mhurhangee/patent-ind-claim-en huggingface dataset:
Device for dispensing a cosmetic, toiletry, perfume or care product, having the form of balls, the device comprising a main body forming a reservoir, said main body having an elongate shape and comprising a first end comprising a closed bottom and an open second end which is an opposite end to said first end, • a central shaft extending longitudinally within the main body, and • a helicoidal ramp comprising a track winding around the central shaft, said central shaft being able to rotate relative to said helicoidal ramp, characterized in that it comprises : • a pusher interposed within the helicoidal ramp, said pusher being linked to the central shaft so that it is rotationally fixed and free for translation along said central shaft, such that a relative rotation of the central shaft in relation to said helicoidal ramp drives a movement of said pusher along the track of the helicoidal ramp , and • an actuator mounted at the location of the second end of the main body, and making it possible to drive the relative rotation of the central shaft in relation to the helicoidal ramp . • a central shaft extending longitudinally within the main body, and • a helicoidal ramp comprising a track winding around the central shaft, said central shaft being able to rotate relative to said helicoidal ramp, • a pusher interposed within the helicoidal ramp, said pusher being linked to the central shaft so that it is rotationally fixed and free for translation along said central shaft, such that a relative rotation of the central shaft in relation to said helicoidal ramp drives a movement of said pusher along the track of the helicoidal ramp , and • an actuator mounted at the location of the second end of the main body, and making it possible to drive the relative rotation of the central shaft in relation to the helicoidal ramp .
A method executed by a wireless interface of a base station , comprising: - obtaining a reference signal waveform ( b ) which is defined in accordance with a modulation scheme, - shaping the reference signal waveform ( b ) by calculation, to obtain at least one signal waveform ( x̃ ) associated with one or more subcarriers ( K ) of a plurality of subcarriers (301-303), - in response to said shaping: inputting the at least one signal waveform to at least one corresponding channel of a multi-channel orthogonal frequency division multiplex, OFDM, modulator ( F , 1502, 1503, 1504), and - transmitting an OFDM symbol ( s ) output by the OFDM modulator ( F , 1502, 1503, 1504), wherein said shaping approximates a baseband representation ( b̃ ) of a part ( s W ) of the OFDM symbol ( s ) associated with the one or more subcarriers (301-303) to the reference signal waveform ( b ). - obtaining a reference signal waveform ( b ) which is defined in accordance with a modulation scheme, - shaping the reference signal waveform ( b ) by calculation, to obtain at least one signal waveform ( x̃ ) associated with one or more subcarriers ( K ) of a plurality of subcarriers (301-303), - in response to said shaping: inputting the at least one signal waveform to at least one corresponding channel of a multi-channel orthogonal frequency division multiplex, OFDM, modulator ( F , 1502, 1503, 1504), and - transmitting an OFDM symbol ( s ) output by the OFDM modulator ( F , 1502, 1503, 1504),
A suction device for suctioning material during a dental treatment, the suction device comprising a handpiece having a suction aperture to allow passage of suctioned material, the suction device comprising further an attachment for splatter protection designed for being mounted on the handpiece , the attachment comprising : -- a mounting section for an exchangeable or a permanent mounting of the attachment to the handpiece , -- a suction opening for the passage of suctioned material through the suction opening and the suction aperture when the attachment is mounted on the handpiece, and -- at least a side wall extending from the suction opening and forming a working channel designed to surround a molar partially or at least two sides of the molar, and simultaneously to host a dental tool , the channel having at least one introduction section for introduction of a dental tool into the working channel, characterized in that working channel is configured to surround several teeth at three sides and extends along a direction being mainly parallel to a longitudinal direction (LD) of the handpiece or along a direction being mainly slanted about up to 45°, preferably up to 30° and most preferably up to 15° relative to the longitudinal direction (LD) of the handpiece . -- a mounting section for an exchangeable or a permanent mounting of the attachment to the handpiece , -- a suction opening for the passage of suctioned material through the suction opening and the suction aperture when the attachment is mounted on the handpiece, and -- at least a side wall extending from the suction opening and forming a working channel designed to surround a molar partially or at least two sides of the molar, and simultaneously to host a dental tool , the channel having at least one introduction section for introduction of a dental tool into the working channel, characterized in that working channel is configured to surround several teeth at three sides and extends along a direction being mainly parallel to a longitudinal direction (LD) of the handpiece or along a direction being mainly slanted about up to 45°, preferably up to 30° and most preferably up to 15° relative to the longitudinal direction (LD) of the handpiece .
