mhurhangee/ep-ind-claims huggingface dataset:
An absorbent article including an up-down direction, a right-left direction, and a front-rear direction, which intersect with each other, comprising: a front-side waist part; and a rear-side waist part, at least one of the front-side waist part and the rear-side waist part including an elastic member (25, 35) that expands and contracts in the right-left direction and holes penetrating in the front-rear direction for improving air permeability when wearing the absorbent article, wherein each of the front-side waist part and the rear-side waist part includes the holes, of the front-side waist part and the rear-side waist part, a waist part on another side with a greater contractile force in the right-left direction includes more of the holes than a waist part on one side with a smaller contractile force in the right-left direction, and the contractile force is a force that maintains a contraction state of the front side wait part or the rear-side waist part when in a natural state, the waist part with the greatest contractile force being measured as described in the description. a front-side waist part; and a rear-side waist part, at least one of the front-side waist part and the rear-side waist part including an elastic member (25, 35) that expands and contracts in the right-left direction and holes penetrating in the front-rear direction for improving air permeability when wearing the absorbent article, wherein each of the front-side waist part and the rear-side waist part includes the holes, of the front-side waist part and the rear-side waist part, a waist part on another side with a greater contractile force in the right-left direction includes more of the holes than a waist part on one side with a smaller contractile force in the right-left direction, and the contractile force is a force that maintains a contraction state of the front side wait part or the rear-side waist part when in a natural state, the waist part with the greatest contractile force being measured as described in the description. an elastic member (25, 35) that expands and contracts in the right-left direction and holes penetrating in the front-rear direction for improving air permeability when wearing the absorbent article, wherein each of the front-side waist part and the rear-side waist part includes the holes, of the front-side waist part and the rear-side waist part, a waist part on another side with a greater contractile force in the right-left direction includes more of the holes than a waist part on one side with a smaller contractile force in the right-left direction, and the contractile force is a force that maintains a contraction state of the front side wait part or the rear-side waist part when in a natural state, the waist part with the greatest contractile force being measured as described in the description.
A dye-sensitized solar cell unit (1;1') comprising: - a working electrode comprising a porous light-absorbing layer, - a porous first conductive layer including conductive material for extracting photo-generated electrons from the light-absorbing layer, wherein the light-absorbing layer is arranged on top of the first conductive layer, - a porous insulating layer made of an insulating material, wherein the first conductive layer is formed on one side of the porous insulating layer, - a counter electrode comprising a porous catalytic conductive layer (106; 106') formed on the opposite side of the porous insulating layer, and - an ionic based electrolyte for transferring electrons from the counter electrode to the working electrode and arranged in pores of the porous first conductive layer, the porous catalytic conductive layer (106; 106'), and the porous insulating layer, wherein the first conductive layer comprises an insulating oxide layer formed on the surfaces of the conductive material, and the porous catalytic conductive layer (106; 106') comprises conductive material and catalytic particles (107") distributed in the conductive material for improving the transfer of electrons from the conductive material to the electrolyte, characterized in that the thickness of said insulating oxide layer is between 10 and 200 nm, such that the solar cell unit (1;1') generates a voltage varying less than 40% when the light intensity received by the light-absorbing layer is varying between 200 and 50 000 Lux. - a working electrode comprising a porous light-absorbing layer, - a porous first conductive layer including conductive material for extracting photo-generated electrons from the light-absorbing layer, wherein the light-absorbing layer is arranged on top of the first conductive layer, - a porous insulating layer made of an insulating material, wherein the first conductive layer is formed on one side of the porous insulating layer, - a counter electrode comprising a porous catalytic conductive layer (106; 106') formed on the opposite side of the porous insulating layer, and - an ionic based electrolyte for transferring electrons from the counter electrode to the working electrode and arranged in pores of the porous first conductive layer, the porous catalytic conductive layer (106; 106'), and the porous insulating layer, wherein the first conductive layer comprises an insulating oxide layer formed on the surfaces of the conductive material, and the porous catalytic conductive layer (106; 106') comprises conductive material and catalytic particles (107") distributed in the conductive material for improving the transfer of electrons from the conductive material to the electrolyte, characterized in that the thickness of said insulating oxide layer is between 10 and 200 nm, such that the solar cell unit (1;1') generates a voltage varying less than 40% when the light intensity received by the light-absorbing layer is varying between 200 and 50 000 Lux.
