mhurhangee/ep-ind-claims huggingface dataset:
A pivot pin for an epicyclic gear train sliding bearing, the pivot pin having an axis, about which it can rotate, and a circumference, and further having: - a portion forming a central shank extending around an axial passage of the pivot pin, and - axially opposed circumferential grooves (25a,25b) which are open laterally and which radially separate two axially opposed lateral end portions (230a,230b) of the central shank from two lateral cantilevered portions (27a,27b) of the pivot pin, each circumferential groove (25a,25b) having a free lateral end (250a,250b) and: -- radially at least one width, -- as well as at least one depth, in a direction in which the circumferential groove extends inwardly in the pivot pin, from the free lateral end (250a,250b) to a bottom end, characterized in that at least one of the circumferential grooves (25a,25b) has: - said at least one width and/or said at least one depth which is, or are, more reduced locally than on the rest of the circumference, or, - said at least one width which is equal to zero over part of the circumference, and/or said at least one depth which varies circumferentially. - a portion forming a central shank extending around an axial passage of the pivot pin, and - axially opposed circumferential grooves (25a,25b) which are open laterally and which radially separate two axially opposed lateral end portions (230a,230b) of the central shank from two lateral cantilevered portions (27a,27b) of the pivot pin, each circumferential groove (25a,25b) having a free lateral end (250a,250b) and: -- radially at least one width, -- as well as at least one depth, in a direction in which the circumferential groove extends inwardly in the pivot pin, from the free lateral end (250a,250b) to a bottom end, -- radially at least one width, -- as well as at least one depth, in a direction in which the circumferential groove extends inwardly in the pivot pin, from the free lateral end (250a,250b) to a bottom end, - said at least one width and/or said at least one depth which is, or are, more reduced locally than on the rest of the circumference, or, - said at least one width which is equal to zero over part of the circumference, and/or said at least one depth which varies circumferentially.
A terminal device comprising: a signal reception unit configured to receive a reference signal in full-duplex, FD, transmission capable of performing transmission and reception using one frequency and/or time resource in two modes; an interference node selection unit configured to select a specific interference node that has a maximum interference among interference nodes (2, 20) that interfere with the terminal device based on the reference signal; an estimation unit configured to estimate a transmission capacity of an FD transmission mode and a transmission capacity of a half-duplex, HD, transmission mode based on a signal intensity of the reference signal received from the specific interference node; and a mode determination unit configured to determine whether to operate in the FD transmission mode based on the transmission capacity of the FD transmission mode and the transmission capacity of the HD transmission mode. a signal reception unit configured to receive a reference signal in full-duplex, FD, transmission capable of performing transmission and reception using one frequency and/or time resource in two modes; an interference node selection unit configured to select a specific interference node that has a maximum interference among interference nodes (2, 20) that interfere with the terminal device based on the reference signal; an estimation unit configured to estimate a transmission capacity of an FD transmission mode and a transmission capacity of a half-duplex, HD, transmission mode based on a signal intensity of the reference signal received from the specific interference node; and a mode determination unit configured to determine whether to operate in the FD transmission mode based on the transmission capacity of the FD transmission mode and the transmission capacity of the HD transmission mode.
A gas turbine combustor comprising a combustor liner defining a combustion chamber therein, an outer tube provided around an outer periphery of the combustor liner, and an annular flow passage in which a cooling medium flows and which is formed between an outer surface of the combustor liner and an inner surface of the outer tube; characterized in that the outer tube includes: an inner diameter reduced portion reduced in diameter relative to an inner peripheral portion on an upstream side and a taper portion smoothly connecting the inner diameter reduced portion and the inner peripheral portion on the upstream side, and is provided at an inner surface thereof on the upstream side relative to the inner diameter reduced portion with longitudinal vortex generating means generating a vortex that has a central rotation axis in a flowing direction of the cooling medium.
