mhurhangee/ep-ind-claims huggingface dataset:
Chromatography column at least comprising a porous monolithic moulding as sorbent and a cladding, characterised in that the moulding and the cladding have been produced together from the same thermoplastic polymer by means of 3D printing processes, where the thermoplastic polymer is polyether ether ketone (PEEK) or polyphenylene sulfide.
A handover-enabling method for a network node of a cellular communication network, wherein the network node is adapted to communicate with a wireless communication device, the method comprising: acquiring location-related parameters of the wireless communication device; dynamically determining, based on the acquired location-related parameters, a transmission pattern of reference signals, wherein the reference signals are for mobility measurements by the wireless communication device, and wherein the transmission pattern is determined as at least one of: a frequency of transmission, and a fraction of time to be used for the transmission; indicating the determined transmission pattern to the wireless communication device; and transmitting the reference signals in accordance with the determined transmission pattern. acquiring location-related parameters of the wireless communication device; dynamically determining, based on the acquired location-related parameters, a transmission pattern of reference signals, wherein the reference signals are for mobility measurements by the wireless communication device, and wherein the transmission pattern is determined as at least one of: a frequency of transmission, and a fraction of time to be used for the transmission; indicating the determined transmission pattern to the wireless communication device; and transmitting the reference signals in accordance with the determined transmission pattern.
A tissue expander comprising a self-inflating core having a non-inflated state and an inflated state and a coating surrounding said core, characterized in that said core comprises two or more segments of dried compacted material of height H joined to each other by conformable linking portions of height h where H is greater than h.
A gas measuring vehicle, formed for testing gas deposits in open terrain, on which a gas measuring device is arranged, wherein the gas measuring device has a gas probe device, which has a gas-tight tube comprising a plurality of connecting pieces, wherein at least one connecting piece is fluidically connected to a line, which is fluidically connected to a sensor and evaluation device, and wherein one or several connecting pieces are each connected to an intake line, characterized in that the gas measuring vehicle is an all-terrain vehicle comprising an all-wheel drive, and that the gas probe device is arranged by means of a suspension device on an underbody behind a first wheel axle in the direction of travel, wherein the suspension device is a protective rail, which is arranged transversely to the all-terrain vehicle longitudinal axis on the underbody behind the first wheel axle in the direction of travel and in which the gas-tight tube is arranged so as to be capable of being pulled out.
A control system comprising: a solid-state switch that is connected in series with a power source and a load and a control module that selectively closes the solid-state switch to provide power to the load, characterized by a mechanical current interrupting device that is connected in series with the power source and the solid-state switch, wherein the control module causes the mechanical current interrupting device to mechanically interrupt current flow to the load in response to a voltage of the load being outside of a desired range. a solid-state switch that is connected in series with a power source and a load and a control module that selectively closes the solid-state switch to provide power to the load, characterized by a mechanical current interrupting device that is connected in series with the power source and the solid-state switch, wherein the control module causes the mechanical current interrupting device to mechanically interrupt current flow to the load in response to a voltage of the load being outside of a desired range.
A sprayable polyurethane based reaction system for forming a protective coating in industrial containers, the reaction system comprising: a first component that is a reaction product of a polyol component and an isocyanate component, the polyol component including a first butylene oxide-propylene oxide copolymer polyol having a polyoxybutylene content of at least 50 wt% based on a total weight of the first butylene oxide - propylene oxide copolymer polyol, the isocyanate component including at least one polyisocyanate, and a viscosity of the first component being less than 1500 cP (1500 mPa·s) at 25 °C; and a second component that includes a second butylene oxide-propylene oxide copolymer polyol having a polyoxybutylene content of at least 50 wt%, based on a total weight of the second butylene oxide - propylene oxide copolymer polyol and a viscosity of the second component being less than 1500 cP (1500 mPa·s) at 25 °C, and a difference between the viscosities of the first component and the second component within a temperature range of 60 °C and 80 °C being from -150 cP to 150 cP (-150 mPa·s to 150 mPa·s), wherein at least one selected from a group of the polyol component and the second component includes a primary hydroxyl containing polyol, and a reaction product of the first component and the second component has a tensile strength of at least 1500 psi (10.34 MPa) and a percent elongation at break of at least 400, and wherein viscosity is determined using a parallel plate rheometer under oscillatory strain at a frequency of 10 Hz and tensile strength and percentage elongation at break are determined according to ASTM D-1708. a first component that is a reaction product of a polyol component and an isocyanate component, the polyol component including a first butylene oxide-propylene oxide copolymer polyol having a polyoxybutylene content of at least 50 wt% based on a total weight of the first butylene oxide - propylene oxide copolymer polyol, the isocyanate component including at least one polyisocyanate, and a viscosity of the first component being less than 1500 cP (1500 mPa·s) at 25 °C; and a second component that includes a second butylene oxide-propylene oxide copolymer polyol having a polyoxybutylene content of at least 50 wt%, based on a total weight of the second butylene oxide - propylene oxide copolymer polyol and a viscosity of the second component being less than 1500 cP (1500 mPa·s) at 25 °C, and a difference between the viscosities of the first component and the second component within a temperature range of 60 °C and 80 °C being from -150 cP to 150 cP (-150 mPa·s to 150 mPa·s), wherein at least one selected from a group of the polyol component and the second component includes a primary hydroxyl containing polyol, and a reaction product of the first component and the second component has a tensile strength of at least 1500 psi (10.34 MPa) and a percent elongation at break of at least 400, and wherein viscosity is determined using a parallel plate rheometer under oscillatory strain at a frequency of 10 Hz and tensile strength and percentage elongation at break are determined according to ASTM D-1708.
