mhurhangee/ep-ind-claims huggingface dataset:
A cylindrical secondary battery, comprising: an electrode assembly having a cathode plate, an anode plate and a separator interposed therebetween; a case for receiving the electrode assembly; a cap assembly for sealing an open-end of the case; and a gasket interposed between the case and the cap assembly, the gasket being bent to have two transverse surfaces facing each other, in which one transverse surface of the gasket has an uneven structure formed thereon and the other transverse surface thereof has a protruded structure formed thereon, and an edge of the cap assembly is inserted between the uneven structure and the protruded structure, characterized in that the gasket is made of a polymer resin having a melting point of 200 °C or higher and a Shore hardness of 100D or less, being a thermoplastic polyester elastomer (TPEE) comprising 10 to 30 mol% of a repeating unit represented by formula and 70 to 90 mol% of a repeating unit represented by formula: wherein n is an integer of 100 to 250. an electrode assembly having a cathode plate, an anode plate and a separator interposed therebetween; a case for receiving the electrode assembly; a cap assembly for sealing an open-end of the case; and a gasket interposed between the case and the cap assembly, the gasket being bent to have two transverse surfaces facing each other, in which one transverse surface of the gasket has an uneven structure formed thereon and the other transverse surface thereof has a protruded structure formed thereon, and an edge of the cap assembly is inserted between the uneven structure and the protruded structure,
A loop antenna array comprising three loop antennas (1, 2, 3), wherein the loop antenna array is used for wireless communication using magnetic field, a direction of a current flowing through the loop antenna arranged in a middle and a direction of a current flowing through each of the loop antennas arranged in both sides (1, 3) are opposite from each other, areas of regions respectively surrounded by the loop antennas are the same and the current flowing through the loop antenna arranged in the middle diverges equally and flows into each of the loop antennas arranged in both sides (1,3); wherein the three loop antennas comprise the same number of turns, all the loop antennas (1, 2, 3) are arranged on a same plane, and centers of all the loop antennas (1, 2, 3) are arranged linearly. the loop antenna array is used for wireless communication using magnetic field, a direction of a current flowing through the loop antenna arranged in a middle and a direction of a current flowing through each of the loop antennas arranged in both sides (1, 3) are opposite from each other, areas of regions respectively surrounded by the loop antennas are the same and the current flowing through the loop antenna arranged in the middle diverges equally and flows into each of the loop antennas arranged in both sides (1,3); wherein the three loop antennas comprise the same number of turns, all the loop antennas (1, 2, 3) are arranged on a same plane, and centers of all the loop antennas (1, 2, 3) are arranged linearly.
A network management, NM, apparatus to implement a Coverage and Capacity Optimization, CCO, component, the apparatus comprising: means for receiving service performance data of one or more evolved universal terrestrial radio access network, E-UTRAN, cells, wherein each E-UTRAN cell of the one or more E-UTRAN cells is provided by at least one evolved nodeB, eNB; means for identifying a service-deficient area based on the service performance data; means for transmitting a first instruction to initiate performance of one or more minimization of drive tests, MDTs, by one or more eNBs (308, 310, 312) associated with the identified service-deficient area; means for receiving MDT data that is based on results of the one or more MDTs; means for determining a coverage area to be adjusted based on analysis of the service performance data and the MDT data; and means for transmitting a second instruction to adjust a service parameter of at least one E-UTRAN cell of the one or more E-UTRAN cells to adjust the coverage area. means for receiving service performance data of one or more evolved universal terrestrial radio access network, E-UTRAN, cells, wherein each E-UTRAN cell of the one or more E-UTRAN cells is provided by at least one evolved nodeB, eNB; means for identifying a service-deficient area based on the service performance data; means for transmitting a first instruction to initiate performance of one or more minimization of drive tests, MDTs, by one or more eNBs (308, 310, 312) associated with the identified service-deficient area; means for receiving MDT data that is based on results of the one or more MDTs; means for determining a coverage area to be adjusted based on analysis of the service performance data and the MDT data; and means for transmitting a second instruction to adjust a service parameter of at least one E-UTRAN cell of the one or more E-UTRAN cells to adjust the coverage area.
