mhurhangee/ep-ind-claims huggingface dataset:
A dental composition comprising pre-reacted particulate mineral trioxide aggregate dispersed in a hydrogel characterized in that the content of MTA in the composition is in the range of 20 to 50 percent by weight based on the total weight of the composition, and wherein the hydrogel includes a polymeric network obtained by polymerizing a mixture having one or more monomers selected from the group consisting of acrylic acid, acrylamide, and combinations thereof.
A signal processing device (11, 51, 131) comprising a reverb processing unit (22,61, 141) configured to generate a signal of a reverb component on a basis of object audio data of an audio object and a reverb parameter for the audio object; a rendering processing unit configured to perform rendering processing on the signal of the reverb component on a basis of the reverb parameter, characterised in that the reverb parameter includes wet component position information, wherein the wet component is a component of reflection sound or reverberation sound, indicating a localization position of a sound image of the reverb component which is different from position information indicating a position of the audio object, and the rendering processing unit is configured to perform the rendering processing on the signal of the reverb component on a basis of the wet component position information. a reverb processing unit (22,61, 141) configured to generate a signal of a reverb component on a basis of object audio data of an audio object and a reverb parameter for the audio object; a rendering processing unit configured to perform rendering processing on the signal of the reverb component on a basis of the reverb parameter, characterised in that the reverb parameter includes wet component position information, wherein the wet component is a component of reflection sound or reverberation sound, indicating a localization position of a sound image of the reverb component which is different from position information indicating a position of the audio object, and the rendering processing unit is configured to perform the rendering processing on the signal of the reverb component on a basis of the wet component position information.
A method of manufacturing center-filled chewing gum products comprising the steps of: extruding a plurality of individual, continuous tubular ropes of a chewing gum product; filling each of said tubular ropes with a confectionery product so as to form a plurality of filled ropes; passing each of said filled ropes through a rope sizing apparatus, said rope sizing apparatus comprising a plurality of pairs of rollers for accommodating a filled rope, and as the filled rope passes through said rope sizing apparatus, the speed of the pairs of rollers increases; depositing each of said filled ropes onto a surface of at least one relaxation conveyor, wherein said step of depositing comprises the use of at least one swing arm to deposit said plurality of filled ropes onto said at least one relaxation conveyor in a wave pattern across the width of said relaxation conveyor; and simultaneously feeding said plurality of filled ropes into a cutting apparatus; and cutting each of said -filled ropes in said cutting apparatus. extruding a plurality of individual, continuous tubular ropes of a chewing gum product; filling each of said tubular ropes with a confectionery product so as to form a plurality of filled ropes; passing each of said filled ropes through a rope sizing apparatus, said rope sizing apparatus comprising a plurality of pairs of rollers for accommodating a filled rope, and as the filled rope passes through said rope sizing apparatus, the speed of the pairs of rollers increases; depositing each of said filled ropes onto a surface of at least one relaxation conveyor, wherein said step of depositing comprises the use of at least one swing arm to deposit said plurality of filled ropes onto said at least one relaxation conveyor in a wave pattern across the width of said relaxation conveyor; and simultaneously feeding said plurality of filled ropes into a cutting apparatus; and cutting each of said -filled ropes in said cutting apparatus.
Electrical switch, whose actuating element is accommodated in a housing so as to be adjustable against spring action, the first end region of the actuating element on the housing side being associated with at least one luminaire for coupling in light and also cooperating with at least one switching device necessary for triggering the desired functions, the actuating element being designed in the form of a rod and being at least partially in the form of a light conductor, and in that the second end region of the actuating element, which end region is led out of the housing and is provided for manual actuation, has a light-coupling structure characterised in that a locking pin is formed on the first end region of the actuating element on the housing side, which locking pin can be brought into operative connection with at least one correspondingly designed locking stop of the housing by rotating the actuating element, and in that the actuating element is provided with an operative surface which cooperates with at least one securing device arranged in the housing.
A cutting apparatus comprising: a workpiece fixing jig that supports a longitudinal hollow resin molded product as a workpiece so as to hold an outer peripheral surface of the workpiece between two half cylindrical members (2a, 2b) from opposite sides, rotates by operation of rotary drive means, and rotates the workpiece while fixing the workpiece; rotary drive means for driving and rotating the workpiece fixing jig; support means (4a, 4b, 4c) for supporting the workpiece fixing jig while rotating along with rotation of the workpiece fixing jig, the support means being a gear having meshed teeth on the outer peripheral surface to mesh with outer peripheral teeth of the workpiece fixing jig; a cutter knife that cuts the rotating workpiece at least at axially opposite ends of the workpiece (a, b); and slide moving means for slidably moving the cutter knife. a workpiece fixing jig that supports a longitudinal hollow resin molded product as a workpiece so as to hold an outer peripheral surface of the workpiece between two half cylindrical members (2a, 2b) from opposite sides, rotates by operation of rotary drive means, and rotates the workpiece while fixing the workpiece; rotary drive means for driving and rotating the workpiece fixing jig; support means (4a, 4b, 4c) for supporting the workpiece fixing jig while rotating along with rotation of the workpiece fixing jig, the support means being a gear having meshed teeth on the outer peripheral surface to mesh with outer peripheral teeth of the workpiece fixing jig; a cutter knife that cuts the rotating workpiece at least at axially opposite ends of the workpiece (a, b); and slide moving means for slidably moving the cutter knife.
