mhurhangee/ep-ind-claims huggingface dataset:
A washing machine comprising: a tub which accommodates washing water; a drum which is disposed inside the tub, accommodates cloth, and is rotatable; a transmission coil which is disposed in the tub and supplies power wirelessly; a reception coil which is disposed in the drum and receives the power transmitted from the transmission coil; and characterized by: a washing force reinforcing unit which is disposed in the drum, operated by the power delivered from the reception coil, and provides washing force to the cloth, the washing force reinforcing unit comprising: a rotating plate rotated with a rotation shaft intersecting with the rotation shaft of the drum; and a plurality of protruding parts (42, 43) protruded from the rotating plate. a tub which accommodates washing water; a drum which is disposed inside the tub, accommodates cloth, and is rotatable; a transmission coil which is disposed in the tub and supplies power wirelessly; a reception coil which is disposed in the drum and receives the power transmitted from the transmission coil; and characterized by: a washing force reinforcing unit which is disposed in the drum, operated by the power delivered from the reception coil, and provides washing force to the cloth, the washing force reinforcing unit comprising: a rotating plate rotated with a rotation shaft intersecting with the rotation shaft of the drum; and a plurality of protruding parts (42, 43) protruded from the rotating plate. a washing force reinforcing unit which is disposed in the drum, operated by the power delivered from the reception coil, and provides washing force to the cloth, the washing force reinforcing unit comprising: a rotating plate rotated with a rotation shaft intersecting with the rotation shaft of the drum; and a plurality of protruding parts (42, 43) protruded from the rotating plate. a rotating plate rotated with a rotation shaft intersecting with the rotation shaft of the drum; and a plurality of protruding parts (42, 43) protruded from the rotating plate.
A method of synchronizing force data with touch data of a portable electronic device comprising a processor, a touch-sensitive display and one or more force sensing transducers positioned below the touch-sensitive display to measure external force applied on the touch-sensitive display, wherein the portable electronic device comprises a low reporting mode, wherein, in the low reporting mode, data is only provided to the processor when a change in state of the respective sensors occurs, the method comprising: - receiving an interrupt signal generated by a controller of the touch-sensitive display when a touch event is detected by detecting, by the touch-sensitive display, that a touch event is greater than a predetermined threshold; - generating a time stamp of the touch event when the interrupt signal is received from the controller of the touch-sensitive display, wherein touch data for each detected touch event is stored with the time stamp of the respective touch event; - receiving an interrupt signal generated by a controller of the one or more force sensing transducers when a force event is detected by detecting, by the one or more force sensors, that a force greater than a predetermined force threshold is applied to the touch-sensitive display; - generating a time stamp of the force event when the interrupt signal is received from the controller of the one or more force sensing transducers, wherein force data for each detected force event is stored with the time stamp of the respective force event; - synchronizing touch data for a particular touch event with force data for a force event corresponding to the particular touch event; and - outputting the synchronized touch data and force data to input processing operations. - receiving an interrupt signal generated by a controller of the touch-sensitive display when a touch event is detected by detecting, by the touch-sensitive display, that a touch event is greater than a predetermined threshold; - generating a time stamp of the touch event when the interrupt signal is received from the controller of the touch-sensitive display, wherein touch data for each detected touch event is stored with the time stamp of the respective touch event; - receiving an interrupt signal generated by a controller of the one or more force sensing transducers when a force event is detected by detecting, by the one or more force sensors, that a force greater than a predetermined force threshold is applied to the touch-sensitive display; - generating a time stamp of the force event when the interrupt signal is received from the controller of the one or more force sensing transducers, wherein force data for each detected force event is stored with the time stamp of the respective force event; - synchronizing touch data for a particular touch event with force data for a force event corresponding to the particular touch event; and - outputting the synchronized touch data and force data to input processing operations.
A patient specific therapeutic composition provided in a single dose container for use in therapy for administration to a patient, the composition comprising: a monoclonal antibody comprising a labeled fraction comprising a radiolabel, and an unlabeled fraction; and a pharmaceutically acceptable carrier, wherein each of a radiation dose of the radiolabel in the labeled fraction of the monoclonal antibody and a total protein amount of the monoclonal antibody depend on at least one patient specific parameter including a patient weight, wherein a total volume of the patient specific therapeutic composition is wholly administered to the patient in one treatment session, wherein the monoclonal antibody is BC8, which binds to the CD45 antigen, wherein the radiolabel is Iodine 131, wherein the composition is administered intravenously, intramuscularly, or subcutaneously to the patient, wherein a radiation dose is a therapeutic dose of between 100 milliCuries and 1200 milliCuries, and wherein the total protein amount is 0.5 mg/kg patient weight.
