mhurhangee/ep-ind-claims huggingface dataset:
A Cleaner, comprising: a motor housing; a stator comprising a stator core installed within the motor housing and a coil wound in the stator core and that generates a magnetic field by applied power; and a rotor disposed within the stator and in which a magnet that interacts with the magnetic field is installed and that rotates within the stator by an interaction with the magnetic field, wherein the stator core comprises: a back yoke in which straight portions (103A, 103C, 103E, 103G, 103I, 103K) and curved portions (103B, 103D, 103F, 103H, 103J, 103L) are alternately formed; and teeth (104, 105, 106) protruded from the back yoke toward the magnet, wherein the teeth (104, 105, 106) comprise: a neck protruded from the back yoke; and a shoe protruded from the neck and separated from the magnet and that encloses at least a portion of the magnet, characterized in that a ratio A/B of a width A of the neck to a width B of a shoe end portion is 2.5 to 3.5. a motor housing; a stator comprising a stator core installed within the motor housing and a coil wound in the stator core and that generates a magnetic field by applied power; and a rotor disposed within the stator and in which a magnet that interacts with the magnetic field is installed and that rotates within the stator by an interaction with the magnetic field, wherein the stator core comprises: a back yoke in which straight portions (103A, 103C, 103E, 103G, 103I, 103K) and curved portions (103B, 103D, 103F, 103H, 103J, 103L) are alternately formed; and teeth (104, 105, 106) protruded from the back yoke toward the magnet, a back yoke in which straight portions (103A, 103C, 103E, 103G, 103I, 103K) and curved portions (103B, 103D, 103F, 103H, 103J, 103L) are alternately formed; and teeth (104, 105, 106) protruded from the back yoke toward the magnet, wherein the teeth (104, 105, 106) comprise: a neck protruded from the back yoke; and a shoe protruded from the neck and separated from the magnet and that encloses at least a portion of the magnet, characterized in that a ratio A/B of a width A of the neck to a width B of a shoe end portion is 2.5 to 3.5. a neck protruded from the back yoke; and a shoe protruded from the neck and separated from the magnet and that encloses at least a portion of the magnet, characterized in that a ratio A/B of a width A of the neck to a width B of a shoe end portion is 2.5 to 3.5.
A wireless transmit/receive unit, WTRU, configured to send a random access request to a base station for random access on a physical random access channel, PRACH, characterized in comprising: a receiver configured to receive a control channel from the base station, the control channel being a physical downlink control channel, PDCCH, and a data channel, the data channel being a physical downlink shared channel, PDSCH, wherein a common control portion of the PDCCH includes a plurality of control channel elements, CCEs, having random access channel, RACH, response control information intended for a plurality of WTRUs; a processor configured to: perform blind decoding of the CCEs within the common control portion of the control channel, wherein the CCEs of the common control portion include location information to direct the WTRU to a resource allocation for a RACH response in one or more transport blocks of the PDSCH; and process the random access response in the PDSCH; wherein the plurality of CCEs include transport format and modulation and coding scheme, MCS, information, wherein the processor is configured to process the RACH response in the PDSCH to decode the RACH response in the one or more transport blocks of the PDSCH using the MCS information included in the plurality of CCEs. a receiver configured to receive a control channel from the base station, the control channel being a physical downlink control channel, PDCCH, and a data channel, the data channel being a physical downlink shared channel, PDSCH, wherein a common control portion of the PDCCH includes a plurality of control channel elements, CCEs, having random access channel, RACH, response control information intended for a plurality of WTRUs; a processor configured to: perform blind decoding of the CCEs within the common control portion of the control channel, wherein the CCEs of the common control portion include location information to direct the WTRU to a resource allocation for a RACH response in one or more transport blocks of the PDSCH; and process the random access response in the PDSCH; wherein the plurality of CCEs include transport format and modulation and coding scheme, MCS, information, wherein the processor is configured to process the RACH response in the PDSCH to decode the RACH response in the one or more transport blocks of the PDSCH using the MCS information included in the plurality of CCEs. perform blind decoding of the CCEs within the common control portion of the control channel, wherein the CCEs of the common control portion include location information to direct the WTRU to a resource allocation for a RACH response in one or more transport blocks of the PDSCH; and process the random access response in the PDSCH; wherein the plurality of CCEs include transport format and modulation and coding scheme, MCS, information, wherein the processor is configured to process the RACH response in the PDSCH to decode the RACH response in the one or more transport blocks of the PDSCH using the MCS information included in the plurality of CCEs.