Clamping device with a base body, in which a hydraulic medium channel is formed, which passes axially through the base body between a front end face and a rear end face, a shift piston which is inserted axially displaceably into the hydraulic medium channel, and securing means to secure the shift piston in a front actuating position, characterized in that the securing means comprise a securing sleeve which is held axially fixed in a rear section of the hydraulic medium channel but rotatable about the longitudinal axis of the hydraulic medium channel, the securing sleeve carrying at its front end two guide webs (4a, 4b) which are positioned on opposite sides of the longitudinal axis and extend in the axial direction, the shift piston engages axially through the securing sleeve and has a radially projecting guide shoulder which, in a guide position of the securing sleeve, is guided axially displaceably between the guide webs (4a, 4b) of the securing sleeve, the axial length of the guide webs (4a, 4b) being dimensioned such that, in the actuating position of the shift piston, the guide shoulder projects out of the front end of the securing sleeve, so that the securing sleeve can be rotated, and shifting means are associated with the securing sleeve in order to turn the securing sleeve in the actuating position of the shift piston about the longitudinal axis into a securing position in which the guide webs (4a, 4b) engage behind the guide shoulder of the shift piston and thus secure the shift piston in its actuating position.
A clamp (2, 2') for a duplicating machine for bitted and double-bitted keys provided with a collar on the shank, with jaws (10, 10') for clamping said key (6, 6'), said clamp comprising a locator element of adjustable position such that, when a key (6, 6') is clamped between said jaws (10, 10'), the collar of said key (6, 6') rests against said locator element, characterised in that said locator element comprises a portion which can be withdrawn from said clamp in a manner parallel to the axis of the shank of the key (6, 6') when clamped between the jaws (10, 10') of said clamp, and a locator bar extending in a direction substantially perpendicular to said withdrawable portion and being able to interact with said collar, and in that said withdrawable portion of the locator element is provided with a plurality of notches spaced apart in the withdrawal direction and selectively snap-engagable by an elastic engagement element (30, 32) with which said clamp (2, 2') is provided.
A fiber optic gyroscope, comprising: a light source; an optical coupler in optical communication with the light source and configured to receive an optical signal from the light source; an optical modulator in optical communication with the optical coupler; a fiber optic coil in optical communication with the optical modulator; a demodulator configured to receive an optical signal from the optical coupler and convert the optical signal to an electrical signal; a loop closure electronics module configured to receive the electrical signal from the demodulator; a bias modulator responsive to an output from the loop closure electronics module and configured to output a modulation signal to the optical modulator; a first crosstalk filter network operatively coupled to the demodulator, characterized in that the first crosstalk filter network comprises a first common mode, CM, and differential mode, DM, filter network, and a second CM and DM filter network; and that the fiber optical gyroscope further comprises a second crosstalk filter network operatively coupled to the bias modulator, the second crosstalk filter network comprising a first CM and DM filter network, and a second CM and DM filter network; a first power supply that is configured to provide a positive voltage to the CM and DM filter network, and to provide the positive voltage to the CM and DM filter network; and a second power supply that is configured to provide a negative voltage to the CM and DM filter network, and to provide the negative voltage to the CM and DM filter network. a light source; an optical coupler in optical communication with the light source and configured to receive an optical signal from the light source; an optical modulator in optical communication with the optical coupler; a fiber optic coil in optical communication with the optical modulator; a demodulator configured to receive an optical signal from the optical coupler and convert the optical signal to an electrical signal; a loop closure electronics module configured to receive the electrical signal from the demodulator; a bias modulator responsive to an output from the loop closure electronics module and configured to output a modulation signal to the optical modulator; a first crosstalk filter network operatively coupled to the demodulator, characterized in that the first crosstalk filter network comprises a first common mode, CM, and differential mode, DM, filter network, and a second CM and DM filter network; and that the fiber optical gyroscope further comprises a second crosstalk filter network operatively coupled to the bias modulator, the second crosstalk filter network comprising a first CM and DM filter network, and a second CM and DM filter network; a first power supply that is configured to provide a positive voltage to the CM and DM filter network, and to provide the positive voltage to the CM and DM filter network; and a second power supply that is configured to provide a negative voltage to the CM and DM filter network, and to provide the negative voltage to the CM and DM filter network.
