mhurhangee/ep-ind-claims huggingface dataset:
An absorbent article comprising: a topsheet comprising a liquid permeable material; a backsheet comprising a liquid impermeable material; an absorbent core disposed at least partially intermediate the liquid permeable material topsheet and the liquid impermeable material backsheet and comprising an absorbent material and a core wrap (16, 16') enclosing the absorbent material, wherein the absorbent material enclosed comprises from 70% to 100% of superabsorbent polymers by weight of absorbent material; a substantially laterally-extending separation element at least partially defining a visual front portion and a visual back portion of the absorbent article; and a liquid management system positioned at least partially intermediate the liquid permeable material topsheet and the absorbent core, wherein the liquid management system defines a substantially longitudinally extending channel formed therein having a physical property, wherein the physical property is one selected from the channel's width, length, orientation, volume, color, texture, area, and wherein the channel has a first physical property value in the visual front portion and a second physical property value in the visual back portion, and wherein the first physical property value of a front portion of the channel is different than the second physical property value of a back portion of the channel, and the physical property is visible through the wearer-facing surface to aid the caregiver in aligning the absorbent article. a topsheet comprising a liquid permeable material; a backsheet comprising a liquid impermeable material; an absorbent core disposed at least partially intermediate the liquid permeable material topsheet and the liquid impermeable material backsheet and comprising an absorbent material and a core wrap (16, 16') enclosing the absorbent material, wherein the absorbent material enclosed comprises from 70% to 100% of superabsorbent polymers by weight of absorbent material; a substantially laterally-extending separation element at least partially defining a visual front portion and a visual back portion of the absorbent article; and a liquid management system positioned at least partially intermediate the liquid permeable material topsheet and the absorbent core, wherein the liquid management system defines a substantially longitudinally extending channel formed therein having a physical property, wherein the physical property is one selected from the channel's width, length, orientation, volume, color, texture, area, and wherein the channel has a first physical property value in the visual front portion and a second physical property value in the visual back portion, and wherein the first physical property value of a front portion of the channel is different than the second physical property value of a back portion of the channel, and the physical property is visible through the wearer-facing surface to aid the caregiver in aligning the absorbent article.
A vehicle seat with a head restraint (1.1) and a seat back (1.2), the head restraint (1.1) being movable between a usage position and a non-usage position, wherein at least one interfering element (1.6) is pivotably mounted inside the seat back (1.2) by means of a pivoting device, wherein in the non-usage position the head restraint (1.1) positions the at least one interfering element (1.6) of the seat back (1.2) in such a way that the interfering element (1.6) forms at least one contact point with the torso (2.2) of a vehicle occupant located on the vehicle seat, characterized in that - the at least one interfering element (1.6) comprises a rounded outline and is pivoted around a transverse axis, and - starting from a pre-determined minimal depth of retraction of the head restraint (1.1) corresponding to a non-usage position, the interfering element (1.6) forms the at least one contact point with a pre-determined maximal bulging of the upholstery, wherein the interfering element (1.6) remains in the pivoted out position when the depth of retraction of the head restraint (1.1) exceeds beyond said minimal depth of retraction. - the at least one interfering element (1.6) comprises a rounded outline and is pivoted around a transverse axis, and - starting from a pre-determined minimal depth of retraction of the head restraint (1.1) corresponding to a non-usage position, the interfering element (1.6) forms the at least one contact point with a pre-determined maximal bulging of the upholstery, wherein the interfering element (1.6) remains in the pivoted out position when the depth of retraction of the head restraint (1.1) exceeds beyond said minimal depth of retraction.
A method for data transmission, comprising: in a case that a first condition is met, receiving, by a terminal device, first data and second data simultaneously; the first data being carried on a first physical downlink shared channel, PDSCH, and the second data being carried on a second PDSCH; wherein the first data is a Multimedia Broadcast Multicast Service, MBMS, data and the second data is a unicast data; wherein the first condition comprises: Demodulation Reference Signal, DMRS, of the first PDSCH and DMRS of the second PDSCH being QCL-TypeD with a same Synchronization Signal Block, SSB. in a case that a first condition is met, receiving, by a terminal device, first data and second data simultaneously; the first data being carried on a first physical downlink shared channel, PDSCH, and the second data being carried on a second PDSCH; wherein the first data is a Multimedia Broadcast Multicast Service, MBMS, data and the second data is a unicast data; wherein the first condition comprises: Demodulation Reference Signal, DMRS, of the first PDSCH and DMRS of the second PDSCH being QCL-TypeD with a same Synchronization Signal Block, SSB.
