mhurhangee/ep-ind-claims huggingface dataset:
A method of making one or more desired chemical products, comprising contacting a heterogeneous catalyst comprising boron, a nitride, or both, with oxygen and one or more liquid or gaseous reactants, whereby the heterogeneous catalyst catalyzes the oxidative dehydrogenation of the one or more liquid or gaseous reactants or oxidative coupling of methane to form the one or more desired chemical products; wherein: (a) the heterogeneous catalyst catalyzes the oxidative dehydrogenation of the one or more liquid or gaseous reactants; the heterogeneous catalyst comprises a nitride-containing compound selected from the group consisting of B-nitride, Si-nitride, Ti-nitride and Al-nitride, or the heterogeneous catalyst comprises a boron-containing compound selected from the group consisting of B-nitride, B-carbide, Ti-boride, Ni-boride and Nb-boride; the one or more liquid or gaseous reactants include an alkane or a hydrocarbon comprising an alkyl group; and the one or more desired chemical products include one or more olefins or one or more hydrocarbons comprising an alkenyl group; or (b) the one or more liquid or gaseous reactants include methane, the heterogeneous catalyst catalyzes the oxidative coupling of methane, the heterogeneous catalyst comprises boron nitride having a surface functionalized with oxygen atoms, and the one or more desired chemical products include ethane and/or ethylene. (a) the heterogeneous catalyst catalyzes the oxidative dehydrogenation of the one or more liquid or gaseous reactants; the heterogeneous catalyst comprises a nitride-containing compound selected from the group consisting of B-nitride, Si-nitride, Ti-nitride and Al-nitride, or the heterogeneous catalyst comprises a boron-containing compound selected from the group consisting of B-nitride, B-carbide, Ti-boride, Ni-boride and Nb-boride; the one or more liquid or gaseous reactants include an alkane or a hydrocarbon comprising an alkyl group; and the one or more desired chemical products include one or more olefins or one or more hydrocarbons comprising an alkenyl group; or (b) the one or more liquid or gaseous reactants include methane, the heterogeneous catalyst catalyzes the oxidative coupling of methane, the heterogeneous catalyst comprises boron nitride having a surface functionalized with oxygen atoms, and the one or more desired chemical products include ethane and/or ethylene.
A granulated antifoam composition comprising: an antifoam including (a) a hydrophobic fluid, wherein the hydrophobic fluid has a surface tension which is greater than or approximately equal to the dynamic surface tension of an aqueous dispersion of the detergent at above the critical micelle concentration of the surfactant and less than 62 mN/m and (b) a finely divided solid hydrophobic filler dispersed in the hydrophobic fluid; a siloxane wax binder; and a carrier wherein the hydrophobic fluid is selected from polyisobutylene, an organopolysiloxane fluid, or a combination thereof, and wherein the siloxane wax binder is an alkyl-functional silicone wax, alkyl-functional silanes, amine-functional silicone wax, amide-functional silicone wax, or a combination thereof having 12 to 80 carbon atoms. an antifoam including (a) a hydrophobic fluid, wherein the hydrophobic fluid has a surface tension which is greater than or approximately equal to the dynamic surface tension of an aqueous dispersion of the detergent at above the critical micelle concentration of the surfactant and less than 62 mN/m and (b) a finely divided solid hydrophobic filler dispersed in the hydrophobic fluid; (a) a hydrophobic fluid, wherein the hydrophobic fluid has a surface tension which is greater than or approximately equal to the dynamic surface tension of an aqueous dispersion of the detergent at above the critical micelle concentration of the surfactant and less than 62 mN/m and (b) a finely divided solid hydrophobic filler dispersed in the hydrophobic fluid; a siloxane wax binder; and a carrier
A printing ink composition suitable for microwaveable packaging comprising nitrocellulose resin, a solvent, a polyurethane resin, and a carbon black pigment having: a) an imaginary permittivity of ≤ 3 at 2450 MHz; and b) a surface oxygen content of 1wt% to 3wt%. a) an imaginary permittivity of ≤ 3 at 2450 MHz; and b) a surface oxygen content of 1wt% to 3wt%.
