mhurhangee/ep-ind-claims huggingface dataset:
An absorbent article comprising: a topsheet; a backsheet; an absorbent core positioned at least partially intermediate the topsheet and the backsheet; and a through-fluid bonded nonwoven web, the nonwoven web comprising a plurality of bicomponent continuous fibers, wherein the bicomponent continuous fibers comprise a first polymer and a second polymer, wherein the first polymer has a first melting temperature, wherein the second polymer has a second melting temperature, and wherein the first melting temperature is at least 10 degrees C different than the second melting temperature, but less than 180 degrees C; wherein the nonwoven web has: a Martindale Average Abrasion Resistance Grade in the range of 1.0 to 2.5, according to the Martindale Abrasion Resistance Grade Test as described herein; and a Dynamic Mechanical Analyser, DMA, Compression Resiliency in the range of 25% to 90%, preferably 25% to 70%, and more preferably 25% to 50%, according to the Dynamic Mechanical Analyser, DMA, Compression Resiliency Test as described herein. a topsheet; a backsheet; an absorbent core positioned at least partially intermediate the topsheet and the backsheet; and a through-fluid bonded nonwoven web, the nonwoven web comprising a plurality of bicomponent continuous fibers, wherein the bicomponent continuous fibers comprise a first polymer and a second polymer, wherein the first polymer has a first melting temperature, wherein the second polymer has a second melting temperature, and wherein the first melting temperature is at least 10 degrees C different than the second melting temperature, but less than 180 degrees C; wherein the nonwoven web has: a Martindale Average Abrasion Resistance Grade in the range of 1.0 to 2.5, according to the Martindale Abrasion Resistance Grade Test as described herein; and a Dynamic Mechanical Analyser, DMA, Compression Resiliency in the range of 25% to 90%, preferably 25% to 70%, and more preferably 25% to 50%, according to the Dynamic Mechanical Analyser, DMA, Compression Resiliency Test as described herein. a Martindale Average Abrasion Resistance Grade in the range of 1.0 to 2.5, according to the Martindale Abrasion Resistance Grade Test as described herein; and a Dynamic Mechanical Analyser, DMA, Compression Resiliency in the range of 25% to 90%, preferably 25% to 70%, and more preferably 25% to 50%, according to the Dynamic Mechanical Analyser, DMA, Compression Resiliency Test as described herein.
A flywheel and paddle assembly for a chipping or shredding apparatus, said assembly comprising: a drive shaft; a flywheel attached coaxially to said drive shaft, said flywheel having a front side, a back side, and at least one aperture extending from the front side to the back side; at least one knife carried by said flywheel adjacent to said at least one aperture, said at least one knife presenting a knife edge on the front side of said flywheel; and a paddle rotatably mounted coaxially to said drive shaft adjacent to said back side of said flywheel, characterized in that said paddle is configured to rotate on said drive shaft independently of said flywheel. a drive shaft; a flywheel attached coaxially to said drive shaft, said flywheel having a front side, a back side, and at least one aperture extending from the front side to the back side; at least one knife carried by said flywheel adjacent to said at least one aperture, said at least one knife presenting a knife edge on the front side of said flywheel; and a paddle rotatably mounted coaxially to said drive shaft adjacent to said back side of said flywheel, characterized in that said paddle is configured to rotate on said drive shaft independently of said flywheel.
A peptide ligand specific for human Kallikrein comprising a polypeptide comprising at least three reactive groups, separated by at least two loop sequences, and a molecular scaffold which forms covalent bonds with the reactive groups of the polypeptide such that at least two polypeptide loops are formed on the molecular scaffold, wherein the loops of the peptide ligand comprise three, four or five, but less than six, amino acids.