Use of a variable reference blocking apparatus for blocking an optical article, wherein the variable reference blocking apparatus comprises: an adjustable ring unit comprising a plurality of concentric members positioned about a cavity comprising a central axis, each concentric member having a lip region configured for receiving at least a portion of a front face of the optical article; a moveable base for supporting a block comprising an upper portion and a lower end, the moveable base positioned and moveable within the cavity; and an insert removably coupled with the upper portion of the moveable base, such that a first contacting surface of the insert opposes the front face of the optical article, wherein when positioned for use a filling space is configured for forming the block, the filling space defined between the front face of the optical article, at least one lip of plurality of concentric members, and the first contacting surface of the insert, and a hardenable blocking material is configured to be provided into the filling space, and characterized in that the adjustable ring unit further comprises a recess for entry of the hardenable blocking material. an adjustable ring unit comprising a plurality of concentric members positioned about a cavity comprising a central axis, each concentric member having a lip region configured for receiving at least a portion of a front face of the optical article; a moveable base for supporting a block comprising an upper portion and a lower end, the moveable base positioned and moveable within the cavity; and an insert removably coupled with the upper portion of the moveable base, such that a first contacting surface of the insert opposes the front face of the optical article, wherein when positioned for use a filling space is configured for forming the block, the filling space defined between the front face of the optical article, at least one lip of plurality of concentric members, and the first contacting surface of the insert, and
A method of correcting erroneous analog image signals comprising: providing a high signal and a low signal, said high signal and said low signal defining a signal range about an analog image signal; characterized in that the analog image signal is an image signal of the processed pixel preceding a current pixel; the voltage (VREFP, VREFN) for one of said high signal or said low signal is set to the analog signal value produced by said preceding pixel based on the output value of a comparison between a current analog image signal produced by said current pixel being processed and the analog image signal produced by said preceding pixel, said signals corresponding to the same colour; and the method further comprises digitizing (414; 614) the analog signal of said current pixel using said high and low signals as references to derive a digitized signal of said current pixel within said signal range, limiting therefore said analog signal of said current pixel by said high and low signals. providing a high signal and a low signal, said high signal and said low signal defining a signal range about an analog image signal; characterized in that the analog image signal is an image signal of the processed pixel preceding a current pixel; the voltage (VREFP, VREFN) for one of said high signal or said low signal is set to the analog signal value produced by said preceding pixel based on the output value of a comparison between a current analog image signal produced by said current pixel being processed and the analog image signal produced by said preceding pixel, said signals corresponding to the same colour; and the method further comprises digitizing (414; 614) the analog signal of said current pixel using said high and low signals as references to derive a digitized signal of said current pixel within said signal range, limiting therefore said analog signal of said current pixel by said high and low signals.
Preparation method of benzocaine loaded microemulsion based hydrogel a) Preparation of microemulsion formulations, • Mixing 0.5 - 5 %w/v benzocaine with 1 - 25% w/v liquid lipid which is isopropyl myristate, • Adding 5 - 30% w/v surfactant itself or combinations of surfactants which are Span TM 20, Polysorbate 80, Tween TM 20, Cremophor TM EL and Cremophor TM RH40, • Adding 5 - 30% w/v ethanol as cosurfactant into this mixture and stirring., • Stirring the mixture by adding 5 - 80% w/v distilled water, • Stirring the prepared microemulsions, b) Adding 0,1 - 15% w/v gelling agent Carbopol TM into prepared microemulsion formulations and stirring, a) Preparation of microemulsion formulations, • Mixing 0.5 - 5 %w/v benzocaine with 1 - 25% w/v liquid lipid which is isopropyl myristate, • Adding 5 - 30% w/v surfactant itself or combinations of surfactants which are Span TM 20, Polysorbate 80, Tween TM 20, Cremophor TM EL and Cremophor TM RH40, • Adding 5 - 30% w/v ethanol as cosurfactant into this mixture and stirring., • Stirring the mixture by adding 5 - 80% w/v distilled water, • Stirring the prepared microemulsions, • Mixing 0.5 - 5 %w/v benzocaine with 1 - 25% w/v liquid lipid which is isopropyl myristate, • Adding 5 - 30% w/v surfactant itself or combinations of surfactants which are Span TM 20, Polysorbate 80, Tween TM 20, Cremophor TM EL and Cremophor TM RH40, • Adding 5 - 30% w/v ethanol as cosurfactant into this mixture and stirring., • Stirring the mixture by adding 5 - 80% w/v distilled water, • Stirring the prepared microemulsions, b) Adding 0,1 - 15% w/v gelling agent Carbopol TM into prepared microemulsion formulations and stirring,
An agricultural machine comprising an operating unit and a carrier assembly for the operating unit, the carrier assembly including a mounting structure configured for mounting the agricultural machine on a carrier vehicle, a carrier arm, a pivot mechanism configured to allow pivoting movement of the carrier arm relative to the mounting structure about a pivot axis that extends substantially parallel to the working direction of the agricultural machine between an upright position and a lowered position, and a suspension system by which the operating unit is suspended from the carrier arm; wherein the suspension system suspends the operating unit solely from its centre point and allows the operating unit to rotate about an axis that extends substantially in the working direction, the suspension system includes a support mechanism that supports the weight of the operating unit and allows the height of the operating unit relative to the arm to change, and the support mechanism includes an actuator configured to act between the operating unit and the carrier arm to adjust the height of the operating unit relative to the carrier arm, characterised in that the actuator is located centrally on the axis of the operating unit.
