mhurhangee/ep-ind-claims huggingface dataset:
A cellulose fiber-dispersing resin composite material, comprising a cellulose fiber dispersed in a resin, wherein a content of the cellulose fiber is 1% by mass or more and less than 70% by mass, wherein the length weighted average fiber length of the cellulose fiber is 0.3 mm or more and 1.3 mm or less, and wherein LL and LN satisfy the following [Expression 1]: 1.1 < LL / LN < 1.5 when a length weighted average fiber length of the cellulose fiber is taken as LL, and a number average fiber length of the cellulose fiber is taken as LN, measured under the following measurement condition: <measurement condition> LL and LN are determined for the dissolution residue obtained by immersing the cellulose fiber-dispersing resin composite material in a solvent capable of dissolving the resin in the composite material, in accordance with Pulps-Determination of fiber length by automated optical analysis specified by ISO 16065 2001, wherein LL is the average fiber length weighted by the length of the fiber, and LL = ∑ n i l i 2 / ∑ n i l i LN = ∑ n i l i / ∑ n i, wherein n i is the number of fibers in the i-th length range, and l i is the central value in the i-th length range. wherein a content of the cellulose fiber is 1% by mass or more and less than 70% by mass, wherein the length weighted average fiber length of the cellulose fiber is 0.3 mm or more and 1.3 mm or less, and wherein LL and LN satisfy the following [Expression 1]: 1.1 < LL / LN < 1.5 when a length weighted average fiber length of the cellulose fiber is taken as LL, and a number average fiber length of the cellulose fiber is taken as LN, measured under the following measurement condition: <measurement condition> LL and LN are determined for the dissolution residue obtained by immersing the cellulose fiber-dispersing resin composite material in a solvent capable of dissolving the resin in the composite material, in accordance with Pulps-Determination of fiber length by automated optical analysis specified by ISO 16065 2001, when a length weighted average fiber length of the cellulose fiber is taken as LL, and a number average fiber length of the cellulose fiber is taken as LN, measured under the following measurement condition: <measurement condition> LL and LN are determined for the dissolution residue obtained by immersing the cellulose fiber-dispersing resin composite material in a solvent capable of dissolving the resin in the composite material, in accordance with Pulps-Determination of fiber length by automated optical analysis specified by ISO 16065 2001, wherein LL is the average fiber length weighted by the length of the fiber, and LL = ∑ n i l i 2 / ∑ n i l i LN = ∑ n i l i / ∑ n i, wherein n i is the number of fibers in the i-th length range, and l i is the central value in the i-th length range.
A method for generating a three-dimensional, 3D, interaction model for a virtual reality device or an augmented reality device based on a 3D model and realtime location data of a position-tracked object, the method comprising: obtaining a three-dimensional, 3D, model of an environment; obtaining at least one 3D model representing the position-tracked object and obtaining at least one 3D metamodel related to the 3D model of the position-tracked object, wherein the at least one 3D metamodel represents a model that is derived from historical location data of the position-tracked object; receiving location data of the position-tracked object associated with the 3D model of the position-tracked object, wherein the location data are realtime location data of the position-tracked object; and generating a 3D interaction model for a virtual reality device or an augmented reality device based on the 3D model of the environment and the at least one 3D model of the position-tracked object and the at least one 3D metamodel and the received location data by displaying the at least one 3D model of the position-tracked object in the 3D model of the environment at multiple positions simultaneously, the multiple positions being positions of the at least one 3D model of the position-tracked object at multiples times, wherein the historical location data are used for the multiple times. obtaining a three-dimensional, 3D, model of an environment; obtaining at least one 3D model representing the position-tracked object and obtaining at least one 3D metamodel related to the 3D model of the position-tracked object, wherein the at least one 3D metamodel represents a model that is derived from historical location data of the position-tracked object; receiving location data of the position-tracked object associated with the 3D model of the position-tracked object, wherein the location data are realtime location data of the position-tracked object; and generating a 3D interaction model for a virtual reality device or an augmented reality device based on the 3D model of the environment and the at least one 3D model of the position-tracked object and the at least one 3D metamodel and the received location data by displaying the at least one 3D model of the position-tracked object in the 3D model of the environment at multiple positions simultaneously, the multiple positions being positions of the at least one 3D model of the position-tracked object at multiples times, wherein the historical location data are used for the multiple times.