A solid polymer blend product obtainable by a process consisting of the following steps a) providing a mixture comprising: • 0.5 to 7 percent by weight of glycerine; • 5 to 25 percent by weight of an ABS (acrylonitrile-butadiene-styrene) copolymer; • 5 to 25 percent by weight of a PBT (polybutylene terephthalate) polymer; • 48 to 89.5 percent by weight of a PET (polyethylene terephthalate) polymer; and • 0 to 5 percent by weight of polymer additives; wherein the sum of the amounts of the components listed above is 100 percent by weight; b) subjecting the mixture from step (a) to an extrusion process at elevated temperatures; c) cooling and granulating the product from step (b) into a granulate; and optionally d) subjecting the granulate from step (c) to a milling step to obtain the product in the form of particles having a mean average particle size of from 01 μm to 200 μm, or from 1 μm to 25 μm, or 1 μm to 10 μm, or 8 μm to 10 μm, wherein the mean average particle size is determined according to the method described in the present specification. a) providing a mixture comprising: • 0.5 to 7 percent by weight of glycerine; • 5 to 25 percent by weight of an ABS (acrylonitrile-butadiene-styrene) copolymer; • 5 to 25 percent by weight of a PBT (polybutylene terephthalate) polymer; • 48 to 89.5 percent by weight of a PET (polyethylene terephthalate) polymer; and • 0 to 5 percent by weight of polymer additives; wherein the sum of the amounts of the components listed above is 100 percent by weight; • 0.5 to 7 percent by weight of glycerine; • 5 to 25 percent by weight of an ABS (acrylonitrile-butadiene-styrene) copolymer; • 5 to 25 percent by weight of a PBT (polybutylene terephthalate) polymer; • 48 to 89.5 percent by weight of a PET (polyethylene terephthalate) polymer; and • 0 to 5 percent by weight of polymer additives; b) subjecting the mixture from step (a) to an extrusion process at elevated temperatures; c) cooling and granulating the product from step (b) into a granulate; and optionally d) subjecting the granulate from step (c) to a milling step to obtain the product in the form of particles having a mean average particle size of from 01 μm to 200 μm, or from 1 μm to 25 μm, or 1 μm to 10 μm, or 8 μm to 10 μm, wherein the mean average particle size is determined according to the method described in the present specification.
Powder coating device for the powder coating of objects, which has a main body, on which an electrode arrangement designed for generating a powder cloud is arranged and on which a metering device designed for the monitored discharge of an amount of powder onto the electrode arrangement is arranged above the electrode arrangement, characterized in that the metering device has a powder outlet facing the electrode arrangement, wherein powder discharged by the metering device can reach the electrode arrangement under the effect of gravity and, on the basis of the electrode arrangement and the electrostatic charging of the powder provided by means of the electrode arrangement, a powder cloud that spreads out spatially as a result of the electrostatic charging of the powder, without the application of compressed air or similar delivery or propulsive media, can be formed.