An oral pharmaceutical composition for use in the treatment of a condition associated with testosterone deficiency in a human subject, the composition comprising: a testosterone ester having a structure: wherein R is -C 13 H 25 O or -C 14 H 27 O, and one or both esters can be present in the composition; and a pharmaceutically acceptable carrier, wherein the composition is formulated as an oral dosage form, wherein the treatment comprises administering to the human subject the oral dosage form to provide a daily testosterone ester dose of about 420 mg to about 1250 mg based on single unit or multiple unit dosing, and wherein the human subject is a hypogonadal male. wherein R is -C 13 H 25 O or -C 14 H 27 O, and one or both esters can be present in the composition; and a pharmaceutically acceptable carrier, wherein the composition is formulated as an oral dosage form, wherein the treatment comprises administering to the human subject the oral dosage form to provide a daily testosterone ester dose of about 420 mg to about 1250 mg based on single unit or multiple unit dosing, and wherein the human subject is a hypogonadal male.
A process producing useful energy from thermal energy, characterized in that a fluidic overall population of mobile particles confined to an unidirectional flow closed circuit of conducting channels (1-2-3-3'-4-1;31-32-33-33'-34-31) is subjected to a conservative or effectively conservative force field with the exception of centrifugal and gravitational force field, the circuit being thermally insulated with the exception of two non juxtaposed areas a first area (2-3;33-33') allowing thermal exchange for heating (Q in) from a warmer environment outside the circuit, a second area (4-1;31-32) allowing thermal exchange (Q out) for cooling, as necessary, by a colder environment outside the circuit, in that said closed circuit is provided with a load (3'-4;33'-44) designed to convert the energy it receives from the mobile particles flow to a useful output energy located in the flow direction after the first non insulated area (2-3;33-33'), in that in two portions of the unidirectional circuit located before (3-3';33-33') and after (1-2;31-32) said load, flow velocity vector is parallel or has a component which is parallel to the conservative or effectively conservative force field one portion with a warm flow and the other portion with a cool flow of mobile particles and in that if the density of the chosen mobile particles decreases when the temperature increases, the direction of the conservative force field is the same as that of the cool flow velocity vector or of a cool flow velocity vector component in the said circuit portion and the inverse if the density of the chosen mobile particles increases when the temperature increases.
A roof rack for a motor vehicle, having at least one longitudinally divided roof rack bar extending along the roof of the motor vehicle, being composed of a plurality of individual bars (6, 7) which are fixed to each other, characterized in that the individual bars (6, 7) each have upper and lower sides, wherein the upper side of at least one of the individual bars is placed on the lower side of an adjacent individual bar.
A balun comprising: a device made of a dielectric material, the device having an outer surface; a coaxial cable for a magnetic resonance imaging, MRI, system, the coaxial cable having a first end and a second end, a portion of the coaxial cable in between the first and second ends being wound multiple times about the outer surface to form a first inductor (236, 238, 240) layer and being wound multiple times about the first inductor (236, 238, 240) layer to form a second inductor (236, 238, 240) layer on top of the first inductor (236, 238, 240) layer, the first and second inductor (236, 238, 240) layers forming a first inductor (236, 238, 240), and wherein a parasitic capacitance exists in between the windings, the parasitic capacitance and a first inductance of the first inductor (236, 238, 240) are configured to provide a resonant circuit that has a parallel impedance at a frequency of interest for suppressing common-mode signals propagating in the coaxial cable. a device made of a dielectric material, the device having an outer surface; a coaxial cable for a magnetic resonance imaging, MRI, system, the coaxial cable having a first end and a second end, a portion of the coaxial cable in between the first and second ends being wound multiple times about the outer surface to form a first inductor (236, 238, 240) layer and being wound multiple times about the first inductor (236, 238, 240) layer to form a second inductor (236, 238, 240) layer on top of the first inductor (236, 238, 240) layer, the first and second inductor (236, 238, 240) layers forming a first inductor (236, 238, 240), and wherein a parasitic capacitance exists in between the windings, the parasitic capacitance and a first inductance of the first inductor (236, 238, 240) are configured to provide a resonant circuit that has a parallel impedance at a frequency of interest for suppressing common-mode signals propagating in the coaxial cable.
