mhurhangee/patent-ind-claim-en huggingface dataset:
An optically pumped solid state laser device comprising - one or several solid state laser media in a laser resonator, wherein the laser resonator is comprised by a VCSEL or semiconductor disc laser, - said laser resonator being formed of one or several first resonator mirrors arranged at a first side of said solid state laser media and one or several second resonator mirrors arranged at a second side of said solid state laser media opposing said first side, wherein the first resonator mirrors are formed of distributed Bragg reflectors on which said solid state laser media are arranged, - said first and second resonator mirrors being arranged to guide laser radiation of said laser resonator on at least two different straight paths through each of said laser media , - one or several pump laser diodes and pump radiation reflecting mirrors , - said pump laser diodes being arranged to optically pump said solid state laser media by reflection of pump radiation at said pump radiation reflecting mirrors , - said pump radiation reflecting mirrors being arranged on said second side and designed to directly reflect said pump radiation to the solid state laser media , - wherein said pump reflecting mirrors and said second resonator mirrors are integrally formed in a single mirror element , and. - wherein the second resonator mirrors comprise an outcoupling mirror configured to allow passage of a portion of the laser radiation through the outcoupling mirror to an outside of said laser resonator. - one or several solid state laser media in a laser resonator, wherein the laser resonator is comprised by a VCSEL or semiconductor disc laser, - said laser resonator being formed of one or several first resonator mirrors arranged at a first side of said solid state laser media and one or several second resonator mirrors arranged at a second side of said solid state laser media opposing said first side, wherein the first resonator mirrors are formed of distributed Bragg reflectors on which said solid state laser media are arranged, - said first and second resonator mirrors being arranged to guide laser radiation of said laser resonator on at least two different straight paths through each of said laser media , - one or several pump laser diodes and pump radiation reflecting mirrors , - said pump laser diodes being arranged to optically pump said solid state laser media by reflection of pump radiation at said pump radiation reflecting mirrors , - said pump radiation reflecting mirrors being arranged on said second side and designed to directly reflect said pump radiation to the solid state laser media , - wherein said pump reflecting mirrors and said second resonator mirrors are integrally formed in a single mirror element , and. - wherein the second resonator mirrors comprise an outcoupling mirror configured to allow passage of a portion of the laser radiation through the outcoupling mirror to an outside of said laser resonator.
An electric parking brake device comprising: a parking brake lever capable of generating a parking brake force according to an operation; a brake cable including, at one end thereof, an engagement piece to be engaged with the parking brake lever ; and an electric actuator including a drive shaft coupled, at one end thereof, to other end of the brake cable and enabling the drive shaft to move reciprocally in an axial direction, wherein an insertion hole is provided on one of a joint and the drive shaft , the joint being secured to the other end of the brake cable , and an insertion shaft part to be inserted into the insertion hole is provided coaxially on the other of the joint and the drive shaft , the electric parking brake device characterized in that an annular engaging member that can be inserted into the insertion hole together with the insertion shaft part is interposed between an inner periphery of the insertion hole and an outer periphery of the insertion shaft part such that the joint and the drive shaft are coupled.
An inner membrane removing device, comprising: a heating membrane removing mechanism and a membrane suction mechanism located at a downstream of the heating membrane removing mechanism , wherein the heating membrane removing mechanism comprises a heating frame , a membrane pressing component , a membrane welding component configured to fusion weld a nest box inner membrane to a nest box inner lining paper , a first lifting component configured to enable the heating frame and the membrane welding component to be in contact with the nest box inner membrane ; and a second lifting component configured to enable the membrane pressing component to press against the nest box inner membrane , wherein the membrane pressing component and the membrane welding component are located on an inside of the heating frame .