A communication system comprising: an omnidirectional antenna adapted to receive a wideband primary signal; and a beam antenna oriented towards a jammer to receive a jamming signal; characterised by a controller adapted to rotate the beam antenna in various directions for testing the strength of the jamming signal and orientating the beam antenna to a direction which provides a highest strength jamming signal and to subtract a processed jamming signal from a processed wideband primary signal to produce a jamming cancelled signal. an omnidirectional antenna adapted to receive a wideband primary signal; and a beam antenna oriented towards a jammer to receive a jamming signal; characterised by a controller adapted to rotate the beam antenna in various directions for testing the strength of the jamming signal and orientating the beam antenna to a direction which provides a highest strength jamming signal and to subtract a processed jamming signal from a processed wideband primary signal to produce a jamming cancelled signal.
Vehicle door (1, 1') which comprises at least one support part of plastics material and at least two frame parts (3a, 3b, 3c), wherein the frame parts (3a, 3b, 3c) are connected to one another by way of connection nodes, characterized in that the connection nodes are able to be produced by insert-moulding, wherein the support part of the same plastics material is simultaneously linked to the connection node, wherein the connection node is constructed from metal tubes and inserts which are plugged into the latter and have recesses, wherein the metal tubes when insert-moulding collapse in the direction towards the insert and the insert has two or more legs for plugging into in each case one metal tube.
A table assembly, comprising: a first arm attachable to a fixed structure; a second arm pivotally attached to the first arm; a third arm pivotally attached to the second arm; and a table attached to the third arm; wherein the second arm is configured to maintain the first arm and the third arm parallel as the first arm and the third arm pivot simultaneously relative to the second arm to raise or lower the table; wherein the second arm comprises a tension member configured to transfer tension along the second arm from the first arm to the third arm as the first arm and the third arm pivot simultaneously relative to the second arm; and wherein the tension member comprises a first contact surface engaging the first arm and a second contact surface facing the first contact surface and engaging the third arm, characterized in that the first arm comprises a first rail engaging the first contact surface, the third arm comprises a second rail engaging the second contact surface, and the first rail and the second rail (224, 424) are trapped between the first contact surface and the second contact surface. a first arm attachable to a fixed structure; a second arm pivotally attached to the first arm; a third arm pivotally attached to the second arm; and a table attached to the third arm; wherein the second arm is configured to maintain the first arm and the third arm parallel as the first arm and the third arm pivot simultaneously relative to the second arm to raise or lower the table; wherein the second arm comprises a tension member configured to transfer tension along the second arm from the first arm to the third arm as the first arm and the third arm pivot simultaneously relative to the second arm; and wherein the tension member comprises a first contact surface engaging the first arm and a second contact surface facing the first contact surface and engaging the third arm, characterized in that the first arm comprises a first rail engaging the first contact surface, the third arm comprises a second rail engaging the second contact surface, and the first rail and the second rail (224, 424) are trapped between the first contact surface and the second contact surface.
A carbon dioxide sensor comprising: a solid electrolyte layer that is oxide ion conductive; a reference electrode disposed on one surface of the solid electrolyte layer; and a detection electrode disposed on the other surface of the solid electrolyte layer, wherein the detection electrode is made of a mixture containing: one or more metals selected from the group consisting of Au, Ag, Pt, Pd, Rh, Ru, Os, and Ir; a cation conductive carbonate; and an oxide containing Li and at least one of Ce and Sm. a solid electrolyte layer that is oxide ion conductive; a reference electrode disposed on one surface of the solid electrolyte layer; and a detection electrode disposed on the other surface of the solid electrolyte layer, one or more metals selected from the group consisting of Au, Ag, Pt, Pd, Rh, Ru, Os, and Ir; a cation conductive carbonate; and an oxide containing Li and at least one of Ce and Sm.
Carriage for a composite component for a sliding door system of a shower, having a base body with a bearing section for supporting a shower door clamp, and a slide section for displaceably supporting the carriage on a holding body for holding the shower door clamp including a sliding door leaf, which is clamped therein, by means of the carriage, characterized in that at least a first slide bearing, at least a second slide bearing and at least a roller (240a, 240b) are arranged along the slide section, wherein the at least one roller (240a, 240b) is arranged on the slide section between the at least one first slide bearing and the at least one second slide bearing in such a way that moisture and dirt as well as other deposits, being present on the holding body, are always removed from the slide bearings (230a, 230b), which are each located in the respective direction of displacement of the sliding door leaf in front of the at least one roller (240a, 240b), before the deposits are able to reach the at least one roller (240a, 240b).