A photoelectric sensor (1; 3) comprising: a light source configured to emit detection light; a lens configured to condense light emitted from the light source onto a detection region, the lens having a first focal point (Pf) and a second focal point, the first focal point (Pf) being closer to the light source than the second focal point; a light receiving unit configured to receive the detection light from the detection region; and a first diaphragm (141; 141b; 141c) and a second diaphragm (142; 142b; 142c) that are provided between the light source and the lens, wherein the first diaphragm (141; 141b; 141c) is arranged at a position that is closer to the light source than the second diaphragm (142; 142b; 142c), the first diaphragm (141; 141b; 141c) and the second diaphragm (142; 142b; 142c) are arranged closer to the light source than the first focal point (Pf) of the lens, an aperture of the first diaphragm (141; 141b; 141c) in a cross section that includes an optical axis (Ax) of the lens is larger than an aperture of the second diaphragm (142; 142b; 142c) in the cross section that includes the optical axis (Ax), an effective area of the light source in the cross section that includes the optical axis (Ax) is larger than the aperture of the first diaphragm (141; 141b; 141c) in the cross section that includes the optical axis (Ax), and an effective area of the lens in the cross section that includes the optical axis (Ax) is larger than the effective area of the light source in the cross section that includes the optical axis (Ax). a light source configured to emit detection light; a lens configured to condense light emitted from the light source onto a detection region, the lens having a first focal point (Pf) and a second focal point, the first focal point (Pf) being closer to the light source than the second focal point; a light receiving unit configured to receive the detection light from the detection region; and a first diaphragm (141; 141b; 141c) and a second diaphragm (142; 142b; 142c) that are provided between the light source and the lens, wherein the first diaphragm (141; 141b; 141c) is arranged at a position that is closer to the light source than the second diaphragm (142; 142b; 142c), the first diaphragm (141; 141b; 141c) and the second diaphragm (142; 142b; 142c) are arranged closer to the light source than the first focal point (Pf) of the lens, an aperture of the first diaphragm (141; 141b; 141c) in a cross section that includes an optical axis (Ax) of the lens is larger than an aperture of the second diaphragm (142; 142b; 142c) in the cross section that includes the optical axis (Ax), an effective area of the light source in the cross section that includes the optical axis (Ax) is larger than the aperture of the first diaphragm (141; 141b; 141c) in the cross section that includes the optical axis (Ax), and an effective area of the lens in the cross section that includes the optical axis (Ax) is larger than the effective area of the light source in the cross section that includes the optical axis (Ax).
An installation for producing supplementary electrical energy for an electricity network, including at least first and second water reservoirs, the first water reservoir (110; 210; 311, 312; 411 to 415; 511, 512) being situated at a first level and the second water reservoir (120; 220; 311, 312; 420; 520) being situated at a second level lower than the first level with a level difference of at least 5 meters, at least one communicating pipe (140; 240; 340; 342; 441, 442; 541) between the first water reservoir (110; 210; 311, 312; 411 to 415; 511, 512) and the second water reservoir (120; 220; 311, 312; 420; 520) having a slope of at least 3% and being provided with at least one remote-controlled valve (150; 250; 350; 451; 541), a hydro-electric generating system (130; 230; 330; 332; 432; 532), a pumping installation (431; 531), and a control circuit, the installation being characterized in that the first water reservoir (110; 210; 311, 312; 411 to 415; 511, 512) situated at ground level has a cumulative volume in the range 1000 m 3 to 150 000 m 3 and comprises at least one individual reservoir that is integrated in underground or semi-underground manner in the foundations of a first artificial building (200; 301, 302, 303) whose first vocation of construction is not only a water reserve, and in that the second water reservoir (120; 220, 311; 312; 420, 520) is also situated at ground level using a natural slope of the ground.
A process for treating a surface of the internal walls of a microchannel, in a microfluidic device, intended to modify at least locally a surface energy of said walls, the microchannel being bounded by a profiled element made of an at least partially photo-set or thermo-set polymer and by a cover, said process comprising a step of irradiating under air, - either said at least partially photo-set or thermo-set polymer through the cover, the cover and the profiled element having been assembled beforehand, the cover being made of a material that is transparent to said irradiations; - or directly said at least partially photo-set or thermo-set polymer, those portions of the profiled element which are intended to ensure a joint with the cover having been protected beforehand from irradiations so that said portions are not modified by irradiation before joining with the cover, the irradiation being carried out at a wavelength shorter than or equal to 300 nm, and the depth of irradiation is controlled so that the bulk properties of the material are preserved intact, the depth of the treatment being 100 mm or less or being smaller than 1% of the total thickness of the microfluidic device. - either said at least partially photo-set or thermo-set polymer through the cover, the cover and the profiled element having been assembled beforehand, the cover being made of a material that is transparent to said irradiations; - or directly said at least partially photo-set or thermo-set polymer, those portions of the profiled element which are intended to ensure a joint with the cover having been protected beforehand from irradiations so that said portions are not modified by irradiation before joining with the cover, the irradiation being carried out at a wavelength shorter than or equal to 300 nm, and the depth of irradiation is controlled so that the bulk properties of the material are preserved intact, the depth of the treatment being 100 mm or less or being smaller than 1% of the total thickness of the microfluidic device.
