mhurhangee/ep-ind-claims huggingface dataset:
Use of a cationic surfactant derived from the condensation of fatty acids and esterified dibasic amino acids, according to the following formula: wherein X- is a counter ion derived from an organic or inorganic acid, preferably Br -, Cl - or HSO 4 -, or an anion on the basis of a phenolic compound; R 1: is a straight alkyl chain from a saturated fatty acid or hydroxyl acid having from 8 to 14 carbon atoms linked to the α-amino acid group via an amidic bond; R 2: is a straight or branched alkyl chain from 1 to 18 carbon atoms or an aromatic group; R 3: is —NH 3 or where n is from 0 to 4, for the inactivation of endotoxins (lipopolysaccharides, LPS) released from Gram-negative bacteria, exotoxins or aflatoxins in food products and beverages. X- is a counter ion derived from an organic or inorganic acid, preferably Br -, Cl - or HSO 4 -, or an anion on the basis of a phenolic compound; R 1: is a straight alkyl chain from a saturated fatty acid or hydroxyl acid having from 8 to 14 carbon atoms linked to the α-amino acid group via an amidic bond; R 2: is a straight or branched alkyl chain from 1 to 18 carbon atoms or an aromatic group; R 3: is —NH 3 or where n is from 0 to 4,
Inductive sensor comprising a coil structure arranged in an essentially cylindrical housing and electrically connected to a printed circuit board likewise arranged in the housing, whereby a sensor terminal is provided at the printed circuit board on a side of the housing opposite to the coil structure, whereby turns of the coil structure are wound in a groove about a coil body and the coil structure has two contacts which are connected to the printed circuit board, characterized in that at the coil body the two contacts are designed which run parallel to the coil axis and have their center points in a plane perpendicular to the coil axis enclosing an angle between 60° and 170° towards the coil axis, whereby the coil axis in the center of the coil structure is perpendicular to the plane formed by the turns of the coil.
An embroidery machine having a creel, comprising an upper and a lower winding shaft for rolling an embroidery ground from the lower winding shaft onto the upper winding shaft, wherein the winding shafts (7,9) are fastened in a rotatable and drivable manner between two frame parts (3,5) arranged at a distance, further comprising two lateral tensioning strips arranged on the frame parts (3,5) of the creel for laterally tensioning the embroidery ground, which lateral tensioning strips each comprise a chain circulating around two chain wheels, which chains are each guided in a chain guide and support pin cushions fastened to the chain links, wherein holding elements are arranged on the machine frame of the embroidery machine, with which holding elements at least one chain link each, having a pin cushion, can be fixed to both lateral edge regions of the embroidery ground, characterized in that the holding elements are holding and clamping elements which each comprise two clamping jaws which can be guided against one another, which can be actuated by a drive, and chain guide plates are arranged on the chain links or the pin cushions, said chain guide plates being configured to be guided through between the clamping jaws during embroidering and configured to be firmly clamped during rolling.
A shape memory effect material retaining element application tool, the tool comprising application means for applying a pin retaining element (2, 6, 8) to a workpiece, and a magazine for accommodating the pin retaining elements (2, 6, 8) prior to application, the magazine being provided with temperature control means for maintaining the pin retaining element (2, 6, 8) at a temperature within a predetermined range prior to application to the workpiece characterised in that the magazine has a guide means comprising a recess shaped to accommodate the pin retaining element (2, 6, 8) in both a straight first configuration and a second bent configuration.
A plate, comprising - at least one support substrate being composed of acrylic, of acrylic composite material or of plexiglass, and - at least one coating arranged on at least one area or side of the support substrate, characterized in - that the support substrate's area or side facing the coating is provided with at least one primer, and - that the coating's area or side averted from the support substrate is repeated sealed. - at least one support substrate being composed of acrylic, of acrylic composite material or of plexiglass, and - at least one coating arranged on at least one area or side of the support substrate, - that the support substrate's area or side facing the coating is provided with at least one primer, and - that the coating's area or side averted from the support substrate is repeated sealed.