A magnetoresistive stack comprising: a seed region disposed at least partially on an electrically conductive material wherein the seed region includes at least one of nickel or chromium; a dusting layer disposed on the seed region; a fixed magnetic region disposed on and in contact with the dusting layer, wherein the fixed magnetic region comprises: a first ferromagnetic region disposed above the seed region a coupling layer disposed on and in contact with the first ferromagnetic region; and a second ferromagnetic region disposed on and in contact with the coupling layer; one or more dielectric layers disposed on and in contact with the second ferromagnetic region; and a free magnetic region disposed on the one or more dielectric layers a seed region disposed at least partially on an electrically conductive material wherein the seed region includes at least one of nickel or chromium; a dusting layer disposed on the seed region; a fixed magnetic region disposed on and in contact with the dusting layer, wherein the fixed magnetic region comprises: a first ferromagnetic region disposed above the seed region a coupling layer disposed on and in contact with the first ferromagnetic region; and a second ferromagnetic region disposed on and in contact with the coupling layer; a first ferromagnetic region disposed above the seed region a coupling layer disposed on and in contact with the first ferromagnetic region; and a second ferromagnetic region disposed on and in contact with the coupling layer; one or more dielectric layers disposed on and in contact with the second ferromagnetic region; and a free magnetic region disposed on the one or more dielectric layers
Flow control valve for a fluid, comprising - a valve body comprising an inlet port, an outlet port and an intermediate chamber placed between said inlet port and said outlet port, - means for regulating the static flow rate of the fluid, accessible from outside the valve body and adapted to vary the size of a passage orifice located between the inlet port and the outlet port of the valve, - means for the dynamic balancing of the flow rate adapted to regulate the flow rate of the fluid flowing out from said outlet port as a function of changes in differential pressure between said inlet port and said outlet port, characterized in that, the means for the dynamic balancing of the flow rate comprise - a perforated element (6,70) interposed between the inlet port and the intermediate chamber to allow the fluid to pass only through at least one opening (63, 64, 65, 66, 74) of the perforated element (6.70), - an elastic element (8,90) positioned at one face (62,73b) of the perforated element (6,70) facing towards the inlet port, such that an increase in the differential pressure between said inlet port and said outlet port corresponds to an enlargement of the elastic element (8,90) along the face (62,73b) of the perforated element (6,70) to cover a surface of the at least one opening depending on the increase of the differential pressure. - a valve body comprising an inlet port, an outlet port and an intermediate chamber placed between said inlet port and said outlet port, - means for regulating the static flow rate of the fluid, accessible from outside the valve body and adapted to vary the size of a passage orifice located between the inlet port and the outlet port of the valve, - means for the dynamic balancing of the flow rate adapted to regulate the flow rate of the fluid flowing out from said outlet port as a function of changes in differential pressure between said inlet port and said outlet port, - a perforated element (6,70) interposed between the inlet port and the intermediate chamber to allow the fluid to pass only through at least one opening (63, 64, 65, 66, 74) of the perforated element (6.70), - an elastic element (8,90) positioned at one face (62,73b) of the perforated element (6,70) facing towards the inlet port, such that an increase in the differential pressure between said inlet port and said outlet port corresponds to an enlargement of the elastic element (8,90) along the face (62,73b) of the perforated element (6,70) to cover a surface of the at least one opening depending on the increase of the differential pressure.
A composition for application to a metal substrate, the composition comprising: (i) an aqueous carrier; potassium hexafluorozirconate, wherein the potassium hexafluorozirconate is present in the composition in an amount of from.004 g/l to 10 g/l; and yttrium nitrate, wherein the yttrium nitrate is present in the solution in an amount of from.004 g/l to 15 g/l, wherein yttrium nitrate is present in excess relative to potassium hexafluorozirconate. (i) an aqueous carrier; potassium hexafluorozirconate, wherein the potassium hexafluorozirconate is present in the composition in an amount of from.004 g/l to 10 g/l; and yttrium nitrate, wherein the yttrium nitrate is present in the solution in an amount of from.004 g/l to 15 g/l, wherein yttrium nitrate is present in excess relative to potassium hexafluorozirconate. potassium hexafluorozirconate, wherein the potassium hexafluorozirconate is present in the composition in an amount of from.004 g/l to 10 g/l; and yttrium nitrate, wherein the yttrium nitrate is present in the solution in an amount of from.004 g/l to 15 g/l,
A process for forming a reflective electrode on a semiconductor light emitting device, the light emitting device having an active layer for generating light and a cladding layer in electrical contact with the active layer, the process comprising: - depositing an intermediate layer of electrically conductive material on the cladding layer; - causing at least a portion of said electrically conductive material to diffuse into the cladding layer; - depositing a reflective layer on said intermediate layer, said reflective layer being electrically conductive and in electrical contact with said intermediate layer; characterised in removing a portion of said intermediate layer before depositing said reflective layer; wherein, after causing said electrically conductive material to diffuse into the cladding layer, said intermediate layer comprises a first portion diffused into said cladding layer and a second portion remaining on said cladding layer, and wherein said removing comprises removing a majority of said second portion of said intermediate layer. - depositing an intermediate layer of electrically conductive material on the cladding layer; - causing at least a portion of said electrically conductive material to diffuse into the cladding layer; - depositing a reflective layer on said intermediate layer, said reflective layer being electrically conductive and in electrical contact with said intermediate layer;
