the contact block from the plurality of electric leads, and to mechanically decouple the outer shell from the downhole tool and wherein rotation of the contact block about a first direction is configured to electrically decouple the contact block from the plurality of electric leads, and rotation of the outer shell about a second direction, opposite of the first direction, is configured to mechanically decouple the outer shell from the downhole tool.
Sealing unit for a ceiling or wall feed-through in a multilayered ceiling or wall structure comprising at least one load-bearing boarding layer, a barrier layer, and an insulating layer, wherein the sealing unit comprises a feed-through body, which is to be sealingly arranged in an aperture forming the ceiling or wall feed-through, and at least a first clamping element for attaching said feed-through body to the at least one load-bearing boarding layer, characterized in that said feed-through body is integrally formed and comprises two cylindrical tube portions (10, 11) having different diameters and a shoulder portion, wherein the tube portions (10, 11) are integrally connected to each other via the shoulder portion, wherein the shoulder portion is configured so that, for sealing the aperture extending through the barrier layer, the barrier layer can be pressed, over its entire surface, onto the shoulder portion by using the first clamping element acting on the first tube portion, wherein the length of the first tube portion is such that the feed-through body can be clamped together with the barrier layer and the load-bearing boarding layer which is arranged between the shoulder portion and the first clamping element and a second clamping element is provided which is acting on the second tube portion and serves for clamping the feed-through body into the ceiling or wall structure.