A polybutylene terephthalate resin pellet comprising a polybutylene terephthalate resin and a lubricant, wherein the content of the lubricant is 0.05 to 0.30 % by mass of the total mass of the polybutylene terephthalate resin pellet, and wherein the infrared spectrum peak intensity derived from the lubricant with respect to the infrared spectrum peak intensity derived from the polybutylene terephthalate resin (absorption at 2850 cm -1 /absorption at 1019 cm -1) after pre-drying and before loading in a molding machine is 0.005 or greater and 0.055 or less, wherein the infrared spectrum peak intensity is measured as described in the description. wherein the content of the lubricant is 0.05 to 0.30 % by mass of the total mass of the polybutylene terephthalate resin pellet, and wherein the infrared spectrum peak intensity derived from the lubricant with respect to the infrared spectrum peak intensity derived from the polybutylene terephthalate resin (absorption at 2850 cm -1 /absorption at 1019 cm -1) after pre-drying and before loading in a molding machine is 0.005 or greater and 0.055 or less, wherein the infrared spectrum peak intensity is measured as described in the description.
A high thermal conductive aluminum nitride sintered body having: a thermal conductivity of 220 W/m · K or more; and a three point bending strength of 250 MPa or more; wherein a ratio (I Al 2 Y 4 O 9 /I AlN) of X-ray diffraction intensity (I Al 2 Y 4 O 9) of Al 2 Y 4 O 9 (201 plane) with respect to X-ray diffraction intensity (I AlN) of AlN (101 plane) is 0,002 to 0.03, and the ratio (I Y 2 O 3 /I AlN) of X-ray diffraction intensity (I Y 2 O 3) of Y 2 O 3 (222 plane) with respect to X-ray diffraction intensity (I AlN) of AlN (101 plane) is 0.002 to 0.06, and wherein said aluminum nitride sintered body contains 0.14 - 1.5 mass% of Y element and 0.05 - 0.5 mass% of oxygen, the mass ratio (O/Y) of oxygen with respect to Y element is 0.5 or less, the average diameter of aluminum nitride crystal grains is 4 μ m or more, the number of crystal grains existing in arbitrary crystal structure area of 100 μ m × 100 μ m is 200 or less, and the maximum diameter of grain boundary phase is 0.5 μ m or less, wherein the minimum diameter of the aluminum nitride crystal grains is 2 μ m or more, and the maximum diameter of the aluminum nitride crystal grains is 20 μ m or less, and wherein a main phase constituting the sintered body is composed of aluminum nitride, while a grain boundary phase to be a secondary phase is limited to either a phase composed of 2Y 2 O 3 · Al 2 O 3 having a low heat resistance or a phase composed of 2Y 2 O 3 · Al 2 O 3 and Y 2 O 3.
An electrical waffle making device having a base that is connected to an upper housing with a hinge mechanism, the upper housing having a handle and an upper cooking plate, the base supporting a lower cooking plate, the upper and lower cooking plates (106, 110) forming a cavity when brought together, wherein: the lower cooking plate includes an outer rim formed by a shoulder and a continuous peripheral moat that is adjacent to and surrounds the outer rim of the lower cooking plate, the peripheral moat being adapted to contain excess batter flowing over the outer rim; wherein the peripheral moat is formed adjacent to where the upper and lower cooking plates (106, 110) meet when brought together; the upper cooking plate has a rim that is configured to contact the shoulder of the lower cooking plate when the upper and lower plates (106, 110) are brought together so as to increase contact pressure between respective edges of the cooking plates when brought together; the peripheral moat is sized such that it remains exposed and uncovered by the upper housing when the upper and lower cooking plates (106, 110) are brought together; and the hinge mechanism is adapted to allow the upper housing to float, essentially in parallel with the base. the lower cooking plate includes an outer rim formed by a shoulder and a continuous peripheral moat that is adjacent to and surrounds the outer rim of the lower cooking plate, the peripheral moat being adapted to contain excess batter flowing over the outer rim; wherein the peripheral moat is formed adjacent to where the upper and lower cooking plates (106, 110) meet when brought together; the upper cooking plate has a rim that is configured to contact the shoulder of the lower cooking plate when the upper and lower plates (106, 110) are brought together so as to increase contact pressure between respective edges of the cooking plates when brought together; the peripheral moat is sized such that it remains exposed and uncovered by the upper housing when the upper and lower cooking plates (106, 110) are brought together; and the hinge mechanism is adapted to allow the upper housing to float, essentially in parallel with the base.