A nebulizer comprising: a housing having an ambient air inlet and a chamber for holding an aerosol; an air outlet communicating with the chamber for permitting the aerosol to be withdrawn from the chamber; a pressurized gas inlet adjacent a fluid orifice, the pressurized gas inlet in communication with the chamber; a diverter positioned in the chamber in a position relative to the pressurized gas inlet; wherein at least one portion of the fluid orifice is adjustable via an actuator piston between a nebulizing position and a non-nebulizing position in response to a patient's breathing, and a selection means to be manually operated to switch and effective to hold the nebulizer to operate from the breath actuated mode to a continuous nebulization mode. a housing having an ambient air inlet and a chamber for holding an aerosol; an air outlet communicating with the chamber for permitting the aerosol to be withdrawn from the chamber; a pressurized gas inlet adjacent a fluid orifice, the pressurized gas inlet in communication with the chamber; a diverter positioned in the chamber in a position relative to the pressurized gas inlet; wherein at least one portion of the fluid orifice is adjustable via an actuator piston between a nebulizing position and a non-nebulizing position in response to a patient's breathing, and a selection means to be manually operated to switch and effective to hold the nebulizer to operate from the breath actuated mode to a continuous nebulization mode.
An electrical cable (10, 100) having a conductor in the form of several stripped metal wires each comprising aluminum, characterized in that it comprises a central zone with no metal wires, so as to allow the stripped metal wires placed around said central zone to slide on one another when said cable (10, 100) undergoes a twisting force.
A variable pendulum slider lubrication pump for providing pressurized liquid lubricant to an internal combustion engine, comprising a non-rotatable and radially shiftable control ring, a rotatable and radially shiftable outside pump rotor ring which rotates inside the control ring, a rotatable and non-shiftable inside pump rotor ring which is co-rotatably connected to the outside pump rotor ring, a plurality of separation pendulums vanes which co-rotate with the outside pump rotor ring and the inside pump rotor ring and fluidically separate a plurality of rotating pumping compartments, the variable pendulum slider lubrication pump characterised by further comprising a plurality of separate driving means which rotatably connect the outside pump rotor ring with the inside pump rotor ring, the driving means being provided within the respective pumping compartments.
A method comprising: advertising, by a wireless local area network, WLAN, (204, 312), a capability to access multiple access point names, APNs, from a core network (201, 504); receiving, by the WLAN from a WLAN mobile device, a request for access to at least one of the APNs through the core network; and in response to the request, connecting, via the WLAN, the WLAN mobile device to at least one of the APNs through the core network; and wherein the method further comprises: directing, by the WLAN, traffic through one of a plurality of paths associated with the APNs, according to a sub network access protocol, SNAP, header modified to include a type field comprising a SNAP Protocol Type, SPT, the SPT comprising an identifier to identify to which of the plurality of APN paths the traffic maps. advertising, by a wireless local area network, WLAN, (204, 312), a capability to access multiple access point names, APNs, from a core network (201, 504); receiving, by the WLAN from a WLAN mobile device, a request for access to at least one of the APNs through the core network; and in response to the request, connecting, via the WLAN, the WLAN mobile device to at least one of the APNs through the core network; and wherein the method further comprises: directing, by the WLAN, traffic through one of a plurality of paths associated with the APNs, according to a sub network access protocol, SNAP, header modified to include a type field comprising a SNAP Protocol Type, SPT, the SPT comprising an identifier to identify to which of the plurality of APN paths the traffic maps.
A mobile communication device comprising a transceiver for wireless data exchange, the transceiver comprising a mobile radio communication module configured for remote communication with a cloud-based computer system via a telecommunications network, and a processor connected to the transceiver, the processor is programmed to implement a card reader agent configured to enable authentication and access control protocols between a smart card module and a virtual card reader (421, 421') which is arranged in the remote cloud-based computer system by exchanging authentication and access control protocol data units between the smart card module, which is in connection with said mobile communications device, and the virtual card reader (421, 421') via the telecommunications network, whereby the exchanging of authentication and access control protocol data units comprises: the card reader agent receiving via the telecommunications network a request protocol data unit from the virtual card reader (421, 421') in the remote cloud-based computer system, the card reader agent forwarding the request protocol data unit to the smart card module, the card reader agent receiving a response protocol data unit from the smart card module, and the card reader agent forwarding the response protocol data unit via the telecommunications network to the virtual card reader (421, 421') in the remote cloud-based computer system.