A fuel reforming system comprising: a fuel tank that stores fuel prior to reforming; a fuel supply means for supplying the fuel prior to reforming that is stored in the fuel tank into a cylinder or an intake port of an internal combustion engine; a reformer that includes a reforming catalyst which reforms fuel with hydrocarbons as a main constituent using air to produce alcohols; a mixer that is provided upstream of the reformer, and mixes the fuel and air and supplies to the reformer; and a condenser that is provided downstream of the reformer, and separates product gas generated by the reformer into a condensed phase with reformed fuel as a main constituent and a gas phase, a gas-phase supply means for supplying the gas phase separated by the condenser into the intake port; a reformed fuel tank that stores reformed fuel in the condensed phase separated by the condenser; and a reformed fuel supply means for supplying the reformed fuel stored in the reformed fuel tank into the cylinder or the intake port; wherein the reforming catalyst includes an N-hydroxyimide group-containing compound as a primary catalyst which abstracts hydrogen atoms from hydrocarbons in the fuel to produce alkyl radicals, and a transition metal compound, selected from the group consisting of cobalt compounds, manganese compounds and copper compounds, as an auxiliary catalyst which reduces alkyl hydroperoxides generated from the alkyl radicals to produce alcohols. a fuel tank that stores fuel prior to reforming; a fuel supply means for supplying the fuel prior to reforming that is stored in the fuel tank into a cylinder or an intake port of an internal combustion engine; a reformer that includes a reforming catalyst which reforms fuel with hydrocarbons as a main constituent using air to produce alcohols; a mixer that is provided upstream of the reformer, and mixes the fuel and air and supplies to the reformer; and a condenser that is provided downstream of the reformer, and separates product gas generated by the reformer into a condensed phase with reformed fuel as a main constituent and a gas phase, a gas-phase supply means for supplying the gas phase separated by the condenser into the intake port; a reformed fuel tank that stores reformed fuel in the condensed phase separated by the condenser; and a reformed fuel supply means for supplying the reformed fuel stored in the reformed fuel tank into the cylinder or the intake port; wherein the reforming catalyst includes an N-hydroxyimide group-containing compound as a primary catalyst which abstracts hydrogen atoms from hydrocarbons in the fuel to produce alkyl radicals, and a transition metal compound, selected from the group consisting of cobalt compounds, manganese compounds and copper compounds, as an auxiliary catalyst which reduces alkyl hydroperoxides generated from the alkyl radicals to produce alcohols.
Attachment member for interconnection of a first board and a second board, wherein at least one of the boards (51, 52) is a circuitry board, the attachment member comprising a base portion extending along a base plane, a first pair of legs (11, 12) extending from the base portion in a first direction, wherein the first pair of legs (11, 12) are configured to resiliently flex along a respective flexing direction (DF11, DF12) away from each other thereby allowing a portion of a first board to be inserted between and to lockingly engage the first legs (11, 12), a second pair of legs (21, 22) extending from the base portion in a second direction, the second direction being opposite the first direction, wherein the second pair of legs (21, 22) are configured to resiliently flex along a respective flexing direction (DF21, DF22) away from each other thereby allowing a portion of a second board to be inserted between and to lockingly engage the second legs (21, 22), and a pair of abutment protrusions (41, 42), each abutment protrusion (41, 42) extending along said base plane from the base portion or from the first or second legs (11, 12, 21, 22) to form an abutment surface (41a, 42a) outside respective leg of the second pair of legs (21, 22) and with the abutment surface (41a, 42a) being configured to abut directly or indirectly the second board on a first surface of the second board, the first surface of the second board facing the base portion of the attachment member, and characterized in that each leg (11, 12) of the first pair of legs is provided with an outer shoulder portion (11c, 12c) forming a shoulder surface (11d, 12d) facing in the second direction.
An aluminum or aluminum alloy molten salt electroplating bath which is obtained by adding a reducing compound to an aluminum or aluminum alloy molten salt electroplating bath comprising an aluminum halide as a main component and at least one further halide, followed by a heat treatment; wherein the aluminum or aluminum alloy molten salt electroplating bath does not contain benzene, toluene, xylene, naphthalene or 1,3,5-trimethylbenzene; the further halide is one or more compounds selected from the group consisting of N-alkylpyridinium halides, N-alkylimidazolium halides, N,N'-dialkylimidazolium halides, N-alkylpyrazolium halides, N,N'-dialkylpyrazolium halides, N-alkylpyrrolidinium halides, and N, N-dialkylpyrrolidinium halides; the reducing compound is one or more compounds selected from the group consisting of lithium aluminum hydride, lithium hydride, lithium sodium hydride, sodium hydride, sodium borohydride, dimethylamine borane, diethylamine borane, and trimethylamine borane; the aluminum halide and the further halide are contained at a molar ratio of from 1:1 to 3:1; and wherein the heat treatment includes decomposing the reducing compound by heating the plating bath at a temperature of 50 to 100°C and letting generated H 2 gas out of a plating liquid.