An anode for a solid oxide fuel cell (SOFC), the anode comprising: a matrix comprising a doped metal oxide; and an electrocatalyst consisting of cermet porous particles that are dispersed throughout the matrix, the porous particles comprising a metal steam reformation catalyst material trapped within the pores of the porous particles; wherein the porous particles are made from a different material to the matrix , and wherein the steam reformation catalyst material comprises an element selected from the group consisting of Fe, Co, Ru, Ni, Rh, Pt, Pd or a combination thereof. a matrix comprising a doped metal oxide; and an electrocatalyst consisting of cermet porous particles that are dispersed throughout the matrix, the porous particles comprising a metal steam reformation catalyst material trapped within the pores of the porous particles; wherein the porous particles are made from a different material to the matrix , and wherein the steam reformation catalyst material comprises an element selected from the group consisting of Fe, Co, Ru, Ni, Rh, Pt, Pd or a combination thereof.
A polyolefin article comprising a polymeric substrate and a_surface modifying agent applied on at least one surface of the-polymeric substrate, the surface modifying agent comprising: a first component comprising an aryl sulfonyl azide polymer or a copolymer thereof and a second component that comprises a chemical component capable of imparting a property to a surface of the substrate, the surface modifying agent is applied to the substrate in a weight range of 0.05-1.0 g/m 2 , and at least one azide of the first component has been reacted with a carbon atom of the substrate to form a sulfonamide linking group,_wherein the polymeric substrate is a polyolefinic substrate being selected from the group consisting of: a textile substrate, a fiber, a polyolefin material, a polypropylene material, a polyethylene material, a porous polyolefin substrate, a nonporous polyolefin substrate, a porous hollow fiber, a nonporous hollow fiber, a porous battery separator, a film, a polyolefin surface layer, a composite, and combination thereof.
A method of making a polyolefin catalyst support, comprising: forming a suspension of a catalyst support in a protic liquid having a pH between 4.5 and 7.5; applying a shear stress to the suspension of between 100 kPa and 5000 kPa; adjusting the pH of the suspension to between 8 and 11; adding nanoparticles to the suspension; adjusting the pH of the suspension to between 4 and 7; continuing the shear stress on the suspension for 5 minutes to 60 minutes; separating a solid from the suspension; washing the solid with a solvent having a pH between 4.5 and 7.5; and drying the solid. forming a suspension of a catalyst support in a protic liquid having a pH between 4.5 and 7.5; applying a shear stress to the suspension of between 100 kPa and 5000 kPa; adjusting the pH of the suspension to between 8 and 11; adding nanoparticles to the suspension; adjusting the pH of the suspension to between 4 and 7; continuing the shear stress on the suspension for 5 minutes to 60 minutes; separating a solid from the suspension; washing the solid with a solvent having a pH between 4.5 and 7.5; and drying the solid.
A breast implant spacer comprising a cement, characterised in that the breast implant spacer additionally comprises an antibiotic, antifungal, bacteriostatic or bacteriocidal agent, or a combination thereof, impregnated in the cement, wherein the cement is formed into the shape of a breast implant and comprises a porous structure effective to allow a therapeutic amount of the antibiotic, antifungal, bacteriostatic or bacteriocidal agent, or a combination thereof to diffuse out of the spacer into contact with the surrounding tissue when the spacer is implanted in a human during use, wherein the spacer is designed to substantially resemble a breast implant.
A vehicle-mounted device having a touchscreen , comprising a controller configured to separately display a first image (i1) displaying an operation unit that is operated for air conditioning in a vehicle interior or temperature adjustment of pieces of equipment and a second image (i2) displaying image information different from the first image (i1) on the touchscreen , wherein the vehicle-mounted device has a first pattern and a second pattern as a display pattern for separately displaying the first image (i1) and the second image (i2), and the controller switches between the first pattern and the second pattern, characterized in that the second pattern has a smaller display region for the first image (i1) and a larger display region for the second image (i2) than the first pattern. a controller configured to separately display a first image (i1) displaying an operation unit that is operated for air conditioning in a vehicle interior or temperature adjustment of pieces of equipment and a second image (i2) displaying image information different from the first image (i1) on the touchscreen , wherein the vehicle-mounted device has a first pattern and a second pattern as a display pattern for separately displaying the first image (i1) and the second image (i2), and the controller switches between the first pattern and the second pattern,
A log handling device , comprising: - a rotatable rotor provided with log handling means , and - a feeding means attached to the rotor for conducting an operating medium to the log handling means , the feeding means being arranged to wind around the rotor when the rotor is rotated in a first direction, and the feeding means being arranged to unwind from around the rotor when the rotor is rotated in a second direction, characterized in that the log handling device comprises: - a rotatable second rotor to which the feeding means is attached, and - an operating device for rotating the second rotor synchronously with the rotor , such that the feeding means is arranged to wind around the second rotor when the rotor is rotated in the second direction, and that the feeding means is arranged to unwind from around the second rotor when the rotor is rotated in the first direction. - a rotatable rotor provided with log handling means , and - a feeding means attached to the rotor for conducting an operating medium to the log handling means , the feeding means being arranged to wind around the rotor when the rotor is rotated in a first direction, and the feeding means being arranged to unwind from around the rotor when the rotor is rotated in a second direction, - a rotatable second rotor to which the feeding means is attached, and - an operating device for rotating the second rotor synchronously with the rotor , such that the feeding means is arranged to wind around the second rotor when the rotor is rotated in the second direction, and that the feeding means is arranged to unwind from around the second rotor when the rotor is rotated in the first direction.