A readout device, comprising: a controller; a plurality of readout contacts; an analog front end, including: a current supply; an electrometer, wherein the controller is adapted to operate the current supply to provide a current to first and second contacts of the plurality of readout contacts, wherein the electrometer is adapted to monitor voltage potential between the second contact and a third contact of the readout contacts, wherein the controller is adapted to identify an inflection point in the voltage over time curve and to integrate the provided current over a time period between a first time and the inflection point to determine a quantity of charge, wherein the controller is adapted to output as a capacitive oxidation reduction potential, cORP, the determined quantity of charge or a value derived from the determined quantity of charge. a controller; a plurality of readout contacts; an analog front end, including: a current supply; an electrometer, a current supply; an electrometer, wherein the controller is adapted to operate the current supply to provide a current to first and second contacts of the plurality of readout contacts, wherein the electrometer is adapted to monitor voltage potential between the second contact and a third contact of the readout contacts, wherein the controller is adapted to identify an inflection point in the voltage over time curve and to integrate the provided current over a time period between a first time and the inflection point to determine a quantity of charge, wherein the controller is adapted to output as a capacitive oxidation reduction potential, cORP, the determined quantity of charge or a value derived from the determined quantity of charge.
A cutter assembly for cutting a foodstuff to form a concave tapered food product (4800, 4900, 5100, 5200, 5300, 5400, 5500), comprising: a base; a housing member having an open end and an inner lip which is opposite to the open end and extends inward, the base being affixed to the housing member at the open end; and a plurality of curvilinear blades each including a knife edge for cutting the foodstuff, the knife edge defining an arc along a first portion of the curvilinear blade; an attachment means (60, 62) at an end (42, 44) of the curvilinear blade for supporting the curvilinear blade; and a plurality of blade holding members stacked together, wherein the attachment means (60, 62) is positioned on each of the blade holding members to receive at least one curvilinear blade and wherein the blade holding members are disposed inside the housing member, the blade holding members being retained in the housing member by the inner lip of the housing member. a base; a housing member having an open end and an inner lip which is opposite to the open end and extends inward, the base being affixed to the housing member at the open end; and a plurality of curvilinear blades each including a knife edge for cutting the foodstuff, the knife edge defining an arc along a first portion of the curvilinear blade; an attachment means (60, 62) at an end (42, 44) of the curvilinear blade for supporting the curvilinear blade; and a plurality of blade holding members stacked together, wherein the attachment means (60, 62) is positioned on each of the blade holding members to receive at least one curvilinear blade and wherein the blade holding members are disposed inside the housing member, the blade holding members being retained in the housing member by the inner lip of the housing member.
A wireless-chargeable device (100, 300, 400) comprising: An electromagnet; and A control circuit configured to: control a magnetic field strength generated by the electromagnet for alignment of a power-receiving coil of the wireless-chargeable device with respect to a power-transmitting coil of a wireless power supply device, determine a compatibility information of the wireless-chargeable device and the wireless power supply device, control the magnetic field strength based on the determined compatibility of the wireless-chargeable device and the wireless power supply device, and control the magnetic field strength to emit an inverted field to repel the wireless power supply device, if the determined compatibility information indicates that the wireless-chargeable device and the wireless power supply device are incompatible. An electromagnet; and A control circuit configured to: control a magnetic field strength generated by the electromagnet for alignment of a power-receiving coil of the wireless-chargeable device with respect to a power-transmitting coil of a wireless power supply device, determine a compatibility information of the wireless-chargeable device and the wireless power supply device, control the magnetic field strength based on the determined compatibility of the wireless-chargeable device and the wireless power supply device, and control the magnetic field strength to emit an inverted field to repel the wireless power supply device, if the determined compatibility information indicates that the wireless-chargeable device and the wireless power supply device are incompatible. control a magnetic field strength generated by the electromagnet for alignment of a power-receiving coil of the wireless-chargeable device with respect to a power-transmitting coil of a wireless power supply device, determine a compatibility information of the wireless-chargeable device and the wireless power supply device, control the magnetic field strength based on the determined compatibility of the wireless-chargeable device and the wireless power supply device, and control the magnetic field strength to emit an inverted field to repel the wireless power supply device, if the determined compatibility information indicates that the wireless-chargeable device and the wireless power supply device are incompatible.
