mhurhangee/ep-ind-claims huggingface dataset:
An apparatus comprising: a touch-screen interface of a security system that protects a secured geographic area; a processor that detects failure of the touch screen interface based upon a user-modulated parameter of the touch-screen; and a processor that activates a back-up user interface based upon the detected failure. a touch-screen interface of a security system that protects a secured geographic area; a processor that detects failure of the touch screen interface based upon a user-modulated parameter of the touch-screen; and a processor that activates a back-up user interface based upon the detected failure.
A sulfur-based positive-electrode active material (i) wherein the sulfur-based positive electrode active material comprises: a carbon skeleton derived from a polymer composed of a monomer unit having at least one hetero atom-containing moiety, and sulfur incorporated into the carbon skeleton as the carbon skeleton is formed from the polymer by heat treatment under a non-oxidizing atmosphere, wherein the temperature of the heat treatment is within the range from 250°C to 550°C; or (ii) wherein the sulfur-based positive-electrode active material is one prepared by a preparation process comprising a step of heat-treating a polymer composed of a monomer unit having at least one hetero atom-containing moiety and sulfur under a non-oxidizing atmosphere, and a heat-treating temperature is from 250°C to 550°C; wherein the sulfur-based positive-electrode active material (i, ii) is characterized in that the hetero atom-containing moiety is a moiety having a group selected from the group consisting of a monovalent functional group having at least one hetero atom being P and a heterocyclic group having at least one hetero atom being P; or in that the polymer is phosphorylcholine polymer. (i) wherein the sulfur-based positive electrode active material comprises: a carbon skeleton derived from a polymer composed of a monomer unit having at least one hetero atom-containing moiety, and sulfur incorporated into the carbon skeleton as the carbon skeleton is formed from the polymer by heat treatment under a non-oxidizing atmosphere, wherein the temperature of the heat treatment is within the range from 250°C to 550°C; or (ii) wherein the sulfur-based positive-electrode active material is one prepared by a preparation process comprising a step of heat-treating a polymer composed of a monomer unit having at least one hetero atom-containing moiety and sulfur under a non-oxidizing atmosphere, and a heat-treating temperature is from 250°C to 550°C; wherein the sulfur-based positive-electrode active material (i, ii) is characterized in that the hetero atom-containing moiety is a moiety having a group selected from the group consisting of a monovalent functional group having at least one hetero atom being P and a heterocyclic group having at least one hetero atom being P; or in that the polymer is phosphorylcholine polymer. wherein the sulfur-based positive-electrode active material (i, ii) is characterized in that the hetero atom-containing moiety is a moiety having a group selected from the group consisting of a monovalent functional group having at least one hetero atom being P and a heterocyclic group having at least one hetero atom being P; or in that the polymer is phosphorylcholine polymer.
An under-tile multilayer sheet (100; 200) for waterproofing a roof (300; 400) having a metal roof covering, characterized in that it comprises: - a reinforcement layer having a face and a further opposite face; - a first adhesive membrane connected to the face of the reinforcement layer on at least part of said face surface, said first adhesive membrane being impermeable to water, wherein said first adhesive membrane comprises an adhesive polymeric blend comprising bitumen, polymers, and a filler; - a foil in polymeric material connected to said first adhesive membrane, said first adhesive membrane being sandwiched between the reinforcement layer and said polymeric material foil, said foil in polymeric material having a first face opposite a second face adjacent to the first adhesive membrane, said foil comprising a plurality of reliefs on said first face. - a reinforcement layer having a face and a further opposite face; - a first adhesive membrane connected to the face of the reinforcement layer on at least part of said face surface, said first adhesive membrane being impermeable to water, wherein said first adhesive membrane comprises an adhesive polymeric blend comprising bitumen, polymers, and a filler; - a foil in polymeric material connected to said first adhesive membrane, said first adhesive membrane being sandwiched between the reinforcement layer and said polymeric material foil, said foil in polymeric material having a first face opposite a second face adjacent to the first adhesive membrane, said foil comprising a plurality of reliefs on said first face.