Vehicle electrical system having an inverter (WR), an electrical energy store (ES), an electrical machine (EM) and an AC transmission terminal (AC), wherein - the inverter (WR) has a first side (S1) and a second side (S2) and is configured to transmit power between these sides, - the first side (S1) of the inverter (WR) is connected to the energy store (ES) via a positive and a negative input current terminal (EA1, EA2) of the inverter (WR); - the second side (S2) of the inverter (WR) is connected to the electrical machine (EM) via at least two phase current terminals (PS1, PS2, PS3) of the inverter (WR), and - the inverter (WR) has at least two H-bridges (HB1, HB2, HB3), each of the H-bridges (HB1, HB2, HB3) bypassing the two sides (S1, S2) of the inverter (WR), the AC transmission terminal (AC) being connected to the second side (S2) of the inverter (WR) characterized in that - each H-bridge comprises two arms, a first of these arms connects the two input current terminals (EA1, EA2), a second of these arms connects an input current terminal (EA2) and a phase current terminal (PA1 - 3) and each arm comprises two switching elements (HS) connected to one another via a connecting point. - the inverter (WR) has a first side (S1) and a second side (S2) and is configured to transmit power between these sides, - the first side (S1) of the inverter (WR) is connected to the energy store (ES) via a positive and a negative input current terminal (EA1, EA2) of the inverter (WR); - the second side (S2) of the inverter (WR) is connected to the electrical machine (EM) via at least two phase current terminals (PS1, PS2, PS3) of the inverter (WR), and - the inverter (WR) has at least two H-bridges (HB1, HB2, HB3), each of the H-bridges (HB1, HB2, HB3) bypassing the two sides (S1, S2) of the inverter (WR), the AC transmission terminal (AC) being connected to the second side (S2) of the inverter (WR) characterized in that - each H-bridge comprises two arms, a first of these arms connects the two input current terminals (EA1, EA2), a second of these arms connects an input current terminal (EA2) and a phase current terminal (PA1 - 3) and each arm comprises two switching elements (HS) connected to one another via a connecting point.
Measurement equipment for measuring the inflation pressure of a tire of a vehicle wheel , the equipment comprising: · a body defining an internal volume; · a communication orifice for putting the inside volume of the body into communication with an inflation chamber situated between a rim and a tire of the wheel and containing an inflation gas; · an indicator member (25; 125; 325) slidably mounted in the body so as to define a gastight separation between a first chamber containing a given quantity of a reference gas and a second chamber into which the communication orifice leads, such that the indicator member (25; 125; 325) is subjected to opposing pressures that exist in each of the chambers, said opposing pressures being exerted by the reference gas and by the inflation gas; and · position-identification means (30; 143; 243, 244; 345; 451) for identifying the position of the indicator member in the body, the position-identification means including a sensor for sensing the position of the indicator member, characterized in that the indicator member (25; 125; 325) is secured to a bellows (23; 123; 323; 423) incorporated in the first chamber. · a body defining an internal volume; · a communication orifice for putting the inside volume of the body into communication with an inflation chamber situated between a rim and a tire of the wheel and containing an inflation gas; · an indicator member (25; 125; 325) slidably mounted in the body so as to define a gastight separation between a first chamber containing a given quantity of a reference gas and a second chamber into which the communication orifice leads, such that the indicator member (25; 125; 325) is subjected to opposing pressures that exist in each of the chambers, said opposing pressures being exerted by the reference gas and by the inflation gas; and · position-identification means (30; 143; 243, 244; 345; 451) for identifying the position of the indicator member in the body, the position-identification means including a sensor for sensing the position of the indicator member, characterized in that the indicator member (25; 125; 325) is secured to a bellows (23; 123; 323; 423) incorporated in the first chamber.