A channel access method, comprising: generating, by a first access point AP, a management frame, wherein the management frame comprises first indication information, the first indication information indicates at least one first reserved resource that first traffic is allowed to contention-based access, and the at least one first reserved resource only comprises a time domain resource reserved for the first traffic; and sending, by the first AP, the management frame to a first device. generating, by a first access point AP, a management frame, wherein the management frame comprises first indication information, the first indication information indicates at least one first reserved resource that first traffic is allowed to contention-based access, and the at least one first reserved resource only comprises a time domain resource reserved for the first traffic; and sending, by the first AP, the management frame to a first device.
An evolved node B, eNB, in a synchronous network, adapted to configure measurement gap patterns, the eNB having one or more processors configured to: generate multiple measurement gap patterns from a plurality of radio frequency, RF, chains for a user equipment, UE, having a plurality of RF chains, to enable the UE to perform concurrent measurement of the multiple measurement gap patterns using the plurality of RF chains, wherein each measurement gap pattern indicates one set of consecutive subframes within a defined time period during which the UE is to perform inter-frequency measurements for a selected cell, wherein the defined time period in the measurement gap pattern is a measurement gap repetition period, MGRP, wherein the MGRP is variable based on a purpose of the inter-frequency measurements and each cell within the group of cells operates in a defined frequency layer and is measured using a particular measurement gap pattern; provide the multiple measurement gap patterns to the UE, the UE being configured to perform the inter-frequency measurements using the plurality of RF chains for selected cells within a group of cells according to the multiple measurement gap patterns; and wherein a measurement gap length, MGL, during which the UE performs the inter-frequency measurements for the selected cell is variable based on a location of synchronization symbols which are detected when the UE performs the inter-frequency measurements for the selected cell, the MGL corresponding to the set of consecutive subframes within the defined time period. generate multiple measurement gap patterns from a plurality of radio frequency, RF, chains for a user equipment, UE, having a plurality of RF chains, to enable the UE to perform concurrent measurement of the multiple measurement gap patterns using the plurality of RF chains, wherein each measurement gap pattern indicates one set of consecutive subframes within a defined time period during which the UE is to perform inter-frequency measurements for a selected cell, wherein the defined time period in the measurement gap pattern is a measurement gap repetition period, MGRP, wherein the MGRP is variable based on a purpose of the inter-frequency measurements and each cell within the group of cells operates in a defined frequency layer and is measured using a particular measurement gap pattern; provide the multiple measurement gap patterns to the UE, the UE being configured to perform the inter-frequency measurements using the plurality of RF chains for selected cells within a group of cells according to the multiple measurement gap patterns; and wherein a measurement gap length, MGL, during which the UE performs the inter-frequency measurements for the selected cell is variable based on a location of synchronization symbols which are detected when the UE performs the inter-frequency measurements for the selected cell, the MGL corresponding to the set of consecutive subframes within the defined time period.
A polar synthetic lipid comprising at least one carbohydrate group selected from the group consisting of: 3-D-Glc-(1,6)-α-D-Glc-; α-D-Glc-(1,6)-β-D-Glc-; β-D-Glc-(1,4)-β-D-Glc-; α-D-Glc-(1,4)-β-D-Glc-; β-D-Gal-(1,4)-β-D-Glc-; α-D-Gal-(1,6)-β-D-Glc-; β-D-Glc-(1,6)-β-D-Glc-(1,6)-β-D-Glc-; α-D-Glc-(1,4)-α-D-Glc-(1,4)-β-D-Glc-; α-D-Man-(1,2)-α-D-Man-(1,2)-α-D-Man-; and α-D-Man-(1,2)-α-D-Man-(1,2)-α-D-Man-(1,2)-α-D-Man-. wherein the carbohydrate group is linked by covalent bonding to at least one free hydroxyl group of the archaeal core lipid. 3-D-Glc-(1,6)-α-D-Glc-; α-D-Glc-(1,6)-β-D-Glc-; β-D-Glc-(1,4)-β-D-Glc-; α-D-Glc-(1,4)-β-D-Glc-; β-D-Gal-(1,4)-β-D-Glc-; α-D-Gal-(1,6)-β-D-Glc-; β-D-Glc-(1,6)-β-D-Glc-(1,6)-β-D-Glc-; α-D-Glc-(1,4)-α-D-Glc-(1,4)-β-D-Glc-; α-D-Man-(1,2)-α-D-Man-(1,2)-α-D-Man-; and α-D-Man-(1,2)-α-D-Man-(1,2)-α-D-Man-(1,2)-α-D-Man-.