A point detector for a fire alarm system, the point detector comprising: a fan configured to aspirate air from a surrounding environment; and an inlet in flow communication with the fan; wherein the inlet is configured to split the incoming airflow into multiple streams; and wherein each stream of the multiple streams is configured to be in flow communication with a respective sensing device; characterised by: a smoke detector, a heat detector and a carbon monoxide detector as the sensing devices in respective streams (4a, 4b, 4c) of the multiple streams; wherein: the smoke detector is for sensing smoke in a first stream of the multiple streams; the heat detector is for sensing heat in a second stream of the multiple streams; and the carbon monoxide detector is for sensing carbon monoxide in a third stream of the multiple streams. a fan configured to aspirate air from a surrounding environment; and an inlet in flow communication with the fan; wherein the inlet is configured to split the incoming airflow into multiple streams; and wherein each stream of the multiple streams is configured to be in flow communication with a respective sensing device; characterised by: a smoke detector, a heat detector and a carbon monoxide detector as the sensing devices in respective streams (4a, 4b, 4c) of the multiple streams; wherein: the smoke detector is for sensing smoke in a first stream of the multiple streams; the heat detector is for sensing heat in a second stream of the multiple streams; and the carbon monoxide detector is for sensing carbon monoxide in a third stream of the multiple streams. a smoke detector, a heat detector and a carbon monoxide detector as the sensing devices in respective streams (4a, 4b, 4c) of the multiple streams; wherein: the smoke detector is for sensing smoke in a first stream of the multiple streams; the heat detector is for sensing heat in a second stream of the multiple streams; and the carbon monoxide detector is for sensing carbon monoxide in a third stream of the multiple streams. the smoke detector is for sensing smoke in a first stream of the multiple streams; the heat detector is for sensing heat in a second stream of the multiple streams; and the carbon monoxide detector is for sensing carbon monoxide in a third stream of the multiple streams.
A method for simultaneously inverting PP and PS seismic amplitudes in native time domains with optimized registration through travel times' estimations, the method comprising: obtaining PP and PS seismic data acquired during a seismic survey of a multi-layer structure; and jointly inverting the PP and the PS seismic data in a stratigraphic grid, using different time axes for PP and PS reflections, wherein a ratio of PP and of PS waves travel times inside a same layer cell is a function of a ratio of a P-wave propagation velocity (Vp) and of an S-wave propagation velocity (Vs) therein, wherein for the PP waves travel time inside a layer, an incident and a reflected P-wave have same P-wave propagation velocity and an incident angle substantially equal to a P-reflection angle, while, for PS waves travel time inside the same layer, the incident P-wave and a reflected S-wave have different propagation velocities, V p >V s, and an S-reflection angle different from the incident angle, and further wherein the jointly inverting includes: producing test models of geophysical properties inside the multi-layer structure by perturbing a previous model according to predetermined rules; generating synthetic data corresponding to the PP and to the PS seismic data, using each of the test models; and selecting one of the test models that minimizes a cost function depending on differences in amplitudes and travel times between the seismic data and the synthetic data. obtaining PP and PS seismic data acquired during a seismic survey of a multi-layer structure; and jointly inverting the PP and the PS seismic data in a stratigraphic grid, using different time axes for PP and PS reflections, wherein a ratio of PP and of PS waves travel times inside a same layer cell is a function of a ratio of a P-wave propagation velocity (Vp) and of an S-wave propagation velocity (Vs) therein, wherein for the PP waves travel time inside a layer, an incident and a reflected P-wave have same P-wave propagation velocity and an incident angle substantially equal to a P-reflection angle, while, for PS waves travel time inside the same layer, the incident P-wave and a reflected S-wave have different propagation velocities, V p >V s, and an S-reflection angle different from the incident angle, and further wherein the jointly inverting includes: producing test models of geophysical properties inside the multi-layer structure by perturbing a previous model according to predetermined rules; generating synthetic data corresponding to the PP and to the PS seismic data, using each of the test models; and selecting one of the test models that minimizes a cost function depending on differences in amplitudes and travel times between the seismic data and the synthetic data. producing test models of geophysical properties inside the multi-layer structure by perturbing a previous model according to predetermined rules; generating synthetic data corresponding to the PP and to the PS seismic data, using each of the test models; and selecting one of the test models that minimizes a cost function depending on differences in amplitudes and travel times between the seismic data and the synthetic data.
An apparatus comprising: a module board (210, 510, 610) comprising a first side and an opposite second side; at least one first circuit device (215A, 515A, 615A) on the first side of the module board, at least one second circuit device (225A, 525A, 625A) on the second side of the module board; and a support (230A, 530A, 630) on the second side of the module board, the support comprising a plurality of pillars (730A, 730B, 730C, 730D), each of the pillars having one or more interconnections therethrough, respective ones of the interconnections are coupled to the at least one first circuit device and the at least one second circuit device, the support having a thickness dimension operable to define a dimension from the module board greater than a thickness dimension of the at least one second circuit device; wherein two or more of the pillars have a different shape from one another, and characterized in that the plurality of pillars are disposed at respective corners of the module board. a module board (210, 510, 610) comprising a first side and an opposite second side; at least one first circuit device (215A, 515A, 615A) on the first side of the module board, at least one second circuit device (225A, 525A, 625A) on the second side of the module board; and a support (230A, 530A, 630) on the second side of the module board, the support comprising a plurality of pillars (730A, 730B, 730C, 730D), each of the pillars having one or more interconnections therethrough, respective ones of the interconnections are coupled to the at least one first circuit device and the at least one second circuit device, the support having a thickness dimension operable to define a dimension from the module board greater than a thickness dimension of the at least one second circuit device; wherein two or more of the pillars have a different shape from one another, and characterized in that the plurality of pillars are disposed at respective corners of the module board.
