mhurhangee/ep-ind-claims huggingface dataset:
A service offloading method, comprising: acquiring, by a base station, - preset access network discovery and selection function, ANDSF, policy information, - load information of an access point, AP, of a wireless local area network, WLAN, and - service information of user equipment, UE including a source IP, a source port, a destination IP, a destination port, a protocol type, and service type information of the UE; determining, by the base station according to the preset ANDSF policy information, an offloading decision corresponding to a combination of the load information of the AP, the service information of the UE, and load information, which is recorded in the base station of a 3rd Generation Partnership Project, 3GPP network, wherein the ANDSF policy information comprises a correspondence between a possible combination of the load information of the AP, the service information of the UE, and the load information, which is recorded in the base station of the 3GPP network, and the offloading decision; and delivering, by the base station, the offloading decision to the UE, so that the UE offloads a service to the 3GPP network or the WLAN according to the offloading decision. acquiring, by a base station, - preset access network discovery and selection function, ANDSF, policy information, - load information of an access point, AP, of a wireless local area network, WLAN, and - service information of user equipment, UE including a source IP, a source port, a destination IP, a destination port, a protocol type, and service type information of the UE; - preset access network discovery and selection function, ANDSF, policy information, - load information of an access point, AP, of a wireless local area network, WLAN, and - service information of user equipment, UE including a source IP, a source port, a destination IP, a destination port, a protocol type, and service type information of the UE; determining, by the base station according to the preset ANDSF policy information, an offloading decision corresponding to a combination of the load information of the AP, the service information of the UE, and load information, which is recorded in the base station of a 3rd Generation Partnership Project, 3GPP network, wherein the ANDSF policy information comprises a correspondence between a possible combination of the load information of the AP, the service information of the UE, and the load information, which is recorded in the base station of the 3GPP network, and the offloading decision; and delivering, by the base station, the offloading decision to the UE, so that the UE offloads a service to the 3GPP network or the WLAN according to the offloading decision.
Panel, in particular wall, ceiling or floor panel, comprising a carrier plate having a front side and a rear side, wherein the carrier plate has, at least on the front side, a layer system which, starting from the front side, has a first elastic layer S1 composed of a polymer and a second layer S2 composed of a polymer, characterized in that the first elastic layer S1 has a thickness of 40 to 600 μm and a Martens hardness M S1 of 0.5 to 120 N/mm 2, wherein the hardness of the elastic layer S1 is constant over the entire thickness and the differences in hardness within the layer are less than 20 N/mm 2 over the entire thickness; and the second layer S2 has a thickness of 10 to 180 μm and a Martens hardness M S2, wherein M S2 > M S1; and an intermediate region ZB exists between the two layers S1 and S2, with a Martens hardness M ZB, wherein M S2 > M ZB ≥ M S1, wherein the Martens hardnesses are determined according to DIN EN ISO 14577 as disclosed in the description. the second layer S2 has a thickness of 10 to 180 μm and a Martens hardness M S2, wherein M S2 > M S1; and an intermediate region ZB exists between the two layers S1 and S2, with a Martens hardness M ZB, wherein M S2 > M ZB ≥ M S1, wherein the Martens hardnesses are determined according to DIN EN ISO 14577 as disclosed in the description.
An insulated conductive wire assembly for incorporation in a pressure balanced, oil-filled hose, comprising: a pair of conductive wires, each wire having an insulation layer surrounding the conductive wire; an insulating material surrounding the insulated wires; and an outer insulating layer surrounding the insulating material; the assembly having a predetermined impedance Z, wherein the predetermined impedance Z is at least substantially unchanged when the assembly is submerged in a pressure balanced, oil filled jumper hose. a pair of conductive wires, each wire having an insulation layer surrounding the conductive wire; an insulating material surrounding the insulated wires; and an outer insulating layer surrounding the insulating material; the assembly having a predetermined impedance Z, wherein the predetermined impedance Z is at least substantially unchanged when the assembly is submerged in a pressure balanced, oil filled jumper hose.