A method comprising: adding to cement clinker, before, during or after the intergrinding process used for manufacturing hydratable cement particles from cement clinked, an association complex formed in an aqueous liquid using a metal-based chromium reducer and a non-lignosulfonate-based complexing agent, said association complex being present in an amount of at least 10% to 100% based on total weight of said aqueous liquid and said association complex being formed, by combining in said aqueous liquid before said association complex is combined with the cement, said metal-based chromium reducer being selected from the group consisting of a metal salt formed from chloride, bromide, acetate, oxide, sulfide, hydroxide, or sulfate; and said non-lignosulfonate-based complexing agent comprising a polyhydroxy alcohol represented by the formula HOCH 2 (CHOH) n CH 2 OH wherein "n" is an integer of 3-8; and intergrinding said cement clinker with said association complex wherein said metal-based chromium reducer is present in an amount of 20-5000 parts per million (ppm) for each 5 ppm of chromium contained in the cement clinker or hydratable cement particles. adding to cement clinker, before, during or after the intergrinding process used for manufacturing hydratable cement particles from cement clinked, an association complex formed in an aqueous liquid using a metal-based chromium reducer and a non-lignosulfonate-based complexing agent, said association complex being present in an amount of at least 10% to 100% based on total weight of said aqueous liquid and said association complex being formed, by combining in said aqueous liquid before said association complex is combined with the cement, said metal-based chromium reducer being selected from the group consisting of a metal salt formed from chloride, bromide, acetate, oxide, sulfide, hydroxide, or sulfate; and said non-lignosulfonate-based complexing agent comprising a polyhydroxy alcohol represented by the formula HOCH 2 (CHOH) n CH 2 OH wherein "n" is an integer of 3-8; and intergrinding said cement clinker with said association complex wherein said metal-based chromium reducer is present in an amount of 20-5000 parts per million (ppm) for each 5 ppm of chromium contained in the cement clinker or hydratable cement particles.
Formulation with insect repellency activity comprising ethyl 3(N-n-butyl-N-acetylamine) propionate and a hydrolysable silane, wherein the hydrolysable silane consists of 3-glycidylpropylmethoxysilane (GLYMO).
A method for coordinating operations of robots performing work on a part, the method comprising: - subdividing, by a controller, the part into regions; - subdividing each region into multiple sections; - generating a schedule indicating where and when a group of robots will perform work on the part, wherein the schedule including paths for robots that avoid collisions when timed with other robots and the movement of the group of robots is coordinated along the sections in a manner that prevents the robots from operating at the same time in sections that are directly adjacent; - assigning, by the controller, the group of robots to the part, wherein each robot in the group is assigned to a different region of the part; - initiating, by the controller, work on the part via the group of robots in accordance with the schedule; - determining, by the controller that a malfunctioning robot within the group is unable to continue performing work at a first location of the part in accordance with the schedule; - removing the malfunctioning robot from the group while other robots of the group continue performing the work in accordance with the schedule: - adding a functioning robot to the group at a second location of the part that the malfunctioning robot would occupy if the malfunctioning robot had been able to continue working on the part; - continuing work on the part via the group of robots in accordance with the schedule. - subdividing, by a controller, the part into regions; - subdividing each region into multiple sections; - generating a schedule indicating where and when a group of robots will perform work on the part, wherein the schedule including paths for robots that avoid collisions when timed with other robots and the movement of the group of robots is coordinated along the sections in a manner that prevents the robots from operating at the same time in sections that are directly adjacent; - assigning, by the controller, the group of robots to the part, wherein each robot in the group is assigned to a different region of the part; - initiating, by the controller, work on the part via the group of robots in accordance with the schedule; - determining, by the controller that a malfunctioning robot within the group is unable to continue performing work at a first location of the part in accordance with the schedule; - removing the malfunctioning robot from the group while other robots of the group continue performing the work in accordance with the schedule: - adding a functioning robot to the group at a second location of the part that the malfunctioning robot would occupy if the malfunctioning robot had been able to continue working on the part; - continuing work on the part via the group of robots in accordance with the schedule. - adding a functioning robot to the group at a second location of the part that the malfunctioning robot would occupy if the malfunctioning robot had been able to continue working on the part; - continuing work on the part via the group of robots in accordance with the schedule.
