mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: receiving cell split information related to one or more cells in one of a plurality of overhead messages (step 402), wherein the cell split information comprises information indicating whether the cell frequency is a frequency used only for closed subscriber group "CSG" cells, the one of the plurality of overhead messages being a message selected based at least in part on a network deployment; and utilizing the cell split information to identify at least one of the one or more cells (step 404) based at least in part on a broadcast signal received from the at least one of the one or more cells. receiving cell split information related to one or more cells in one of a plurality of overhead messages (step 402), wherein the cell split information comprises information indicating whether the cell frequency is a frequency used only for closed subscriber group "CSG" cells, the one of the plurality of overhead messages being a message selected based at least in part on a network deployment; and utilizing the cell split information to identify at least one of the one or more cells (step 404) based at least in part on a broadcast signal received from the at least one of the one or more cells.
A system for use in a subsea well operation, comprising: a structural casing having a subsea low pressure housing and a tubular casing with an upper end inserted into the subsea low pressure housing in sealing engagement; a tool having an engagement region inserted into an upper end of the structural casing until the tool is sufficiently coupled to the structural casing to enable releasable latching of the tool to the structural casing and manipulation of the structural casing when deployed and set at a subsea location; and a sensor system mounted to the tool to monitor height above a subsea mud line and an angular deviation of the structural casing from vertical during deployment of the structural casing into a seabed, wherein the sensor system is coupled rigidly and directly to the tool, wherein a lower end of the sensor system is coupled with the tool via a mechanical coupling such that the sensor system extends above the tool and such that the sensor system moves and tilts with the tool, wherein deployment equipment comprising a cable, a coiled or other types tubing, or other suitable equipment controllable to manipulate the height and angular orientation of the structural casing is connected directly to the sensor system. a structural casing having a subsea low pressure housing and a tubular casing with an upper end inserted into the subsea low pressure housing in sealing engagement; a tool having an engagement region inserted into an upper end of the structural casing until the tool is sufficiently coupled to the structural casing to enable releasable latching of the tool to the structural casing and manipulation of the structural casing when deployed and set at a subsea location; and a sensor system mounted to the tool to monitor height above a subsea mud line and an angular deviation of the structural casing from vertical during deployment of the structural casing into a seabed, wherein the sensor system is coupled rigidly and directly to the tool, wherein a lower end of the sensor system is coupled with the tool via a mechanical coupling such that the sensor system extends above the tool and such that the sensor system moves and tilts with the tool, wherein deployment equipment comprising a cable, a coiled or other types tubing, or other suitable equipment controllable to manipulate the height and angular orientation of the structural casing is connected directly to the sensor system.
Filling machine for filling containers with a filling material, comprising a rotor which can be driven in rotation about a vertical machine axis, with a plurality of filling elements provided at the rotor on a divided circle concentrically surrounding the machine axis and provided at equal modular spacings, with a closure element supporting ring arranged coaxially with the machine axis, with a plurality of closure elements for closing the filling elements on their undersides, comprising at least one filling product dispensing opening, during a cleaning and/or disinfection of the filling machine, wherein, by relative movement of the closure element supporting ring and of the rotor, the closure elements can be moved between a non-engaging state, in which the closure elements are arranged in each case on a divided circle between the filling elements, and an engaging state, in which the closure elements are located in each case on the underside of a filling element, characterised in that the filling machine is configured in such a way that the relative movement between the closure element supporting ring and the rotor can be generated by the drive of the rotor, wherein at least one blocking and docking device is provided, with which a mutual rotation of the closure element supporting ring with the rotor, for moving the closure elements from their non-engaging state into the engaging state and back into the non-engaging state, can be blocked in a controlled manner.