Process for the selective hydrogenation of a gasoline comprising polyunsaturated compounds and light sulfur compounds, said process allowing concomitantly the hydrogenation of the polyunsaturated compounds to monounsaturated compounds, the increase in molecular weight of the saturated light sulfur compounds through reaction with the unsaturated compounds, and the isomerization of the monounsaturated compounds having an external C=C double bond to the internal C=C double bond isomer thereof, said gasoline being a gasoline from fluid catalytic cracking and having a boiling temperature between 0°C and 280°C, process wherein at a temperature of between 80°C and 220°C, a liquid hourly space velocity of between 1 h -1 and 10 h -1 and a pressure of between 0.5 and 5 MPa, and with a molar ratio between hydrogen and the diolefins to be hydrogenated of greater than 1 and less than 10 mol/mol, the gasoline and hydrogen are contacted with a catalyst in the form of sulfide containing at least one group VIb metal and at least one group VIII metal deposited on a porous support, the group VIII metal is nickel and the group VIb metal is molybdenum, the degree of sulfidation of the metals in said catalyst being greater than 80%, and wherein • the content by weight of the oxide of the group VIb element relative to the weight of the catalyst is between 6 and 18%, • the content by weight of the oxide of the group VIII element relative to the weight of the catalyst is between 4 and 12%, • the specific surface area of the catalyst is between 200 and 270 m 2 /g, • the density of the group VIb element, expressed as being the ratio between said content by weight of the oxide of the group VIb element and the specific surface area of the catalyst, is between 4 and 6 × 10 -4 g/m 2, • the molar ratio between the group VIII metal and the group VIb metal is between 0.6 and 3 mol/mol. • the content by weight of the oxide of the group VIb element relative to the weight of the catalyst is between 6 and 18%, • the content by weight of the oxide of the group VIII element relative to the weight of the catalyst is between 4 and 12%, • the specific surface area of the catalyst is between 200 and 270 m 2 /g, • the density of the group VIb element, expressed as being the ratio between said content by weight of the oxide of the group VIb element and the specific surface area of the catalyst, is between 4 and 6 × 10 -4 g/m 2, • the molar ratio between the group VIII metal and the group VIb metal is between 0.6 and 3 mol/mol.
A method comprising: detecting, at a wireless transmitter, wireless communication traffic is below a threshold traffic level; and when the wireless communication traffic is below the threshold level, transmitting power packets over multiple communication channels. detecting, at a wireless transmitter, wireless communication traffic is below a threshold traffic level; and when the wireless communication traffic is below the threshold level, transmitting power packets over multiple communication channels.
A method for transmitting uplink control information, comprising: sorting, by a user equipment, uplink control information, UCI, of X downlink carriers according to an activation sequence of the X downlink carriers; wherein X is a positive integer, the X downlink carrier(s) belong to a downlink activated carrier set of the user equipment, wherein the downlink activated carrier set of the user equipment is a sub-set of the downlink component carrier set of the user equipment and the downlink component carrier set of the user equipment comprises at least two downlink component carriers; calculating, by the user equipment, the number of modulation symbols occupied by the UCI according to the downlink component carrier set of the user equipment; calculating, by the user equipment, the number of bits for channel coding the UCI according to the number of modulation symbols occupied by the UCI; and performing, by the user equipment, the channel coding for the sorted UCI of the X downlink carriers according to the number of bits for channel coding the UCI, mapping the channel coded UCI of the X downlink carriers to a physical channel and transmitting the mapped UCI of the X downlink carriers to a base station; wherein the channel coding comprises Reed-Muller, RM, coding or convolutional coding. sorting, by a user equipment, uplink control information, UCI, of X downlink carriers according to an activation sequence of the X downlink carriers; wherein X is a positive integer, the X downlink carrier(s) belong to a downlink activated carrier set of the user equipment, wherein the downlink activated carrier set of the user equipment is a sub-set of the downlink component carrier set of the user equipment and the downlink component carrier set of the user equipment comprises at least two downlink component carriers; calculating, by the user equipment, the number of modulation symbols occupied by the UCI according to the downlink component carrier set of the user equipment; calculating, by the user equipment, the number of bits for channel coding the UCI according to the number of modulation symbols occupied by the UCI; and performing, by the user equipment, the channel coding for the sorted UCI of the X downlink carriers according to the number of bits for channel coding the UCI, mapping the channel coded UCI of the X downlink carriers to a physical channel and transmitting the mapped UCI of the X downlink carriers to a base station; wherein the channel coding comprises Reed-Muller, RM, coding or convolutional coding.
A wardrobe apparatus which in a retracted position is received in an insulated casket that is located in a space in a loft, and in deployed position is lowered into a room below the loft, the wardrobe apparatus comprises: a wardrobe body which supports a clothes rail; a frame is fixed to a joist or beam in the loft and defines an opening into the loft; and at least one drive motor is arranged to lower and raise the wardrobe body vertically, characterised in that the clothes rail has an actuator and a plurality of hangers, plurality of hangers that are rotated by the actuator with respect to the rail during movement between the raised and lowered positions, so as to enable the hangers to pass through the opening.