Method for producing a trim and sound protection panel for a motor vehicle, said method comprising the following steps: - providing a hot-compression mould, said mould comprising a die and a punch defining a moulding cavity sealed by closing said mould, said punch or said die having a face provided with graining, - disposing, between said die and said punch, in successive stacking, a permeable covering layer , a permeable structural and sound-absorption layer able to be moulded by hot compression, said structural layer being based on fibres bonded together by a binder, and an impermeable thermoplastic film , said covering layer being turned towards said face, said layers being at a temperature allowing moulding thereof, - closing said mould so as to seal said cavity, - applying on the same side as said film a pressurised gas so as to press said film against said structural layer in order to compress it and so as to press said covering layer against said face in order to confer graining on it, - after peripheral cutting, removing the panel obtained from the mould. - providing a hot-compression mould, said mould comprising a die and a punch defining a moulding cavity sealed by closing said mould, said punch or said die having a face provided with graining, - disposing, between said die and said punch, in successive stacking, a permeable covering layer , a permeable structural and sound-absorption layer able to be moulded by hot compression, said structural layer being based on fibres bonded together by a binder, and an impermeable thermoplastic film , - closing said mould so as to seal said cavity, - applying on the same side as said film a pressurised gas so as to press said film against said structural layer in order to compress it and so as to press said covering layer against said face in order to confer graining on it, - after peripheral cutting, removing the panel obtained from the mould.
Method for actuating an operating device for a household appliance , wherein by means of an operating element of the operating device , a first function of the household appliance is set by actuating the operating element with a first actuation type from a first resting position into a first operating position, and for setting a value, a setting parameter of a second function of the household appliance is set by actuating the operating element with a second actuation type which is different from the first actuation type , from a second resting position of the operating element into at least one of a plurality of intermediate positions of the operating element , wherein in order to actuate the first function of the household appliance , at least one first capacitance value of the operating device is sensed by means of a capacitive sensing apparatus of the operating device and, in order to determine the setting parameter, at least one second capacitance value is sensed by means of the capacitive sensing apparatus , wherein in the case of the first actuation type , from the first resting position into the first operating position, the at least first capacitance value is sensed and at least one correction value (K) is determined in dependence on the sensed at least first capacitance value , which correction value is taken into account in the determination of the at least second capacitance value in order to determine the setting parameter of the second function, wherein the capacitive sensing apparatus has at least one rotor with at least one rotor sensor element and a stator with at least two stator sensor elements , wherein at least the first and the second capacitance value are generated in dependence on a positional change of the rotor sensor element relative to the stator sensor elements , and wherein one respective correction value (K) is determined for one respective stator sensor element and the respective correction value (K) of one respective stator sensor element is taken into account in the determination and/or further processing of the second capacitance value .
A computer implemented method for authenticating a smart card, comprising: determining (S201,S401,S601), in a smart lock, whether the smart card satisfies a first authentication condition according to authentication information provided by the smart card; in response to a determination by the smart lock that the smart card satisfies the first authentication condition, the smart lock sending (S202) a generated unlocking key to the smart card; and in response to receiving feedback information of the smart card, the smart lock determining (S203) the smart card to be an authenticated smart card; wherein: the determining (S201,S401,S601) whether the smart card satisfies the first authentication condition according to the authentication information provided by the smart card comprises: acquiring the authentication information requested from the smart card, the authentication information comprising a card identifier and a card status of the smart card; and when it is determined that the card status is an unkeyed state, and the card identifier comprises a specified number segment, determining that the smart card satisfies the first authentication condition. determining (S201,S401,S601), in a smart lock, whether the smart card satisfies a first authentication condition according to authentication information provided by the smart card; in response to a determination by the smart lock that the smart card satisfies the first authentication condition, the smart lock sending (S202) a generated unlocking key to the smart card; and in response to receiving feedback information of the smart card, the smart lock determining (S203) the smart card to be an authenticated smart card; wherein: the determining (S201,S401,S601) whether the smart card satisfies the first authentication condition according to the authentication information provided by the smart card comprises: acquiring the authentication information requested from the smart card, the authentication information comprising a card identifier and a card status of the smart card; and when it is determined that the card status is an unkeyed state, and the card identifier comprises a specified number segment, determining that the smart card satisfies the first authentication condition. acquiring the authentication information requested from the smart card, the authentication information comprising a card identifier and a card status of the smart card; and when it is determined that the card status is an unkeyed state, and the card identifier comprises a specified number segment, determining that the smart card satisfies the first authentication condition.
