mhurhangee/ep-ind-claims huggingface dataset:
A fine cellulose fiber composite in which a modifying group is bound to a carboxy group of fine cellulose fibers, wherein the modifying group is a hydrocarbon group and/or a copolymer moiety, the fine cellulose fibers having a carboxy group content of 0.1 mmol/g or more, wherein the fine cellulose fiber composite has an average aspect ratio of 1 or more and 100 or less.
Optoelectronic semiconductor chip comprising a semiconductor layer stack and a mirror, wherein - the semiconductor layer stack has an active layer for generating electromagnetic radiation, - the mirror is arranged at an underside of the semiconductor layer stack, - the mirror has a first region and a second region, - the first region contains Ag, - the second region contains Au, - a diffusion barrier is arranged between the first region and the second region, and - the diffusion barrier is in direct contact with the first and second regions (2a, 2b), characterized in that the diffusion barrier prevents a diffusion of mirror material between the first region and the second region, and the diffusion barrier has perforations. - the semiconductor layer stack has an active layer for generating electromagnetic radiation, - the mirror is arranged at an underside of the semiconductor layer stack, - the mirror has a first region and a second region, - the first region contains Ag, - the second region contains Au, - a diffusion barrier is arranged between the first region and the second region, and - the diffusion barrier is in direct contact with the first and second regions (2a, 2b), characterized in that the diffusion barrier prevents a diffusion of mirror material between the first region and the second region, and the diffusion barrier has perforations.
A method for producing a hydroxylapatite granulate, wherein nanoscale hydroxylapatite is subjected to a thermal treatment at a temperature between 400 °C and 1300 °C, preferably between 500 °C and 1100 °C, more preferably between 600 °C and 1000 °C, thereby producing a hydroxylapatite granulate with a friability F between 50 and 500.
A packet transmission method, implemented by a first network device (1000, 1100, 1200, 1310) in a virtual private LAN service, VPLS, network, and the method comprises: determining (401, 701), based on a destination address carried in a received first packet, a virtual port corresponding to the destination address in a VPLS instance of the first network device (1000, 1100, 1200, 1310), wherein the virtual port indicates a first virtual private wire service, VPWS, instance in the first network device (1000, 1100, 1200, 1310); and sending (402, 702) the first packet to a second VPWS instance in a second network device based on the virtual port, wherein the second VPWS instance and the first VPWS instance bear a same service, the second network device belongs to a VPWS network. determining (401, 701), based on a destination address carried in a received first packet, a virtual port corresponding to the destination address in a VPLS instance of the first network device (1000, 1100, 1200, 1310), wherein the virtual port indicates a first virtual private wire service, VPWS, instance in the first network device (1000, 1100, 1200, 1310); and sending (402, 702) the first packet to a second VPWS instance in a second network device based on the virtual port, wherein the second VPWS instance and the first VPWS instance bear a same service, the second network device belongs to a VPWS network.
A device for coupling at least one pipe and a base having a tubular segment on which a collar is mounted, the coupling device comprising a connection end piece for fluidically connecting the pipe to the base and a retaining ring for keeping the connection end piece attached to the base: - the connection end piece comprising: • a tubular body, of which a first end is intended to be inserted into the tubular segment of the base along a main axis, and of which a second end is intended to connect to the pipe; • two first retaining elements (11, 11') arranged opposite one another; - the retaining ring comprising: • an annular body provided with two second retaining elements (22, 22') which cooperate with the first retaining elements (11, 11') to retain the retaining ring on the connection end piece; • two locking tabs which are rigidly connected to the annular body and extend along the main axis for gripping the collar and keeping the retaining ring attached to the base, the second retaining elements (22, 22') and the locking tabs being angularly spaced at 90°. - the connection end piece comprising: • a tubular body, of which a first end is intended to be inserted into the tubular segment of the base along a main axis, and of which a second end is intended to connect to the pipe; • two first retaining elements (11, 11') arranged opposite one another; • a tubular body, of which a first end is intended to be inserted into the tubular segment of the base along a main axis, and of which a second end is intended to connect to the pipe; • two first retaining elements (11, 11') arranged opposite one another; - the retaining ring comprising: • an annular body provided with two second retaining elements (22, 22') which cooperate with the first retaining elements (11, 11') to retain the retaining ring on the connection end piece; • two locking tabs which are rigidly connected to the annular body and extend along the main axis for gripping the collar and keeping the retaining ring attached to the base, the second retaining elements (22, 22') and the locking tabs being angularly spaced at 90°. • an annular body provided with two second retaining elements (22, 22') which cooperate with the first retaining elements (11, 11') to retain the retaining ring on the connection end piece; • two locking tabs which are rigidly connected to the annular body and extend along the main axis for gripping the collar and keeping the retaining ring attached to the base,
