mhurhangee/ep-ind-claims huggingface dataset:
A method of passive surveying comprising: generating one or more detected signals by passively detecting a signal generated within a subsurface earth formation due to any or both of a seismoelectric response and an electroseismic response to the earth's electromagnetic field in at least one porous space of the subsurface earth formation containing at least one fluid; and processing the one or more detected signals to determine if a modulation of the detected signal exists for determining at least one property of the subsurface earth formation. generating one or more detected signals by passively detecting a signal generated within a subsurface earth formation due to any or both of a seismoelectric response and an electroseismic response to the earth's electromagnetic field in at least one porous space of the subsurface earth formation containing at least one fluid; and processing the one or more detected signals to determine if a modulation of the detected signal exists for determining at least one property of the subsurface earth formation.
Telescopic conveyor with at least two belt conveyors arranged one above the other and movable relative to one another in the longitudinal direction, each belt conveyor having - a frame, - a circulating belt, - a first terminal deflection pulley at a first end and a - second terminal deflection pulley at a second end of the belt conveyor, said second end being a transfer end of the belt conveyor, and a bridging device (2', 2) being provided between each two adjacent belt conveyors positioned one above the other and which at least partially bridges the height difference to be overcome between the two belt conveyors arranged one above the other at the transfer end, the bridging device having - a ramp (3, 3') with a slope and - a first deflection pulley arranged at the higher end of the ramp (3, 3'), characterized in that - the bridging device has a first hold-down device arranged below the first deflection pulley, and - has a second hold-down device at the foot of the ramp (3, 3'), the circulating belt of each lower belt conveyor passing from one conveying level below the second hold-down device over the ramp (3, 3') with the slope and from there being deflected by the first deflection pulley and passing underneath the first hold-down device back to the conveying level, and the slope of the ramp (3, 3') continuing steplessly and tangentially along the circulating belt, passing over its second terminal deflection pulley, of the belt conveyor positioned above it. - a frame, - a circulating belt, - a first terminal deflection pulley at a first end and a - second terminal deflection pulley at a second end of the belt conveyor, said second end being a transfer end of the belt conveyor, - a ramp (3, 3') with a slope and - a first deflection pulley arranged at the higher end of the ramp (3, 3'), characterized in that - the bridging device has a first hold-down device arranged below the first deflection pulley, and - has a second hold-down device at the foot of the ramp (3, 3'),
Node for a cellular network with a linear cell topology for wirelessly communicating with user terminals, wherein the network with the linear cell topology has nodes that are arranged in a chain-like manner and have coverage areas (10 1, 10 2) that substantially adjoin or overlap so that a user terminal can move from one node to the next without interrupting communication, wherein the node has a single support and is configured to communicate data in at least a first and a second channel resource of channel resources (CRi) of a communication channel, which are separated in at least one of frequency (f) and time (t), and wherein the node is further configured to employ different power levels (P 1, P 2) for different channel resources of the channel resources (CRi)of the communication channel, wherein the node comprises a first and a second directional antenna (12, 13) mounted on the single support, each directed in a different direction (d L, d R) and each covering one side of the node, wherein the node is configured to act as a single cell of the cellular network by broadcasting a same cell-ID over both antennas (12, 13), and wherein the node is further configured to independently communicate different data over the first and the second antenna (12, 13) in a same channel resource of the channel resources (CRi)of the communication channel..
A system comprising: a radiation therapy device with a gantry, the radiation therapy device configured to deliver a radiation beam at an angle determined by orientation of the gantry; the system being characterised by further encompassing: a pair of radiation detectors located at a fixed position to receive radiation originating from the radiation beam, each of the radiation detectors in the pair generating differing responses to the radiation beam at the angle; computer hardware configured to determine the angle of the gantry utilizing the differing responses from the pair of radiation detectors. a radiation therapy device with a gantry, the radiation therapy device configured to deliver a radiation beam at an angle determined by orientation of the gantry; the system being characterised by further encompassing: a pair of radiation detectors located at a fixed position to receive radiation originating from the radiation beam, each of the radiation detectors in the pair generating differing responses to the radiation beam at the angle; computer hardware configured to determine the angle of the gantry utilizing the differing responses from the pair of radiation detectors. a pair of radiation detectors located at a fixed position to receive radiation originating from the radiation beam, each of the radiation detectors in the pair generating differing responses to the radiation beam at the angle; computer hardware configured to determine the angle of the gantry utilizing the differing responses from the pair of radiation detectors.