An apparatus comprising: a photon source producing incident light of linearly polarised or unpolarised photons; and a spin filter device (10, 80), wherein the spin filter device (10, 80) comprises a substrate (14, 82), wherein the substrate comprises a semiconductor layer, and at least one monolayer (12, 86), wherein the at least one monolayer (12, 86) is self-assembled on said substrate (14, 82) to be exposed to said incident light, irradiation of said at least one monolayer by the incident light causing ejection of photoelectrons from said semiconductor layer, wherein said monolayer (12, 86) comprises asymmetrical molecules, and is adapted to filter electrons travelling from said substrate (14, 82) through said at least one monolayer (12, 86) such that electrons that exhibit a predetermined spin polarization can pass to generate a current of spin-polarised electrons, said spin polarization being independent of the polarization of the incident light, wherein the molecules of said at least one monolayer are chiral molecules. a photon source producing incident light of linearly polarised or unpolarised photons; and a spin filter device (10, 80), wherein the spin filter device (10, 80) comprises a substrate (14, 82), wherein the substrate comprises a semiconductor layer, and at least one monolayer (12, 86), wherein the at least one monolayer (12, 86) is self-assembled on said substrate (14, 82) to be exposed to said incident light, irradiation of said at least one monolayer by the incident light causing ejection of photoelectrons from said semiconductor layer, wherein said monolayer (12, 86) comprises asymmetrical molecules, and is adapted to filter electrons travelling from said substrate (14, 82) through said at least one monolayer (12, 86) such that electrons that exhibit a predetermined spin polarization can pass to generate a current of spin-polarised electrons, said spin polarization being independent of the polarization of the incident light, wherein the molecules of said at least one monolayer are chiral molecules.
Apparatus for measuring and/or monitoring the temperature and/or the flow of a medium, with an essentially thermally insulating carrier layer, which at least partially consists of zirconium oxide, and with at least one temperature measuring unit, wherein at least one essentially electrically insulating intermediate layer is applied to and/or in the carrier layer, and wherein the temperature measuring unit is applied on the intermediate layer or in the intermediate layer in the form of an active layer which is used to measure the temperature, characterized in that an additional layer made from the material of the intermediate layer is applied beneath the carrier layer such that the carrier layer is surrounded by the material of the intermediate layer on both sides.
An information-processing device comprising: a detecting unit (111, 112, 113) configured to detect a user instruction to move at least part of an image displayed on a display surface; and a display control unit configured to change the image to another image by reducing a number of pixels whose color changes, and to cause the other image to be displayed on the display surface in accordance with the user instruction detected by the detecting unit; wherein the display control unit is configured to reduce the number of pixels whose color changes by reducing a gradation level of the image; the device being characterized in that the display control unit is configured to change the gradation level of the image according to a ratio of a text area included in the image on the display surface, wherein a lower ratio corresponds to a lower gradation level. a detecting unit (111, 112, 113) configured to detect a user instruction to move at least part of an image displayed on a display surface; and a display control unit configured to change the image to another image by reducing a number of pixels whose color changes, and to cause the other image to be displayed on the display surface in accordance with the user instruction detected by the detecting unit; wherein the display control unit is configured to reduce the number of pixels whose color changes by reducing a gradation level of the image; the device being characterized in that
Use of an interlocking device for locking panel sections of a core material of a wind turbine blade, the interlocking device has a first end, an opposite second end and at least one outer side surface (35, 36) arranged between the first and second ends (31, 34), the interlocking device comprises a base portion having a body with a predetermined outer height and outer width, the body is configured to provide support for at least a number of first engaging elements projecting from a first proximal end of the body to the second end, the first engaging elements being configured to be brought into engagement with a first panel section and a second panel section by applying a force to said first end, wherein the interlocking device comprises at least one engaging element (33, 33' 39) configured to extend beyond one side surface (26, 38) of said panel sections, when placed in a final position of engagement, wherein said at least one engaging element (33, 33' 39) is configured to engage at least one layer (21, 24) of a fibre material arranged on said one side surface (26, 38) of the panel sections.
A communication processing method, comprising: receiving, by an application server, a communication request comprising a called user identifier and sent by a calling user, wherein the calling user is logged in to the application server; searching by the application server, according to the called user identifier, for all terminals corresponding to the called user identifier, wherein the all terminals comprise a terminal through which a called user has logged in to the application server by using the called user identifier and the called user does not log in to the application server currently, wherein the all terminals further comprise a terminal through which the called user log in to the application server currently, and wherein the application server is maintaining information of the called user about performing login through a plurality of terminals by learning one or more terminals through which the called user currently logs in, and learning one or more terminals through which the called user previously logged in; and sending, by the application server, the communication request to all communicable terminals of the all terminals, wherein a communicable terminal is a terminal capable of receiving a communication request. receiving, by an application server, a communication request comprising a called user identifier and sent by a calling user, wherein the calling user is logged in to the application server; searching by the application server, according to the called user identifier, for all terminals corresponding to the called user identifier, wherein the all terminals comprise a terminal through which a called user has logged in to the application server by using the called user identifier and the called user does not log in to the application server currently, wherein the all terminals further comprise a terminal through which the called user log in to the application server currently, and wherein the application server is maintaining information of the called user about performing login through a plurality of terminals by learning one or more terminals through which the called user currently logs in, and learning one or more terminals through which the called user previously logged in; and sending, by the application server, the communication request to all communicable terminals of the all terminals, wherein a communicable terminal is a terminal capable of receiving a communication request.