A method of improving the look of human skin having the steps of; a. apply to the skin a first layer that is a skin care composition; and b. applying to, and on top of, the first layer, a powder layer having from 10%, preferably from 12%, even more preferably from 15%, to 30%, preferably to 25%, by weight of the powder layer, of substantially spherical particles selected from the group consisting of coated starch, uncoated starch, coated starch derivatives, uncoated starch derivatives, coated crosslinked starch, uncoated crosslink starch, silicone elastomer particles, and combinations thereof, preferably the particles are selected from the group consisting of tapioca starch, corn starch, potato starch, glyceryl starch, aluminum starch octenylsuccinate, calcium starch octenylsuccinate, and polymethylsilsesquioxane coated tapioca starch, cross linked starch, silicone elastomer particles, and combinations thereof, wherein the powder layer is an aqueous based composition that is an oil-in-water emulsion having a non-volatile oil present in a concentration level such that the weight ratio of non-volatile oil to particulate material is from 1:10 to 3:2, preferably from 1:4 to 1:1, and more preferably from 1:4 to 3:4. a. apply to the skin a first layer that is a skin care composition; and b. applying to, and on top of, the first layer, a powder layer having from 10%, preferably from 12%, even more preferably from 15%, to 30%, preferably to 25%, by weight of the powder layer, of substantially spherical particles selected from the group consisting of coated starch, uncoated starch, coated starch derivatives, uncoated starch derivatives, coated crosslinked starch, uncoated crosslink starch, silicone elastomer particles, and combinations thereof, preferably the particles are selected from the group consisting of tapioca starch, corn starch, potato starch, glyceryl starch, aluminum starch octenylsuccinate, calcium starch octenylsuccinate, and polymethylsilsesquioxane coated tapioca starch, cross linked starch, silicone elastomer particles, and combinations thereof, wherein the powder layer is an aqueous based composition that is an oil-in-water emulsion having a non-volatile oil present in a concentration level such that the weight ratio of non-volatile oil to particulate material is from 1:10 to 3:2, preferably from 1:4 to 1:1, and more preferably from 1:4 to 3:4.
A container assembly for use with a dispenser with a feed tube, the assembly comprising a container; a cap fixed to an opening in the container; the cap having a passageway therethrough to allow, in use, the feed tube of a dispenser to pass through the cap and into the container; the cap including a movable element (9, 23, 30, 40, 50, 60, 70) secured to the cap in a first position prior to first insertion of the feed tube by a deformable support element (10, 22, 31), characterised in that the deformable support element (10, 22, 31) is arranged to deform upon insertion of the feed tube into the cap to free the movable element (9, 23, 30, 40, 50, 60, 70) to be supported, in use, in a second position, by the feed tube to preserve the passageway, the movable element (9, 23, 30, 40, 50, 60, 70) being configured to move, upon removal of the feed tube from the container, to a third position at least partially within the passageway in which replacement of the feed tube through the cap is obstructed.