A thermoplastic adhesive composition comprising: at least one maleic anhydride-grafted ethylene-based polymer; at least one ethylene/α-olefin/non-conjugated diene interpolymer having a molecular weight distribution (MWD) ≥ 2.5, wherein MWD = Mw/Mn, wherein Mw is weight averaged molecular weight and Mn is number averaged molecular weight, which are both determined by gel permeation chromatography; a very low density polyethylene (VLDPE) having a density in the range 0.885 to 0.915 grams/cm 3 as measured in accordance with ASTM D792, Method B; and at least one ethylene alkyl (meth)acrylate copolymer, wherein the alkyl group comprises one to four carbon atoms. at least one maleic anhydride-grafted ethylene-based polymer; at least one ethylene/α-olefin/non-conjugated diene interpolymer having a molecular weight distribution (MWD) ≥ 2.5, wherein MWD = Mw/Mn, wherein Mw is weight averaged molecular weight and Mn is number averaged molecular weight, which are both determined by gel permeation chromatography; a very low density polyethylene (VLDPE) having a density in the range 0.885 to 0.915 grams/cm 3 as measured in accordance with ASTM D792, Method B; and at least one ethylene alkyl (meth)acrylate copolymer, wherein the alkyl group comprises one to four carbon atoms.
A method for determining the dissociation constants of analyte-specific binding components with an analyte in a sample of known concentration in a bi-component detection method comprising: a. providing two non-immobilized analyte-specific binding components at known concentrations for conducting a bi-component detection method in a solution comprising bringing said two analyte-specific binding components in contact with the analyte to produce a signal that depends on the concentration of bi-component/analyte complexes formed in said solution, b. providing a dissociation constant relationship for said bi-component detection method which is a mathematical function for the relationship between the dissociation constants of the two analyte-specific binding components with the analyte (kd1 and kd2, respectively) in dependence of said signal reflecting the concentration of bi-component/analyte complexes and the concentration of analyte and analyte-specific binding components, c. preparing one or more dilutions of said sample and/or said analyte-specific binding components, d. applying the bi-component detection method to the sample and the one or more dilutions, e. determining the dissociations constants kd1 and kd2 of said two analyte-specific binding components using said signal detected in the sample and in the one or more dilutions as a constraining input for a mathematical fit for said dissociation constant relationship at different analyte concentration and/or analyte-specific binding components concentrations. a. providing two non-immobilized analyte-specific binding components at known concentrations for conducting a bi-component detection method in a solution comprising bringing said two analyte-specific binding components in contact with the analyte to produce a signal that depends on the concentration of bi-component/analyte complexes formed in said solution, b. providing a dissociation constant relationship for said bi-component detection method which is a mathematical function for the relationship between the dissociation constants of the two analyte-specific binding components with the analyte (kd1 and kd2, respectively) in dependence of said signal reflecting the concentration of bi-component/analyte complexes and the concentration of analyte and analyte-specific binding components, c. preparing one or more dilutions of said sample and/or said analyte-specific binding components, d. applying the bi-component detection method to the sample and the one or more dilutions, e. determining the dissociations constants kd1 and kd2 of said two analyte-specific binding components using said signal detected in the sample and in the one or more dilutions as a constraining input for a mathematical fit for said dissociation constant relationship at different analyte concentration and/or analyte-specific binding components concentrations.
A method by a terminal in a wireless communication system, the method comprising: receiving, from a base station, an user equipment, UE, capability enquiry message including radio access technology, RAT, type information and filtering information (1f-05); generating UE capability information based on the at least one candidate band combination, BC, list which is generated according to the RAT type information and the filtering information (1f-15), wherein the filtering information is used to filter the at least one BC list for a RAT; and transmitting, to the base station, the generated UE capability information (1f-40) , wherein the RAT type information includes a multi radio access technology-dual connectivity, MR-DC, information, wherein the filtering information includes first information for supporting a new radio, NR, evolved universal terrestrial radio access, E-UTRA,NE,-DC and a E-URTA-new radio, NR, EN,-DC, wherein a candidate BC list only for the NE-DC is included in the at least one candidate BC list, in case that the terminal supports only for the NE-DC. receiving, from a base station, an user equipment, UE, capability enquiry message including radio access technology, RAT, type information and filtering information (1f-05); generating UE capability information based on the at least one candidate band combination, BC, list which is generated according to the RAT type information and the filtering information (1f-15), wherein the filtering information is used to filter the at least one BC list for a RAT; and transmitting, to the base station, the generated UE capability information (1f-40) , wherein the RAT type information includes a multi radio access technology-dual connectivity, MR-DC, information, wherein the filtering information includes first information for supporting a new radio, NR, evolved universal terrestrial radio access, E-UTRA,NE,-DC and a E-URTA-new radio, NR, EN,-DC, wherein a candidate BC list only for the NE-DC is included in the at least one candidate BC list, in case that the terminal supports only for the NE-DC.