A disposable absorbent article (1510, 1700) comprising: a longitudinal centerline and a lateral centerline; a topsheet (1217, 1317, 1714, 1924); a backsheet (1716, 1925); an absorbent core (1219, 1319, 1718, 1928) comprising a plurality of absorbent fibers disposed between the topsheet and the backsheet; and a first plurality of conforming features (1215, 1315, 1415, 1615) in at least the absorbent core or a combination of the absorbent core and the topsheet, wherein fibers within the absorbent core or within the absorbent core and the topsheet are longer than 6 mm, and wherein the conforming features include protrusions, ridges, grooves, depressions or tufts formed by meso-scale processing, the disposable absorbent article having a blot residual value of less than 30 mg, determined using the blot test method defined herein, and a bending stiffness of less than 12 N mm 2, determined using the three point bend test method defined herein. a longitudinal centerline and a lateral centerline; a topsheet (1217, 1317, 1714, 1924); a backsheet (1716, 1925); an absorbent core (1219, 1319, 1718, 1928) comprising a plurality of absorbent fibers disposed between the topsheet and the backsheet; and a first plurality of conforming features (1215, 1315, 1415, 1615) in at least the absorbent core or a combination of the absorbent core and the topsheet, wherein fibers within the absorbent core or within the absorbent core and the topsheet are longer than 6 mm, and wherein the conforming features include protrusions, ridges, grooves, depressions or tufts formed by meso-scale processing, the disposable absorbent article having a blot residual value of less than 30 mg, determined using the blot test method defined herein, and a bending stiffness of less than 12 N mm 2, determined using the three point bend test method defined herein.
A method of performing device-to-device, D2D, communication by a user equipment, UE, in a wireless communication system, the method comprising: detecting (A120, A125) a D2D synchronization signal from at least one synchronization source; measuring a D2D demodulation reference signal, DMRS, for a D2D channel, wherein the D2D DMRS and the D2D channel are received through a same subframe in which the D2D synchronization signal is detected; and selecting a synchronization reference UE from the at least one synchronization source depending on whether a predetermined condition is satisfied, wherein the predetermined condition is satisfied when a result of measuring the D2D DMRS satisfies a threshold and is valid, and wherein the result of measuring the D2D DMRS is determined to be valid when the UE succeeds in obtaining an information element of the D2D channel, and the result of measuring the D2D DMRS is determined to be invalid when the UE fails to obtain the information element of the D2D channel. detecting (A120, A125) a D2D synchronization signal from at least one synchronization source; measuring a D2D demodulation reference signal, DMRS, for a D2D channel, wherein the D2D DMRS and the D2D channel are received through a same subframe in which the D2D synchronization signal is detected; and selecting a synchronization reference UE from the at least one synchronization source depending on whether a predetermined condition is satisfied, wherein the predetermined condition is satisfied when a result of measuring the D2D DMRS satisfies a threshold and is valid, and wherein the result of measuring the D2D DMRS is determined to be valid when the UE succeeds in obtaining an information element of the D2D channel, and the result of measuring the D2D DMRS is determined to be invalid when the UE fails to obtain the information element of the D2D channel.
A strap locating arrangement for locating a strap over a load on a vehicle load bed, the strap locating arrangement comprising a) a receiving arrangement configured for receiving at least part of a rolled up load securing strap, the receiving arrangement comprising a straight base wall having parallel opposed edges and a pair of side walls extending substantially upwardly from the straight base wall at the opposed edges, and straight base wall and the pair of side walls defining a straight channel to receive the rolled up load securing strap and guide rolling of the rolled up load securing strap on the straight base wall in operation; b) the receiving arrangement including a slot through which an un-rolled portion of the load securing strap is extendable in a direction extending tangentially outward from the rolled up strap; c) the receiving arrangement being attachable to an elongate extension member in a configuration so that when the elongate extension member is in a vertical position, the rolled up load securing strap will be prevented from falling out of the receiving arrangement. a) a receiving arrangement configured for receiving at least part of a rolled up load securing strap, the receiving arrangement comprising a straight base wall having parallel opposed edges and a pair of side walls extending substantially upwardly from the straight base wall at the opposed edges, and straight base wall and the pair of side walls defining a straight channel to receive the rolled up load securing strap and guide rolling of the rolled up load securing strap on the straight base wall in operation; b) the receiving arrangement including a slot through which an un-rolled portion of the load securing strap is extendable in a direction extending tangentially outward from the rolled up strap; c) the receiving arrangement being attachable to an elongate extension member in a configuration so that when the elongate extension member is in a vertical position, the rolled up load securing strap will be prevented from falling out of the receiving arrangement.
