mhurhangee/ep-ind-claims huggingface dataset:
A thickening/stabilizing agent comprising: a compound represented by Formula (i); and a compound represented by Formula (ii), in a mole ratio of the compound to the compound of 95:5 to 25:75, Formulae (i) and (ii) expressed as follows: wherein four R 1 s in Formula (i) represent, identically in each occurrence, an C 12 -C 18 aliphatic hydrocarbon group; and four R 2 s in Formula (ii) represent, identically in each occurrence, an C 4 -C 10 aliphatic hydrocarbon group. a compound represented by Formula (i); and a compound represented by Formula (ii), in a mole ratio of the compound to the compound of 95:5 to 25:75, Formulae (i) and (ii) expressed as follows: wherein four R 1 s in Formula (i) represent, identically in each occurrence, an C 12 -C 18 aliphatic hydrocarbon group; and four R 2 s in Formula (ii) represent, identically in each occurrence, an C 4 -C 10 aliphatic hydrocarbon group.
A rotatable component (50, 250) for use in a gas turbine engine comprising: a first section (52, 252); a second section (54, 254) located radially outwards of the first section with regard to an axis of rotation about which the first section and the second section are co-rotatable; and a bonded interface at which the first section and the second section are attached together, wherein, at a perimeter region of the bonded interface, a perimeter portion of the first section has a first stiffness and a perimeter portion of the second section has a second stiffness that is greater than the first stiffness; characterised in that the perimeter portion of the first section comprises a flange (52b, 252b) extending between a base and a free end, the perimeter portion of the second section comprises another flange extending between a base and a free end, the flange of the first section including a proximal portion and a distal portion (66b, 266b), the distal portion being further from its base than the proximal portion, and the distal portion having a greater length in the radial direction than the proximal portion, wherein the distal portion includes a maximum radial dimension (R max) and the proximal portion includes a minimum radial dimension (R min), and a ratio of R min /R max is 0.25 to 0.75. a first section (52, 252); a second section (54, 254) located radially outwards of the first section with regard to an axis of rotation about which the first section and the second section are co-rotatable; and a bonded interface at which the first section and the second section are attached together, wherein, at a perimeter region of the bonded interface, a perimeter portion of the first section has a first stiffness and a perimeter portion of the second section has a second stiffness that is greater than the first stiffness; characterised in that the perimeter portion of the first section comprises a flange (52b, 252b) extending between a base and a free end, the perimeter portion of the second section comprises another flange extending between a base and a free end, the flange of the first section including a proximal portion and a distal portion (66b, 266b), the distal portion being further from its base than the proximal portion, and the distal portion having a greater length in the radial direction than the proximal portion, wherein the distal portion includes a maximum radial dimension (R max) and the proximal portion includes a minimum radial dimension (R min), and a ratio of R min /R max is 0.25 to 0.75.
A method for user transfer in a Cloud-radio access network, C-RAN, comprising: in response to a request for migrating a user from a first user equipment, UE, virtualized network function component, VNFC, to a second UE VNFC, receiving at the second UE VNFC, dynamic context information of a packet data convergence protocol, PDCP, layer and a radio link control, RLC, layer for data transmission of the user from the first UE VNFC; characterized by continuing a process of the data transmission of the user at the second UE VNFC based on the dynamic context information of the PDCP layer and the RLC layer received from the first UE VNFC by restoring a dynamic context used by the first UE VNFC. in response to a request for migrating a user from a first user equipment, UE, virtualized network function component, VNFC, to a second UE VNFC, receiving at the second UE VNFC, dynamic context information of a packet data convergence protocol, PDCP, layer and a radio link control, RLC, layer for data transmission of the user from the first UE VNFC; characterized by continuing a process of the data transmission of the user at the second UE VNFC based on the dynamic context information of the PDCP layer and the RLC layer received from the first UE VNFC by restoring a dynamic context used by the first UE VNFC.
