mhurhangee/ep-ind-claims huggingface dataset:
A method for use by a multi-band member access point, MMAP, capable of communicating with a multi-band control access point, MCAP, using a first frequency band, and capable of communicating with associated stations, STAs, using a second frequency band, comprising: transmitting data in the second frequency band to the associated STAs; transmitting a request for interference information in the second frequency band to at least one associated STA; receiving a report in the second frequency band from the at least one associated STA, wherein the report includes at least interference information, wherein the report includes an identification of an interfering MMAP; transmitting first information in the first frequency band to the MCAP, wherein the first information is based on the report received from the at least one associated STA in the second frequency band; and receiving, from the MCAP in the first frequency band, second information regarding radio resource management of the second frequency band. transmitting data in the second frequency band to the associated STAs; transmitting a request for interference information in the second frequency band to at least one associated STA; receiving a report in the second frequency band from the at least one associated STA, wherein the report includes at least interference information, wherein the report includes an identification of an interfering MMAP; transmitting first information in the first frequency band to the MCAP, wherein the first information is based on the report received from the at least one associated STA in the second frequency band; and receiving, from the MCAP in the first frequency band, second information regarding radio resource management of the second frequency band.
Transformer assembly comprising: - a first transformer stage having a plurality of first-stage transformer cells, each of the first-stage transformer cells comprising a converter and a medium frequency transformer connected in series to each other, wherein respective inputs of each of the plurality of first-stage transformer cells are connected in series and respective outputs of each of the plurality first-stage transformer cells are connected in parallel to form an output of the first transformer stage; and - a second transformer stage comprising at least one second-stage transformer cell, the second-stage transformer cell comprising a medium frequency transformer and a converter connected in series to each other, wherein a lightning impulse breakdown voltage of the at least one second-stage transformer cell is at least double of a lightning impulse breakdown voltage of one of the first-stage transformer cells, wherein the lightning impulse breakdown voltage is the peak voltage of a lightning impulse between an input and an output of the respective transformer cell (110, 210), at which the respective transformer cell (110, 210) breaks down during a lightning impulse test, and wherein an input of the second transformer stage is connected to the output of the first transformer stage. - a first transformer stage having a plurality of first-stage transformer cells, each of the first-stage transformer cells comprising a converter and a medium frequency transformer connected in series to each other, wherein respective inputs of each of the plurality of first-stage transformer cells are connected in series and respective outputs of each of the plurality first-stage transformer cells are connected in parallel to form an output of the first transformer stage; and - a second transformer stage comprising at least one second-stage transformer cell, the second-stage transformer cell comprising a medium frequency transformer and a converter connected in series to each other, wherein a lightning impulse breakdown voltage of the at least one second-stage transformer cell is at least double of a lightning impulse breakdown voltage of one of the first-stage transformer cells, wherein the lightning impulse breakdown voltage is the peak voltage of a lightning impulse between an input and an output of the respective transformer cell (110, 210), at which the respective transformer cell (110, 210) breaks down during a lightning impulse test, and wherein an input of the second transformer stage is connected to the output of the first transformer stage.
An absorbent article for a sanitary napkin, a panty liner, an incontinence pad, a medical pad or a personal hygiene item, in which an absorber is interposed between a liquid-permeable surface sheet and a back sheet and an emboss is provided in each of both side portions of the absorber along a substantially longitudinal direction, wherein the emboss is formed in such a pattern that a plurality of straight portions and arc-shaped portions which protrude outwardly in a direction of a width of the absorbent article with the edges of the straight portions being base points are alternately arranged.
A method for a network node for communicating with a first wireless device, the method comprising: assigning a control resource set, CORESET, search area identifier, CS-ID, to a first wireless device; and causing signaling of a CORESET including data for a first wireless device, the data being searchable within the CORESET based at least on an offset derivable from the CS-ID. assigning a control resource set, CORESET, search area identifier, CS-ID, to a first wireless device; and causing signaling of a CORESET including data for a first wireless device, the data being searchable within the CORESET based at least on an offset derivable from the CS-ID.