An integrated circuit for controlling a process comprising: transmitting, to a plurality of mobile stations, control information on a control channel element; and receiving: CQI signals transmitted by one or more mobile stations of the plurality of mobile stations using respective cyclic shift values of a set of cyclic shift values for spreading CQI signals; and ACK/NACK signals transmitted by one or more mobile stations of the plurality of mobile stations using respective cyclic shift values of a set of cyclic shift values for spreading ACK/NACK signals, wherein the mobile stations that transmit the CQI signals and the mobile stations that transmit the ACK/NACK signals are different, characterized in that the CCE is associated with a physical uplink control channel, PUCCH, and the PUCCH is determinative of a cyclic shift value among a plurality of cyclic shift values comprising the set of cyclic shift values for spreading CQI signals and the set of cyclic shift values for spreading ACK/NACK signals, with one or more unused cyclic shift values separating the set of cyclic shift values for spreading CQI signals and the set of cyclic shift values for spreading ACK/NACK signals. transmitting, to a plurality of mobile stations, control information on a control channel element; and receiving: CQI signals transmitted by one or more mobile stations of the plurality of mobile stations using respective cyclic shift values of a set of cyclic shift values for spreading CQI signals; and ACK/NACK signals transmitted by one or more mobile stations of the plurality of mobile stations using respective cyclic shift values of a set of cyclic shift values for spreading ACK/NACK signals, wherein the mobile stations that transmit the CQI signals and the mobile stations that transmit the ACK/NACK signals are different, CQI signals transmitted by one or more mobile stations of the plurality of mobile stations using respective cyclic shift values of a set of cyclic shift values for spreading CQI signals; and ACK/NACK signals transmitted by one or more mobile stations of the plurality of mobile stations using respective cyclic shift values of a set of cyclic shift values for spreading ACK/NACK signals, wherein the mobile stations that transmit the CQI signals and the mobile stations that transmit the ACK/NACK signals are different, characterized in that the CCE is associated with a physical uplink control channel, PUCCH, and the PUCCH is determinative of a cyclic shift value among a plurality of cyclic shift values comprising the set of cyclic shift values for spreading CQI signals and the set of cyclic shift values for spreading ACK/NACK signals, with one or more unused cyclic shift values separating the set of cyclic shift values for spreading CQI signals and the set of cyclic shift values for spreading ACK/NACK signals.
A method in a network node for handling scheduling of a wireless device in a communications network, wherein the network node is adapted to communicate with the wireless device over a radio channel, the method comprising: dynamically allocating (401, 501) a set of non-consecutive subframes in which the network node is to transmit data to the wireless device or receive data from the wireless device; and transmitting (402, 502) a multi-Time Transmission Interval, TTI, scheduling message to the wireless device, which multi-TTI scheduling message comprises information indicating the dynamically allocated non-consecutive subframes, wherein the information indicating the dynamically allocated non-consecutive subframes further indicates a multi-TTI subframe pattern corresponding to non-consecutive subframes where the network node shall receive data from the wireless device or transmit data to the wireless device wherein the wireless device is configured with a plurality of candidate subframe patterns, and wherein the multi-TTI scheduling message comprises an indicator to a specific subframe pattern of said plurality of candidate subframe patterns. dynamically allocating (401, 501) a set of non-consecutive subframes in which the network node is to transmit data to the wireless device or receive data from the wireless device; and transmitting (402, 502) a multi-Time Transmission Interval, TTI, scheduling message to the wireless device, which multi-TTI scheduling message comprises information indicating the dynamically allocated non-consecutive subframes, wherein the information indicating the dynamically allocated non-consecutive subframes further indicates a multi-TTI subframe pattern corresponding to non-consecutive subframes where the network node shall receive data from the wireless device or transmit data to the wireless device wherein the wireless device is configured with a plurality of candidate subframe patterns, and wherein the multi-TTI scheduling message comprises an indicator to a specific subframe pattern of said plurality of candidate subframe patterns.
A method of reproducing an acoustical sound field (SF1, SF2-4) to a listener (USER) at a first location, the first location having predefined acoustic properties, using a sound reproduction system comprising a microphone array comprising a plurality of microphone units and a loudspeaker array (SPK-A) comprising a plurality of loudspeaker units in a predefined geometrical configuration surrounding said listener, the method comprising 1) Determining a transfer function from each loudspeaker unit of the loudspeaker array (SPK-A) to all microphone units of the microphone array (SP-MA), thereby providing a set of transfer functions, when said microphone array is located in a primary volume at an intended position of the listener's head during listening to said sound field; 2) Inverting the set of transfer functions and determining an inverted system of optimal filters that minimize errors; 3) Placing the microphone array (SP-MA) in an intended position of the listener's head in a particular sound scene at a second location and recording sound of the particular sound scene at the second location, thereby providing a particular sound scene recording having recorded signals; 4) Determining loudspeaker signals of the particular sound scene by convolving the inverted system of optimal filters with the recorded signals, the convolving being such that said loudspeaker signals are configured to be played to the listener (USER) at the first location by said loudspeaker array (SPK-A) in said predefined geometrical configuration surrounding said listener when the listener's head is located at said intended position of the listener's head during listening to said sound field. 1) Determining a transfer function from each loudspeaker unit of the loudspeaker array (SPK-A) to all microphone units of the microphone array (SP-MA), thereby providing a set of transfer functions, when said microphone array is located in a primary volume at an intended position of the listener's head during listening to said sound field; 2) Inverting the set of transfer functions and determining an inverted system of optimal filters that minimize errors; 3) Placing the microphone array (SP-MA) in an intended position of the listener's head in a particular sound scene at a second location and recording sound of the particular sound scene at the second location, thereby providing a particular sound scene recording having recorded signals; 4) Determining loudspeaker signals of the particular sound scene by convolving the inverted system of optimal filters with the recorded signals, the convolving being such that said loudspeaker signals are configured to be played to the listener (USER) at the first location by said loudspeaker array (SPK-A) in said predefined geometrical configuration surrounding said listener when the listener's head is located at said intended position of the listener's head during listening to said sound field.
