mhurhangee/ep-ind-claims huggingface dataset:
A method of displaying flight information for an aircraft, said method comprising the steps of: storing data associated with the aircraft in a memory device; receiving a first user defined airspeed related to a first aspect of flight of an aircraft; calculating a first calculated static airspeed related to the first aspect of flight based on the data associated with the aircraft; determining a first user defined static position at which the aircraft should achieve the first user defined airspeed with respect to a starting position of the aircraft in geometric coordinates; determining a first calculated static position at which the aircraft should achieve the first calculated static airspeed with respect to the starting position of the aircraft; calculating the difference between the first user defined static position and the first calculated static position; displaying a first position difference indicator indicating the difference between the first user defined static position and the first calculated static position; characterized by displaying a user defined static position marker denoting one of the first user defined static position and the first calculated static position; determining a first calculated dynamic position at which the aircraft should achieve one of the first user defined airspeed and the first calculated airspeed with respect to a current position of the aircraft; and displaying a user defined dynamic position marker denoting the first dynamic position. storing data associated with the aircraft in a memory device; receiving a first user defined airspeed related to a first aspect of flight of an aircraft; calculating a first calculated static airspeed related to the first aspect of flight based on the data associated with the aircraft; determining a first user defined static position at which the aircraft should achieve the first user defined airspeed with respect to a starting position of the aircraft in geometric coordinates; determining a first calculated static position at which the aircraft should achieve the first calculated static airspeed with respect to the starting position of the aircraft; calculating the difference between the first user defined static position and the first calculated static position; displaying a first position difference indicator indicating the difference between the first user defined static position and the first calculated static position; characterized by displaying a user defined static position marker denoting one of the first user defined static position and the first calculated static position; determining a first calculated dynamic position at which the aircraft should achieve one of the first user defined airspeed and the first calculated airspeed with respect to a current position of the aircraft; and displaying a user defined dynamic position marker denoting the first dynamic position.
A method of preparing an animal feed component comprising: grinding a quantity of a pulse crop selected from the group consisting of peas, lentils, chick peas, fababeans, white beans and mixtures thereof into a powder, said powder being ground to a consistency such that at least half of the pulse crop product has a diameter of 5 microns or less; mixing a quantity of intact oil seeds selected from the group consisting of flax, sunflower, safflower, rapeseed, canola, soybean and combinations thereof with the powder, thereby forming a mixture, said mixture being 15-55% pulse crop and 45-85% oil seed; extruding the mixture at a temperature between about 110°C (230°F) to about 176,7 °C (350°F) and a pressure of between about 1379 kPa (200 psi) to about 2758 kPa (400 psi); and forming the mixture into feed components. grinding a quantity of a pulse crop selected from the group consisting of peas, lentils, chick peas, fababeans, white beans and mixtures thereof into a powder, said powder being ground to a consistency such that at least half of the pulse crop product has a diameter of 5 microns or less; mixing a quantity of intact oil seeds selected from the group consisting of flax, sunflower, safflower, rapeseed, canola, soybean and combinations thereof with the powder, thereby forming a mixture, said mixture being 15-55% pulse crop and 45-85% oil seed; extruding the mixture at a temperature between about 110°C (230°F) to about 176,7 °C (350°F) and a pressure of between about 1379 kPa (200 psi) to about 2758 kPa (400 psi); and forming the mixture into feed components.
Telescopic rail system (1; 1') for a household appliance, in particular a cooking appliance, having - a first rail element, - a second rail element which can be displaced in the longitudinal direction relative to the first rail element, - a latching means (5; 5') arranged on the first rail element and - two counter-latching means (15, 16; 15, 16') arranged on the second rail element and corresponding to the latching means (5; 5'), wherein the latching means and the counter-latching means (15, 16; 15, 16') are arranged such that a latching region (11; 12; 12') of the latching means (5; 5') engages in a fully retracted end position of the second rail element with a first counter-latching means and in a fully extended end position of the second rail element with a second counter-latching means (16; 16') and thereby in each case produces a detachable latching connection between the two rail elements (2, 3), characterised in that - the latching means (5; 5') has two latching regions (11, 12; 11, 12'), wherein in a fully retracted position of the second rail element a first latching region of the latching means (5; 5') engages with the first counter-latching means and in a fully extended position of the second rail element a second latching region (12; 12') of the latching means (5, 5') engages with the second counter-latching means (16; 16') and thereby in each case produces a detachable latching connection between the two rail elements (2, 3), and - the two latching regions (11, 12; 11, 12') of the latching means (5; 5') are oriented in different directions. - a first rail element, - a second rail element which can be displaced in the longitudinal direction relative to the first rail element, - a latching means (5; 5') arranged on the first rail element and - two counter-latching means (15, 16; 15, 16') arranged on the second rail element and corresponding to the latching means (5; 5'), - the latching means (5; 5') has two latching regions (11, 12; 11, 12'), wherein in a fully retracted position of the second rail element a first latching region of the latching means (5; 5') engages with the first counter-latching means and in a fully extended position of the second rail element a second latching region (12; 12') of the latching means (5, 5') engages with the second counter-latching means (16; 16') and thereby in each case produces a detachable latching connection between the two rail elements (2, 3), and - the two latching regions (11, 12; 11, 12') of the latching means (5; 5') are oriented in different directions.