Fencing system comprising: - at least two posts; - at least two separation elements, said at least two separation elements being intended to be connected, at two of the opposite ends thereof, to said posts; - means for arranging said at least two separation elements one behind the other in substantially parallel distant planes; said means for arranging said at least two separation elements comprising at least one upper guide rail and one lower guide rail, each of said rails (30, 31) being intended to engage with opposite ends of said separation elements, the distal ends (302, 312) of said rails (30, 31) being intended to be connected to said posts, each of said rails (30, 31) comprising at least one reception recess (300, 310) of an end of a plurality of said separation elements, characterised in that the upper rail comprises a protrusion-forming element and the lower rail comprises a receptacle-forming element, the protrusion-forming element and the receptacle-forming element having complementary shapes such that the protrusion-forming element is inserted into the receptacle-forming element. - at least two posts; - at least two separation elements, said at least two separation elements being intended to be connected, at two of the opposite ends thereof, to said posts; - means for arranging said at least two separation elements one behind the other in substantially parallel distant planes;
Method of operating a strip handler, in particular a Test-In-Strip Handler having a loader unit, a processing unit, in particular a testing unit or a marking unit, and an unloader unit, the loader unit comprising a first number N1 of compartments and each compartment of the loader unit being configured to receive a stack of strips, the unloader unit comprising a second number N2 of compartments and each compartment of the unloader unit being configured to receive a stack of strips, the method comprising the steps: (a) placing a number N of stacks of strips in N respective compartments of the loader unit; (b) loading a strip from the loader unit to the processing unit for processing the strip; (c) unloading the strip from the processing unit; and (d) stacking the strip to one of a number N+M of compartments of the unloader unit; wherein N ≥ 2, M ≥ 1, N ≤ N1 and (N + M) ≤ N2; wherein each strip has a strip-ID that comprises information for identifying the particular strip, in particular information for identifying a production lot for that strip, the strip-ID being read by an ID-reader of the strip handler. (a) placing a number N of stacks of strips in N respective compartments of the loader unit; (b) loading a strip from the loader unit to the processing unit for processing the strip; (c) unloading the strip from the processing unit; and (d) stacking the strip to one of a number N+M of compartments of the unloader unit; wherein N ≥ 2, M ≥ 1, N ≤ N1 and (N + M) ≤ N2; wherein each strip has a strip-ID that comprises information for identifying the particular strip, in particular information for identifying a production lot for that strip, the strip-ID being read by an ID-reader of the strip handler.
An atomizer nozzle for atomizing liquids, in particular fuel, comprising a central fuel channel with a central outlet opening and a channel for atomizer medium surrounding the fuel channel, the channel for atomizer medium comprising a Hartmann generator and an annular outlet opening surrounding the central outlet opening, said Hartmann generator comprising an annular resonance chamber that is open towards the nozzle axis, wherein the annular outlet opening is inwardly delimited by a conical guide surface converging forwardly in the direction to the central outlet opening, characterized in that the rearwardly extending imaginary extension of the conical guide surface reaches into the resonance chamber.
A guide-through assembly for a filling level sensor attachable in or on a vessel, with a process connection, an interior conductor arranged within the process connection, and a solid-state insulating sealing body through which the interior conductor extends and which circumferentially surrounds the interior conductor in a positive and sealing engagement and is fitted into the process connection in a positive and sealing engagement, wherein the insulating sealing body has a precisely preformed interior circumferential surface and the interior conductor has an outer circumferential surface, wherein the interior circumferential surface of the insulating sealing body and the outer circumferential surface of the interior conductor fit together in a positive and sealing engagement, characterized in that both the interior circumferential surface of said insulating sealing body and the exterior circumferential surface of said interior conductor have a conical or tapering section, and in that said interior conductor extends through a support washer which lies flat against the side of said insulting sealing body facing towards the smaller diameter of the conical section of the interior circumferential surface of said insulating sealing body and is clamped against said insulating sealing body, causing the conical section of the exterior circumferential surface of said interior conductor to be driven into the conical section of the interior circumferential surface of said insulating sealing body and to be wedged against the latter.