A PE-RT pipe made from a linear low density polyethylene (LLDPE) composition comprising at least 50 mole percent ethylene derived units and one or more alpha-olefin co-monomer derived units, wherein the polyethylene composition has a molecular weight distribution (M w /M n) of from 2 to 6, a long chain branching index g'vis of from 0.85 to 0.99, a density of from 0.934 to 0.960 g/cm 3, and a shear thinning ratio of 1.0 to 100, wherein the one or more alpha-olefin co-monomer derived units is derived from propylene, butene, l-pentene; 1-pentene with one or more methyl, ethyl, or propyl substituents; 1 -hexene; 1 -hexene with one or more methyl, ethyl, or propyl substituents; l-heptene; l-heptene with one or more methyl, ethyl, or propyl substituents; 1-octene with one or more methyl, ethyl, or propyl substituents; 1-nonene; l-nonene with one or more methyl, ethyl, or propyl substituents; ethyl, methyl, or dimethyl-substituted l-decene; l-dodecene; or a combination thereof and wherein the polyethylene composition has a tensile strength at 5% strain that satisfies the following relationship: y > 6.1395 * x 0.0579 + 0.2, wherein y is the tensile strength (MPa) at 5% strain at 70 °C and x is the strain rate (s -1).
Surgical instrument for use in minimally invasive surgery, comprising an operating unit intended for operating the instrument by hand and having a main part, a handle that is movable relative to the main part, and a lever (8, 17) which is articulated to the handle and transmits movement of the handle relative to the main part to a drive member which is movable relative to the main part and articulated to the lever (8, 17), the transmission ratio of the lever (8, 17) changing when the handle moves relative to the main part, the lever (8, 17) being pivotably mounted on the main part, the handle engaging the lever (8, 17) by a longer lever arm than that which engages the drive member, characterised in that the lever (8, 17) is articulated to the handle by means of a second connecting member.
A rubber composition comprising: a polymer mixture obtained by modifying a polymer composed of at least one of a conjugated diene compound and an aromatic vinyl compound with a compound having at least one of an ester group and a carboxyl group; at least one of triamines; and silica, the polymer mixture having a weight-average molecular weight of 1.0×10 3 to 1.0×10 5, and the triamines being a compound represented by the following formula: wherein each of R A, R B, R C, R D and R E independently represents a hydrogen atom or an alkyl group, and each of ALK 1 and ALK 2 independently represents an alkylene group. a polymer mixture obtained by modifying a polymer composed of at least one of a conjugated diene compound and an aromatic vinyl compound with a compound having at least one of an ester group and a carboxyl group; at least one of triamines; and silica, the polymer mixture having a weight-average molecular weight of 1.0×10 3 to 1.0×10 5, and the triamines being a compound represented by the following formula: wherein each of R A, R B, R C, R D and R E independently represents a hydrogen atom or an alkyl group, and each of ALK 1 and ALK 2 independently represents an alkylene group.