A printing system comprising: a plurality of printheads arranged in a two-dimensional array, each printhead being configured to eject marking material; a support member positioned alongside the two-dimensional array of printheads and parallel to a plane formed by the two-dimensional array of printheads, wherein the support member is oriented to enable one end of the support member to be at a higher gravitational potential than a second end of the support member; a member movably mounted to the support member; an actuator operatively connected to the movably mounted member to enable the actuator to move the moveably mounted member along the support member; an object holder configured to mount to the movably mounted member to enable the object holder to pass the array of printheads as the moveably mounted member moves along the support member; and a controller operatively connected to the plurality of printheads and the actuator, the controller being configured to operate the actuator to move the object holder past the array of printheads and to operate the plurality of printheads to eject marking material onto objects held by the object holder as the object holder passes the array of printheads, characterized in that the system is configured such that the gap between an object held by the object holder and an ejecting printhead is in the range 5-6mm. a plurality of printheads arranged in a two-dimensional array, each printhead being configured to eject marking material; a support member positioned alongside the two-dimensional array of printheads and parallel to a plane formed by the two-dimensional array of printheads, wherein the support member is oriented to enable one end of the support member to be at a higher gravitational potential than a second end of the support member; a member movably mounted to the support member; an actuator operatively connected to the movably mounted member to enable the actuator to move the moveably mounted member along the support member; an object holder configured to mount to the movably mounted member to enable the object holder to pass the array of printheads as the moveably mounted member moves along the support member; and a controller operatively connected to the plurality of printheads and the actuator, the controller being configured to operate the actuator to move the object holder past the array of printheads and to operate the plurality of printheads to eject marking material onto objects held by the object holder as the object holder passes the array of printheads, characterized in that the system is configured such that the gap between an object held by the object holder and an ejecting printhead is in the range 5-6mm.
Use of catalysts for preparing polyisocyanates containing iminooxadiazinedione groups by oligomerization of monomeric di- and/or triisocyanates, characterized in that the water content of the catalysts added to the isocyanates to be oligomerized does not exceed 1000 ppm.
A tool holder for receiving a tool at its tool shaft, comprising a receiving bore for receiving the tool shaft within a predetermined axial position, further comprising a sealing (28, 28a) at the inner end of the receiving bore, further comprising a machine-side coolant feeding into a bore of the tool shaft, wherein the sealing (28, 28a) is configured as a plug (28, 28a) including a central coolant passage being held at the end of the receiving bore in a predetermined mounting position, and at its end facing the tool shaft comprises at least one at least partially elastically deformable sealing element, wherein the sealing element comprises at least one sealing lip (38, 40) protruding into an undercut at the end of the receiving bore, characterized in that the sealing element comprises a first sealing lip (38, 40) for sealing against a shoulder at the end of the receiving bore.
A carbon dioxide conversion system, comprising: an ion transfer membrane that separates oxygen in the air; an oxy-fuel combustor that combusts a natural gas supplied from the outside to the oxy-fuel combustor using oxygen that is separated at the ion transfer membrane as an oxidizing agent; a dry-reformer that converts carbon dioxide that is generated through an oxy-fuel combustion reaction of the oxy-fuel combustor and methane gas that is supplied from the outside to carbon monoxide and hydrogen by a dry-reforming reaction; a turbine through which exhaust gas discharged from the oxy-fuel combustor passes; a generator that generates electricity, the generator being connected to the turbine; and a synthesizer that converts carbon monoxide and hydrogen that are generated in the dry-reformer to methanol, ketone, or carbonate;, wherein the exhaust gas discharged from the oxy-fuel combustor drives the turbine via a first heat exchanger, the exhaust gas having passed through the turbine passes through a second heat exchanger, the exhaust gas having passed through the second heat exchanger is separated into carbon dioxide and steam by a heat exchanger, the carbon dioxide separated by the heat exchanger is supplied to the dry-reformer via the first heat exchanger where it is heated, and the steam separated by the heat exchanger is sent to the second heat exchanger by an air blower, and supplied to the oxy-fuel combustor via the second heat exchanger where it is heated. an ion transfer membrane that separates oxygen in the air; an oxy-fuel combustor that combusts a natural gas supplied from the outside to the oxy-fuel combustor using oxygen that is separated at the ion transfer membrane as an oxidizing agent; a dry-reformer that converts carbon dioxide that is generated through an oxy-fuel combustion reaction of the oxy-fuel combustor and methane gas that is supplied from the outside to carbon monoxide and hydrogen by a dry-reforming reaction; a turbine through which exhaust gas discharged from the oxy-fuel combustor passes; a generator that generates electricity, the generator being connected to the turbine; and a synthesizer that converts carbon monoxide and hydrogen that are generated in the dry-reformer to methanol, ketone, or carbonate;, wherein the exhaust gas discharged from the oxy-fuel combustor drives the turbine via a first heat exchanger, the exhaust gas having passed through the turbine passes through a second heat exchanger, the exhaust gas having passed through the second heat exchanger is separated into carbon dioxide and steam by a heat exchanger, the carbon dioxide separated by the heat exchanger is supplied to the dry-reformer via the first heat exchanger where it is heated, and the steam separated by the heat exchanger is sent to the second heat exchanger by an air blower, and supplied to the oxy-fuel combustor via the second heat exchanger where it is heated.