A multi-chamber tire manufacturing mold comprising an upper holding plate and a lower holding plate; the upper holding plate and the lower holding plate are arranged alternately and in parallel with each other with intervals between the upper holding plate and the lower holding plate; a plurality of tire periphery forming sliders, upper mold blocks, lower mold blocks and central mold posts are arranged in the intervals; the tire periphery forming sliders are arranged along the height direction of the intervals, and the plurality of tire periphery forming sliders are connected in order and arranged in an annular fashion; the central mold posts are arranged along the height direction of the intervals in an annular fashion, and located at an inner side of the plurality of tire periphery forming sliders, and arranged alternately with the plurality of tire periphery forming sliders; the central mold post is configured inside with a forming part which is arranged around the central mold post; a lower end of the upper holding plate is connected with a plurality of upper mold blocks which is arranged in a circle; an enclosed chamber is formed among the plurality of upper mold blocks, the plurality of lower mold blocks, forming parts and the plurality of tire periphery forming sliders; the chamber is provided therein with a plurality of tire inner chamber forming sliders, which are connected in order arranged around the chamber; the tire inner chamber forming slider includes a circumferential ring which is arranged around a circumference; an external side of the circumferential ring is abutted against the tire periphery forming sliders, an inner side of the circumferential ring is provided with a plurality of spacedly arranged bosses, and there are gaps between adjacent bosses; a flexible portion chamber configured to be filled with the forming flexible portion is formed among the bosses of the tire inner chamber forming sliders and the forming part, the upper mold blocks, and the lower mold blocks; a partitioned chamber, which is communicated with the upper mold blocks, the lower mold blocks, and the forming parts and configured to be filled with a forming isolated plate so as to form a plurality of isolating chambers which are isolated from each other in the flexible portion, is arranged between adjacent tire inner chamber forming sliders; the isolating chamber having an outwards opening; at the opening of the isolating chamber there is provided an opening closure plate, which encloses the opening of the isolating chamber and which is configured to be abutted against the isolating plate after the partitioned chamber has been filled with the forming flexible portion and the tire inner chamber forming sliders has been removed; an outer layer chamber configured to be filled with the forming outer layer portion is formed between the opening closure plates and the tire periphery forming sliders; the outer layer chamber is arranged in a circle.
Medicament delivery device comprising: - a distal housing part; - a proximal housing part into which a multi-chamber medicament container is arranged and wherein said proximal housing part is arranged to be movable in relation to said distal housing part for mixing at least two substances arranged inside said container; - a plunger rod arranged to act on a distal stopper in said medicament container, wherein a relative movement of said housing parts (10, 12) towards each other forces said distal stopper against the plunger rod in a proximal direction for mixing at least two substances arranged inside said container; - a drive force unit (58, 74, 76, 78) capable of forcing said plunger rod in the proximal direction for subsequent delivery of medicament from said medicament container; - an activation member slidably arranged through said distal housing part and releasibly connected to the drive force unit; characterised in that said device further comprises - a guide shell one-way rotatable arranged in said distal housing part, wherein - said guide shell is provided with threads arranged to cooperate with corresponding threads on said proximal housing, and wherein - said guide shell and said plunger rod are arranged with guide members (30, 33) such that they are rotationally locked but slidable in relation to each other. - a distal housing part; - a proximal housing part into which a multi-chamber medicament container is arranged and wherein said proximal housing part is arranged to be movable in relation to said distal housing part for mixing at least two substances arranged inside said container; - a plunger rod arranged to act on a distal stopper in said medicament container, wherein a relative movement of said housing parts (10, 12) towards each other forces said distal stopper against the plunger rod in a proximal direction for mixing at least two substances arranged inside said container; - a drive force unit (58, 74, 76, 78) capable of forcing said plunger rod in the proximal direction for subsequent delivery of medicament from said medicament container; - an activation member slidably arranged through said distal housing part and releasibly connected to the drive force unit; - a guide shell one-way rotatable arranged in said distal housing part, wherein - said guide shell is provided with threads arranged to cooperate with corresponding threads on said proximal housing, and wherein - said guide shell and said plunger rod are arranged with guide members (30, 33) such that they are rotationally locked but slidable in relation to each other.
A computer-implemented method of managing vibration in a machine having a plurality of sub-assemblies controlled by at least a control system, the computer-implemented method comprising: generating a computational model for the machine, the computational model comprising a geometric model of the machine comprising the sub-assemblies and one or more module of machine readable code defining how vibration is communicated through said geometric model; running a first and a second instance of the computational model to generate outputs comprising: loading on the machine geometry as a result of the vibration of the geometric model under a simulated machine operating condition; and a sensitivity parameter value indicating a sensitivity of at least a sub-set of the plurality of sub-assemblies to vibration induced by the control system, wherein the first and second instances respectively comprise the computational model with and without inclusion of vibration induced by the control system for a sub-assembly of the machine; determining a maximum loading threshold for the machine; setting a threshold for one or more control parameter under the control of the control system based on the contribution of the vibration induced by the control system in order not to exceed the maximum loading threshold. generating a computational model for the machine, the computational model comprising a geometric model of the machine comprising the sub-assemblies and one or more module of machine readable code defining how vibration is communicated through said geometric model; running a first and a second instance of the computational model to generate outputs comprising: loading on the machine geometry as a result of the vibration of the geometric model under a simulated machine operating condition; and a sensitivity parameter value indicating a sensitivity of at least a sub-set of the plurality of sub-assemblies to vibration induced by the control system, wherein the first and second instances respectively comprise the computational model with and without inclusion of vibration induced by the control system for a sub-assembly of the machine; determining a maximum loading threshold for the machine; setting a threshold for one or more control parameter under the control of the control system based on the contribution of the vibration induced by the control system in order not to exceed the maximum loading threshold.