A method for real-time characterization of a battery, the method comprising: (a) measuring periodically a DC impedance of the battery to determine a measured DC impedance; characterized by (b) ratioing said measured DC impedance to a reference DC impedance for the battery to establish an impedance degradation factor; (c) obtaining, during use of the battery and responsive to a set of attributes of the battery, an operational reference impedance for the battery during operation; and (d) applying said impedance degradation factor to said reference operational impedance to obtain a real-time effective impedance for the battery, wherein said set of attributes include one or more attributes selected from the group consisting of state of charge, temperature, and combinations thereof; and wherein said obtaining step (c) employs a battery-in-use look-up table responsive to said set of attributes. (a) measuring periodically a DC impedance of the battery to determine a measured DC impedance; (b) ratioing said measured DC impedance to a reference DC impedance for the battery to establish an impedance degradation factor; (c) obtaining, during use of the battery and responsive to a set of attributes of the battery, an operational reference impedance for the battery during operation; and (d) applying said impedance degradation factor to said reference operational impedance to obtain a real-time effective impedance for the battery,
A method for producing molecular hydrogen (H 2), carbon monoxide, and a carbonaceous product, wherein the method comprises the following steps: (a) providing molecular hydrogen (H 2) and molecular oxygen (O 2), (b) heating a bed of carbonaceous material to a temperature of > 800 °C by reacting the molecular hydrogen (H 2) with the molecular oxygen (O 2), wherein steps (a) and (b) take place in the same reaction device, (c) withdrawing the resulting synthesis gas, which contains molecular hydrogen (H 2) and carbon monoxide, (d) ending the provision of molecular hydrogen (H 2) and molecular oxygen (O 2) when the bed of carbonaceous material reaches a temperature of 1800°C, at the latest, (e) providing a gaseous hydrocarbon stream and decomposing the hydrocarbons in the presence of the bed of carbonaceous material into carbon and molecular hydrogen (H 2), wherein the temperature of the bed of carbonaceous material decreases, (f) withdrawing the molecular hydrogen (H 2), (g) ending the provision of a gaseous hydrocarbon stream when the bed of carbonaceous material reaches a temperature of ≤ 900°C, at the latest, and (h) withdrawing at least a portion of the carbonaceous material from the bed, wherein the carbonaceous material includes a precipitate that comprises the carbonaceous product. (a) providing molecular hydrogen (H 2) and molecular oxygen (O 2), (b) heating a bed of carbonaceous material to a temperature of > 800 °C by reacting the molecular hydrogen (H 2) with the molecular oxygen (O 2), wherein steps (a) and (b) take place in the same reaction device, (c) withdrawing the resulting synthesis gas, which contains molecular hydrogen (H 2) and carbon monoxide, (d) ending the provision of molecular hydrogen (H 2) and molecular oxygen (O 2) when the bed of carbonaceous material reaches a temperature of 1800°C, at the latest, (e) providing a gaseous hydrocarbon stream and decomposing the hydrocarbons in the presence of the bed of carbonaceous material into carbon and molecular hydrogen (H 2), wherein the temperature of the bed of carbonaceous material decreases, (f) withdrawing the molecular hydrogen (H 2), (g) ending the provision of a gaseous hydrocarbon stream when the bed of carbonaceous material reaches a temperature of ≤ 900°C, at the latest, and (h) withdrawing at least a portion of the carbonaceous material from the bed, wherein the carbonaceous material includes a precipitate that comprises the carbonaceous product.
A method for controlling a plurality of intelligent electronic devices (IEDs) (112(n)) disposed at respective locations of an electrical system, each IED (112(n)) being configured for measuring a signal representing a neutral-to-ground (N-G) voltage at the respective location of the electrical system, each having an associated impedance that is coupled to the N-G voltage when the IED is measuring the signal representing the N-G voltage, and when multiple IEDs of the plurality of IEDs are measuring respective signals representing the N-G voltage an objectionable current flowing from neutral to ground occurs, the method comprising: generating signals to control when each of the IEDs (112(n)) is selectively coupled to the N-G voltage, the signals being operable to cause the IEDs (112(n)) to be selectively coupled to the N-G voltage such that the associated impedance of at least one of the plurality of IEDs (112(n)) is not coupled to the N-G voltage while another of the plurality of IEDs (112(n)) is measuring the N-G voltage to reduce objectionable current.