A method of combined exchange of image data and further data being depth or disparity values related to the image data between a transmitting unit and a multi-view display device over an RGB link, the image data being represented by a first two-dimensional matrix of image data elements and the further data being represented by a second two-dimensional matrix of further data elements, the method comprising - providing the first two-dimensional matrix and the second two-dimensional matrix to the transmitting unit, - combining the first two-dimensional matrix, the second two-dimensional matrix, and metadata into a combined two-dimensional matrix of data elements, the meta-data being descriptive data of the combined two-dimensional matrix, - transmitting the combined two-dimensional matrix over the RGB link to the multi-view display device, - whereby the rows of the combined two-dimensional matrix are filled by interleaving rows of the matrices of the set of the two-dimensional matrices, comprising the first and the second two-dimensional matrix so that a process of rendering, for which both image data and depth related data are needed, may start as soon as only a portion of the combined two-dimensional matrix is exchanged. - providing the first two-dimensional matrix and the second two-dimensional matrix to the transmitting unit, - combining the first two-dimensional matrix, the second two-dimensional matrix, and metadata into a combined two-dimensional matrix of data elements, the meta-data being descriptive data of the combined two-dimensional matrix, - transmitting the combined two-dimensional matrix over the RGB link to the multi-view display device, - whereby the rows of the combined two-dimensional matrix are filled by interleaving rows of the matrices of the set of the two-dimensional matrices, comprising the first and the second two-dimensional matrix so that a process of rendering, for which both image data and depth related data are needed, may start as soon as only a portion of the combined two-dimensional matrix is exchanged.
A reference-line referenced data set (408, 704) for use in a method of capturing linear features along a reference line (506, 602, 710) across a surface for use in a map database, comprising a plurality of sets of image data and associated data defining a reference-line (506, 602, 710) across a surface in a geographic coordinate reference system, the sets of image data having pixels wherein a set of image data corresponds to an orthorectified view representation of a line section of the surface in the geographic coordinate reference system, each set of image data comprises a reference pixel being associated with a position on the reference-line, wherein each pixel represents a surface having a position at a predefined distance from the position of the reference pixel along the line section, and wherein the line section perpendicularly crosses the reference-line (506, 602, 710) at the position associated with the reference pixel.
An element made by papermaking for use in the production of a casting, which comprises an organic fiber, an inorganic fiber and an organic binder, said element being hollow, wherein the papermaking includes a step for preparing a preform using a papermaking mold having a cavity in conformity to the contour of the preform into which a slurry is poured under a predetermined pressure of 0.01 to 5 MPa, said mold is composed of a pair of splits that are joined together to form the cavity, each of the splits has a plurality of interconnecting holes connecting the cavity and the outside, the inner wall of each split is covered with a screen having a predetermined mesh size, wherein the slurry contains the organic fiber and the inorganic fiber, the organic binder is either contained in the slurry or infiltrated into the preform.
A foundation comprising: a concrete support slab having a horizontal rebar grid therein, a concrete pedestal integral with the support slab and having vertical post tensioning elements therein, a plurality of concrete ribs on top of and integral with the support slab and integral with the pedestal, the ribs having rebar therein and extend outwardly from the pedestal, the pedestal, slab and ribs are connected to each other to form a monolithic foundation. a concrete support slab having a horizontal rebar grid therein, a concrete pedestal integral with the support slab and having vertical post tensioning elements therein, a plurality of concrete ribs on top of and integral with the support slab and integral with the pedestal, the ribs having rebar therein and extend outwardly from the pedestal, the pedestal, slab and ribs are connected to each other to form a monolithic foundation.
A mechanical component being one of a turboengine blading member, an airfoil, and a leading edge member of an airfoil and exhibiting at least a part of an airfoil profile, comprising a pressure side contour, a suction side contour, and a stagnation point provided therebetween, the component further comprising an internal hollow space and a wall, the wall limiting the hollow space, wherein the component has an outer surface (11, 12) being constituted by a surface of the wall, wherein on the outer surface (11, 12), the outer contour of the component exhibits the stagnation point upstream, and in a downstream direction, the outer surface extends from the stagnation point with the pressure side contour and the suction side contour, the mechanical component further comprising: a first channel extending inside the wall along a first, spanwise direction (r) of the component and along at least a part of the extent of the wall in the first direction, a second channel extending inside the wall and provided in fluid communication with the internal hollow space and the first channel, and intended to serve as a feed channel, wherein a cross-sectional dimension of the first channel is larger than a cross-sectional dimension of the feed channel, and the feed channel is arranged to tangentially join into the first channel, whereby the first channel is configured as a cyclone channel, a third channel extending inside the wall and in fluid communication with the first channel, characterized in that the first channel extends underneath the outer surface in the stagnation point area in the first direction, and the third channel extends inside the wall and at least essentially parallel to the pressure side surface of the wall along at least a part of the extent of the wall in a second direction being different from the first direction, and is intended to serve as a near wall cooling channel. a first channel extending inside the wall along a first, spanwise direction (r) of the component and along at least a part of the extent of the wall in the first direction, a second channel extending inside the wall and provided in fluid communication with the internal hollow space and the first channel, and intended to serve as a feed channel, wherein a cross-sectional dimension of the first channel is larger than a cross-sectional dimension of the feed channel, and the feed channel is arranged to tangentially join into the first channel, whereby the first channel is configured as a cyclone channel, a third channel extending inside the wall and in fluid communication with the first channel, characterized in that the first channel extends underneath the outer surface in the stagnation point area in the first direction, and the third channel extends inside the wall and at least essentially parallel to the pressure side surface of the wall along at least a part of the extent of the wall in a second direction being different from the first direction, and is intended to serve as a near wall cooling channel.