A resin formulation comprising: - a phenol formaldehyde resin ∘ having a formaldehyde to phenol molar ratio from 1.8:1 to 2.8:1, and ∘ having an average molecular weight (Mw) from 2500 to 4000 Da and a molecular weight distribution from 100 to 25000 Da, wherein from 7 to 10 wt.% of the phenol formaldehyde resin has a Mw above 8000 Da and from 25 to 35 wt.% of the phenol formaldehyde resin has a Mw from 1000 to 4000 Da, as determined by gel permeation chromatography; wherein the resin formulation has a solids content from 45 to 60 wt.%, based on the total weight of resin formulation and a) a viscosity from 0.5 Pa*s to 0.7 Pa*s measured at 25 °C using a viscometer. - a phenol formaldehyde resin ∘ having a formaldehyde to phenol molar ratio from 1.8:1 to 2.8:1, and ∘ having an average molecular weight (Mw) from 2500 to 4000 Da and a molecular weight distribution from 100 to 25000 Da, wherein from 7 to 10 wt.% of the phenol formaldehyde resin has a Mw above 8000 Da and from 25 to 35 wt.% of the phenol formaldehyde resin has a Mw from 1000 to 4000 Da, as determined by gel permeation chromatography; ∘ having a formaldehyde to phenol molar ratio from 1.8:1 to 2.8:1, and ∘ having an average molecular weight (Mw) from 2500 to 4000 Da and a molecular weight distribution from 100 to 25000 Da, wherein from 7 to 10 wt.% of the phenol formaldehyde resin has a Mw above 8000 Da and from 25 to 35 wt.% of the phenol formaldehyde resin has a Mw from 1000 to 4000 Da, as determined by gel permeation chromatography;
The use of star polymers, comprising a structural fragment acting as a center and at least three groups radially bound to this center, wherein these groups (i) each have at least one polyether structural unit, which comprises a polyoxyalkylene chain consisting of ethylene oxide units or consisting of ethylene oxide units and propylene oxide units, having a maximum proportion of 50 wt.% of propylene oxide units, based on the weight of the polyoxyalkylene chain, and (ii) have at least one functional group, containing • at least one *-Si x (R') 3-x group, where R and R' represent, independently of one another, a (C 1 to C 4) alkyl group (in particular methyl or ethyl), x represents 1, 2 or 3, and/or • at least one anionic group and/or • at least one quaternized nitrogen atom, for improving the color fastness of synthetic colorings of chromophoric compounds on keratin-containing fibers, in particular human hair, wherein the chromophoric compounds are selected from at least one oxidation dye precursor of the developer component type and optionally additionally at least one coupler component. (i) each have at least one polyether structural unit, which comprises a polyoxyalkylene chain consisting of ethylene oxide units or consisting of ethylene oxide units and propylene oxide units, having a maximum proportion of 50 wt.% of propylene oxide units, based on the weight of the polyoxyalkylene chain, and (ii) have at least one functional group, containing • at least one *-Si x (R') 3-x group, where R and R' represent, independently of one another, a (C 1 to C 4) alkyl group (in particular methyl or ethyl), x represents 1, 2 or 3, and/or • at least one anionic group and/or • at least one quaternized nitrogen atom, • at least one *-Si x (R') 3-x group, where R and R' represent, independently of one another, a (C 1 to C 4) alkyl group (in particular methyl or ethyl), x represents 1, 2 or 3, and/or • at least one anionic group and/or • at least one quaternized nitrogen atom,
An image processing method comprising the steps of: - providing an image captured by a capturing device and depicting at least part of an object, and providing a coordinate system in relation to the image, - providing a gravity vector in the coordinate system, and - computing image data of at least one part of the image by filtering the at least one part of the image based on a kernel aligned based on the gravity vector, - determining a position and orientation of the device associated with the capturing device based on the image data. - providing an image captured by a capturing device and depicting at least part of an object, and providing a coordinate system in relation to the image, - providing a gravity vector in the coordinate system, and - computing image data of at least one part of the image by filtering the at least one part of the image based on a kernel aligned based on the gravity vector, - determining a position and orientation of the device associated with the capturing device based on the image data.