Tyre with a radial carcass reinforcement comprising a crown reinforcement formed of at least two working crown layers (41, 43) of reinforcing elements, crossed from one layer to the other making with the circumferential direction angles comprised between 10° and 45°, the said at least two working crown layers (41, 43) having unequal axial widths (L 41, L 43), a layer of rubber compound being placed between at least the ends of the said at least two working crown layers(41, 43), a second layer of polymer compound being in contact with at least one working crown layer and in contact with the carcass reinforcement, the said second layer of polymer compound extending axially as far as at least the axial end of the tread, the said tread radially capping the crown reinforcement and being connected to two beads by two side walls, the crown reinforcement comprising at least one layer of circumferential reinforcing elements which is arranged radially between two working crown layers (41, 43), characterized in that the distance (d) between the end of the axially narrowest working layer and the working layer separated from the axially narrowest working layer by the layer of rubber compound is such that 1.1ø < d < 2.2ø, ø being the diameter of the reinforcing elements of the said at least one layer of circumferential reinforcing elements, in that, in a meridian plane, the thickness of the layer of rubber compound is substantially constant over the axial width comprised between the axially interior end of the layer and the end of the axially narrowest working layer, in that the said second layer of polymer compound is made up of a filled elastomeric compound having a macro dispersion coefficient Z greater than or equal to 65 and a maximum tan (δ) value, denoted tan(δ)max, less than 0.100 and in that the complex dynamic shear modulus G*, measured at 10% and 60°C on the return cycle, of the said second layer of polymer compound is greater than 1.35 MPa.
Fuel distributor, in particular for fuel injection systems of mixture-compressing, applied-ignition internal combustion engines, having a housing in which a fuel chamber is formed, wherein at least one cup (12, 13) is provided which is arranged eccentrically with respect to the fuel chamber, wherein the cup (12, 13) is connected to the fuel chamber at least via a duct section of a duct, and wherein the duct section is sealed off with respect to the environment by means of a closure provided on the duct, characterized in that the cup (12, 13) serves in each case for receiving an injector.
A contactless power supply for providing power to at least one remote device, comprising: a first inductive primary to provide an electromagnetic flux when driven with a first time-varying current, the first inductive primary defining a first centerline axis; a second inductive primary to provide an electromagnetic flux when driven with a second time-varying current, the second inductive primary defining a second centerline axis; and a power transfer surface to receive the at least one remote device thereon, wherein the first and second inductive primaries (102;104) are subjacent the power transfer surface and wherein the centerline axes are generally parallel to the power transfer surface, the first and second inductive primaries (102;104) being operable to define a cumulative magnetic flux in a region of the power transfer surface generally between the first and second inductive primaries (102;104). a first inductive primary to provide an electromagnetic flux when driven with a first time-varying current, the first inductive primary defining a first centerline axis; a second inductive primary to provide an electromagnetic flux when driven with a second time-varying current, the second inductive primary defining a second centerline axis; and a power transfer surface to receive the at least one remote device thereon, wherein the first and second inductive primaries (102;104) are subjacent the power transfer surface and wherein the centerline axes are generally parallel to the power transfer surface, the first and second inductive primaries (102;104) being operable to define a cumulative magnetic flux in a region of the power transfer surface generally between the first and second inductive primaries (102;104).
An adjustable grinder, comprising: a container configured to hold a product to be ground; a stator positioned on the container; a rotor positioned opposite to the stator and configured to rotate with respect to the stator; said rotor including a plurality of flexible tabs; a drum positioned around the rotor; and means for adjusting the distance between the stator and the rotor; characterized in that said plurality of flexile tabs is in contact with the stator to bias teeth (31, 32) of the rotor away from the stator and to keep the rotor in contact with the means for adjusting. a container configured to hold a product to be ground; a stator positioned on the container; a rotor positioned opposite to the stator and configured to rotate with respect to the stator; said rotor including a plurality of flexible tabs; a drum positioned around the rotor; and means for adjusting the distance between the stator and the rotor; characterized in that said plurality of flexile tabs is in contact with the stator to bias teeth (31, 32) of the rotor away from the stator and to keep the rotor in contact with the means for adjusting.