Chassis for a road finishing machine or a charger vehicle, comprising at least one first longitudinal beam which extends at least in sections laterally along an engine compartment of the road finishing machine or charger vehicle, the longitudinal beam comprising a step which divides the longitudinal beam into an external longitudinal beam section and an internal longitudinal beam section, the internal longitudinal beam section forming a receiving area by the step in which a first cover element can be received, characterized in that an outer side of the internal longitudinal beam section is offset relative to an outer side of the external longitudinal beam section towards the engine compartment of the road finishing machine or charger vehicle by the step.
A method for generating an n dimensional vector as a shape descriptor of a computer graphics model, comprising: calculating a type element of the vector, wherein the type element is one of n elements of the vector and describes the basic shape of the computer graphics model; and wherein the computer graphics model is a 3D computer graphics model and wherein a feature of the 3D computer graphics model comprises a vertex, a triangle, or an edge of the 3D computer graphics model; calculating metric elements being n-1 elements of the vector other than the type element, by: dividing a bounding box of the 3D computer graphics model by n-1 embedded shapes determined as a function of the type element to deliver n-1 layers of the 3D computer graphics model, said n-1 embedded shapes having the same centre being the centre of the 3D computer graphics model; counting the number of occurrences of a feature of the 3D computer graphics model falling into each of the n-1 layers of the 3D computer graphics model, each of the metric element being associated with any one of n-1 layers of the 3D computer graphics model and representing the percentage of the counted occurrences of a feature of the 3D computer graphics model into the associated layer. calculating a type element of the vector, wherein the type element is one of n elements of the vector and describes the basic shape of the computer graphics model; and wherein the computer graphics model is a 3D computer graphics model and wherein a feature of the 3D computer graphics model comprises a vertex, a triangle, or an edge of the 3D computer graphics model; calculating metric elements being n-1 elements of the vector other than the type element, by: dividing a bounding box of the 3D computer graphics model by n-1 embedded shapes determined as a function of the type element to deliver n-1 layers of the 3D computer graphics model, said n-1 embedded shapes having the same centre being the centre of the 3D computer graphics model; counting the number of occurrences of a feature of the 3D computer graphics model falling into each of the n-1 layers of the 3D computer graphics model, each of the metric element being associated with any one of n-1 layers of the 3D computer graphics model and representing the percentage of the counted occurrences of a feature of the 3D computer graphics model into the associated layer. dividing a bounding box of the 3D computer graphics model by n-1 embedded shapes determined as a function of the type element to deliver n-1 layers of the 3D computer graphics model, said n-1 embedded shapes having the same centre being the centre of the 3D computer graphics model; counting the number of occurrences of a feature of the 3D computer graphics model falling into each of the n-1 layers of the 3D computer graphics model, each of the metric element being associated with any one of n-1 layers of the 3D computer graphics model and representing the percentage of the counted occurrences of a feature of the 3D computer graphics model into the associated layer.
A method of producing a molded product, comprising: treating a cold-rolled metal sheet having a bcc structure and a surface that satisfies either of the following conditions (a) or (b); and molding the metal sheet to cause plane strain tensile deformation and biaxial tensile deformation and allowing at least a part of the metal sheet to have a sheet thickness decrease rate of from 10% to 30%: (a) an area fraction of crystal grains having a crystal orientation of 15° or less relative to a plane parallel to the surface of the metal sheet is from 0.20 to 0.35; (b) the area fraction of crystal grains having a crystal orientation of 15° or less relative to a plane parallel to the surface of the metal sheet is 0.45 or less, and an average crystal grain size thereof is 15 μm or less, wherein the area fraction of crystal grains and the crystal orientation are measured by SEM observation and EBSD method according to the description. treating a cold-rolled metal sheet having a bcc structure and a surface that satisfies either of the following conditions (a) or (b); and molding the metal sheet to cause plane strain tensile deformation and biaxial tensile deformation and allowing at least a part of the metal sheet to have a sheet thickness decrease rate of from 10% to 30%: (a) an area fraction of crystal grains having a crystal orientation of 15° or less relative to a plane parallel to the surface of the metal sheet is from 0.20 to 0.35; (b) the area fraction of crystal grains having a crystal orientation of 15° or less relative to a plane parallel to the surface of the metal sheet is 0.45 or less, and an average crystal grain size thereof is 15 μm or less, (a) an area fraction of crystal grains having a crystal orientation of 15° or less relative to a plane parallel to the surface of the metal sheet is from 0.20 to 0.35; (b) the area fraction of crystal grains having a crystal orientation of 15° or less relative to a plane parallel to the surface of the metal sheet is 0.45 or less, and an average crystal grain size thereof is 15 μm or less, wherein the area fraction of crystal grains and the crystal orientation are measured by SEM observation and EBSD method according to the description.