A method of receiving a downlink, DL, signal, by a user equipment, UE, from a cell in which a plurality of beams are multiplexed in a wireless communication system, the method comprising: generating a quasi-orthogonal scrambling sequence of a downlink control information, DCI, wherein the quasi-orthogonal scrambling sequence of the DCI is used for scrambling the DCI at a base station; and receiving the DCI through at least one beam among the multiplexed plurality of beams, using the quasi-orthogonal scrambling sequence of the DCI, and receiving a physical downlink shared channel, PDSCH, based on scheduling information included in the DCI, characterised in that the method further comprises: in the generation of the quasi-orthogonal scrambling sequence of the DCI, initializing, by the UE, the quasi-orthogonal scrambling sequence of the DCI using a beam-specific parameter corresponding to the at least one beam for transmitting the DCI, wherein the beam-specific parameter is a beam index allocated to the at least one beam, and wherein the quasi-orthogonal scrambling sequence of the DCI is initialized using 'n beamID ∗ 2 X ' and 'n SCID ∗ 2 Z ', where 'n beamID ' denotes the beam index, 'X' is a value determined based on a maximum number of the multiplexed plurality of beams, 'n SCID ' denotes a scrambling identifier, and 'Z' is determined based on a maximum number of UEs of multi-user multiple input multiple output, MU-MIMO, in a same beam. generating a quasi-orthogonal scrambling sequence of a downlink control information, DCI, wherein the quasi-orthogonal scrambling sequence of the DCI is used for scrambling the DCI at a base station; and receiving the DCI through at least one beam among the multiplexed plurality of beams, using the quasi-orthogonal scrambling sequence of the DCI, and receiving a physical downlink shared channel, PDSCH, based on scheduling information included in the DCI, characterised in that the method further comprises: in the generation of the quasi-orthogonal scrambling sequence of the DCI, initializing, by the UE, the quasi-orthogonal scrambling sequence of the DCI using a beam-specific parameter corresponding to the at least one beam for transmitting the DCI, wherein the beam-specific parameter is a beam index allocated to the at least one beam, and wherein the quasi-orthogonal scrambling sequence of the DCI is initialized using 'n beamID ∗ 2 X ' and 'n SCID ∗ 2 Z ', where 'n beamID ' denotes the beam index, 'X' is a value determined based on a maximum number of the multiplexed plurality of beams, 'n SCID ' denotes a scrambling identifier, and 'Z' is determined based on a maximum number of UEs of multi-user multiple input multiple output, MU-MIMO, in a same beam.
An MRI-guided interventional system, comprising: a cooperating targeting cannula; a frame that supports the cooperating targeting cannula, wherein the frame is configured to translate and rotate such that the targeting cannula can be positioned to a desired intrabody trajectory, and wherein the targeting cannula includes a guide bore therethrough that is configured to guide placement of an interventional device in vivo, wherein the frame comprises: a base having a patient access aperture formed therein, wherein the base is configured to be secured to the body of a patient; a yoke movably mounted to the base and rotatable about a roll axis, to thereby rotate the cannula; a platform movably mounted to the yoke and rotatable about a pitch axis; and an X-Y support table, wherein the cannula is secured to the X-Y support table and wherein the X-Y support table is movably mounted to the platform and is configured to translate in both an X-direction and Y-direction relative to the platform, to thereby translate the cannula; and a plurality of user-activatable actuators (140a - 140d) operably connected to the frame that are configured to translate and rotate the frame relative to the body of the patient so as to position the targeting cannula to a desired intrabody trajectory. a base having a patient access aperture formed therein, wherein the base is configured to be secured to the body of a patient; a yoke movably mounted to the base and rotatable about a roll axis, to thereby rotate the cannula; a platform movably mounted to the yoke and rotatable about a pitch axis; and an X-Y support table, wherein the cannula is secured to the X-Y support table and wherein the X-Y support table is movably mounted to the platform and is configured to translate in both an X-direction and Y-direction relative to the platform, to thereby translate the cannula; and a plurality of user-activatable actuators (140a - 140d) operably connected to the frame that are configured to translate and rotate the frame relative to the body of the patient so as to position the targeting cannula to a desired intrabody trajectory.