A laminate paper comprising a treated inorganic core particle having improved dispersability, prepared by a process comprising: (a) heating a slurry comprising porous silica treated inorganic core particle and water at a temperature of at least about 90°C; and (b) adding a soluble alumina source to the slurry from step (a) while maintaining the pH at about 8.0 to 9.5 to form an alumina treatment on the porous silica treated inorganic core particle; wherein the treated inorganic core particle does not comprise dense silica or alumina treatments, and has silica present in the amount of about 7% to about 14% and alumina present in the amount of about 4.0% to about 8.0% based on the total weight of the inorganic particle; wherein the particle to particle surface treatments are substantially homogeneous; and wherein the inorganic core particle is an oxide of titanium, aluminum, zinc, copper or iron; a sulfate of calcium, strontium or barium; zinc sulfide; copper sulfide, zeolite; mica; talc; kaolin, mullite, calcium carbonate, or silica. (a) heating a slurry comprising porous silica treated inorganic core particle and water at a temperature of at least about 90°C; and (b) adding a soluble alumina source to the slurry from step (a) while maintaining the pH at about 8.0 to 9.5 to form an alumina treatment on the porous silica treated inorganic core particle; wherein the treated inorganic core particle does not comprise dense silica or alumina treatments, and has silica present in the amount of about 7% to about 14% and alumina present in the amount of about 4.0% to about 8.0% based on the total weight of the inorganic particle; wherein the particle to particle surface treatments are substantially homogeneous; and
A chemical-mechanical polishing composition comprising: (a) abrasive particles, wherein the abrasive particles comprise zirconia, (b) at least one metal ion oxidizer, wherein the at least one metal ion oxidizer comprises metal ions of Fe 3+, and (c) an aqueous carrier, wherein the pH of the chemical-mechanical polishing composition is in the range of 1 to 7, and wherein the chemical-mechanical polishing composition does not contain a peroxy-type oxidizer. (a) abrasive particles, wherein the abrasive particles comprise zirconia, (b) at least one metal ion oxidizer, wherein the at least one metal ion oxidizer comprises metal ions of Fe 3+, and (c) an aqueous carrier, wherein the pH of the chemical-mechanical polishing composition is in the range of 1 to 7, and wherein the chemical-mechanical polishing composition does not contain a peroxy-type oxidizer.
Ionic polymerisation cascade process for the polymerisation of a liquid monomer(s) containing reaction mixture in a polymerisation system comprising a first homogenising prepolymerisation unit ("HPPU") and a second polymerisation unit in series wherein the polymerisation reaction starts in the HPPU and continues in the second polymerisation unit consisting of a polymerisation loop, a coolant loop and a heat exchanger reactor system ("HERS") which is shared amongst the polymerisation loop and the coolant loop, characterised in that - the HERS has a ratio of surface area to reaction mixture volume ("S/V" expressed in m2/m3) higher than 10 and lower than 450, and - the HPPU has a ratio of surface area to reaction mixture volume ("S/V" expressed in m2/m3) higher than 600, for example comprised between 1000 and 5000, and - the ratio between the residence time of the reaction mixture in the first homogenising prepolymerisation unit and the residence time of the reaction mixture in the second polymerisation unit is comprised between 0.01 % and 5 %, preferably between 0.1 % and 2 %, for example between 0.1 % and 1 %. - the HERS has a ratio of surface area to reaction mixture volume ("S/V" expressed in m2/m3) higher than 10 and lower than 450, and - the HPPU has a ratio of surface area to reaction mixture volume ("S/V" expressed in m2/m3) higher than 600, for example comprised between 1000 and 5000, and - the ratio between the residence time of the reaction mixture in the first homogenising prepolymerisation unit and the residence time of the reaction mixture in the second polymerisation unit is comprised between 0.01 % and 5 %, preferably between 0.1 % and 2 %, for example between 0.1 % and 1 %.
A control method of a wireless power receiver for receiving charging power from a wireless power transmitter, the method comprising: transmitting setting information to the wireless power transmitter; generating a load variation based on a pattern included in the setting information within a predetermined time; receiving a message including a bit field indicating a cross-connection from the wireless power transmitter; and terminating a connection to the wireless power transmitter based on the message. transmitting setting information to the wireless power transmitter; generating a load variation based on a pattern included in the setting information within a predetermined time; receiving a message including a bit field indicating a cross-connection from the wireless power transmitter; and terminating a connection to the wireless power transmitter based on the message.
An induction heating device comprising: a loading plate for placing a loaded object thereon; a working coil (202, 204) disposed below the loading plate for heating a loaded object using an inductive current; a loaded-object sensor in a central region of the working coil (202, 204) and including a sensing coil; characterized in that a resistor circuit is configured to reduce a magnitude of induced voltage generated in the sensing coil when the working coil (202, 204) is operated; and a control unit is configured for controlling the resistor circuit and for determining, based on the sensing result of the loaded-object sensor, whether a loaded object having an inductive heating property is placed on the loading plate. a loading plate for placing a loaded object thereon; a working coil (202, 204) disposed below the loading plate for heating a loaded object using an inductive current; a loaded-object sensor in a central region of the working coil (202, 204) and including a sensing coil; characterized in that a resistor circuit is configured to reduce a magnitude of induced voltage generated in the sensing coil when the working coil (202, 204) is operated; and a control unit is configured for controlling the resistor circuit and for determining, based on the sensing result of the loaded-object sensor, whether a loaded object having an inductive heating property is placed on the loading plate.