A method of heat treatment for steel, comprising the steps of: quench-hardening a steel containing at least 0.77 mass % and not more than 0.85 mass % of carbon, at least 0.01 mass % and not more than 0.25 mass % of silicon, at least 0.01 mass % and not more than 0.35 mass % of manganese, at least 0.01 mass % and not more than 0.15 mass % of nickel, at least 3.75 mass % and not more than 4.25 mass % of chromium, at least 4 mass % and not more than 4.5 mass % of molybdenum and at least 0.9 mass % and not more than 1.1 mass % of vanadium with a remainder consisting of iron and impurity; plasma-nitriding said quench-hardened steel; and maintaining said plasma-nitrided steel at a diffusion temperature of at least 300°C and not more than 480°C, wherein said diffusion step is performed after the plasma-nitriding step is completed. quench-hardening a steel containing at least 0.77 mass % and not more than 0.85 mass % of carbon, at least 0.01 mass % and not more than 0.25 mass % of silicon, at least 0.01 mass % and not more than 0.35 mass % of manganese, at least 0.01 mass % and not more than 0.15 mass % of nickel, at least 3.75 mass % and not more than 4.25 mass % of chromium, at least 4 mass % and not more than 4.5 mass % of molybdenum and at least 0.9 mass % and not more than 1.1 mass % of vanadium with a remainder consisting of iron and impurity; plasma-nitriding said quench-hardened steel; and maintaining said plasma-nitrided steel at a diffusion temperature of at least 300°C and not more than 480°C, wherein said diffusion step is performed after the plasma-nitriding step is completed.
A compound according to formula wherein L represents a single bond or R 1, S and L taken together represent a 4-, 5- or 6-membered ring; R 1 represents (C 1 -C 4) alkyl; R 2 and R 3 individually represent hydrogen, methyl, ethyl, fluoro, chloro or bromo; n is an integer from 0-3; Y represents (C 1 -C 4) haloalkyl, F, Cl, Br, or I; X 1 is optional and represents O when present; X 2 represents CN; and R 4 represents (C 1 -C 3) alkyl. L represents a single bond or R 1, S and L taken together represent a 4-, 5- or 6-membered ring; R 1 represents (C 1 -C 4) alkyl; R 2 and R 3 individually represent hydrogen, methyl, ethyl, fluoro, chloro or bromo; n is an integer from 0-3; Y represents (C 1 -C 4) haloalkyl, F, Cl, Br, or I; X 1 is optional and represents O when present; X 2 represents CN; and R 4 represents (C 1 -C 3) alkyl.
A magnetic resonance imaging device comprising a device that is configured to generate information representing a heat generation distribution, the information generating device comprising: an obtainer that is arranged to obtain phase data of a magnetic resonance signal generated from a target object upon application of a static magnetic field and a high-frequency magnetic field to the target object; a calculator that is arranged to calculate a phase change level ((∇φ) z) of the obtained phase data per a predetermined distance in a direction (z) of the static magnetic field and phase change levels ((∇φ) x, (∇φ) y) of the obtained phase data per a predetermined distance in two directions (x, y) orthogonal to the direction (z) of the static magnetic field and intersecting with each other at right angle; and a generator that is arranged to generate an image representing a positional distribution of a parameter, the parameter being obtained by an addition of a square of the calculated change level [(∇φ) z] 2 in the direction (z) of the static magnetic field, and a square of a sum of the calculated change levels in the two directions (x, y) orthogonal to the direction (z) of the static magnetic field and intersecting with each other at right angle at a rate of 2:1, said image predicting the heat generation distribution in the target object. an obtainer that is arranged to obtain phase data of a magnetic resonance signal generated from a target object upon application of a static magnetic field and a high-frequency magnetic field to the target object; a calculator that is arranged to calculate a phase change level ((∇φ) z) of the obtained phase data per a predetermined distance in a direction (z) of the static magnetic field and phase change levels ((∇φ) x, (∇φ) y) of the obtained phase data per a predetermined distance in two directions (x, y) orthogonal to the direction (z) of the static magnetic field and intersecting with each other at right angle; and a generator that is arranged to generate an image representing a positional distribution of a parameter, the parameter being obtained by an addition of a square of the calculated change level [(∇φ) z] 2 in the direction (z) of the static magnetic field, and a square of a sum of the calculated change levels in the two directions (x, y) orthogonal to the direction (z) of the static magnetic field and intersecting with each other at right angle at a rate of 2:1, said image predicting the heat generation distribution in the target object.