A method of extending a life expectancy of a high-temperature piping for being used. when it is determined that a continued stationary use cannot be performed by a remaining life expectancy evaluation of a creep rupture of a welded portion of the high-temperature piping, the method comprising: removing a part of a heat insulation material which covers a location having a high creep rupture risk in the high-temperature piping, and lowering an outer surface temperature of the high-temperature piping locally to extend the life expectancy of the location having the high creep rupture risk, wherein a width of an exposed portion obtained by removing a part of a heat insulation material is twice or more a distance from a peeled-off end portion of the exposed portion to a portion where a compressive stress is asymptotical to 0 after a change in stress between a tensile stress and the compressive stress occurring in the high-temperature piping due to the removal of the heat insulation material is made from the tensile stress to the compressive stress, and the distance (x) at which the compressive stress after a change in stress is made from the tensile stress to the compressive stress is asymptotical to 0 is based on the following formula: βx = 5 wherein β is expressed by the following formula: β = 3 1 − v 2 a 2 h 2 4 here, ν is a Poisson's ratio, and symbol a is an average radius of the piping, and symbol h is a plate thickness of the piping. removing a part of a heat insulation material which covers a location having a high creep rupture risk in the high-temperature piping, and lowering an outer surface temperature of the high-temperature piping locally to extend the life expectancy of the location having the high creep rupture risk, wherein a width of an exposed portion obtained by removing a part of a heat insulation material is twice or more a distance from a peeled-off end portion of the exposed portion to a portion where a compressive stress is asymptotical to 0 after a change in stress between a tensile stress and the compressive stress occurring in the high-temperature piping due to the removal of the heat insulation material is made from the tensile stress to the compressive stress, and the distance (x) at which the compressive stress after a change in stress is made from the tensile stress to the compressive stress is asymptotical to 0 is based on the following formula: βx = 5 wherein β is expressed by the following formula: β = 3 1 − v 2 a 2 h 2 4 here, ν is a Poisson's ratio, and symbol a is an average radius of the piping, and symbol h is a plate thickness of the piping.
A method of wireless communication comprising: determining, by a user equipment (102, 206, 650, 1402), a time division duplex, TDD, configuration and a multicast-broadcast single-frequency network, MBSFN, configuration of a serving cell (202, 702, 704, 802, 804, 902, 904, 1002); receiving, by the user equipment (102, 206, 650, 1402), a two-bit neighbor cell configuration information indicating at least one of a TDD configuration of one or more neighboring cells compared to the TDD configuration of the serving cell and an MBSFN configuration of one or more neighboring cells (202, 702, 704, 802, 804, 902, 904, 1002) compared to the MBSFN configuration of the serving cell (202, 702, 704, 802, 804, 902, 904, 1002); receiving, by the user equipment (102, 206, 650, 1402), a configuration of a discovery reference signal, DRS, for at least one of the one or more neighboring cells (202, 702, 704, 802, 804, 902, 904, 1002), wherein the configuration comprises at least a starting subframe index for the DRS; and determining, by the user equipment (102, 206, 650, 1402), whether a common reference signal, CRS, is present in one or more subframes of a duration of the DRS for the at least one of the one or more neighboring cells (202, 702, 704, 802, 804, 902, 904, 1002) based on the received two-bit neighbor cell configuration information, the TDD configuration and the MBSFN configuration of the serving cell (202, 702, 704, 802, 804, 902, 904, 1002), and the starting subframe index for the DRS. determining, by a user equipment (102, 206, 650, 1402), a time division duplex, TDD, configuration and a multicast-broadcast single-frequency network, MBSFN, configuration of a serving cell (202, 702, 704, 802, 804, 902, 904, 1002); receiving, by the user equipment (102, 206, 650, 1402), a two-bit neighbor cell configuration information indicating at least one of a TDD configuration of one or more neighboring cells compared to the TDD configuration of the serving cell and an MBSFN configuration of one or more neighboring cells (202, 702, 704, 802, 804, 902, 904, 1002) compared to the MBSFN configuration of the serving cell (202, 702, 704, 802, 804, 902, 904, 1002); receiving, by the user equipment (102, 206, 650, 1402), a configuration of a discovery reference signal, DRS, for at least one of the one or more neighboring cells (202, 702, 704, 802, 804, 902, 904, 1002), wherein the configuration comprises at least a starting subframe index for the DRS; and determining, by the user equipment (102, 206, 650, 1402), whether a common reference signal, CRS, is present in one or more subframes of a duration of the DRS for the at least one of the one or more neighboring cells (202, 702, 704, 802, 804, 902, 904, 1002) based on the received two-bit neighbor cell configuration information, the TDD configuration and the MBSFN configuration of the serving cell (202, 702, 704, 802, 804, 902, 904, 1002), and the starting subframe index for the DRS.
A filter arrangement, wherein the filter arrangement is an absorption filter for absorbing high-frequency differential currents in phase conductors of a supply cable of an electric motor, comprising a housing with several toroidal cores (26 - 34) electromagnetically couplable to at least one of the phase conductors, wherein the toroidal cores (26 - 34) are sealed inside the housing by means of a filling compound; wherein the filter arrangement has at least one leadthrough (40, 42, 44) in the form of a duct formed free of filling compound; wherein the at least one leadthrough (40, 42, 44) passes through the toroidal cores (26 - 34) and the housing such that the at least one phase conductor can be passed through; wherein the toroidal cores (26 - 34) are arranged along a longitudinal axis of the housing or also adjacent to one another inside the housing; and wherein individual toroidal cores (26 - 34) are fixed inside the housing at a distance to one another and at a distance to housing walls of the housing by means of a frame structure.