A method of operating a user equipment, UE, that is running an application generating sensor data with data objects and metadata, the UE is operating in a network, the method comprising: determining whether the UE and/or the application that is running on the UE is using or planning to use an early data transmission, EDT, to transmit sensor data via the network; responsive to determining that the UE and/or the application that is running on the UE is using or planning to use the EDT, informing the application of configuration parameters corresponding to the available EDT size, and the method being characterized by altering, by the application and based on the configuration parameters corresponding to the available EDT size, properties of the sensor data that is provided to the UE for transmission to the network to include revised sensor data wherein altering comprises omitting non-essential metadata when the sensor data size is larger than the available EDT size, so that the non-essential metadata is not transmitted in the transmission of the revised sensor data. determining whether the UE and/or the application that is running on the UE is using or planning to use an early data transmission, EDT, to transmit sensor data via the network; responsive to determining that the UE and/or the application that is running on the UE is using or planning to use the EDT, informing the application of configuration parameters corresponding to the available EDT size, and the method being characterized by altering, by the application and based on the configuration parameters corresponding to the available EDT size, properties of the sensor data that is provided to the UE for transmission to the network to include revised sensor data wherein altering comprises omitting non-essential metadata when the sensor data size is larger than the available EDT size, so that the non-essential metadata is not transmitted in the transmission of the revised sensor data.
A method of preparing a nanocrystalline composition, comprising: providing at least a portion of a sample comprising a volume of greater than 30 mL in a vessel; transmitting focused acoustic energy greater than 1000 cycles per burst having a frequency of between about 100 kilohertz and about 100 megahertz and a focal zone having a size dimension of less than about 2 centimeters through a wall of the vessel such that the at least a portion of the sample is disposed in the focal zone; and forming, through crystal growth, a plurality of crystalline particles in the sample having an average size of greater than about 10 nm and a polydispersity index of less than 1.0 as calculated according to the International Standard on dynamic light scattering ISO 13321, by, at least in part, exposure of the sample to the focal zone. providing at least a portion of a sample comprising a volume of greater than 30 mL in a vessel; transmitting focused acoustic energy greater than 1000 cycles per burst having a frequency of between about 100 kilohertz and about 100 megahertz and a focal zone having a size dimension of less than about 2 centimeters through a wall of the vessel such that the at least a portion of the sample is disposed in the focal zone; and forming, through crystal growth, a plurality of crystalline particles in the sample having an average size of greater than about 10 nm and a polydispersity index of less than 1.0 as calculated according to the International Standard on dynamic light scattering ISO 13321, by, at least in part, exposure of the sample to the focal zone.
A cooking device comprising: a cooking device body 1 that includes a heating chamber 6 having a door 2 openably supported by a hinge 5; operation sections 3 and 4 that are provided on the door 2 and are used for accepting an operation related to heating; and electric wires 31 for connecting the operation sections 3 and 4 and the cooking device body 1, wherein the hinge 5 has a hinge shaft 5b in a cylindrical shape; that the door 2 has a guide section 30 for guiding the electric wires 31 toward the hinge shaft 5b; that the electric wires 31 are loosely inserted into the hinge shaft 5b and the guide section 30; characterized in that the guide section has a central axis shifted toward a front face of the door from the hinge shaft.