A hatch of a vehicle, in particular of a railway vehicle, comprising: - a frame defining an opening, the opening defining an upper edge; - a flap rotatable between an open position and a closed position; the axis of rotation extending along the upper edge of the opening; when the flap is in the closed position, said flap completely covering the opening; - a tube defining an outside surface; and - a wire fixed to the flap at an anchoring point; characterised in that the tube is connected to the flap at an articulation point and is rotatable relative to the flap along an axis substantially parallel to the axis of rotation of the flap, that a through-hole is provided on the outer surface of the tube spaced from the articulation point of the tube on the flap, the wire extending through the through-hole, and in that a stop between the wire and the tube blocks rotation of the tube when the flap is in the open position, the wire being taut when the flap is in the open position. - a frame defining an opening, the opening defining an upper edge; - a flap rotatable between an open position and a closed position; the axis of rotation extending along the upper edge of the opening; when the flap is in the closed position, said flap completely covering the opening; - a tube defining an outside surface; and - a wire fixed to the flap at an anchoring point; characterised in that the tube is connected to the flap at an articulation point and is rotatable relative to the flap along an axis substantially parallel to the axis of rotation of the flap, that a through-hole is provided on the outer surface of the tube spaced from the articulation point of the tube on the flap, the wire extending through the through-hole, and in that a stop between the wire and the tube blocks rotation of the tube when the flap is in the open position, the wire being taut when the flap is in the open position.
A first stage turbine disk section for a gas turbine engine, comprising: (a) a centrally disposed disk hub having an integrally-formed, radially outwardly extending web terminating at a radially outer end; and (b) the disk hub having a convex, axially curved, annular hub surface at a radially inner end of the hub and exposed to high pressure, high temperature compressor bleed and discharge gases during engine operation, the convex, axially curved, annular hub surface having an apex, wherein the curvature of the convex, axially curved, annular hub surface acts in use of the first stage turbine disk to reduce the effective axial constraint at the apex location to thereby force the principal stress field at the apex location to transition from being primarily axially oriented to primarily radially oriented and to axially separate the peak axial and hoop stresses, thereby mitigating the formation of undesirable axial stress in the disk hub. (a) a centrally disposed disk hub having an integrally-formed, radially outwardly extending web terminating at a radially outer end; and (b) the disk hub having a convex, axially curved, annular hub surface at a radially inner end of the hub and exposed to high pressure, high temperature compressor bleed and discharge gases during engine operation, the convex, axially curved, annular hub surface having an apex, wherein the curvature of the convex, axially curved, annular hub surface acts in use of the first stage turbine disk to reduce the effective axial constraint at the apex location to thereby force the principal stress field at the apex location to transition from being primarily axially oriented to primarily radially oriented and to axially separate the peak axial and hoop stresses, thereby mitigating the formation of undesirable axial stress in the disk hub.
A powered prosthetic thigh (800, 800", 1300, 1300', 1500, 1600, 1804, 1906, 1906'), comprising: a proximal portion comprising a proximal connector (801, 801', 110, 1301, 1301', 1805, 1805') configured to couple the prosthetic thigh to a prosthetic socket attached to an amputee; a distal portion attached to the proximal portion, the distal portion comprising a distal connector (810, 810', 1302, 1302', 1803) configured to couple to a prosthetic knee; and a computer controlled actuator (1203, 1303, 1403, 2101, 2101', 2301, 2301') comprising a motor and a transmission, the actuator mounted collinearly to the proximal connector along an axis of rotation of the proximal connector and configured to rotate the prosthetic thigh along a sagittal plane relative to the prosthetic socket attached to the amputee, characterised in that the motor and the transmission are mounted collinearly to the proximal connector along the axis of rotation of the proximal connector. a proximal portion comprising a proximal connector (801, 801', 110, 1301, 1301', 1805, 1805') configured to couple the prosthetic thigh to a prosthetic socket attached to an amputee; a distal portion attached to the proximal portion, the distal portion comprising a distal connector (810, 810', 1302, 1302', 1803) configured to couple to a prosthetic knee; and a computer controlled actuator (1203, 1303, 1403, 2101, 2101', 2301, 2301') comprising a motor and a transmission, the actuator mounted collinearly to the proximal connector along an axis of rotation of the proximal connector and configured to rotate the prosthetic thigh along a sagittal plane relative to the prosthetic socket attached to the amputee, characterised in that the motor and the transmission are mounted collinearly to the proximal connector along the axis of rotation of the proximal connector.