A method of transmitting a downlink multi-user, DL MU, Physical layer convergence procedure, PLCP, Protocol Data Unit, PPDU, including a PPDU header, first non-legacy fields, and second non-legacy fields in a wireless local area network, WLAN, the method comprising: transmitting, by an access point, AP, the PPDU header including a signal, SIG, field, wherein the SIG field includes a minimum channel band determining parameter for determining a bandwidth for a plurality of subchannels corresponding to a non-primary channel, wherein the non-primary channel is a secondary 20MHz channel, and wherein the bandwidth corresponds to 20MHz/N when the minimum channel band determining parameter is set to N; transmitting, by the AP, the first non-legacy fields to a first station, STA, through a first subchannel among the plurality of subchannels in a first time resource, wherein the first non-legacy fields include first identification information related to the first STA and first channel allocation information related to the first subchannel based on orthogonal frequency division multiplexing access, OFDMA; and transmitting, by the AP, the second non-legacy fields to a second STA through a second subchannel among the plurality of subchannels in second time resource overlapping with the first time resource, wherein the second non-legacy fields include second identification information related to the second STA and second channel allocation information related to the second subchannel based on the OFDMA. transmitting, by an access point, AP, the PPDU header including a signal, SIG, field, wherein the SIG field includes a minimum channel band determining parameter for determining a bandwidth for a plurality of subchannels corresponding to a non-primary channel, wherein the non-primary channel is a secondary 20MHz channel, and wherein the bandwidth corresponds to 20MHz/N when the minimum channel band determining parameter is set to N; transmitting, by the AP, the first non-legacy fields to a first station, STA, through a first subchannel among the plurality of subchannels in a first time resource, wherein the first non-legacy fields include first identification information related to the first STA and first channel allocation information related to the first subchannel based on orthogonal frequency division multiplexing access, OFDMA; and transmitting, by the AP, the second non-legacy fields to a second STA through a second subchannel among the plurality of subchannels in second time resource overlapping with the first time resource, wherein the second non-legacy fields include second identification information related to the second STA and second channel allocation information related to the second subchannel based on the OFDMA.
A data accessing apparatus for writing/reading data to a recording medium which is communicatively coupled to the data accessing apparatus and in which the data is written per data size that can be increased and decreased stepwise, a data transfer efficiency at writing the data is variable depending on the data size, and parameters showing the data transfer efficiencies at writing the data per each of the data sizes are recorded, the parameters including data sizes and for each of the data sizes a corresponding information on a length of time required for writing/reading the data of the respective data size to the recording medium, the data accessing apparatus comprising: a device configured for issuing a parameter acquisition command to the recording medium; a device configured for obtaining a desired average data rate demanded by a method providing the data to be written, for calculating an average data rate for each of the data sizes based on the parameters transmitted by the recording medium which received the parameter acquisition command, extracting from the calculated average data rates a smallest average data rate capable of achieving the desired average data rate, and selecting a data size corresponding to the extracted smallest average data rate as an optimum data size at writing/reading the data; and a device (107, 108) configured for writing/reading the data with respect to the recording medium based on the selected optimum data size. a device configured for issuing a parameter acquisition command to the recording medium; a device configured for obtaining a desired average data rate demanded by a method providing the data to be written, for calculating an average data rate for each of the data sizes based on the parameters transmitted by the recording medium which received the parameter acquisition command, extracting from the calculated average data rates a smallest average data rate capable of achieving the desired average data rate, and selecting a data size corresponding to the extracted smallest average data rate as an optimum data size at writing/reading the data; and a device (107, 108) configured for writing/reading the data with respect to the recording medium based on the selected optimum data size.
Traction or tensioning means, in particular a lashing strap, comprising a flat, elongate strap body and a label that contains at least such visually recognisable information as is required by law to be declared, a protective sleeve being provided for the label which can be moved into different positions, said sleeve receiving at least a major part of the label in a protected position of rest under the influence of a biasing force acting on the label, which can be moved out of the position of rest against the biasing force into a position in which the label can be read, characterised in that a stop device (36, 38) is provided that limits the path length of the movement involved when drawing the label into a receiving channel such that in the protected position of rest an end part of the label remains outside of an opening of the receiving channel.