An electronic control unit connected to a bus of a first network and to a second network in an onboard network system that includes the first network where transmission of first-type frames relating to traveling control of a vehicle is performed over a bus following a first communication protocol, and the second network where transmission of second-type frames is performed following a second communication protocol that is different from the first communication protocol, the electronic control unit comprising: a first reception buffer; a second reception buffer; a first transmission buffer; a second transmission buffer; a first reception unit that sequentially receives the first-type frames from the bus and stores data within the first-type frames in the first reception buffer; a second reception unit that sequentially receives the second-type frames from the second network and stores data within the second-type frames in the second reception buffer; a generating unit that sequentially generates first-type data that is data for traveling control of the vehicle, and second-type data that is data used for other than traveling control of the vehicle, by referencing the contents of the first reception buffer and the second reception buffer, stores the generated first-type data in the first transmission buffer, and stores the generated second-type data in the second transmission buffer; and a transmission unit that transmits yet-to-be-transmitted first-type data in the first transmission buffer and yet-to-be-transmitted second-type data in the second transmission buffer, wherein the transmission unit performs priority transmission control, where priority type data, which is one of the first-type data and second-type data, is transmitted with priority over non-priority type data that is the other. a first reception buffer; a second reception buffer; a first transmission buffer; a second transmission buffer; a first reception unit that sequentially receives the first-type frames from the bus and stores data within the first-type frames in the first reception buffer; a second reception unit that sequentially receives the second-type frames from the second network and stores data within the second-type frames in the second reception buffer; a generating unit that sequentially generates first-type data that is data for traveling control of the vehicle, and second-type data that is data used for other than traveling control of the vehicle, by referencing the contents of the first reception buffer and the second reception buffer, stores the generated first-type data in the first transmission buffer, and stores the generated second-type data in the second transmission buffer; and a transmission unit that transmits yet-to-be-transmitted first-type data in the first transmission buffer and yet-to-be-transmitted second-type data in the second transmission buffer, wherein the transmission unit performs priority transmission control, where priority type data, which is one of the first-type data and second-type data, is transmitted with priority over non-priority type data that is the other.
A multilayer film which comprises at least two layers and, wherein - layer comprises a multimodal linear low density polyethylene (LLDPE) composition with molecular weight distribution MWD (Mw/Mn) of 8 or more, and - layer comprises a polymer composition selected from a group comprising a low density polyethylene (LDPE) composition, a copolymer of ethylene with one or more of comonomers selected from vinyl acetate and acrylate, linear low density polyethylene (LLDPE) composition with a Mw/Mn of less than 8 or a polypropylene polymer said film having a haze of at least 40%. - layer comprises a multimodal linear low density polyethylene (LLDPE) composition with molecular weight distribution MWD (Mw/Mn) of 8 or more, and - layer comprises a polymer composition selected from a group comprising a low density polyethylene (LDPE) composition, a copolymer of ethylene with one or more of comonomers selected from vinyl acetate and acrylate, linear low density polyethylene (LLDPE) composition with a Mw/Mn of less than 8 or a polypropylene polymer said film having a haze of at least 40%.
Domestic refrigeration device, having a thermally-insulated carcass with an inner container which delimits a coolable interior intended for the storage of food, a refrigeration device for cooling the coolable interior, a door leaf which is intended to close off the coolable interior in the closed state and to make it accessible in the open state, and an interior illumination device fastened to the inner container, especially in a recess of the inner container for illuminating the coolable interior when the door leaf is open, wherein the illumination device has at least one means of illumination and an elongated optical waveguide, and wherein the optical waveguide has a length, two ends, a back side and a front side lying opposite the back side, wherein one of the two ends is optically coupled to the at least one means of illumination or each of the two ends is optically coupled to at least one of the means of illumination, wherein the back side of the optical waveguide has a coupling-out structure, which is an integral component of the back side of the optical waveguide and which is configured to couple out the light coupled into the optical waveguide, at least over a majority of its entire length, out of the waveguide via its front side, and wherein the front side of the optical waveguide is embodied as optics integrated into the optical waveguide in accordance with a desired emission characteristic of the illumination device, characterised in that the optics are embodied as a convex curvature of the front side of the optical waveguide, which preferably runs evenly at least over a majority of the length of the optical waveguide.