A method of producing a tyre tread with lugs; the tread comprising a tread base; and a number of lugs, each of which projects upwards from the tread base, and has a lateral portion located at a shoulder of the tyre, and a centre portion located in the centre area of the tyre; the method comprising the steps of: preparing a green-rubber blank tread; applying rubber blocks to the areas of the blank tread where the lugs are to be formed, each block having an outer wall located at a shoulder of the blank tread, and an inner wall opposite the outer wall and located in the centre area of the blank tread; and curing the blank tread, together with the blocks, in a curing mold negatively reproducing the pattern of the tread; the method being characterized by comprising the further steps of mechanically connecting each block to the blank tread after the block is applied to the blank tread. preparing a green-rubber blank tread; applying rubber blocks to the areas of the blank tread where the lugs are to be formed, each block having an outer wall located at a shoulder of the blank tread, and an inner wall opposite the outer wall and located in the centre area of the blank tread; and curing the blank tread, together with the blocks, in a curing mold negatively reproducing the pattern of the tread; the method being characterized by comprising the further steps of mechanically connecting each block to the blank tread after the block is applied to the blank tread.
A motor control device comprising: a switch group which connects each coil (L1, L2, L3) included in a motor to an electric power source; a capacitor of small capacitance which accumulates power supplied from a voltage regulator circuit connected through a diode to the electric power source; and a connection switch at the time of stopping electric power supply, which connects the capacitor and a part of switches (14,15,16) forming the switch group, when power supply from the electric power source is stopped, wherein the part of switches (14, 15, 16) forming the switch group are operated by the power accumulated in the capacitor by an operation of the connection switch at the time of stopping electric power supply, and each coil (L1, L2, L3) is short-circuited by an operation of the part of switches (14,15,16) to apply a brake to the motor. a switch group which connects each coil (L1, L2, L3) included in a motor to an electric power source; a capacitor of small capacitance which accumulates power supplied from a voltage regulator circuit connected through a diode to the electric power source; and a connection switch at the time of stopping electric power supply, which connects the capacitor and a part of switches (14,15,16) forming the switch group, when power supply from the electric power source is stopped, wherein the part of switches (14, 15, 16) forming the switch group are operated by the power accumulated in the capacitor by an operation of the connection switch at the time of stopping electric power supply, and each coil (L1, L2, L3) is short-circuited by an operation of the part of switches (14,15,16) to apply a brake to the motor.
A composite user input device for a computing device (108, 500), comprising one or more removable input modules and a charging device for receiving the one or more removable input modules, the one or more removable input modules comprising at least one input control and having an attachment mechanism (118, 122, 124) for attaching to the charging device and to the computing device, the charging device comprising: a charging mechanism comprising a power input to receive power from an external power source and a power output to provide power to the one or more removable input modules; one or more attachment portions, each attachment portion shaped to receive a corresponding removable input module via the attachment mechanism to form the composite user input device, wherein the composite user input device is operable as a handheld user input device for the computing device, characterised in that the charging mechanism comprises a communication element configured to communicate user input data to the computing device, the user input data being generatable in response to user input via one or more input controls on the one or more removable input modules. a charging mechanism comprising a power input to receive power from an external power source and a power output to provide power to the one or more removable input modules; one or more attachment portions, each attachment portion shaped to receive a corresponding removable input module via the attachment mechanism to form the composite user input device, wherein the composite user input device is operable as a handheld user input device for the computing device, characterised in that the charging mechanism comprises a communication element configured to communicate user input data to the computing device, the user input data being generatable in response to user input via one or more input controls on the one or more removable input modules.
Method for manufacturing a base plate for an ostomy appliance, the method comprising: - providing a top layer; - providing an electrode assembly comprising a plurality of electrodes, the electrode assembly having a first part and a second part, the first part comprising connection parts (222A, 224A, 226A, 228A, 230A, 232A) of the plurality of electrodes configured for connecting the plurality of electrodes to terminals of a monitor device; - providing a support layer, - arranging the plurality of electrodes on the proximal side of the support layer; - providing a first adhesive layer comprising one or more water soluble or water swellable hydrocolloids; and - assembling the top layer, the electrode assembly and the first adhesive layer, such that the second part of the electrode assembly is arranged between the first adhesive layer and the top layer, the method further comprising: - providing a top layer opening in the top layer, the top layer opening being configured to allow for connection between the connection parts (222A, 224A, 226A, 228A, 230A, 232A) of the plurality of electrodes and terminals of the monitor device. - providing a top layer; - providing an electrode assembly comprising a plurality of electrodes, the electrode assembly having a first part and a second part, the first part comprising connection parts (222A, 224A, 226A, 228A, 230A, 232A) of the plurality of electrodes configured for connecting the plurality of electrodes to terminals of a monitor device; - providing a support layer, - arranging the plurality of electrodes on the proximal side of the support layer; - providing a first adhesive layer comprising one or more water soluble or water swellable hydrocolloids; and - assembling the top layer, the electrode assembly and the first adhesive layer, such that the second part of the electrode assembly is arranged between the first adhesive layer and the top layer, - providing a top layer opening in the top layer, the top layer opening being configured to allow for connection between the connection parts (222A, 224A, 226A, 228A, 230A, 232A) of the plurality of electrodes and terminals of the monitor device.