A radar system (200, 300) comprising: a plurality of radar transceiver units (202a-c), each configured to operate according to a low frequency clock signal, and configured to generate an intermediate frequency signal and a modulated high frequency signal for transmitting and receiving radar signals; and a microcontroller unit configured to provide control signals to each transceiver unit (202a-c) to synchronize operation thereof, characterised in that each radar transceiver unit (202a-c) is configured to provide received radar data (RX 1-N) and a monitoring signal (203a-c) to the microcontroller unit, the monitoring signal (203a-c) derived by frequency dividing and combining the modulated high frequency signal and the intermediate frequency signal, and in that the microcontroller unit is configured to derive and compensate for phase and frequency differences between the received radar data (RX 1-N) from each transceiver unit (202a-c) based on the monitoring signals (203a-c) provided by each transceiver unit (202a-c). a plurality of radar transceiver units (202a-c), each configured to operate according to a low frequency clock signal, and configured to generate an intermediate frequency signal and a modulated high frequency signal for transmitting and receiving radar signals; and a microcontroller unit configured to provide control signals to each transceiver unit (202a-c) to synchronize operation thereof, characterised in that each radar transceiver unit (202a-c) is configured to provide received radar data (RX 1-N) and a monitoring signal (203a-c) to the microcontroller unit, the monitoring signal (203a-c) derived by frequency dividing and combining the modulated high frequency signal and the intermediate frequency signal, and in that the microcontroller unit is configured to derive and compensate for phase and frequency differences between the received radar data (RX 1-N) from each transceiver unit (202a-c) based on the monitoring signals (203a-c) provided by each transceiver unit (202a-c).
A high tensile-strength hot-dip galvanized/galvannealed and cold-rolled steel sheet, consisting of: as a percentage of mass, C: at least 0.05% to less than 0.12%, Si: at least 0.01% to less than 0.35%, Mn: 2.0% to 3.5%, P: 0.001% to 0.020%, S: 0.0001% to 0.0030%, Al: 0.005% to 0.1%, N: 0.0001% to 0.0060%, Cr: more than 0.5% up to 2.0%, Mo: 0.01% to 0.50%, Ti: 0.010% to 0.080%, Nb: 0.010% to 0.080%, and B: 0.0001% to 0.0030%, and optionally one or more of the following Ca: 0.0001% to 0.0050%, V: less than 0.05%, REM: 0.0001% to 0.1%, Sb 0.0001% to 0.1%, Zr: less than 0.0200%, Mg: less than 0.0200%, Cu: less than 0.4%, Ni: less than 0.4%, the remainder being Fe and unavoidable impurities, wherein the high tensile-strength galvanized steel sheet has a microstructure that consists of, as a percentage by volume, 20% to 70% ferrite having an average grain size of 5 μm or less; and 30% to 80% in total of bainite and/or martensite each having an average grain size of 5 μm or less, the amount of the remaining microstructure being 5% or less including 0%, and wherein the high tensile-strength galvanized and cold-rolled steel sheet has a tensile strength of at least 980 MPa and has a galvanized zinc layer at a coating weight in the range of 20 to 150 g/m 2 per side on the surface thereof. as a percentage of mass, C: at least 0.05% to less than 0.12%, Si: at least 0.01% to less than 0.35%, Mn: 2.0% to 3.5%, P: 0.001% to 0.020%, S: 0.0001% to 0.0030%, Al: 0.005% to 0.1%, N: 0.0001% to 0.0060%, Cr: more than 0.5% up to 2.0%, Mo: 0.01% to 0.50%, Ti: 0.010% to 0.080%, Nb: 0.010% to 0.080%, and B: 0.0001% to 0.0030%, and optionally one or more of the following Ca: 0.0001% to 0.0050%, V: less than 0.05%, REM: 0.0001% to 0.1%, Sb 0.0001% to 0.1%, Zr: less than 0.0200%, Mg: less than 0.0200%, Cu: less than 0.4%, Ni: less than 0.4%, the remainder being Fe and unavoidable impurities, wherein the high tensile-strength galvanized steel sheet has a microstructure that consists of, as a percentage by volume, 20% to 70% ferrite having an average grain size of 5 μm or less; and 30% to 80% in total of bainite and/or martensite each having an average grain size of 5 μm or less, the amount of the remaining microstructure being 5% or less including 0%, and wherein the high tensile-strength galvanized and cold-rolled steel sheet has a tensile strength of at least 980 MPa and has a galvanized zinc layer at a coating weight in the range of 20 to 150 g/m 2 per side on the surface thereof.