A mesh-based composition comprising a mesh and a coating, wherein said coating is a foamed composition comprising one or more cross-linkable proteins or polypeptides and one or more cross-linking materials, wherein at least a portion of said mesh is coated with said coating such that the mesh-based composition comprises two sections, a mesh-adhesive section which is composed of a mesh enclosed within said coating and a coating-only section which contains said coating alone, without mesh within it, wherein the coating-only section surrounds the mesh-adhesive section, and wherein the coated mesh is self-adhering, requires no additional fixation, and is capable of minimizing tissue adhesions upon application.
A microprocessor, comprising: a control unit, configured to selectively control a respective clock signal to each of a plurality of processing cores; the plurality of processing cores, each configured to separately write a value to the control unit; wherein, for each core of the plurality of processing cores, the control unit is configured to turn off the respective clock signal to the core in response to the core writing a value to the control unit; wherein the control unit is configured to detect a condition has occurred by determining that all of the plurality of processing cores have written a value to the control unit and the control unit has turned off the respective clock signal to all of the plurality of processing cores; and wherein the control unit is configured to simultaneously turn on the respective clock signal to all of the plurality of processing cores in response to detecting the condition has occurred. a control unit, configured to selectively control a respective clock signal to each of a plurality of processing cores; the plurality of processing cores, each configured to separately write a value to the control unit; wherein, for each core of the plurality of processing cores, the control unit is configured to turn off the respective clock signal to the core in response to the core writing a value to the control unit; wherein the control unit is configured to detect a condition has occurred by determining that all of the plurality of processing cores have written a value to the control unit and the control unit has turned off the respective clock signal to all of the plurality of processing cores; and wherein the control unit is configured to simultaneously turn on the respective clock signal to all of the plurality of processing cores in response to detecting the condition has occurred.
Method for ascertaining a distance between a patient and an enclosure, which surrounds a patient receiving region, of a magnetic resonance apparatus during a magnetic resonance examination, comprising the following method steps: - providing a first item of size information of the patient, wherein the first size information is provided before starting the magnetic resonance examination, - capturing magnetic resonance data of the patient during the magnetic resonance examination and determining a second item of size information of the patient on the basis of the captured magnetic resonance data, and - ascertaining the distance between the patient and the enclosure surrounding the patient receiving region on the basis of the first size information of the patient and on the basis of the second size information of the patient, wherein, in order to determine the distance between the patient and the enclosure surrounding the patient receiving region, a body model of the patient is determined on the basis of the first size information and on the basis of the second size information, from a subregion of the patient arranged within the patient receiving region. - providing a first item of size information of the patient, wherein the first size information is provided before starting the magnetic resonance examination, - capturing magnetic resonance data of the patient during the magnetic resonance examination and determining a second item of size information of the patient on the basis of the captured magnetic resonance data, and - ascertaining the distance between the patient and the enclosure surrounding the patient receiving region on the basis of the first size information of the patient and on the basis of the second size information of the patient, wherein, in order to determine the distance between the patient and the enclosure surrounding the patient receiving region, a body model of the patient is determined on the basis of the first size information and on the basis of the second size information, from a subregion of the patient arranged within the patient receiving region.
Blade of a turbomachine, in particular a gas turbine, comprising a shroud segment and a blade profile, having a stiffening structure that is raised with respect to a shroud segment surface, wherein the stiffening structure has at least three interconnected ribs (3, 5, 7), and a first end region of the ribs (3, 5, 7) is connected to an upstream sealing tip of the shroud segment and a second end region of these ribs (3, 5, 7) is connected to a downstream sealing tip of the shroud segment, wherein the angles (W1, W2, W3) between the direction of the axis of rotation (a) of the blade and the longitudinal orientations (21, 23, 25) of the ribs (3, 5, 7), in each case viewed in the direction of flow of the turbomachine, are between zero degrees and eighty degrees, wherein the three ribs (3, 5, 7) are substantially straight in their longitudinal orientation (21, 23, 25), wherein the skeleton line of the blade profile, in the radial viewing direction, intersects all three ribs (3, 5, 7) at angles between 30° and 90°.