A method for providing location related content dynamically to a mobile communication device, the method comprising tracking a present location of the mobile communication device; predicting a future location of the mobile communication device by estimating a direction the mobile communication device will move, said estimation being calculated based on: said present location of the mobile communication device, a direction traveled within a prior time period, wherein said period depends upon a velocity of the mobile communication device, and environmental context information, wherein the environmental context information is extrapolated based upon map coordinates and the velocity of the mobile computing device, determining whether content related to the future location is presently stored on the mobile communication device; retrieving the content from a content store via a network connection upon a determination that the content is not presently stored on the mobile communication device; and managing storage of the content on the mobile communication device by: storing the content on the mobile communication device when the content is retrieved from the content store; and purging the content of irrelevant content that is least related to the future location of the mobile communication device, if a memory available on the mobile communication device is insufficient to store the content. said present location of the mobile communication device, a direction traveled within a prior time period, wherein said period depends upon a velocity of the mobile communication device, and environmental context information, wherein the environmental context information is extrapolated based upon map coordinates and the velocity of the mobile computing device, storing the content on the mobile communication device when the content is retrieved from the content store; and purging the content of irrelevant content that is least related to the future location of the mobile communication device, if a memory available on the mobile communication device is insufficient to store the content.
Refrigeration appliance, in particular household refrigeration appliance, having a refrigeration chamber, a thermal insulation layer and a wall extending between the refrigeration chamber and the thermal insulation layer, a pipe support (12, 24) which is integral with the wall and surrounds an opening of the wall and a line which extends through the pipe support and runs with part of its length in the thermal insulation layer and with another part in the refrigeration chamber, wherein an elastic sleeve has a first end section fixed to a free end of the pipe support and a second end section abutting the line, characterised in that the sleeve has a wavy intermediate section, in which regions with a large cross-section and regions with a small cross-section alternate with one another.
A battery compartment for an aircraft, the battery compartment comprising: a plurality of beams (202, 204, 206, 208) fabricated from a first type of metal, wherein a web of each of the beams (202, 204, 206, 208) comprises a web member (302A-302G; 700, 710) fabricated from a thin sheet of a second type of metal, wherein the first type of metal is at least one of aluminum and aluminum alloy and the second type of material is titanium.
A system for radiation-free energy transfer across a phase boundary of a liquid-liquid multiphase system having an organic phase and an aqueous phase, comprising: a) a first molecule, which is suitable for a Förster resonance energy transfer (FRET) and is in the organic phase, and b) an amphiphilic protein, which has a hydrophilic domain that protrudes into the aqueous phase and a hydrophobic domain that protrudes into the organic phase and which is marked with a second molecule, wherein the second molecule is an excitable protein, which is suitable for a Förster resonance energy transfer with said first molecule and protrudes into the aqueous phase wherein the second module is bound to the hydrophilic domain or forms said domain, wherein the organic phase contains an organic solvent or oil which is not miscible with water, wherein the first molecule and the second molecule are selected such that both molecules form a donor-acceptor pair that enables a Förster resonance energy transfer (FRET), wherein the donor and the acceptor of the donor-acceptor pair are separated by a liquid-liquid phase boundary. a) a first molecule, which is suitable for a Förster resonance energy transfer (FRET) and is in the organic phase, and b) an amphiphilic protein, which has a hydrophilic domain that protrudes into the aqueous phase and a hydrophobic domain that protrudes into the organic phase and which is marked with a second molecule, wherein the second molecule is an excitable protein, which is suitable for a Förster resonance energy transfer with said first molecule and protrudes into the aqueous phase wherein the second module is bound to the hydrophilic domain or forms said domain,
A computer-implemented method for abstracting a wireless interface protocol to an Ethernet protocol in a controller, the method comprising: detecting, with a wireless network interface of the controller, access by a wireless device using the wireless interface protocol, the wireless device identified by a wireless device identifier, ID; creating a virtual Ethernet interface having an associated Ethernet interface ID; associating the wireless device ID with the Ethernet interface ID in a table in memory of the controller; receiving a payload from the wireless device over the wireless interface protocol; transmitting the payload to the virtual Ethernet interface using the Ethernet protocol, and transmitting the payload from the virtual Ethernet interface to an application plugin of an application layer by storing the payload in shared memory, shared between the virtual Ethernet interface and the application plugin; receiving, by the application plugin, the payload from a raw socket of the virtual Ethernet interface. detecting, with a wireless network interface of the controller, access by a wireless device using the wireless interface protocol, the wireless device identified by a wireless device identifier, ID; creating a virtual Ethernet interface having an associated Ethernet interface ID; associating the wireless device ID with the Ethernet interface ID in a table in memory of the controller; receiving a payload from the wireless device over the wireless interface protocol; transmitting the payload to the virtual Ethernet interface using the Ethernet protocol, and transmitting the payload from the virtual Ethernet interface to an application plugin of an application layer by storing the payload in shared memory, shared between the virtual Ethernet interface and the application plugin; receiving, by the application plugin, the payload from a raw socket of the virtual Ethernet interface.