A communication apparatus comprising; a communication part performing group communication, a display part displaying information, a key input part inputting an instruction, a storage part for storing a key operation log comprising information concerning an instruction input to the key input part concerning the group communication, and a control part able to execute a control for starting up a first program for executing processing relating to the group communication when the communication part receives a start notification of group communications, a judgement whether or not an input concerning the group communication was input to the key input part based on the key operation log, a control for ending the first program and storing, based on the judgement, a flag indicating that the start notification was not replied to in the storage part, when any input from the key input part for starting a group communication has not been generated for a predetermined time in a state where the first program is started up, and a control for displaying first information indicating no reply to the start notification on the display part in a case where the flag is stored in the storage part in a state where the first program has ended.
A profile connector for connecting a first and a second profile bar (3, 4), composed in particular of a light metal alloy, having a body which can be received in an undercut longitudinal groove of the second profile bar and which has at least one support leg for support against an undercut (9, 10) of the undercut longitudinal groove of the second profile bar, and having an armature screw, which is received in a passage opening formed into the body and extending perpendicular to a longitudinal extension of the body and which has a screw head for fixing the profile connector, in particular at a face side, to the first profile bar, and having a first clamping screw which is received in a first internally threaded opening provided in the body and extending at an angle with respect to a longitudinal central axis (L A) of the passage opening for adjustment of the body along the armature screw away from the armature screw head in the direction of the first profile bar by tightening the first clamping screw in the internal thread of the first internally threaded opening and thereby supporting the first clamping screw against the armature screw characterized in that a moulding-in geometry is formed on the body, which is designed and arranged to mould, in particular at a face side, into the first profile bar by tightening the first clamping screw in order to produce a positive locking between the body and the first profile bar.
A method for random access to a communications network by a wireless transmit/receive unit, WTRU, the method comprising: receiving, by the WTRU, random access response, RAR, configuration information including a type of a non-terrestrial network device; determining, by the WTRU, a time offset for a RAR window, based on the type of the non-terrestrial network device, wherein the time offset precedes a start of the RAR window and is based on a minimum round trip time, RTT, between the WTRU and the non-terrestrial network device; determining, by the WTRU, a length of the RAR window; transmitting, by the WTRU, a physical random access channel preamble to the non-terrestrial network device; and monitoring, by the WTRU, a physical downlink control channel from the non-terrestrial network device during the RAR window based on the time offset and the length of the RAR window. receiving, by the WTRU, random access response, RAR, configuration information including a type of a non-terrestrial network device; determining, by the WTRU, a time offset for a RAR window, based on the type of the non-terrestrial network device, wherein the time offset precedes a start of the RAR window and is based on a minimum round trip time, RTT, between the WTRU and the non-terrestrial network device; determining, by the WTRU, a length of the RAR window; transmitting, by the WTRU, a physical random access channel preamble to the non-terrestrial network device; and monitoring, by the WTRU, a physical downlink control channel from the non-terrestrial network device during the RAR window based on the time offset and the length of the RAR window.
At a computer system within a computing environment, the computing environment including a plurality of different technologies (391,392,393) for implementing distributed applications, a method for implementing a composite distributed application, the method comprising: an act of describing the components of a composite distributed application in a declarative model, including describing a plurality of different application parts (107A, 107B) of the composite distributed application; an act of inserting one or more abstractions (162A, 162B) into the declarative model, each abstraction describing the intended behavior of a corresponding application part (107A, 107B) in an implementation independent manner, the abstractions (162A, 162B) extending the declarative model to make the declarative model executable; an act of tagging each of the one or more abstractions (162A, 162B) with a label (164A, 164B), each label (164A, 164B) including implementation specific details that indicate how the plurality of different technologies (391,392,393) are to be used to implement the corresponding application part (107A, 107B); and an act of interpreting the declarative model to implement an executable instance of the composite distributed application, the executable instance of the composite distributed application implemented using the plurality of technologies (391,392,393) in accordance with the implementation specific details included in the labels (164A, 164B). an act of describing the components of a composite distributed application in a declarative model, including describing a plurality of different application parts (107A, 107B) of the composite distributed application; an act of inserting one or more abstractions (162A, 162B) into the declarative model, each abstraction describing the intended behavior of a corresponding application part (107A, 107B) in an implementation independent manner, the abstractions (162A, 162B) extending the declarative model to make the declarative model executable; an act of tagging each of the one or more abstractions (162A, 162B) with a label (164A, 164B), each label (164A, 164B) including implementation specific details that indicate how the plurality of different technologies (391,392,393) are to be used to implement the corresponding application part (107A, 107B); and an act of interpreting the declarative model to implement an executable instance of the composite distributed application, the executable instance of the composite distributed application implemented using the plurality of technologies (391,392,393) in accordance with the implementation specific details included in the labels (164A, 164B).