A wound dressing laminate comprising a layer impregnated with an antimicrobial agent, inserted between an apertured wound-contacting layer and an absorbent non-woven layer (5;6), characterised in that the antimicrobial agent is povidone-iodine, and the layer impregnated with povidone-iodine and the absorbent non-woven layer are a coherent double-ply structure laminated together by needle punching.
A container for dental instruments and medical instruments, said instruments having two branches that are pivotably arranged with respect to each other to allow said instruments to assume an open state and a closed state, wherein the container comprises a bottom, two side walls (21,22) facing each other, a back wall and a front wall connected to the two side walls and facing each other, and an instrument mounting member extending between the two side walls and attached to the side walls, wherein the instrument mounting member comprises a first portion being formed of two bars positioned at the same height with respect to the bottom with a space therebetween, the two bars being configured to enable mounting of said instruments in an open state on the first portion of the instrument mounting member, characterized in that the back wall and the front wall are arranged at a distance with respect to each other that is in accordance with a space between the two branches of said instruments when in an open state and configured to limit rotational movement of said instruments when mounted in an open state on the first portion of the instrument mounting member, the bottom of the container being provided with an opening and the first portion of the instrument mounting member being arranged above the opening, wherein the opening is configured to allow, in use of the container, cleaning liquid to be sprayed unimpeded and directly onto the instruments that are mounted in an open state on the first portion of the instrument mounting member.
A method of communicating with a digitizer, comprising: receiving a transmission signal and a control signal at a device (100; 300) having a transmitter circuit, a receiver circuit, and an electrode configured for communicating with the digitizer, wherein the transmitter circuit includes a first path with a level translator and a second path with a NOR gate; performing a logic operation based on the transmission signal and the control signal, wherein an output of the logic operation is an output of a NOR operation performed by the NOR gate based on the transmission signal and the control signal; determining, based on the output of the logic operation being a first low signal and an output of the level translator being a second low signal, wherein the transmission signal is a low transmission signal provided to the level translator and the NOR gate and the control signal is a high control signal provided to the NOR gate, that the device is to receive a first information from the digitizer via the electrode instead of transmitting a second information to the digitizer via the electrode; and isolating the electrode from the transmitter circuit in response to determining that the device is to receive the first information from the digitizer via the electrode. receiving a transmission signal and a control signal at a device (100; 300) having a transmitter circuit, a receiver circuit, and an electrode configured for communicating with the digitizer, wherein the transmitter circuit includes a first path with a level translator and a second path with a NOR gate; performing a logic operation based on the transmission signal and the control signal, wherein an output of the logic operation is an output of a NOR operation performed by the NOR gate based on the transmission signal and the control signal; determining, based on the output of the logic operation being a first low signal and an output of the level translator being a second low signal, wherein the transmission signal is a low transmission signal provided to the level translator and the NOR gate and the control signal is a high control signal provided to the NOR gate, that the device is to receive a first information from the digitizer via the electrode instead of transmitting a second information to the digitizer via the electrode; and isolating the electrode from the transmitter circuit in response to determining that the device is to receive the first information from the digitizer via the electrode.
A heat-curable polyurethane reactive composition being liquid at room temperature comprising a solid surface-deactivated isocyanate, an isocyanate reactive compound and a catalyst for the reaction of the isocyanate with the isocyanate reactive compound wherein the isocyanate reactive compound is a diol or a higher functional polyol of a polyester polyurethane, the polyester being derived from a hydroxy carboxylic acid or from the corresponding lactone, and the catalyst is a sterically hindered bismuth compound.