An oscillatory array of two pairs of integrated VCOs, the VCOs of each pair of VCOs having opposing flux to each other, wherein: a. each VCO includes a1. resonant circuit elements and a2. an inductor formed from a single turn coil (30, 32) positioned on a substantially planar substrate, b. wherein the resonant circuit elements of each VCO (26, 28) are positioned within an area enclosed by the single turn coil (30, 32) of each VCO and substantially within the same plane, and c. wherein the VCOs (26, 28) in each pair of the VCOs are connected in parallel and positioned adjacent each other in the same plane, and d. wherein the single turn coil (30, 32) has a substantially square configuration with four primary sides and slanted corners, and in each pair of VCOs at least one segment of the single turn coil inductor (30, 32) of each VCO (26, 28) is shared between the VCOs, and e. wherein the VCOs in the oscillatory array are arranged so that each VCO has exactly two neighboring VCOs having opposing flux polarities and shares segments of its single turn coil inductor with the two neighboring VCOs and the percentage of each single turn coil inductor that is shared is in the range of approximately 50%. a. each VCO includes a1. resonant circuit elements and a2. an inductor formed from a single turn coil (30, 32) positioned on a substantially planar substrate, a1. resonant circuit elements and a2. an inductor formed from a single turn coil (30, 32) positioned on a substantially planar substrate, b. wherein the resonant circuit elements of each VCO (26, 28) are positioned within an area enclosed by the single turn coil (30, 32) of each VCO and substantially within the same plane, and c. wherein the VCOs (26, 28) in each pair of the VCOs are connected in parallel and positioned adjacent each other in the same plane, and d. wherein the single turn coil (30, 32) has a substantially square configuration with four primary sides and slanted corners, and in each pair of VCOs at least one segment of the single turn coil inductor (30, 32) of each VCO (26, 28) is shared between the VCOs, and e. wherein the VCOs in the oscillatory array are arranged so that each VCO has exactly two neighboring VCOs having opposing flux polarities and shares segments of its single turn coil inductor with the two neighboring VCOs and the percentage of each single turn coil inductor that is shared is in the range of approximately 50%.
A cleaning blade, comprising: an elastic blade having a strip shape; and a supporting member supporting the elastic blade, wherein the cleaning blade is configured to bring a leading end ridgeline portion of the elastic blade into contact with a cleaning target member that is moving, and remove a residual matter from a surface of the cleaning target member, and characterised in that at least a surface layer portion of the elastic blade including the leading end ridgeline portion is formed of a rubber having a hysteresis loss ratio of 15% or less, measured as described in the description. an elastic blade having a strip shape; and a supporting member supporting the elastic blade, wherein the cleaning blade is configured to bring a leading end ridgeline portion of the elastic blade into contact with a cleaning target member that is moving, and remove a residual matter from a surface of the cleaning target member, and characterised in that at least a surface layer portion of the elastic blade including the leading end ridgeline portion is formed of a rubber having a hysteresis loss ratio of 15% or less, measured as described in the description.
A receiving element for a steel frame comprising a support, which has a U-shaped section consisting of two side legs and one connecting leg connecting the two side legs, and two fastening flanges each adjoining a side leg, comprising a counter piece, which encloses a receiving space with the support and has a cover plate arranged opposite to the connecting leg, and comprising a fastening device arranged in the receiving space for fixing a hinge strap, which is inserted into the receiving space, of a door hinge, which is supported on the connecting leg and the cover plate, wherein two contact legs protrude from the cover plate, which, on the inner side, bear with their outer faces against the inner sides of the side legs, and wherein a front leg comprising a recess for inserting the hinge strap into the receiving space adjoins the front side of the cover plate, wherein the support has a rear leg perpendicular to the side legs of the U-shaped section, wherein the contact legs, with their rear edges, meet the front side of the rear leg, and wherein a web, which encompasses the rear leg and bears against the rear side thereof, is bent over on the rear side of the cover plate, characterized in that the front leg is fastened to the support by means of a catch connection and has two catch noses for this purpose, which each engage with an assigned notch, which is laterally arranged on a side leg.
A compound comprising at least one single-domain antibody which binds to human CD1d, wherein the single-domain antibody has complementarity determining regions CDR1, CDR2 and CDR3, wherein the CDR1 comprises an amino acid sequence of SEQ ID NO: 33, CDR2 comprises an amino acid sequence of SEQ ID NO: 54, and CDR3 comprises an amino acid sequence of SEQ ID NO: 75.