A piece of hygiene equipment (10, 11, 12) comprising a processing circuit and a radio circuit, wherein the radio circuit is configured to receive and transmit a radio signal carrying payload data, wherein the processing circuit is configured to obtain information on a positional relationship to another device by instructing the radio circuit to receive and/or transmit a radio signal carrying first payload data, and wherein the processing circuit is configured to generate second payload data on the basis of the obtained information on the obtained positional relationship, and to instruct the radio circuit to transmit a radio signal carrying said second payload data, wherein the processing section is configured to transmit an outbound radio signal carrying specific transmission payload data and/or to receive an inbound radio signal carrying specific reception payload data for determining a communication partner to which outbound radio signals are to be transmitted and from which inbound radio signals are to be received, and wherein said processing section is configured to operate in a first mode and in a second mode, wherein during said first mode the processing section is configured to determine the communication partner including the determination of a preferred communication direction indicating that data can be conveyed via said communication partner to and/or from an access point, and wherein during said second mode the processing section is configured to obtain the information on a positional relationship to the communication partner as the other device. and wherein the processing circuit is configured to generate second payload data on the basis of the obtained information on the obtained positional relationship, and to instruct the radio circuit to transmit a radio signal carrying said second payload data, wherein the processing section is configured to transmit an outbound radio signal carrying specific transmission payload data and/or to receive an inbound radio signal carrying specific reception payload data for determining a communication partner to which outbound radio signals are to be transmitted and from which inbound radio signals are to be received, and wherein said processing section is configured to operate in a first mode and in a second mode, wherein during said first mode the processing section is configured to determine the communication partner including the determination of a preferred communication direction indicating that data can be conveyed via said communication partner to and/or from an access point, and wherein during said second mode the processing section is configured to obtain the information on a positional relationship to the communication partner as the other device.
A conditioner composition comprising: (a) from 0.001% to 10% of an anionic charged polyacrylate microcapsule; (b) from 0.01% to 2% of a deposition aid selected from the group consisting of cationic deposition polymer, aminosilicone, and combinations thereof; and (c) from 2% to 25% of a conditioning agent selected from the group consisting of a cationic surfactant, a high melting point fatty compound, a silicone compound, and combinations thereof; and (d) a carrier. (a) from 0.001% to 10% of an anionic charged polyacrylate microcapsule; (b) from 0.01% to 2% of a deposition aid selected from the group consisting of cationic deposition polymer, aminosilicone, and combinations thereof; and (c) from 2% to 25% of a conditioning agent selected from the group consisting of a cationic surfactant, a high melting point fatty compound, a silicone compound, and combinations thereof; and (d) a carrier.
A composition comprising a transgene encoding calsequestrin 2 (CASQ2), for use in the therapeutic treatment of dominant catecholaminergic polymorphic ventricular tachycardia (CPVT) in a human patient in need thereof, wherein the patient exhibits a gain-of-function mutation in an endogenous gene encoding ryanodine receptor 2.
A method of treating a solution, comprising: (i) providing a source of smoke, (ii) providing a smoking vessel (e.g. pan) containing the solution, and (iii) introducing bubbles of smoke into the solution while agitating the solution so as to break up the introduced smoke into a plurality of smaller bubbles; characterised in that there is no recirculation of off-gas back through the solution. (i) providing a source of smoke, (ii) providing a smoking vessel (e.g. pan) containing the solution, and (iii) introducing bubbles of smoke into the solution while agitating the solution so as to break up the introduced smoke into a plurality of smaller bubbles; characterised in that there is no recirculation of off-gas back through the solution.