A measuring device comprising: an oscillation circuit; a cable comprising a plurality of conductive wires connected to the oscillation circuit, and a covering part formed of an insulator and covering the plurality of conductive wires; and a control device that outputs measurement information of an electrostatic capacitance between the conductive wires based on the frequency information of the oscillation circuit, wherein the plurality of conductive wires has at least a first mode comprised of a first conductive wire group and a second conductive wire group, and a second mode, different from the first mode, comprised of a third conductive wire group and a fourth conductive wire group, wherein the first conductive wire group and the second conductive wire group are provided so as not to form a surrounding relation with each other, wherein a phase of a signal in the first conductive wire group and a phase of a signal in the second conductive wire group are different, wherein the third conductive wire group is provided so as to be surrounded by the fourth conductive wire group, wherein a phase of a signal in the third conductive wire group and a phase of a signal in the fourth conductive wire group are different, and wherein the control device is provided so as to be switchable between the first mode and the second mode. an oscillation circuit; a cable comprising a plurality of conductive wires connected to the oscillation circuit, and a covering part formed of an insulator and covering the plurality of conductive wires; and a control device that outputs measurement information of an electrostatic capacitance between the conductive wires based on the frequency information of the oscillation circuit, wherein the plurality of conductive wires has at least a first mode comprised of a first conductive wire group and a second conductive wire group, and a second mode, different from the first mode, comprised of a third conductive wire group and a fourth conductive wire group, wherein the first conductive wire group and the second conductive wire group are provided so as not to form a surrounding relation with each other, wherein a phase of a signal in the first conductive wire group and a phase of a signal in the second conductive wire group are different, wherein the third conductive wire group is provided so as to be surrounded by the fourth conductive wire group, wherein a phase of a signal in the third conductive wire group and a phase of a signal in the fourth conductive wire group are different, and wherein the control device is provided so as to be switchable between the first mode and the second mode.
A method of obtaining a decellularized tissue, wherein the method involves a high-hydrostatic pressure treatment of a living-body derived tissue in a surfactant-containing wash liquid to obtain the decellularized tissue, wherein the ratio of the amount of endothermic heat per dry mass of the decellularized tissue relative to that of the living-body derived tissue before decellularization is 0.70 or more, the amount of endothermic heat being measured by the differential scanning calorimetry.
Watercraft with a hull that has a flow channel or to which a flow channel is assigned, wherein a motor-driven water acceleration arrangement, in particular a propeller, is assigned to the flow channel, wherein the hull has a flooding space which is connected to the environment via water passage openings (35, 33), characterized in that the flow channel delimits two sub-areas in the flooding space from each other at least in some areas, and in that an electrical component, namely an energy storage, is arranged in each of the sub-areas. wherein a motor-driven water acceleration arrangement, in particular a propeller, is assigned to the flow channel, wherein the hull has a flooding space which is connected to the environment via water passage openings (35, 33), characterized in that the flow channel delimits two sub-areas in the flooding space from each other at least in some areas, and in that an electrical component, namely an energy storage, is arranged in each of the sub-areas.
A method of cementing comprising: introducing a cement composition comprising a hydraulic cement, nano-clay, and water into a space between a subterranean formation and a pipe string located in the subterranean formation, wherein the nano-clay comprises nano-bentonite; and allowing the cement composition to set in the subterranean formation, wherein the nano-clay has a largest dimension in the range of 1 nanometer to 1 micron and wherein the cement composition is allowed to set to form a hardened mass in a space between a pipe string and the subterranean formation; wherein the nano-clay has a general plate-type structure with a thickness of less than 10 nanometers and at least one surface dimension in the range of 1 nanometer to 600 nanometers; and wherein the nano-clay is present in the cement composition in an amount of 0.1% to 25% by weight of the hydraulic cement on a dry basis. introducing a cement composition comprising a hydraulic cement, nano-clay, and water into a space between a subterranean formation and a pipe string located in the subterranean formation, wherein the nano-clay comprises nano-bentonite; and allowing the cement composition to set in the subterranean formation, wherein the nano-clay has a largest dimension in the range of 1 nanometer to 1 micron and wherein the cement composition is allowed to set to form a hardened mass in a space between a pipe string and the subterranean formation;
A method performed by a user equipment, UE, in a wireless communication system, the method comprising: transmitting, to a second base station, BS, a request for a radio resource control, RRC, connection via a resume request message including a first authentication token or a re-establishment request message including a second authentication token, wherein the request for the RRC connection is associated with a UE context request message transmitted from the second BS to a first BS, the UE context request message including an authentication token and indication information indicating whether the RRC connection is requested to be resumed or re-established, wherein the authentication token is based on the indication information, and wherein the UE context request message is associated with a UE context request response message including a UE context, the UE context request response message being transmitted from the first BS to the second BS; and receiving, from the second BS, a response for the RRC connection, based on the UE context request response message. transmitting, to a second base station, BS, a request for a radio resource control, RRC, connection via a resume request message including a first authentication token or a re-establishment request message including a second authentication token, wherein the request for the RRC connection is associated with a UE context request message transmitted from the second BS to a first BS, the UE context request message including an authentication token and indication information indicating whether the RRC connection is requested to be resumed or re-established, wherein the authentication token is based on the indication information, and wherein the UE context request message is associated with a UE context request response message including a UE context, the UE context request response message being transmitted from the first BS to the second BS; and receiving, from the second BS, a response for the RRC connection, based on the UE context request response message.