Method for optimizing combustion in lines of partitions of a multi-chamber ring furnace for baking carbonaceous blocks, said furnace comprising a succession of chambers for preheating, heating, natural cooling, and forced cooling, arranged in a series along the longitudinal axis of the furnace, each chamber consisting, in the direction transverse to said longitudinal axis, of pits alternating with hollow heating partitions, carbonaceous blocks being arranged within said pits and said hollow heating partitions interconnecting with and aligning with the partitions of other chambers, parallel to the longitudinal axis of the furnace, to form lines of hollow partitions in which air for cooling and combustion and combustion gases circulate, an exhaust manifold being connected to each of the partitions of the first chamber during preheating by one of the respective exhaust pipes, the combustion air required being partly injected by a blowing ramp of the natural cooling zone, connected to at least one fan, and partly infiltrating through the lines of partitions due to negative pressure, and the fuel necessary for baking the carbonaceous blocks being partly injected by at least two heating ramps each extending over a respective one of at least two adjacent chambers of the heating zone, and each able to inject fuel into each of the hollow partitions of the corresponding respective chamber of the heating zone, with a master controller (42a, 42b) operating around a real time kernel and directly controlling at least the heating ramps by controlling the inputs/outputs of said heating ramps via a real time network, said method being characterized in that it comprises the automatic identification by the master controller (42a, 42b) of the relative position of each heating ramp relative to the others when said ramp is connected to the network, and the sequencing of the operation of the injectors of the heating ramp being done by distributing over time the individual operating sequences of the injectors.
A bending press having an angle measuring device and a sheet metal part to be formed, wherein the bending press has a press table with a bending die and a press beam, which is movable in a travel direction relative thereto, with a punch, wherein the press beam and the bending die are arranged in a rack, and wherein a sheet metal part to be formed, which is contacted by the punch along a bending line during the bend-forming operation, is arranged in the bending press, and wherein the bending line and the travel direction span a working plane, comprising a lighting device with at least one lighting means, an optical image capturing device with an optical axis and a data technical image evaluation device, wherein the lighting device illuminates a section of a surface of the sheet metal part on at least one side of the working plane, and wherein the lighting device is arranged at least on one side of the working plane and is oriented in the direction of the surface of the sheet metal part, such that no direct light reaches the direction of the image capturing device and that the optical axis is arranged in the working plane, characterized in that the optical axis and the bending line enclose an angle greater than zero and less than 2° in the illuminated section, and that the lighting means is arranged so as to be displaceable in the direction longitudinal to the bending line or multiple lighting means are arranged in the direction longitudinal to the bending line, wherein the image capturing device is arranged so as to be pivotable.
A dryer comprising: a drum (120, 220) rotatable within a cabinet, the drum (120, 220) being configured to receive laundry; a steam generator (150, 250) that generates and exhausts steam into the drum (120, 220), the steam generator (150, 250) including a water reservoir (152, 252), a heater (156, 256) and a steam supply tube (154, 254) installed in a front portion of the drum to guide and inject steam into the drum (120, 220); and a ventilation system that ventilates air within the drum, wherein the ventilation system including a drying heater (132, 232) switchable on/off that heats adjacent air to generate heated air and a blower (144, 234) that blows the air passing the drying heater (132, 232) to flow into the drum (120, 220), wherein a steam diffuser (160, 260) provided to diffuse the steam within the drum uniformly and installed at an end of the steam supply tube (154, 254), characterized in that the steam diffuser (160, 260) comprises a fan that draws the steam from within the steam supply tube (154, 254). a drum (120, 220) rotatable within a cabinet, the drum (120, 220) being configured to receive laundry; a steam generator (150, 250) that generates and exhausts steam into the drum (120, 220), the steam generator (150, 250) including a water reservoir (152, 252), a heater (156, 256) and a steam supply tube (154, 254) installed in a front portion of the drum to guide and inject steam into the drum (120, 220); and a ventilation system that ventilates air within the drum, wherein the ventilation system including a drying heater (132, 232) switchable on/off that heats adjacent air to generate heated air and a blower (144, 234) that blows the air passing the drying heater (132, 232) to flow into the drum (120, 220), wherein a steam diffuser (160, 260) provided to diffuse the steam within the drum uniformly and installed at an end of the steam supply tube (154, 254), characterized in that the steam diffuser (160, 260) comprises a fan that draws the steam from within the steam supply tube (154, 254).
An apparatus, comprising: a reflector; a microphone coupled to the reflector; a plurality of laser emitters coupled to the reflector; and a laser range finder (116,120,122) coupled to the reflector, wherein the laser range finder is configured to output a signal indicative of a distance between the reflector and an object. a reflector; a microphone coupled to the reflector; a plurality of laser emitters coupled to the reflector; and a laser range finder (116,120,122) coupled to the reflector, wherein the laser range finder is configured to output a signal indicative of a distance between the reflector and an object.