A refrigerant for a cooling device (10, 23, 30, 36, 43) having a cooling circuit (11, 24, 39, 44) comprising at least one heat exchanger (12, 25, 47) in which the refrigerant undergoes a phase transition, the refrigerant being a refrigerant mixture composed of a mass fraction of carbon dioxide (CO 2) and a mass fraction of at least one other component, the other component being pentafluoroethane (C 2 HF 5) and difluoromethane (CH 2 F 2), characterized in that the mass fraction of carbon dioxide in the refrigerant mixture is 33 to 38 mass percent, a mass fraction of pentafluoroethane being 33.5 to 31 mass percent, and a mass fraction of difluoromethane being 33.5 to 31 mass percent.
An absorbent article for absorbing blood having a liquid-permeable top sheet, a liquid-impermeable back sheet, and an absorbent body between the top sheet and back sheet, wherein the top sheet has a blood slipping agent-containing first region and a blood slipping agent-containing second region each having a coating consisting of a blood slipping agent or a blood slipping agent-containing composition, wherein the blood slipping agent-containing composition includes the blood slipping agent and a basis weight of 0.0 to 1.0 g/m 2 of a surfactant, and wherein the blood slipping agent has a kinematic viscosity of 0.01 to 80 mm 2 /s at 40°C measured according to JIS K 2283:2000, "5. Kinematic Viscosity Test Method", using a Cannon-Fenske reverse-flow viscometer, at a testing temperature of 40°C, a water holding percentage of 0.01 to 4.0 mass% as described in the description and a weight-average molecular weight of less than 1,000 as described in the description, the blood slipping agent-containing first region overlaps at least partially with an excretory opening contact region of the top sheet that is in contact with an excretory opening of a wearer, and the blood slipping agent-containing second region is situated further toward a back side in a lengthwise direction of the absorbent article than the blood slipping agent-containing first region, a basis weight of the blood slipping agent in the blood slipping agent-containing first region is greater than a basis weight of the blood slipping agent in the blood slipping agent-containing second region, and the absorbent article is an individually packaged absorbent article formed by folding the absorbent article several times along a plurality of folding axes with the top sheet on an inner side.
Method for operating a power tool which is equipped with an impact-generating mechanism for generating a rotary impact force, for screwing a self-drilling and thread-cutting screw into a workpiece, wherein, after activation of the power tool, an electric motor is driven in order to screw the screw into the workpiece, wherein, as the screw is being screwed in, in a zeroth phase (t0<t<t1) an increase in the rotational speed takes place, wherein a rotational speed of the electric motor increases rapidly in order, after a maximum rotational speed is achieved, to decrease somewhat as far as the end of the zeroth phase, wherein, in a subsequent first phase (tl<t<t2), the rotational speed of the electric motor slightly fluctuates in order to decrease somewhat as far as the end of the first phase, wherein, in a subsequent second phase (t2<t<t3), the impact-generating mechanism is activated such that the screw cuts a thread into the workpiece, and the rotational speed of the electric motor drops, wherein, in a subsequent third phase (t3<t<t4), the rotational speed of the electric motor greatly increases and the impact-generating mechanism is deactivated, wherein, in a subsequent fourth phase (t4<t<t5), the impact-generating mechanism is activated, and the rotational speed of the electric motor is determined during a predetermined initial period of the impact mode of the power tool, wherein the rotational speed of the electric motor is determined after the initial period, and, at the end of the fourth phase, a torque of the electric motor is at least reduced if the determined rotational speed of the electric motor exceeds a predetermined rotational speed limit, and wherein a voltage of the electric motor is increased in the zeroth phase as far as a maximum voltage at the end of the zeroth phase and the voltage is kept substantially constant as far as the end of the fourth phase, at the end of the fourth phase the voltage is reduced and/or a coupling between the electric motor and a socket of the screw opens and, after a predetermined run-down time, the voltage is completely switched off or at least falls below a value at which the electric motor rotates.