A cabin pressure control and monitoring system comprising: an outflow valve ; a manual control panel comprising a selector switch and configured to generate a signal, wherein a value encoded in the signal is dependent on a position of the selector switch; and a controller configured to: receive the signal from the manual control panel; determine a target rate of change for a cabin pressure based on the value encoded in the signal; and control the outflow valve based on the target rate of change, wherein the controller is configured to receive a feedback signal from a pressure sensor, and wherein to control the outflow valve, the controller is configured to control the outflow valve based on the feedback signal to achieve the target rate of change. an outflow valve ; a manual control panel comprising a selector switch and configured to generate a signal, wherein a value encoded in the signal is dependent on a position of the selector switch; and a controller configured to: receive the signal from the manual control panel; determine a target rate of change for a cabin pressure based on the value encoded in the signal; and control the outflow valve based on the target rate of change, wherein the controller is configured to receive a feedback signal from a pressure sensor, and receive the signal from the manual control panel; determine a target rate of change for a cabin pressure based on the value encoded in the signal; and control the outflow valve based on the target rate of change, wherein the controller is configured to receive a feedback signal from a pressure sensor, and wherein to control the outflow valve, the controller is configured to control the outflow valve based on the feedback signal to achieve the target rate of change.
A kit comprising an injectable microparticle composition comprising a population of microparticles, wherein the microparticles comprise at least one polymer selected from the group consisting of (i) a blend of poly(L-lactide) or poly(DL-lactide) and polycaprolactone; (ii) a copolymer of DL-lactide or L-lactide and caprolactone; (iii) a copolymer of DL-lactide or L-lactide, glycolide, and caprolactone; and (iv) a blend of poly(L-lactide) or poly(DL-lactide) and poly(caprolactone) admixed with poly(lactide-co-glycolide), or a blend of any one or more of the polymers (i) to (iv), and a means for injection of a suspension of the microparticles in a liquid vehicle, the suspension having a solids content of between 10 wt % up to 100 wt%, wherein the means for injection comprises a needle or other device with a lumen, the needle or device having an inner and an outer diameter, and wherein - (a) the ratio of the needle inner diameter to the mean particle size of the population of microparticles is from 2.0 to 4.5, preferably from 3.0 to 4.2, and more preferably from 3.0 to 3.8, when the means is for injection of a suspension of the microparticles in which the vehicle is added to the microparticles to form a suspension with a solids content from 10 wt. % to <30 wt. % or (b) the ratio of the needle inner diameter to the mean particle size of the population of microparticles is from 4.0 to 8.0, preferably from 4.0 to 7.6, and more preferably from 4.0 to 4.8, when the means is for injection of a suspension of the microparticles in which the vehicle is added to the microparticles to form a suspension with a solids content ≥ 30 wt. %, preferably from 30 to 60 wt. %, more preferably from 30 to 50 wt. %, and most preferably from 30 to 45 wt. %, and wherein the microparticle composition is injectable when the microparticles are suspended in a vehicle consisting of water, 0.5 wt % sodium carboxymethylcellulose and 0.1 wt % polysorbate 80. (a) the ratio of the needle inner diameter to the mean particle size of the population of microparticles is from 2.0 to 4.5, preferably from 3.0 to 4.2, and more preferably from 3.0 to 3.8, when the means is for injection of a suspension of the microparticles in which the vehicle is added to the microparticles to form a suspension with a solids content from 10 wt. % to <30 wt. % or (b) the ratio of the needle inner diameter to the mean particle size of the population of microparticles is from 4.0 to 8.0, preferably from 4.0 to 7.6, and more preferably from 4.0 to 4.8, when the means is for injection of a suspension of the microparticles in which the vehicle is added to the microparticles to form a suspension with a solids content ≥ 30 wt. %, preferably from 30 to 60 wt. %, more preferably from 30 to 50 wt. %, and most preferably from 30 to 45 wt. %, and
