mhurhangee/ep-ind-claims huggingface dataset:
A non-aqueous electrolyte secondary battery comprising: a positive electrode including a first active material capable of occluding and releasing a lithium ion and a second active material capable of occluding and releasing an anion; a negative electrode including a negative electrode active material capable of occluding and releasing a lithium ion; and an electrolyte containing a salt of a lithium ion and the anion, wherein the second active material is a polymer having a tetrachalcogeno- fulvalene skeleton in a repeating unit, and the first active material is a transition metal oxide that may contain lithium, a transition metal silicate, or a transition metal phosphate. a positive electrode including a first active material capable of occluding and releasing a lithium ion and a second active material capable of occluding and releasing an anion; a negative electrode including a negative electrode active material capable of occluding and releasing a lithium ion; and an electrolyte containing a salt of a lithium ion and the anion, wherein the second active material is a polymer having a tetrachalcogeno- fulvalene skeleton in a repeating unit, and the first active material is a transition metal oxide that may contain lithium, a transition metal silicate, or a transition metal phosphate.
A system comprising a motion signal generation apparatus and a data processing apparatus, wherein the motion signal generation apparatus comprises: a detector to detect one or more features of a virtual environment generated by a data processing apparatus; and a generator, responsive to an environment location of the one or more detected features and to a current simulated orientation of a head mountable display, to generate a motion signal to simulate head motion by a simulated wearer of the HMD, wherein the generator is configured to provide the generated motion signal to the data processing apparatus, wherein the data processing apparatus is configured to provide generated images to the detector in response to the generated motion signal provided by the generator, and wherein the generated motion signal indicates simulated motion of the HMD. a detector to detect one or more features of a virtual environment generated by a data processing apparatus; and a generator, responsive to an environment location of the one or more detected features and to a current simulated orientation of a head mountable display, to generate a motion signal to simulate head motion by a simulated wearer of the HMD, wherein the generator is configured to provide the generated motion signal to the data processing apparatus, wherein the data processing apparatus is configured to provide generated images to the detector in response to the generated motion signal provided by the generator, and wherein the generated motion signal indicates simulated motion of the HMD.
A pulling unit comprising a cable guide for fibers combined into cables, particularly carbon fibers, said fibers extending in a transport direction in a transport plane, said cable guide comprising - a plurality of individual pins for separating said cables consisting of fibers, wherein - said pins relative to the transport direction of the cables are inclined in the transport direction and together with the transport plane include an angle from 20° to 70°, charactererized in that the pins- are fastened, in a manner allowing them to be detached individually, on a traverse bar extending substantially transversely to the direction of transport, wherein the traverse bar is arranged relative to the transport plane in a manner allowing the pins to be exchanged during operation, wherein the traverse bar comprises at least one first wall, said first wall extending substantially orthogonally to the pins, wherein the pins pass through a respective hole in the first wall of the traverse bar and by a free end are fastened to the traverse bar via a clamping connection on the side of the first wall facing away from the cables. - a plurality of individual pins for separating said cables consisting of fibers, wherein - said pins relative to the transport direction of the cables are inclined in the transport direction and together with the transport plane include an angle from 20° to 70°, charactererized in that the pins- are fastened, in a manner allowing them to be detached individually, on a traverse bar extending substantially transversely to the direction of transport, wherein the traverse bar is arranged relative to the transport plane in a manner allowing the pins to be exchanged during operation, wherein the traverse bar comprises at least one first wall, said first wall extending substantially orthogonally to the pins, wherein the pins pass through a respective hole in the first wall of the traverse bar and by a free end are fastened to the traverse bar via a clamping connection on the side of the first wall facing away from the cables.