An aqueous agrochemical gel composition comprising: from 0.1 to 5 percent by weight on an acid equivalent basis of a water-soluble agrochemical component comprising glyphosate in the form of a salt thereof, from 0.1 to 5 percent by weight of a polymeric gel forming agent component comprising at least one polymeric gel forming agent selected from the group consisting of polyacrylic acids and copolymers thereof, and from 85 to 98 percent by weight water wherein tan(delta) of the gel composition is less than 0.7 as measured by oscillation frequency sweep rheometric measurements between 0.1 and 600 rad/sec at 0.2 Pa and 1 Pa as measured using a cone and plate viscometer method with a 60 mm 2° acrylic cone and plate at 20°C and wherein the yield point of the gel composition is at least about 50 dyne/cm 2. from 0.1 to 5 percent by weight on an acid equivalent basis of a water-soluble agrochemical component comprising glyphosate in the form of a salt thereof, from 0.1 to 5 percent by weight of a polymeric gel forming agent component comprising at least one polymeric gel forming agent selected from the group consisting of polyacrylic acids and copolymers thereof, and from 85 to 98 percent by weight water
A particle therapy system comprising: a synchrocyclotron (10; 502) to output a particle beam; a magnet (12; 108) to affect a direction of the particle beam to scan the particle beam across at least part of an irradiation target; wherein scanning performed by the particle therapy system is spot scanning; and characterized in that the particle therapy system further comprises: scattering material that is configurable to change a spot size of the particle beam to a selected spot size among multiple spot sizes prior to output of the particle beam to the irradiation target, wherein the scattering material comprises mechanical scatterers being movable into, or out of, a path of the particle beam or a piezoelectric material that is responsive to an applied voltage to increase or decrease in thickness, wherein the spot size is changeable from scan-location to scan-location; and wherein the spot size is changeable on a time scale on the order of tenths of a second or less. a synchrocyclotron (10; 502) to output a particle beam; a magnet (12; 108) to affect a direction of the particle beam to scan the particle beam across at least part of an irradiation target; wherein scanning performed by the particle therapy system is spot scanning; and characterized in that the particle therapy system further comprises: scattering material that is configurable to change a spot size of the particle beam to a selected spot size among multiple spot sizes prior to output of the particle beam to the irradiation target, wherein the scattering material comprises mechanical scatterers being movable into, or out of, a path of the particle beam or a piezoelectric material that is responsive to an applied voltage to increase or decrease in thickness, wherein the spot size is changeable from scan-location to scan-location; and wherein the spot size is changeable on a time scale on the order of tenths of a second or less. scattering material that is configurable to change a spot size of the particle beam to a selected spot size among multiple spot sizes prior to output of the particle beam to the irradiation target, wherein the scattering material comprises mechanical scatterers being movable into, or out of, a path of the particle beam or a piezoelectric material that is responsive to an applied voltage to increase or decrease in thickness, wherein the spot size is changeable from scan-location to scan-location; and wherein the spot size is changeable on a time scale on the order of tenths of a second or less.
A lithium sulfur battery, comprising: an anode comprising lithium: a non-aqueous electrolyte; and a cathode comprising a composition including sulfur and a metal oxide; characterized in that the battery additionally comprises a separator including polymeric material and 5 to 50% organically modified clay. an anode comprising lithium: a non-aqueous electrolyte; and a cathode comprising a composition including sulfur and a metal oxide; characterized in that the battery additionally comprises a separator including polymeric material and 5 to 50% organically modified clay. a non-aqueous electrolyte; and a cathode comprising a composition including sulfur and a metal oxide; characterized in that the battery additionally comprises a separator including polymeric material and 5 to 50% organically modified clay.
An engine comprising a compressor and a closed fluid circuit connected to an inlet and outlet of the compressor such that compressed gas can be driven through the circuit by the compressor, the output of the compressor being connected, through the fluid circuit, to a turbine component comprising at least one set of turbine blades connected to a rotating shaft that acts as the output of the engine in use; a condenser acting as a heat exchanger for receiving fluid in the circuit that has passed through the turbine component and arranged to reduce the temperature and pressure of the compressed gas, the outlet of the heat exchanger being connected to the inlet of the compressor; and a generator connected to the rotating shaft; characterised in that at least some of the electricity generated by the generator is employed to power the compressor, wherein the engine comprises at least one control component (11,12) configured to control feedback of electricity generated from the generator to the compressor to control overall operating output of the engine.