A gas turbine engine simulator comprises a simulator rotor disc which has substantially the same maximum external dimensions as a rotor disc being simulated (22,24) and is manufactured from a material which has a density of less than 220 kg/m 3.
Control method for an industrial truck, having at least one camera which is aligned with the region of a load-pickup means, a monitor and a control device, wherein during the control method, when the industrial truck with the picked-up load is located with the load-pickup means in front of a storage position, the following steps are carried out: - detecting the geometry of the storage position by means of an image-processing method by the control device, such as, for example, a pattern-recognition or object-recognition system, - determining a possible setting-down position of the load in the storage position by the control device, in particular from the point of view of a space-saving arrangement, - determining a relative position of the load-pickup means with respect to a position of the load-pickup means in a setting-down position by the control device, - representing at least parts of the storage position and representing the load schematically in the possible setting-down position on the monitor, - interrogating a confirmation entry, - in the case of a confirmation entry setting down of the load in the setting-down position at the storage position by automatically setting and aligning the functions, which can be actuated by the control device, of the load-pickup means and the driving functions, which can be actuated by the control device, of the industrial truck, and - displaying values to be set for functions of the load-pickup means and driving functions of the industrial truck on the monitor, which values cannot be automatically actuated by the control device. - detecting the geometry of the storage position by means of an image-processing method by the control device, such as, for example, a pattern-recognition or object-recognition system, - determining a possible setting-down position of the load in the storage position by the control device, in particular from the point of view of a space-saving arrangement, - determining a relative position of the load-pickup means with respect to a position of the load-pickup means in a setting-down position by the control device, - representing at least parts of the storage position and representing the load schematically in the possible setting-down position on the monitor, - interrogating a confirmation entry, - in the case of a confirmation entry setting down of the load in the setting-down position at the storage position by automatically setting and aligning the functions, which can be actuated by the control device, of the load-pickup means and the driving functions, which can be actuated by the control device, of the industrial truck, and - displaying values to be set for functions of the load-pickup means and driving functions of the industrial truck on the monitor, which values cannot be automatically actuated by the control device.
A packet data transmission device for transmitting a plurality of packet data affected by a burst noise in which plural low-frequency noises, N, are periodically generated, comprising: a data transmitter that intermittently transmits a first packet data and a second packet data having the same content as the first packet data in order of the first packet data and the second packet data; wherein when length of the first and second packet data is denoted by L P, length of idle time from transmission of the first packet data to transmission of the second packet data is denoted by L I, duration of said low-frequency noise, N, that is generated at intervals of 10 μsec or more is denoted by L N, time with no noise from occurrence of one said low-frequency noise, N, to occurrence of the next said low-frequency noise, N, is denoted by L C, the following expressions are satisfied, L I > L N, and 2 × L P + L I < L C, characterized in that the time with no noise, L C, is 10 μsec or more and 200 μsec or less, the transmission speed of the first and second packet data is 1.25 Gbps or more and 6.25 Gbps or less, the size of the first and second packet data is 1 word or more and 560 words or less, and the length of the idle time is 10 words or more and 100 words or less, either the first packet data or the second packet data, that are sequentially transmitted, having the same content is transmitted to a packet data receiver without being affected by the low-frequency noise, N. a data transmitter that intermittently transmits a first packet data and a second packet data having the same content as the first packet data in order of the first packet data and the second packet data; wherein when length of the first and second packet data is denoted by L P, length of idle time from transmission of the first packet data to transmission of the second packet data is denoted by L I, duration of said low-frequency noise, N, that is generated at intervals of 10 μsec or more is denoted by L N, time with no noise from occurrence of one said low-frequency noise, N, to occurrence of the next said low-frequency noise, N, is denoted by L C, the following expressions are satisfied, L I > L N, and 2 × L P + L I < L C, characterized in that the time with no noise, L C, is 10 μsec or more and 200 μsec or less, the transmission speed of the first and second packet data is 1.25 Gbps or more and 6.25 Gbps or less, the size of the first and second packet data is 1 word or more and 560 words or less, and the length of the idle time is 10 words or more and 100 words or less, either the first packet data or the second packet data, that are sequentially transmitted, having the same content is transmitted to a packet data receiver without being affected by the low-frequency noise, N.