A method for limiting crosstalk between vectoring modems (33, 34, 36, 38, 40, 42, 44, 46) connected to a group of communication lines (18, 20, 22, 24, 26, 28, 30, 32) interconnecting the modems with a data network accessing device, and comprising the steps of: obtaining (82; 92, 94, 96; 106, 108, 110, 112) information of the division of the communication lines into subgroups (SG1, SG2, SG3), where each subgroup is made up of lines experiencing cross-talk from each other above a cross-talk level threshold, assigning (84; 98; 114) a set of operational pilot sequences to the group of communication lines according to the division into subgroups, transmitting (86; 100; 116) said set of operational pilot sequences on the communication lines between the vectoring modems and said data network accessing device, said pilot sequences being mutually orthogonal to each other at least within each subgroup, where each communication line receives a corresponding operational pilot sequences, obtaining (88; 102; 118) a set of cross-talk measurement sequences related to the transmitted set of operational pilot sequences, and determining (90; 104; 120), for each subgroup, crosstalk and a corrective action based on measurements made for a number of sequence symbols (t 1, t 1, t 2, t 2, t 3, t 3, t 4, t 4, t 5, t 5, t 5, t 5, t 6, t 6, t 6, t 6, t 7, t 7, t 7, t 7, t 8, t 8, t 8, t 8), said number corresponding to the minimum number required for obtaining mutually orthogonal pilot sequences within the subgroup. obtaining (82; 92, 94, 96; 106, 108, 110, 112) information of the division of the communication lines into subgroups (SG1, SG2, SG3), where each subgroup is made up of lines experiencing cross-talk from each other above a cross-talk level threshold, assigning (84; 98; 114) a set of operational pilot sequences to the group of communication lines according to the division into subgroups, transmitting (86; 100; 116) said set of operational pilot sequences on the communication lines between the vectoring modems and said data network accessing device, said pilot sequences being mutually orthogonal to each other at least within each subgroup, where each communication line receives a corresponding operational pilot sequences, obtaining (88; 102; 118) a set of cross-talk measurement sequences related to the transmitted set of operational pilot sequences, and determining (90; 104; 120), for each subgroup, crosstalk and a corrective action based on measurements made for a number of sequence symbols (t 1, t 1, t 2, t 2, t 3, t 3, t 4, t 4, t 5, t 5, t 5, t 5, t 6, t 6, t 6, t 6, t 7, t 7, t 7, t 7, t 8, t 8, t 8, t 8), said number corresponding to the minimum number required for obtaining mutually orthogonal pilot sequences within the subgroup.
A mixture of ethylene oxide-capped polypropylene oxides each having a hydroxyl equivalent weight of from 1700 to 2200 and containing at least 70% primary hydroxyl groups, wherein from 5 to 80% by weight of the ethylene oxide-capped polypropylene oxides are nominally difunctional, from 1 to 5% by weight of the ethylene oxide-capped polypropylene oxides have a nominal functionality from 6 to 8, and the balance of from 15 to 94% by weight of the ethylene oxide-capped polypropylene oxides are nominally trifunctional.
A method for removing SO 2 from carbon dioxide feed gas comprising SO 2 as a contaminant, said method comprising: maintaining said carbon dioxide feed gas, or a SO 2 -lean carbon dioxide gas derived therefrom, at elevated pressure(s) in a sour gas reactor system in the presence of O 2, water and NO x for a period of time sufficient to convert SO 2 to sulfuric acid condensate and NO x to nitric acid condensate; separating said acid condensates from said carbon dioxide gas to produce SO 2 -depleted, NO x -lean carbon dioxide gas; and neutralizing at least a portion of said sulfuric acid condensate by reaction with an alkaline sorbent in an acid/sorbent reactor system to produce sorbent-derived sulfate, wherein said sour gas reactor system comprises a first stage operating at a first elevated pressure of at least 0.3 MPa (3 bar) and a second stage operating at a second elevated pressure that is higher than the first elevated pressure, and wherein said acid/sorbent reactor system operates at said first elevated pressure, said method comprising depressurizing said sulfuric acid condensate produced at said second stage to produce reduced pressure sulfuric acid condensate and desorbed carbon dioxide gas at said said first elevated pressure, and feeding said reduced pressure sulfuric acid condensate to said acid/sorbent reactor system. maintaining said carbon dioxide feed gas, or a SO 2 -lean carbon dioxide gas derived therefrom, at elevated pressure(s) in a sour gas reactor system in the presence of O 2, water and NO x for a period of time sufficient to convert SO 2 to sulfuric acid condensate and NO x to nitric acid condensate; separating said acid condensates from said carbon dioxide gas to produce SO 2 -depleted, NO x -lean carbon dioxide gas; and neutralizing at least a portion of said sulfuric acid condensate by reaction with an alkaline sorbent in an acid/sorbent reactor system to produce sorbent-derived sulfate, wherein said sour gas reactor system comprises a first stage operating at a first elevated pressure of at least 0.3 MPa (3 bar) and a second stage operating at a second elevated pressure that is higher than the first elevated pressure, and wherein said acid/sorbent reactor system operates at said first elevated pressure, said method comprising depressurizing said sulfuric acid condensate produced at said second stage to produce reduced pressure sulfuric acid condensate and desorbed carbon dioxide gas at said said first elevated pressure, and feeding said reduced pressure sulfuric acid condensate to said acid/sorbent reactor system.