A fuel cell stack comprising a plurality of fuel cells stacked together in a stacking direction, each of the fuel cells having a solid electrolyte layer, a fuel electrode layer disposed on one side of the solid electrolyte layer and brought into contact with fuel gas and an air electrode layer disposed on the other side of the solid electrolyte layer and brought into contact with oxidant gas, wherein the fuel cell stack comprises a plurality of manifolds (41a and 41h) passing through the fuel cells in the stacking direction so as to allow at least one of the fuel gas and the oxidant gas to flow therethrough; wherein the manifolds include: cold gas manifolds (41a, 41c) each adapted to introduce the fuel gas or the oxidant gas from the outside into the fuel cell stack; hot gas manifolds (41b, 41f, 41d) each adapted to discharge the fuel gas or the oxidant gas from the fuel cells; and a heat-exchanged gas manifold adapted to feed at least one of the fuel gas and the oxidant gas that has been heat-exchanged in a heat exchange part, which heat exchange part is located inside the fuel cell stack to perform heat exchange with any of the fuel cells adjacent to the heat exchange part; characterized in that the fuel cell stack having a structure that allows at least one of the fuel gas and the oxidant gas to flow into a part of the fuel cells in the staking direction and allows at least one of the fuel gas and the oxidant gas discharged from the part of the fuel cells to flow into the remaining part of the fuel cells, and wherein, when the fuel cell stack is viewed in the stacking direction, the manifolds (41a and 41h) are arranged such that a) every one of the cold gas manifolds (41a, 41c) is adjacent to any of the hot gas manifolds (41b, 41f, 41d); b) one of the hot gas manifolds (41b, 41f, 41d) is non-adjacent to any other one of the hot gas manifolds, and c) at least either of the heat-exchanged gas manifold and the cold gas manifolds is adjacent to each of the hot gas manifolds. cold gas manifolds (41a, 41c) each adapted to introduce the fuel gas or the oxidant gas from the outside into the fuel cell stack; hot gas manifolds (41b, 41f, 41d) each adapted to discharge the fuel gas or the oxidant gas from the fuel cells; and a) every one of the cold gas manifolds (41a, 41c) is adjacent to any of the hot gas manifolds (41b, 41f, 41d); b) one of the hot gas manifolds (41b, 41f, 41d) is non-adjacent to any other one of the hot gas manifolds, and c) at least either of the heat-exchanged gas manifold and the cold gas manifolds is adjacent to each of the hot gas manifolds.
A circular vent for a mask, comprising: a first wall having an inner side surface and a top surface; a second wall having a top surface and a bottom surface; a plurality of supports disposed between the first wall and the second wall beneath the bottom surface of the second wall, each support having an upper face disposed adjacent to the bottom surface of the second wall, and a side face disposed adjacent to the inner side surface of the first wall; and a plurality of vent holes, each being disposed between adjacent ones of the plurality of supports, wherein the vent holes are spaced in a circular configuration around the vent; and wherein the inner side surface of the first wall is angled inwardly moving from a bottom of the inner side surface to a top of the inner side surface. a first wall having an inner side surface and a top surface; a second wall having a top surface and a bottom surface; a plurality of supports disposed between the first wall and the second wall beneath the bottom surface of the second wall, each support having an upper face disposed adjacent to the bottom surface of the second wall, and a side face disposed adjacent to the inner side surface of the first wall; and a plurality of vent holes, each being disposed between adjacent ones of the plurality of supports, wherein the vent holes are spaced in a circular configuration around the vent; and wherein the inner side surface of the first wall is angled inwardly moving from a bottom of the inner side surface to a top of the inner side surface.
A liquid, radiation curable coating composition comprising: i) an unsaturated polyester urethane oligomer that is the reaction product of reactants comprising: (a) a polyol; (b) a polycarboxylic acid/anhydride; and (c) an acryloyl isocyanate. ii) a highly functional (meth)acrylate selected from monomers, oligomers, and/or polymers comprising four or more (meth)acrylate groups per molecule. i) an unsaturated polyester urethane oligomer that is the reaction product of reactants comprising: (a) a polyol; (b) a polycarboxylic acid/anhydride; and (c) an acryloyl isocyanate. (a) a polyol; (b) a polycarboxylic acid/anhydride; and (c) an acryloyl isocyanate. ii) a highly functional (meth)acrylate selected from monomers, oligomers, and/or polymers comprising four or more (meth)acrylate groups per molecule.