A method by a first network apparatus configured to operate an Intermediate System to Intermediate System, ISIS, routing protocol in a network, comprising: receiving, from a second network apparatus, an ISIS hello message comprising an attestation token, wherein the attestation token is for proving that the second network apparatus is in a known safe state; determining that the attestation token is valid for the second network apparatus at a current time; establishing, in response to the determination, an adjacency to the second network apparatus; computing, based at least on the attestation token, a trust level for a first link from the first network apparatus to the second network apparatus and a trust level for first prefixes associated with the first link; and sending, to neighboring network apparatuses, a Link State PDU, LSP, comprising the trust level for the first link and the trust level for the first prefixes, wherein the LSP is flooded to one or more network apparatuses in the network, and wherein the trust level for the first link and the trust level for the prefixes are used by the network apparatuses in the network to compute a routing table of the network. receiving, from a second network apparatus, an ISIS hello message comprising an attestation token, wherein the attestation token is for proving that the second network apparatus is in a known safe state; determining that the attestation token is valid for the second network apparatus at a current time; establishing, in response to the determination, an adjacency to the second network apparatus; computing, based at least on the attestation token, a trust level for a first link from the first network apparatus to the second network apparatus and a trust level for first prefixes associated with the first link; and sending, to neighboring network apparatuses, a Link State PDU, LSP, comprising the trust level for the first link and the trust level for the first prefixes, wherein the LSP is flooded to one or more network apparatuses in the network, and wherein the trust level for the first link and the trust level for the prefixes are used by the network apparatuses in the network to compute a routing table of the network.
A plug element (1, 1', 1", 1"', 1"") for an electrical plug-in connector, with a plugging section, which is configured to be able to be brought together with a mating plug element in a direction of plugging of the plug element (1, 1', 1", 1'", 1"") and has at least one receptacle for an electrical plug-in contact, and with a contact lock member which, at least in its securing position, projects, at least in sections, into the receptacle, wherein the contact lock member in the securing position releases a test path along which a test member (103, 200) can be guided past a test stop, characterised in that the test path, at least in sections, is formed by a test recess on the contact lock member.
A resin comprising structural units represented by the following general formulas and: wherein Z represents a linear, branched or cyclic divalent hydrocarbon group having 2 to 30 carbon atoms that is optionally substituted with a heteroatom and optionally has an intervening heteroatom; X 1 to X 3 represent any of -CO 2 -, -CONR X1 -, -O-, - NR X1 -, -S-, -SO 2 -, -SO 3 - and -SO 2 NR X1 - and may be the same as or different from each other, provided that R X1 is a hydrogen atom or a monovalent hydrocarbon group having 1 to 30 carbon atoms that is optionally substituted with a heteroatom and optionally has an intervening heteroatom; Ar represents a divalent aromatic group having 2 to 30 carbon atoms that is optionally substituted with a heteroatom and optionally has an intervening heteroatom; L 1 and L 2 independently represent a divalent hydrocarbon group having 1 to 30 carbon atoms that is optionally substituted with a heteroatom and optionally has an intervening heteroatom; x and y are each independently 0 or 1; and Y 1 represents a tetravalent hydrocarbon group having 1 to 100 carbon atoms that is optionally substituted with a heteroatom and optionally has an intervening heteroatom.
Coating composition for obtaining a highly structured composite material as protective coating against corrosive environments comprising a) a binder comprising at least one cross-linkable resin, wherein the resin comprises at least one polar group, wherein the polar group is selected from the group including hydroxyl, alkoxysilyl, epoxy, carboxyl, ester, carbonyl, oxycarbonyl, sulfide, disulfide, sulfonyl, sulfinyl, thiol, thiocarbonyl, imino, amino, nitrile, ammonium, imide, amide, hydrazo, azo, diazo, cyanide, guanidine, oxygen-containing heterocyclic, nitrogen-containing heterocyclic and sulfur-containing heterocyclic groups, and the resin is selected from the class of epoxy resins, phenol resins, phenoxy resins or mixtures thereof; b) at least one type of hydrophilic flakes with an aspect ratio of more than 10, wherein the surface of the flakes at least partially comprises a metal oxide, wherein the metal oxide is an transition metal oxide and is selected from TiO 2, Fe 2 O 3, V 2 O 5, CeO 2, MnO 2, CuO or ZrO 2 or mixtures thereof; and c) an organic solvent, wherein the binder is present in an amount of 40 to 98 wt.-% and the hydrophilic flakes are present between 2 wt.-% and 50 wt.-%. a) a binder comprising at least one cross-linkable resin, wherein the resin comprises at least one polar group, wherein the polar group is selected from the group including hydroxyl, alkoxysilyl, epoxy, carboxyl, ester, carbonyl, oxycarbonyl, sulfide, disulfide, sulfonyl, sulfinyl, thiol, thiocarbonyl, imino, amino, nitrile, ammonium, imide, amide, hydrazo, azo, diazo, cyanide, guanidine, oxygen-containing heterocyclic, nitrogen-containing heterocyclic and sulfur-containing heterocyclic groups, and the resin is selected from the class of epoxy resins, phenol resins, phenoxy resins or mixtures thereof; b) at least one type of hydrophilic flakes with an aspect ratio of more than 10, wherein the surface of the flakes at least partially comprises a metal oxide, wherein the metal oxide is an transition metal oxide and is selected from TiO 2, Fe 2 O 3, V 2 O 5, CeO 2, MnO 2, CuO or ZrO 2 or mixtures thereof; and c) an organic solvent,
An authentication system comprising: a host device; a controller integrated into the host device; and an authentication algorithm executable on the controller to issue a cryptographic timing challenge and to authenticate a supply device when the supply device provides a challenge response in a challenge response time that falls within an expected time window; further comprising reference logic on the host device dedicated to performing a specific mathematical calculation initiated by the timing challenge, wherein the reference logic performing the calculation provides an expected challenge response in a reference time from which the expected time window is determined. a host device; a controller integrated into the host device; and an authentication algorithm executable on the controller to issue a cryptographic timing challenge and to authenticate a supply device when the supply device provides a challenge response in a challenge response time that falls within an expected time window; further comprising reference logic on the host device dedicated to performing a specific mathematical calculation initiated by the timing challenge, wherein the reference logic performing the calculation provides an expected challenge response in a reference time from which the expected time window is determined.