An optical fiber cutter for cutting an optical fiber, the optical fiber cutter comprising: a cutter base; a slider movably provided on the cutter base; a blade member rotatably provided on the slider to scratch the optical fiber; a rotating body provided on the blade member to rotate integrally with the blade member; and a rotation control mechanism that controls rotation of the blade member, wherein the rotation control mechanism includes a main body rotatably provided in the cutter base, and a swinging portion that swings around a shaft provided in the cutter base in conjunction with rotation of the main body, and characterized in that the swinging portion swings to a first position at which the swinging portion comes into contact with the rotating body to rotate the blade member by a predetermined angle when the slider reaches a predetermined position and a second position at which the swinging portion does not come into contact with the rotating body at the predetermined position of the slider. a cutter base; a slider movably provided on the cutter base; a blade member rotatably provided on the slider to scratch the optical fiber; a rotating body provided on the blade member to rotate integrally with the blade member; and a rotation control mechanism that controls rotation of the blade member, wherein the rotation control mechanism includes a main body rotatably provided in the cutter base, and a swinging portion that swings around a shaft provided in the cutter base in conjunction with rotation of the main body, and characterized in that the swinging portion swings to a first position at which the swinging portion comes into contact with the rotating body to rotate the blade member by a predetermined angle when the slider reaches a predetermined position and a second position at which the swinging portion does not come into contact with the rotating body at the predetermined position of the slider.
A method for detecting opening or closing events using a movement sensor that is capable of providing a sensor signal which is dependent on the movement of the movement sensor, the method comprising the steps of: a) obtaining the sensor signal over time; b) determining crossing time points at which the sensor signal indicates acceleration of the movement sensor crossing zero; c) deriving area signals representing an area under a curve of the acceleration of the movement sensor versus time, with a respective area signal derived between successive crossing time points; and d) detecting opening or closing events based on a comparison of the area signals with one or more thresholds (30,32). a) obtaining the sensor signal over time; b) determining crossing time points at which the sensor signal indicates acceleration of the movement sensor crossing zero; c) deriving area signals representing an area under a curve of the acceleration of the movement sensor versus time, with a respective area signal derived between successive crossing time points; and d) detecting opening or closing events based on a comparison of the area signals with one or more thresholds (30,32).
Refrigeration appliance, in particular household refrigeration appliance, having an evaporator, a ventilator for driving a flow of air through the evaporator, a storage chamber (3, 5) cooled by the flow of air, a defrost heater for defrosting the evaporator and a control unit for controlling the operation of the defrost heater, wherein the control unit is designed to compare a variable which is representative of a drop in pressure on the evaporator with a limit value (I end) and to start the defrost heater when the limit value is exceeded, characterised in that the representative variable is an electrical variable of the ventilator, and the limit value is the sum of the representative variable immediately after defrosting the evaporator and a predetermined deviation, and the control unit is designed to detect the representative variable before and after closing a door of the storage chamber (3, 5) and to change the limit value using the difference between these two detected variables in order to take into account a changing flow resistance of the storage chamber (3, 5).
A process for generating flavours during the microwave heating of food, comprising: a) preparing a suspension in oil of a powder comprising one or more compounds having carbonyl and amino groups capable of undergoing a Maillard reaction and/or a caramelisation reaction, the powder having a water activity in the range 0.25 to 0.8; and b) heating the suspension of powder in oil in a microwave oven for a time sufficient to generate the flavours. a) preparing a suspension in oil of a powder comprising one or more compounds having carbonyl and amino groups capable of undergoing a Maillard reaction and/or a caramelisation reaction, the powder having a water activity in the range 0.25 to 0.8; and b) heating the suspension of powder in oil in a microwave oven for a time sufficient to generate the flavours.
A memory controller for controlling the reading of data from, and writing of data to, a memory; the memory controller being arranged to receive a system bus clock signal and to apply a memory clock signal to the memory, wherein the memory controller is controlled by the system bus clock signal and the memory is controlled by the memory clock signal, and wherein a frequency of the memory clock signal is higher than a frequency of the system bus clock signal, and characterised in that the memory controller comprises: a finite state machine which receives the system bus clock signal and outputs a control signal or an address signal in integrated states in response to the system bus clock signal; and a control/address signal generator which receives the memory clock signal and sequentially outputs detailed states of the integrated states received from the finite state machine to the memory, wherein the control/address signal generator sequentially outputs the detailed state of the integrated states to the memory to satisfy alternating current AC timing parameters received from a timing register. a finite state machine which receives the system bus clock signal and outputs a control signal or an address signal in integrated states in response to the system bus clock signal; and a control/address signal generator which receives the memory clock signal and sequentially outputs detailed states of the integrated states received from the finite state machine to the memory, wherein the control/address signal generator sequentially outputs the detailed state of the integrated states to the memory to satisfy alternating current AC timing parameters received from a timing register.