A charging system comprising a charging terminal, a source of electrical energy, a transformer comprising a primary circuit and a secondary circuit, said transformer is configured to be connected to the source of electrical energy via the charging terminal, comprising a charging device for an electric vehicle, said electric vehicle comprising at least one electrical energy consuming member and an energy storage member intended to be charged with electrical energy, to store electrical energy and to transfer this electrical energy to the electrical energy consuming member in order to enable the electric vehicle to perform a displacement in a transportation space in which the charging station is located, said charging device being configured to charge the energy storage member of the electric vehicle, when the electric vehicle is proximate to said charging device, said charging device comprises: - an energy storage device; the energy storage device being intended to be charged with electrical energy, to store electrical energy and to transfer this electrical energy; - a voltage regulator; said voltage regulator being connected in series with the energy storage device so as to form a closed circuit and being configured to transfer the electrical energy stored by the energy storage device; and, - a connection device; the connection device being configured to electrically connect the energy storage device of the charging device, via the voltage regulator, with the energy storage member of the electric vehicle and to transfer at least partially the electrical energy stored by the energy storage device from the charging device to the energy storage member of the electric vehicle; said charging terminal further comprising a voltage converter comprising an input node, an output node, a reference node and a common node, said charging terminal also comprising a rectifier configured to connect the transformer to said voltage converter, said voltage converter being configured to be connected in parallel to the voltage regulator and to the energy storage device, of the charging device, between the output node and the common node. - an energy storage device; the energy storage device being intended to be charged with electrical energy, to store electrical energy and to transfer this electrical energy; - a voltage regulator; said voltage regulator being connected in series with the energy storage device so as to form a closed circuit and being configured to transfer the electrical energy stored by the energy storage device; and, - a connection device; the connection device being configured to electrically connect the energy storage device of the charging device, via the voltage regulator, with the energy storage member of the electric vehicle and to transfer at least partially the electrical energy stored by the energy storage device from the charging device to the energy storage member of the electric vehicle;
A radio frequency RF generator system comprising: a power source (154a, 154b) configured to generate an RF output signal applied to a load; and a control module (158a, 158b) configured to: receive information from a sensor (156a, 156b) that detects spectral emissions from the load, the spectral emissions including at least one of harmonics and intermodulation distortion IMD; characterized in that the control module (158a, 158b) is further configured to: control the RF output signal of the power source (154a, 154b) in accordance with one of the harmonics or the IMD detected in the spectral emissions by varying a phase and a frequency of the RF output signal, wherein the phase is determined in accordance with minimizing the harmonics or the IMD in the spectral emissions. a power source (154a, 154b) configured to generate an RF output signal applied to a load; and a control module (158a, 158b) configured to: receive information from a sensor (156a, 156b) that detects spectral emissions from the load, the spectral emissions including at least one of harmonics and intermodulation distortion IMD; characterized in that the control module (158a, 158b) is further configured to: control the RF output signal of the power source (154a, 154b) in accordance with one of the harmonics or the IMD detected in the spectral emissions by varying a phase and a frequency of the RF output signal, wherein the phase is determined in accordance with minimizing the harmonics or the IMD in the spectral emissions.
Biaxially oriented polypropylene (BOPP) film comprising a polypropylene, wherein the biaxially oriented polypropylene (BOPP) film has a) a modulus of elasticity in transverse direction of at least 5 000 N/mm 2, determined according to ISO 527-3 at 23°C, and b) an elongation at break in machine direction of at least 170 %, determined according to ISO 527-3 at 23°C, and wherein the polypropylene is a random polypropylene copolymer (C-PP) having i) a melting temperature (T m) measured by differential scanning calorimetry, as mentioned in the description, in the range of from 164 to 169 °C, ii) a xylene cold soluble fraction determined at 25 °C according to ISO 16152 in the range of from 1.0 to 3.5 wt.-%, and iii) a content of ethylene units in the range from 0.01 to 0.5 wt.-%, based on the total weight of the random polypropylene copolymer (C-PP). a) a modulus of elasticity in transverse direction of at least 5 000 N/mm 2, determined according to ISO 527-3 at 23°C, and b) an elongation at break in machine direction of at least 170 %, determined according to ISO 527-3 at 23°C, and wherein the polypropylene is a random polypropylene copolymer (C-PP) having i) a melting temperature (T m) measured by differential scanning calorimetry, as mentioned in the description, in the range of from 164 to 169 °C, ii) a xylene cold soluble fraction determined at 25 °C according to ISO 16152 in the range of from 1.0 to 3.5 wt.-%, and iii) a content of ethylene units in the range from 0.01 to 0.5 wt.-%, based on the total weight of the random polypropylene copolymer (C-PP). i) a melting temperature (T m) measured by differential scanning calorimetry, as mentioned in the description, in the range of from 164 to 169 °C, ii) a xylene cold soluble fraction determined at 25 °C according to ISO 16152 in the range of from 1.0 to 3.5 wt.-%, and iii) a content of ethylene units in the range from 0.01 to 0.5 wt.-%, based on the total weight of the random polypropylene copolymer (C-PP).