Refrigeration appliance with a refrigeration appliance door, which comprises an installed ventilation valve for ventilating a refrigeration compartment when the refrigeration appliance door is opened, wherein the refrigeration appliance door comprises a deep-drawn pocket for installing the ventilation valve and the pocket forms an air path around a door seal and wherein the ventilation valve has a base plate with an air opening and a resilient membrane for covering the air opening, wherein the resilient membrane is lifted from the base plate when air flows into an interior of the refrigeration compartment, and the ventilation valve comprises a lid element attached to the resilient membrane for fastening the resilient membrane to the base plate and a film hinge for rotatably connecting the base plate and the lid element.
Yarn treatment device for the intermingling of multifilament yarns by means of a pulsating air flow, which is produced by means of an opening ring, which can driven by a drive motor, in particular a chamber ring or a rotor pot, with one or more openings for blown air, wherein the drive motor is located in the interior of a base housing, characterized in that a drive of the opening ring is an electric drive with an electric motor, in which the rotor of the electric motor is secured on a shaft, on which the opening ring is located, and the stator of the electric motor is located in the base housing.
A method of virtually designing a post and core by means of a scan pin comprising, - obtaining a 3D scan of a tooth while a scan pin is arranged in a bore of the tooth, - obtaining a digital 3D shape of the scan pin comprising an outer part which is adapted to be arranged at least partly outside the tooth, and an inner part which is adapted to be arranged at least partly inside the tooth in the bore, and the inner part corresponds to the post of the post and core, - matching the digital 3D shape of the scan pin to the scan pin in the 3D scan, - obtaining a second 3D scan without the scan pin capturing details at the bore opening, - virtually designing the post and core relative to the tooth, where the post and core comprises the post adapted to be arranged in the bore of the tooth and a core adapted to be present outside and following and corresponding to the remaining tooth structure by designing the core to exactly fit the tooth structure at the bore opening in the second scan. - obtaining a 3D scan of a tooth while a scan pin is arranged in a bore of the tooth, - obtaining a digital 3D shape of the scan pin comprising an outer part which is adapted to be arranged at least partly outside the tooth, and an inner part which is adapted to be arranged at least partly inside the tooth in the bore, and the inner part corresponds to the post of the post and core, - matching the digital 3D shape of the scan pin to the scan pin in the 3D scan, - obtaining a second 3D scan without the scan pin capturing details at the bore opening, - virtually designing the post and core relative to the tooth, where the post and core comprises the post adapted to be arranged in the bore of the tooth and a core adapted to be present outside and following and corresponding to the remaining tooth structure by designing the core to exactly fit the tooth structure at the bore opening in the second scan.
An intermediate transfer member for transfer ink jet recording comprising: a surface layer; a buffer layer; and a compression layer, wherein the intermediate transfer member is used in a transfer ink jet recording method that includes a step of forming an intermediate image by applying an ink on an image-forming surface of an intermediate transfer member with an ink jet device and a step of transferring the intermediate image to a recording medium from the image-forming surface by pressing the intermediate image against the recording medium, wherein the surface layer, the buffer layer, and the compression layer are formed in that order from the image-forming surface side, characterized in that the thickness of the surface layer is 0.01 μ m or more and 2.0 μ m or less, a compression modulus of the surface layer is 300 MPa or more and 10000 MPa or less, a compression modulus of the buffer layer is 0.5 MPa or more and 30.0 MPa or less, and E1, E2, and a compression modulus of the compression layer satisfy formula below. E ⁢ 1 / 10 > E ⁢ 2 > E ⁢ 3 a surface layer; a buffer layer; and a compression layer, wherein the intermediate transfer member is used in a transfer ink jet recording method that includes a step of forming an intermediate image by applying an ink on an image-forming surface of an intermediate transfer member with an ink jet device and a step of transferring the intermediate image to a recording medium from the image-forming surface by pressing the intermediate image against the recording medium, wherein the surface layer, the buffer layer, and the compression layer are formed in that order from the image-forming surface side, characterized in that the thickness of the surface layer is 0.01 μ m or more and 2.0 μ m or less, a compression modulus of the surface layer is 300 MPa or more and 10000 MPa or less, a compression modulus of the buffer layer is 0.5 MPa or more and 30.0 MPa or less, and E1, E2, and a compression modulus of the compression layer satisfy formula below. E ⁢ 1 / 10 > E ⁢ 2 > E ⁢ 3