A nanopore-based method to determine a sequence in a nucleic acid polymer analyte, the method comprising: (a) selectively modifying a guanine or cytosine nucleobase subunit of a pre-analyte nucleic acid polymer to produce an abasic site in the nucleic acid polymer analyte; (b) translocating the nucleic acid polymer analyte comprising the abasic site from a first conductive liquid medium to a second conductive liquid medium through a nanopore, wherein the nanopore provides liquid communication between the first conductive liquid medium and the second conductive liquid medium; (c) measuring an ion current between the first conductive liquid medium and the second conductive liquid medium as the nucleic acid polymer analyte passes through the nanopore; and (d) detecting the abasic site based on the measured ion current. (a) selectively modifying a guanine or cytosine nucleobase subunit of a pre-analyte nucleic acid polymer to produce an abasic site in the nucleic acid polymer analyte; (b) translocating the nucleic acid polymer analyte comprising the abasic site from a first conductive liquid medium to a second conductive liquid medium through a nanopore, wherein the nanopore provides liquid communication between the first conductive liquid medium and the second conductive liquid medium; (c) measuring an ion current between the first conductive liquid medium and the second conductive liquid medium as the nucleic acid polymer analyte passes through the nanopore; and (d) detecting the abasic site based on the measured ion current.
A linear actuator comprising a housing, a drive worm, a rotating screw and a drive nut, the worm wheel driving the rotating screw to rotate, the rotating screw rotating to drive the drive nut to move axially along the rotating screw, a clutch means being arranged between the drive worm and the rotating screw, wherein the clutch means comprises a coupling gear sleeve axially movable relative to the rotating screw, the rotating screw is sleeved with an axial limiting sleeve, the axial limiting sleeve and the housing are abutted axially, and the axial limiting sleeve and the rotating screw maintain alignment in an axial direction,, characterized in that the axial limiting sleeve comprises a first friction sleeve and a second friction sleeve, wherein the first friction sleeve and the second friction sleeve are abutted axially, a self-locking torsion spring is sleeved outside the first friction sleeve, and the second friction sleeve is sleeved with a release torsion spring when the rotating screw is subjected to an axial load, the rotating screw transmits an axial force to the housing through the axial limiting sleeve, and the axial force is not transmitted between the coupling gear sleeve and the axial limiting sleeve in the axial direction.
Biocidal composition comprising the components: (a) 2% by weight to 20% by weight of one or more isothiazolinones selected from the group consisting of methylisothiazolin-3-one and 1,2-benzisothiazolin-3-one, (b) 65% by weight to 97% by weight of at least one biocide selected from the group of phenoxyethanol, phenethyl alcohol and phenylpropanol and (c) 5% by weight to 10% by weight water. (a) 2% by weight to 20% by weight of one or more isothiazolinones selected from the group consisting of methylisothiazolin-3-one and 1,2-benzisothiazolin-3-one, (b) 65% by weight to 97% by weight of at least one biocide selected from the group of phenoxyethanol, phenethyl alcohol and phenylpropanol and (c) 5% by weight to 10% by weight water.
Plug-in connector configured to cooperate with a terminal block, the plug-in connector comprising: - a body including a cooperation assembly configured to mechanically secure the plug-in connector on the terminal block in a mounted position, the body having a compartment adapted for accommodating a fuse element, - two plug contacts received within the compartment, the two plug contacts being each configured to be connected to a corresponding terminal of the fuse element, each of the two plug contacts presenting a corresponding contact tongue extending outside the compartment, each contact tongue being included in the cooperation assembly and configured to be electrically secured to a corresponding bus bar of the terminal block in the mounted position, - a handle part provided with an actuating portion and a linking portion, the linking portion being attached to the body and extending according to a linking axis that is coincident to or parallel to an insertion axis of a pin of the cooperation assembly, the actuating portion presenting an actuating surface extending transversally to the insertion axis and being configured to cooperate with a marking element that is disposed along the actuating surface, the actuating surface being configured to be pushed according to the insertion axis for inserting the plug-in connector in the terminal block to reach the mounted position. - a body including a cooperation assembly configured to mechanically secure the plug-in connector on the terminal block in a mounted position, the body having a compartment adapted for accommodating a fuse element, - two plug contacts received within the compartment, the two plug contacts being each configured to be connected to a corresponding terminal of the fuse element, each of the two plug contacts presenting a corresponding contact tongue extending outside the compartment, each contact tongue being included in the cooperation assembly and configured to be electrically secured to a corresponding bus bar of the terminal block in the mounted position, - a handle part provided with an actuating portion and a linking portion, the linking portion being attached to the body and extending according to a linking axis that is coincident to or parallel to an insertion axis of a pin of the cooperation assembly, the actuating portion presenting an actuating surface extending transversally to the insertion axis and being configured to cooperate with a marking element that is disposed along the actuating surface, the actuating surface being configured to be pushed according to the insertion axis for inserting the plug-in connector in the terminal block to reach the mounted position.