A method for ensuring precision landing of an aerial vehicle, equipped with a receiving portion, on a landing site, equipped with a transmitting portion, wherein: a) an emission by at least two projectors of an emitting unit of a transmitting portion is initiated; b) a signal comprising emission of the projectors is registered by means of a light sensor of a receiving portion; c) a spectrum of the registered signal is analyzed by means of a data processing unit of the receiving portion in order to ensure determination of the most precisely directed projector among the projectors; the method characterised in comprising step d), wherein: d) a dislocation of the receiving portion relative to the most precisely directed projector of the emitting unit of the transmitting portion is calculated according to the formula: d = I ⋅ cos a E ⋅ sin a, where: I - known intensity of the most precisely directed projector; E - registered intensity of the most precisely directed projector; a - an angle between a direction of an emission intensity maximum from the most precisely directed projector and a normal to the main plane of the emitting unit. a) an emission by at least two projectors of an emitting unit of a transmitting portion is initiated; b) a signal comprising emission of the projectors is registered by means of a light sensor of a receiving portion; c) a spectrum of the registered signal is analyzed by means of a data processing unit of the receiving portion in order to ensure determination of the most precisely directed projector among the projectors; I - known intensity of the most precisely directed projector; E - registered intensity of the most precisely directed projector; a - an angle between a direction of an emission intensity maximum from the most precisely directed projector and a normal to the main plane of the emitting unit.
A method for the construction of a wall comprising two generally vertical and substantially parallel concrete walls ( 2, 3) having at least one insulation board clamped therebetween, the two walls ( 2, 3) being produced simultaneously or substantially simultaneously by pouring concrete between the insulation board and an internal and an external form panel, positioned on either side of said insulation board, the insulation board being maintained between the two form panels, before pouring the concrete, using positioning systems passing through the insulation board and bearing on the inner surfaces of the form panels ( 6, 7), the two form panels being kept in position using assembly devices, the method being characterized by the installation: - positioning systems on each insulation board prior to the positioning thereof, each of said systems comprising at least one angularly orientable hook extending withdrawn from the free end ( 18 1) of the positioning system, - an internal reinforcement on the internal side of the internal form panel, - each insulation board such that the positioning systems extend through the internal reinforcement, with possible rotation of said systems for the passage of hooks and their assembly with said internal structural reinforcement, - for each assembly device and prior to the positioning of the external form panel, a tubular spacer which extends through the insulation board and after the positioning of the external form panel, bearing sealably on the internal surfaces of the form panels ( 6, 7), each tubular spacer being passed through by a tightening rod extending toward the exterior of the form panels in order to receive a tightening member at each end. - positioning systems on each insulation board prior to the positioning thereof, each of said systems comprising at least one angularly orientable hook extending withdrawn from the free end ( 18 1) of the positioning system, - an internal reinforcement on the internal side of the internal form panel, - each insulation board such that the positioning systems extend through the internal reinforcement, with possible rotation of said systems for the passage of hooks and their assembly with said internal structural reinforcement, - for each assembly device and prior to the positioning of the external form panel, a tubular spacer which extends through the insulation board and after the positioning of the external form panel, bearing sealably on the internal surfaces of the form panels ( 6, 7), each tubular spacer being passed through by a tightening rod extending toward the exterior of the form panels in order to receive a tightening member at each end.