An electrochemical reactor, suitable for reducing a dye suspension to its leucodye solution, comprises at least four electrolytic cells, wherein the electrolytic cells are provided in the form of at least two stacks of at least two electrolytic cells, said stacks are connected in parallel and allow the separation of at least one stack at a time for washing/regeneration of the cathode during a dye suspension preparation wherein the water needed for the dye suspension preparation is supplied via the cathodes of the stack to be regenerated thereby avoiding loss of leucodye while during the separation of at least one stack catholyte solution is circulated through the remaining one or more stacks, wherein the electrolytic cells of each stack are connected in parallel and wherein the electrolytic cells comprise a cathode compartment and an anode compartment separated by a separator, in particular a separator comprising a semipermeable membrane, said cathode compartment comprises a multitude of freely suspended conductive, in particular non-spherical granules in contact with a conductor forming at least the side wall opposite to the separator, said cathode compartment is provided with an upper grid and a lower grid, the width of the mesh and the positioning of said grids are chosen such that the liquid catholyte can pass through them but the granules are prevented from passing through them so that they are retained in the cathode compartment, wherein the anode compartment has a wall opposite to the common side wall formed by an electrode, wherein said cathode compartment is connected to a main vessel via a catholyte supply pipe and a reduced catholyte return pipe for circulating catholyte through the cathode compartment, and said anode compartment is connected to an anolyte vessel via an anolyte supply pipe and an anolyte return pipe, wherein said cathode compartment and said anode compartment are also provided with means for supplying acidic cleaning solutions and water and optionally basic solution to the cathode compartment and the anode compartment, said means comprise at least one cleaning medium supply pipe and at least one cleaning medium removal pipe at opposite ends of the cathode compartment and of the anode compartment for supplying and removing acidic cleaning solutions and water and preferably also a basic solution, said cleaning medium supply pipes and said cleaning medium removal pipes can be bypasses of the catholyte supply pipe and/or the anolyte supply pipe, or independent pipes with own inlets and outlets adjacent to the ones of a catholyte circulation loop or an anolyte circulation loop, said at least one cleaning medium supply pipe is connected to at least one vessel (63a, 63b) for supplying acid and optionally base and is also connected to a water line supplying deionized water, and the at least one cleaning medium removal pipe is connected to a waste water treatment plant (WWTP) or to a waste water vessel.
A system for testing whether an iontophoretic device is in an appropriate state for administering a therapeutic agent into an animal body by driving an electrotransport current through a surface of the animal body, the iontophoretic device comprising an electrode (12, 14), the system for testing comprising: at least one electrical test point (12a, 12b, 12c, 12d, 14a, 14b, 14c, 14d); at least one electrical path leading from the at least one test point and configured to lead to the electrode (12, 14) of the iontophoretic device; and a controller configured to: measure an electrical characteristic of the at least one electrical path, determine whether the iontophoretic device is in an appropriate state for administering a therapeutic agent into an animal body from the measured electrical characteristic, wherein the measured electrical characteristic indicates that the iontophoretic device is in the appropriate state for administering the therapeutic agent into the animal body when the therapeutic agent is properly disposed with respect to the iontophoretic device, and prevent use of the iontophoretic device if the iontophoretic device is not in an appropriate state for administering the therapeutic agent into the animal body within a predetermined period of time after a first measurement of the electrical characteristic. at least one electrical test point (12a, 12b, 12c, 12d, 14a, 14b, 14c, 14d); at least one electrical path leading from the at least one test point and configured to lead to the electrode (12, 14) of the iontophoretic device; and a controller configured to: measure an electrical characteristic of the at least one electrical path, determine whether the iontophoretic device is in an appropriate state for administering a therapeutic agent into an animal body from the measured electrical characteristic, wherein the measured electrical characteristic indicates that the iontophoretic device is in the appropriate state for administering the therapeutic agent into the animal body when the therapeutic agent is properly disposed with respect to the iontophoretic device, and prevent use of the iontophoretic device if the iontophoretic device is not in an appropriate state for administering the therapeutic agent into the animal body within a predetermined period of time after a first measurement of the electrical characteristic. measure an electrical characteristic of the at least one electrical path, determine whether the iontophoretic device is in an appropriate state for administering a therapeutic agent into an animal body from the measured electrical characteristic, wherein the measured electrical characteristic indicates that the iontophoretic device is in the appropriate state for administering the therapeutic agent into the animal body when the therapeutic agent is properly disposed with respect to the iontophoretic device, and prevent use of the iontophoretic device if the iontophoretic device is not in an appropriate state for administering the therapeutic agent into the animal body within a predetermined period of time after a first measurement of the electrical characteristic.