A method comprising providing a substrate, forming a first layer on the substrate, wherein the first layer has a dielectric constant of less than 3.0 and comprises an organic polymer, applying an organosilicate resin over the first layer, removing a portion of the organosilicate resin to expose a portion of the first layer, and removing the exposed portions of the first layer, wherein the organosilicate resin is a cured reaction product of divinylsiloxane-bis-benzocyclobutene monomers or a hydrolyzed product of a combination of silanes comprising (a) an alkoxysilane or acyloxysilane having at least one group containing ethylenic unsaturation which is bonded to the silicon atom, and (b) an alkoxysilane or acyloxysilane having at least one group containing an aromatic ring which is bonded to the silicon atom. providing a substrate, forming a first layer on the substrate, wherein the first layer has a dielectric constant of less than 3.0 and comprises an organic polymer, applying an organosilicate resin over the first layer, removing a portion of the organosilicate resin to expose a portion of the first layer, and (a) an alkoxysilane or acyloxysilane having at least one group containing ethylenic unsaturation which is bonded to the silicon atom, and (b) an alkoxysilane or acyloxysilane having at least one group containing an aromatic ring which is bonded to the silicon atom.
A membrane-electrode assembly (10, 20, 30) for a fuel cell comprising: a cathode electrode and an anode electrode which are positioned oppositely to each other; and a polymer electrolyte membrane which is positioned between the cathode electrode and the anode electrode, wherein each of the cathode electrode and the anode electrode includes: an electrode substrate (12, 12'); a micropore layer (13, 13') which is positioned on the electrode substrate (12, 12'); and a first catalyst layer (14, 14') which is positioned on the micropore layer (13, 13'), the membrane-electrode assembly (10, 20, 30) further comprises a second catalyst layer (16, 16') positioned between the first catalyst layer (14, 14') of at least one of the cathode electrode and the anode electrode and the polymer electrolyte membrane, the second catalyst layer (16, 16') including a reaction inducing material, and the reaction inducing material is Ir c Ru d M e or Ir c Ru d M e O x, wherein the M is Fe, Co, Mn, Cu, Ni, Zn, Ti, V, Cr, Pd, Ag, Cd, In, Sn, Au, Os, W, Re, Rh or a combination thereof, a ratio of c/(d+e) is 0.3 to 3.5, a ratio of d/e is 0.5 to 25, and x is an integer of 0.5 to 2. a cathode electrode and an anode electrode which are positioned oppositely to each other; and a polymer electrolyte membrane which is positioned between the cathode electrode and the anode electrode, wherein each of the cathode electrode and the anode electrode includes: an electrode substrate (12, 12'); a micropore layer (13, 13') which is positioned on the electrode substrate (12, 12'); and a first catalyst layer (14, 14') which is positioned on the micropore layer (13, 13'), an electrode substrate (12, 12'); a micropore layer (13, 13') which is positioned on the electrode substrate (12, 12'); and a first catalyst layer (14, 14') which is positioned on the micropore layer (13, 13'), the membrane-electrode assembly (10, 20, 30) further comprises a second catalyst layer (16, 16') positioned between the first catalyst layer (14, 14') of at least one of the cathode electrode and the anode electrode and the polymer electrolyte membrane, the second catalyst layer (16, 16') including a reaction inducing material, and the reaction inducing material is Ir c Ru d M e or Ir c Ru d M e O x, wherein the M is Fe, Co, Mn, Cu, Ni, Zn, Ti, V, Cr, Pd, Ag, Cd, In, Sn, Au, Os, W, Re, Rh or a combination thereof, a ratio of c/(d+e) is 0.3 to 3.5, a ratio of d/e is 0.5 to 25, and x is an integer of 0.5 to 2.