A device for spraying a coating chemical onto a moving surface of a papermaking machine, said device including a machine-wide box body extending in a cross machine direction and defining an internal space configured to enclose part of a spraying equipment and defining an elongate opening facing said moving surface, said spraying equipment including a plurality of spray nozzle members for spraying coating chemical through said opening onto the moving surface, a coating chemical supplying tube being connected to the nozzle members, and a plurality of valves being mounted on the coating chemical supplying tube, one for each nozzle member, wherein: a) said coating chemical supplying tube with said valves is located outside of the box body; and b) said nozzle members are carried by the box body, extend through a wall portion of the box body, and are mounted to be individually movable axially to permit removal of anyone of them independently of the other ones. a) said coating chemical supplying tube with said valves is located outside of the box body; and b) said nozzle members are carried by the box body, extend through a wall portion of the box body, and are mounted to be individually movable axially to permit removal of anyone of them independently of the other ones.
A method of handling a device-to-device, D2D, signal and a device-to-cellular, D2C, signal for a first communication device, the method comprising: communicating with a second communication device according to a D2D communication; communicating with a network according to a D2C communication; and transmitting one of the D2D signal and the D2C signal in a subframe, wherein the D2D signal and the D2C signal are transmitted to the second communication device and the network, respectively; characterized in that the D2D communication and the D2C communication follow a downlink, DL, timing and an uplink, UL, timing, respectively. communicating with a second communication device according to a D2D communication; communicating with a network according to a D2C communication; and transmitting one of the D2D signal and the D2C signal in a subframe, wherein the D2D signal and the D2C signal are transmitted to the second communication device and the network, respectively; characterized in that the D2D communication and the D2C communication follow a downlink, DL, timing and an uplink, UL, timing, respectively.
Device for protecting vehicles, in particular military vehicles, at close range by means of non-lethal active agents, comprising at least one vehicle-mounted pressure vessel for a non-lethal active agent, a discharge nozzle for the non-lethal active agent, which is connected to the pressure vessel by way of a controllable outlet valve, an actuating device for the outlet valve and also a control device, which is arranged in the vehicle and is connected to the actuating device, characterized in that arranged on a rotatable carriage, which is arranged on the vehicle and carries a weapon, is a mounting for an exchangeable transportable pressure vessel, which is connected by way of a hose connection (23.2) and an electromagnetic valve to a lance, which is arranged on the carriage and at the outer end of which the discharge nozzle is arranged, the electromagnetic valve being connected by way of a control path to an electrical control device arranged in the vehicle.
A connector for simultaneously fixing a screw head and a rod, the connector comprising: a connecting block in which a head accommodation hole portion is formed on one side thereof to be able to accommodate at least a portion of a screw head installed in a vertebral body, and a rod accommodation groove portion is formed on another side thereof to be able to accommodate and engage at least a portion of a rod that extends from the screw head; a connecting rod formed in a shape extending from the connecting block; and a fixing device which fixes the connecting block to the screw head, characterised in that the fixing device includes a pressing piece which is installed to be able to move forward and backward along a rail groove formed in the connecting block so as to enable a leading end thereof to press a neck portion of the screw head and has an inclined surface formed on a rear end thereof and a tightening screw which is screw-coupled to a tightening screw hole groove portion formed in the connecting block so as to advance the pressing piece by pressing the inclined surface of the pressing piece and has a leading end portion in contact with the inclined surface of the pressing piece. a connecting block in which a head accommodation hole portion is formed on one side thereof to be able to accommodate at least a portion of a screw head installed in a vertebral body, and a rod accommodation groove portion is formed on another side thereof to be able to accommodate and engage at least a portion of a rod that extends from the screw head; a connecting rod formed in a shape extending from the connecting block; and a fixing device which fixes the connecting block to the screw head, characterised in that the fixing device includes a pressing piece which is installed to be able to move forward and backward along a rail groove formed in the connecting block so as to enable a leading end thereof to press a neck portion of the screw head and has an inclined surface formed on a rear end thereof and a tightening screw which is screw-coupled to a tightening screw hole groove portion formed in the connecting block so as to advance the pressing piece by pressing the inclined surface of the pressing piece and has a leading end portion in contact with the inclined surface of the pressing piece.