A method of decoding video data according to a High Efficiency Video Coding (HEVC) standard, or an extension of an HEVC standard, the method comprising: decoding one or more non-video coding layer network abstraction layer units of a multi-layer bitstream of video data containing one or more access units having a plurality of pictures that correspond to a single time instance, wherein the one or more non-VCL NAL units contain a scalable nesting SEI message, wherein the scalable nesting SEI message contains one or more SEI messages having an SEI payload type; and determining one or more syntax values of one or more syntax elements of the multi-layer bitstream to which the scalable nesting SEI message applies based on the SEI payload type, wherein determining the one or more syntax values comprises automatically determining, based on the SEI payload type being included in a first set of payload types, that a bitstream_subset flag of the scalable nesting SEI message is equal to zero, wherein bitstream_subset_flag equal to zero specifies that the one or more SEI messages contained in the scalable nesting SEI message apply to specific layers or sub-layers, and bitstream_subset flag equal to one specifies that the one or more SEI messages contained in the scalable nesting SEI message apply to one or more sub-bitstreams resulting from a sub-bitstream extraction process. decoding one or more non-video coding layer network abstraction layer units of a multi-layer bitstream of video data containing one or more access units having a plurality of pictures that correspond to a single time instance, wherein the one or more non-VCL NAL units contain a scalable nesting SEI message, wherein the scalable nesting SEI message contains one or more SEI messages having an SEI payload type; and determining one or more syntax values of one or more syntax elements of the multi-layer bitstream to which the scalable nesting SEI message applies based on the SEI payload type, wherein determining the one or more syntax values comprises automatically determining, based on the SEI payload type being included in a first set of payload types, that a bitstream_subset flag of the scalable nesting SEI message is equal to zero, wherein bitstream_subset_flag equal to zero specifies that the one or more SEI messages contained in the scalable nesting SEI message apply to specific layers or sub-layers, and bitstream_subset flag equal to one specifies that the one or more SEI messages contained in the scalable nesting SEI message apply to one or more sub-bitstreams resulting from a sub-bitstream extraction process.
A method for producing an alloy material for high temperature with an excellent oxidation resistant property, the alloy material being formed by an Ir based alloy material or a Ru based alloy material which contains Al in an amount of 10 to 30 atomic % in the Ir based alloy material or Al in an amount of 3 to 40 atomic % in the Ru based alloy material, and a surface of the Ir based alloy material or the Ru based alloy material being uniformly covered by an IrAl intermetallic compound film or a RuAl intermetallic compound film, the method comprising the steps of: mixing Al alloy powders and alumina powders in a mass ratio of from 1:1.2 to 1:0.8; dipping the Ir based alloy material or the Ru based alloy material in mixture powders, to which activator powders further added in an amount of from 1 to 6 mass %, for from 2 to 6 hours at from 800 to 1300°C; and forming the IrAl intermetallic compound film or the RuAl intermetallic compound film on the surface of the Ir based alloy material or the Ru based alloy material, wherein the concentration of Al in the Al alloy powders is from 45 to 65 atomic % in the case of the Ir based alloy material or from 35 to 50 atomic % in the case of the Ru based alloy material. mixing Al alloy powders and alumina powders in a mass ratio of from 1:1.2 to 1:0.8; dipping the Ir based alloy material or the Ru based alloy material in mixture powders, to which activator powders further added in an amount of from 1 to 6 mass %, for from 2 to 6 hours at from 800 to 1300°C; and forming the IrAl intermetallic compound film or the RuAl intermetallic compound film on the surface of the Ir based alloy material or the Ru based alloy material, wherein the concentration of Al in the Al alloy powders is from 45 to 65 atomic % in the case of the Ir based alloy material or from 35 to 50 atomic % in the case of the Ru based alloy material.
A method for dynamically enforcing inter-domain policy and quality of service, QoS, for Traffic Engineering, TE, Label Switched Paths, LSPs, between a local domain and a remote domain in a computer network, the method comprising: receiving a path computation request having a set of constraints at a Path Computation Element, PCE, of the local domain, the path computation request being for an inter-domain TE-LSP from the remote domain to the local domain; determining, at the PCE, a subset of constraints from the set of constraints within the path computation request; creating a policy verification request for the TE-LSP, the request comprising the subset of constraints; sending the policy verification request from the PCE to a Policy Decision Point, PDP, of the local domain with the subset of constraints; and determining at the PDP of the local domain whether the TE-LSP is allowed based on configured policy for the remote domain, as applied to the subset of constraints, and states of previously established TE-LSPs from the remote domain; and receiving, at the PCE, an inter-domain policy-based response from the POP. receiving a path computation request having a set of constraints at a Path Computation Element, PCE, of the local domain, the path computation request being for an inter-domain TE-LSP from the remote domain to the local domain; determining, at the PCE, a subset of constraints from the set of constraints within the path computation request; creating a policy verification request for the TE-LSP, the request comprising the subset of constraints; sending the policy verification request from the PCE to a Policy Decision Point, PDP, of the local domain with the subset of constraints; and determining at the PDP of the local domain whether the TE-LSP is allowed based on configured policy for the remote domain, as applied to the subset of constraints, and states of previously established TE-LSPs from the remote domain; and receiving, at the PCE, an inter-domain policy-based response from the POP.