A pole-attached power tool system, comprising: a pole having a first end, a second end, and an interior region, wherein a longitudinal axis of the pole defines a longitudinal direction; a handle disposed proximate to the first end of the pole; an electric motor disposed proximate to the first end of the pole; a power tool disposed proximate to the second end of the pole; and a drive member disposed within the interior region, the drive member mechanically coupled with the electric motor and the power tool to transfer power generated by the electric motor to the power tool; characterized in that the system further comprises a gear box disposed proximate to the first end of the pole, wherein the electric motor is disposed between the handle and the gear box in the longitudinal direction, and the gear box is disposed between the first end of the pole and the handle in the longitudinal direction. a pole having a first end, a second end, and an interior region, wherein a longitudinal axis of the pole defines a longitudinal direction; a handle disposed proximate to the first end of the pole; an electric motor disposed proximate to the first end of the pole; a power tool disposed proximate to the second end of the pole; and a drive member disposed within the interior region, the drive member mechanically coupled with the electric motor and the power tool to transfer power generated by the electric motor to the power tool; characterized in that the system further comprises a gear box disposed proximate to the first end of the pole, wherein the electric motor is disposed between the handle and the gear box in the longitudinal direction, and the gear box is disposed between the first end of the pole and the handle in the longitudinal direction.
A composition comprising trimethylsilyl ethanol for use in a method of treating and/or preventing cardiovascular disease and/or thrombosis in a subject.
A transmitting apparatus being adapted to convert a transmission digital signal to an analog signal, the transmitting apparatus comprising: a block dividing unit being adapted to divide a transmission signal into a plurality of blocks; a plurality of discrete Fourier transform units being adapted to apply a discrete Fourier transform processing to the plurality of blocks and to transform each block of said plurality into a corresponding discrete Fourier transformed block; a plurality of sub-block dividing units being adapted to divide each discrete Fourier transformed block into a plurality of sub-blocks; a frequency allocating unit being adapted to perform a frequency allocation of each sub-block on the basis of a predetermined frequency band for the corresponding discrete Fourier transformed block, to generate frequency signals; an inverse discrete Fourier transform unit being adapted to transform the frequency signals allocated by the frequency allocating unit into a time signal. a block dividing unit being adapted to divide a transmission signal into a plurality of blocks; a plurality of discrete Fourier transform units being adapted to apply a discrete Fourier transform processing to the plurality of blocks and to transform each block of said plurality into a corresponding discrete Fourier transformed block; a plurality of sub-block dividing units being adapted to divide each discrete Fourier transformed block into a plurality of sub-blocks; a frequency allocating unit being adapted to perform a frequency allocation of each sub-block on the basis of a predetermined frequency band for the corresponding discrete Fourier transformed block, to generate frequency signals; an inverse discrete Fourier transform unit being adapted to transform the frequency signals allocated by the frequency allocating unit into a time signal.
A method for controlling a time-limited feature of a device which is caused to be activated upon the occurrence of a triggering event, comprising: sensing via a triggering sensor of the device an occurrence of the triggering event; determining if the time-limited feature of the device is not already active; activating the time-limited feature of the device; determining at the device if the triggering event sensed via the triggering sensor is a false trigger event, wherein the triggering event is determined to be a false trigger event when a predetermined event input is not received at the device within a time period subsequent to the triggering event being sensed via the triggering sensor; turning off the time-limited feature upon expiration of the time period; and downwardly adjusting the time period during which the time-limited feature will be allowed to be active upon a future occurrence of a triggering event in response to the device determining that a predetermined number of triggering events sensed via the triggering sensor are false trigger events. sensing via a triggering sensor of the device an occurrence of the triggering event; determining if the time-limited feature of the device is not already active; activating the time-limited feature of the device; determining at the device if the triggering event sensed via the triggering sensor is a false trigger event, wherein the triggering event is determined to be a false trigger event when a predetermined event input is not received at the device within a time period subsequent to the triggering event being sensed via the triggering sensor; turning off the time-limited feature upon expiration of the time period; and downwardly adjusting the time period during which the time-limited feature will be allowed to be active upon a future occurrence of a triggering event in response to the device determining that a predetermined number of triggering events sensed via the triggering sensor are false trigger events.