Apparatus for heating polymer powder particles, comprising a radiation source, a housing and a screen, wherein the radiation source has its maximum radiation power within the wavelength range of 0.78-2.5 μm and the screen has an absorbance of at least 0.8 within the wavelength range of 0.78-2.5 μm, wherein the screen has at least the absorbance specified at all wavelengths in the wavelength range specified, wherein the housing has at least one opening in the direction of the screen, characterized in that the radiation maximum of the apparatus is at a wavelength of more than 2.5 μm and below 4.8 μm.
Method for manufacturing a cup from a conical sleeve and a pot-shaped base, wherein the base has a base face and a circumferential wall which starts from the base face, and is inserted from a larger opening of the conical sleeve into the sleeve in the direction towards the smaller opening in the sleeve, comprising the steps: - at least partially covering a radially outer circumferential face of the wall of the pot-shaped base with an annular covering sleeve, - arranging the covering sleeve and the base in a predefined relative position between the sleeve and the base, - pulling out the covering sleeve between an inner side of the sleeve and the radially outer circumferential face of the base, wherein the base remains in the predefined relative position, and - connecting the radially outer circumferential face of the base and the inner side of the sleeve in an essentially fluid-tight manner. - at least partially covering a radially outer circumferential face of the wall of the pot-shaped base with an annular covering sleeve, - arranging the covering sleeve and the base in a predefined relative position between the sleeve and the base, - pulling out the covering sleeve between an inner side of the sleeve and the radially outer circumferential face of the base, wherein the base remains in the predefined relative position, and - connecting the radially outer circumferential face of the base and the inner side of the sleeve in an essentially fluid-tight manner.
A medical multilayer vessel comprising a layer containing, as a major ingredient, a water vapor barrier polymer that contains at least one species or more of polyolefin resin(s), and a gas barrier layer composed of a polyamide resin composition, the polyamide resin composition comprising: 10 to 45% by mass of polyamide resin that contains a diamine unit with a content of a structural unit derived from xylylenediamine of 70 mol% or more, and a dicarboxylic acid unit with a content of a structural unit derived from a straight-chain aliphatic dicarboxylic acid having 6 to 18 carbon atoms of 70 mol% or more; and, 90 to 55% by mass of a poly(hexamethylene isophthalamide)/poly(hexamethylene terephthalamide) copolymer. 10 to 45% by mass of polyamide resin that contains a diamine unit with a content of a structural unit derived from xylylenediamine of 70 mol% or more, and a dicarboxylic acid unit with a content of a structural unit derived from a straight-chain aliphatic dicarboxylic acid having 6 to 18 carbon atoms of 70 mol% or more; and, 90 to 55% by mass of a poly(hexamethylene isophthalamide)/poly(hexamethylene terephthalamide) copolymer.
A mobile terminal comprising: a terminal body having a front surface and a rear surface; a touch screen disposed on the front surface and configured to display visual information; and an input unit provided at the terminal body the input unit comprising: a button member externally located on the terminal body; a first sensing unit disposed to overlap the button member and configured to sense a push input applied onto the button member, wherein the first sensing unit is configured to sense the push input in response to a pressure exceeding a certain pressure threshold; and a second sensing unit disposed to overlap the first sensing unit between the button member and the first sensing unit and configured to sense a touch input applied onto the button member, wherein the second sensing unit is configured to sense the touch input in response to a touch applied to the button member, wherein the touch screen is configured to be activated in response to the push input sensed by the first sensing unit, and wherein the second sensing unit is configured to be activated after the touch screen is activated. a terminal body having a front surface and a rear surface; a touch screen disposed on the front surface and configured to display visual information; and an input unit provided at the terminal body the input unit comprising: a button member externally located on the terminal body; a first sensing unit disposed to overlap the button member and configured to sense a push input applied onto the button member, wherein the first sensing unit is configured to sense the push input in response to a pressure exceeding a certain pressure threshold; and a second sensing unit disposed to overlap the first sensing unit between the button member and the first sensing unit and configured to sense a touch input applied onto the button member, wherein the second sensing unit is configured to sense the touch input in response to a touch applied to the button member, wherein the touch screen is configured to be activated in response to the push input sensed by the first sensing unit, and wherein the second sensing unit is configured to be activated after the touch screen is activated. a button member externally located on the terminal body; a first sensing unit disposed to overlap the button member and configured to sense a push input applied onto the button member, wherein the first sensing unit is configured to sense the push input in response to a pressure exceeding a certain pressure threshold; and a second sensing unit disposed to overlap the first sensing unit between the button member and the first sensing unit and configured to sense a touch input applied onto the button member, wherein the second sensing unit is configured to sense the touch input in response to a touch applied to the button member, wherein the touch screen is configured to be activated in response to the push input sensed by the first sensing unit, and wherein the second sensing unit is configured to be activated after the touch screen is activated.