A method for making an electronic assembly, comprising: applying a conductive adhesive to a layer of a resist matrix material overlying a patterned conductive nanowire layer (16, 116) on a substrate (14, 114), wherein nanowires protrude from the patterned conductive nanowire layer and the resist matrix material covering the patterned conductive nanowire layer so that at least some of the nanowires extend over the resist matrix material, and engaging an electrical contact of an electronic component with the conductive adhesive to provide an electrical connection between the electronic component and the patterned conductive nanowire layer. applying a conductive adhesive to a layer of a resist matrix material overlying a patterned conductive nanowire layer (16, 116) on a substrate (14, 114), wherein nanowires protrude from the patterned conductive nanowire layer and the resist matrix material covering the patterned conductive nanowire layer so that at least some of the nanowires extend over the resist matrix material, and engaging an electrical contact of an electronic component with the conductive adhesive to provide an electrical connection between the electronic component and the patterned conductive nanowire layer.
A method of balancing a ram air turbine that has a turbine shaft with a turbine shaft axis, a rotor attached to the shaft, rotor blades attached to the rotor that move between a fine pitch and coarse pitch position, a spring-loaded governor for controlling the position of the blades that has its springing retained by a stationary outer spring seat and a movable inner yoke plate that slides on the turbine shaft and whose position determines blade pitch, comprising the steps of: pulling the yoke plate toward the spring seat to displace the yoke plate toward the spring seat sufficiently to cause the rotor blades to assume a desired degree of pitch; spinning the turbine shaft at a desired rotational speed; balancing the rotor to minimise vibration of the rotor with the desired rotor blade pitch and turbine shaft speed; and releasing the pull of the yoke plate toward the spring seat. pulling the yoke plate toward the spring seat to displace the yoke plate toward the spring seat sufficiently to cause the rotor blades to assume a desired degree of pitch; spinning the turbine shaft at a desired rotational speed; balancing the rotor to minimise vibration of the rotor with the desired rotor blade pitch and turbine shaft speed; and releasing the pull of the yoke plate toward the spring seat.
Use of a seal (1, 10) for sealing with respect to media lines which are laid from the exterior into a building, having a round cross-section, wherein the seal - has a passage direction (m D) for media lines, - at least partially comprises a resiliently compressible material, and - is configured to produce a sealing action by clamping the seal in the passage direction, - has at least one through-opening (5a-e; 15a-d) which is arranged eccentrically in a plane of section transversely relative to the passage direction for receiving media lines and/or clamping means in the passage direction, characterised in that the through-opening (5a-e; 15a-d) in the non-tensioned state in the plane of section is formed in an oval or polygonal manner, wherein the oval or polygonal through-opening (5a-e; 15a-d) has the smallest clear width along a minor axis (b i) and the largest clear width along a main axis (a i), and the through-opening (5a-e; 15a-d) in the seal is orientated in such a manner that in the tensioned state the clear width along the minor axis is equal to or at least substantially equal to the clear width of the main axis. - has a passage direction (m D) for media lines, - at least partially comprises a resiliently compressible material, and - is configured to produce a sealing action by clamping the seal in the passage direction, - has at least one through-opening (5a-e; 15a-d) which is arranged eccentrically in a plane of section transversely relative to the passage direction for receiving media lines and/or clamping means in the passage direction,
A process for preparing a composition in the form of an emulsion comprising at least one avermectin, comprising the following successive steps: (a) emulsifying an oily phase and an aqueous phase at a temperature of from 60 to 75°C, (b) cooling the resulting emulsion to a temperature of from 48 to 55°C, (c) adding to said emulsion an active phase containing at least one avermectin dissolved in a medium comprising at least one glycol, and (d) cooling said emulsion to a target temperature of from 30 to 40°C, characterized in that, in step (d), said emulsion is subjected to a controlled cooling to said target temperature at a cooling rate from 0.5 to 1.5°C / 5 min or cooling said emulsion to a temperature comprised between 42 and 47°C, then maintaining a temperature plateau, and further cooling down said emulsion to said target temperature. (a) emulsifying an oily phase and an aqueous phase at a temperature of from 60 to 75°C, (b) cooling the resulting emulsion to a temperature of from 48 to 55°C, (c) adding to said emulsion an active phase containing at least one avermectin dissolved in a medium comprising at least one glycol, and (d) cooling said emulsion to a target temperature of from 30 to 40°C,