A system (50; 100; 300) for providing therapy to a patient, the system comprising: an electrode (107; 107a; 107b); a noise generator coupled to the electrode (107; 107a; 107b); and a controller; wherein the controller is adapted to instruct the noise generator to deliver a broad spectrum of electrical noise signals to target neural tissue, non-neural tissue, or a combination thereof via the electrode (107; 107a; 107b), wherein the broad spectrum of electrical noise signals are tunable, characterised in that the controller is configured to tune the broad spectrum of electrical noise signals to optimize the therapy provided to the patient based on feedback received from the patient. an electrode (107; 107a; 107b); a noise generator coupled to the electrode (107; 107a; 107b); and a controller; wherein the controller is adapted to instruct the noise generator to deliver a broad spectrum of electrical noise signals to target neural tissue, non-neural tissue, or a combination thereof via the electrode (107; 107a; 107b), wherein the broad spectrum of electrical noise signals are tunable, characterised in that the controller is configured to tune the broad spectrum of electrical noise signals to optimize the therapy provided to the patient based on feedback received from the patient.
Assembly for a household appliance, which comprises a support frame for a cooked food carrier, which has an elongated receiving bar upon which a cooked food carrier can be placed, wherein the receiving bar is arranged in a fixed manner on a base part of the support frame, wherein the receiving bar is a fixed rail (9, 19) for a rail extension device, and wherein the assembly has the rail extension device, which has the fixed rail (9, 19) and a running rail (8, 22), which is connected to the fixed rail (9, 19) by means of a rolling element device and can be displaced relative to the fixed rail (9, 19), characterised in that the fixed rail (9, 19) is a multifunctional part, which, in addition to the function of the fixed rail (9, 19), in the case of a rail extension device when the running rail (8, 22) and the rolling element device are removed, is embodied as a receiving bar for directly receiving a cooked food carrier.
Metering device for a sand-spreading system of a rail vehicle, with a housing block, in which a sand path extends from a sand feeding funnel via a sand mixing channel, which rises from a sand receiving space in an inclined manner in relation to a sand deflecting space, into a vertical sand blowing-out channel, and with a pushing air tube, protruding coaxially into the sand mixing channel from below, for producing an air stream conveying spreading sand, characterized by an inflow channel, which opens out into the sand deflecting space from above and into which a nozzle insert for producing an air jet directed downward into the sand blowing-out channel is detachably fitted by insertion, so that easy insertion of the nozzle insert into the inflow channel and similarly easy removal is allowed, and wherein the nozzle insert can be selected from a set of interchangeable nozzle inserts with differently dimensioned nozzle diameters in accordance with a grain size of the spreading sand used.
A method of fabricating a solar cell array for a substantially streamlined body comprising: providing an assembly fixture having a substantially smooth planar surface; and constructing a solar cell assembly on the smooth planar surface, wherein constructing the solar cell assembly comprises: depositing a first silicone film directly on the planar surface of the fixture; mounting an array of interconnected solar cells having a front light receiving side and a back side, with the back side disposed directly over the first silicone film depositing a second silicone film comprising a first portion tapering in thickness and comprising a second portion directly over the front side of the solar cells so as to encapsulate the solar cells and provide a smooth surface allowing laminar flow there over; and removing the solar cell assembly from the assembly fixture and attaching the solar cell assembly on a top surface of the streamlined body. providing an assembly fixture having a substantially smooth planar surface; and constructing a solar cell assembly on the smooth planar surface, wherein constructing the solar cell assembly comprises: depositing a first silicone film directly on the planar surface of the fixture; mounting an array of interconnected solar cells having a front light receiving side and a back side, with the back side disposed directly over the first silicone film depositing a second silicone film comprising a first portion tapering in thickness and comprising a second portion directly over the front side of the solar cells so as to encapsulate the solar cells and provide a smooth surface allowing laminar flow there over; and removing the solar cell assembly from the assembly fixture and attaching the solar cell assembly on a top surface of the streamlined body. depositing a first silicone film directly on the planar surface of the fixture; mounting an array of interconnected solar cells having a front light receiving side and a back side, with the back side disposed directly over the first silicone film depositing a second silicone film comprising a first portion tapering in thickness and comprising a second portion directly over the front side of the solar cells so as to encapsulate the solar cells and provide a smooth surface allowing laminar flow there over; and removing the solar cell assembly from the assembly fixture and attaching the solar cell assembly on a top surface of the streamlined body.