A colorant splitting method for a content constituent output device of a n-dimensional color in a n-dimensional colorant space to a m-dimensional color in a m-dimensional colorant space - wherein the colorants of the n-dimensional colorant space are n base colorants {C 1 ,..., C n }; and - wherein a set of the colorants of the m-dimensional colorant space are constituent colorants {c i,1 , ..., C i,k } of a base colorant C i ; the colorant splitting method comprising the steps of: - determining a first colorant splitting curve set CSC i,1 (FIG. 1, 200) of the base colorant C i1 , said first colorant splitting curve CSC i,1 being associated with a first level of graininess; - determining a second colorant splitting curve set CSC i,2 (FIG. 2, 200) of the base colorant C i2 , said second colorant splitting curve CSC i,2 being associated with a second level of graininess that is higher than the first level of graininess; using an interpolation factor α (0<α<1) for interpolating between the first colorant splitting curve CSC i,1 and the second colorant splitting curve CSC i,2 to obtain a new colorant splitting curve set CSC i,new (FIG. 8, 200); converting the tone value of the base colorant C i in the n-dimensional colorant space by means of the new colorant splitting curve CSC i,new to obtain tone values for the constituent colorants {C i,1 ,..., C i,k } in the m-dimensional colorant space; wherein the interpolating step is characterized by comprising the steps of: - determining weight values (w i,...n ) that are representative for the relative contrast of the n base colorants {c 1,... , C n }; - calculating an equivalent coverage EC i for the base colorant C i , said equivalent coverage EC i representing a coverage by one or more of the base colorants {C 1,... , C n } weighted by the weight values (w i,...n ) and excluding the base colorant C i itself; - deriving from the equivalent coverage EC i for the base colorant C i the interpolation factor α. - wherein the colorants of the n-dimensional colorant space are n base colorants {C 1 ,..., C n }; and - wherein a set of the colorants of the m-dimensional colorant space are constituent colorants {c i,1 , ..., C i,k } of a base colorant C i ; - determining a first colorant splitting curve set CSC i,1 (FIG. 1, 200) of the base colorant C i1 , said first colorant splitting curve CSC i,1 being associated with a first level of graininess; - determining a second colorant splitting curve set CSC i,2 (FIG. 2, 200) of the base colorant C i2 , said second colorant splitting curve CSC i,2 being associated with a second level of graininess that is higher than the first level of graininess; - determining weight values (w i,...n ) that are representative for the relative contrast of the n base colorants {c 1,... , C n }; - calculating an equivalent coverage EC i for the base colorant C i , said equivalent coverage EC i representing a coverage by one or more of the base colorants {C 1,... , C n } weighted by the weight values (w i,...n ) and excluding the base colorant C i itself; - deriving from the equivalent coverage EC i for the base colorant C i the interpolation factor α.
Transmission welding method for welding a first workpiece part , which is formed at least partially from thermoplastic material, to at least one second workpiece part at a weld point , comprising: a) bracing the first workpiece part and the second workpiece part by means of at least one bracing element which is at least partially transparent to the infrared light radiation ; b) directing polychromatic, incoherent infrared light radiation through the bracing element to the first workpiece part , and through the first workpiece part to the weld point , wherein at least one region of the first workpiece part or the entire first workpiece part is formed from a thermoplastic fibre composite material and the infrared light radiation is directed through the fibre composite material to the weld point , characterized by c) setting a temperature of the bracing element before, during and/or after step b) in order to influence the temperature of at least one region of the workpiece . a) bracing the first workpiece part and the second workpiece part by means of at least one bracing element which is at least partially transparent to the infrared light radiation ; b) directing polychromatic, incoherent infrared light radiation through the bracing element to the first workpiece part , and through the first workpiece part to the weld point , wherein at least one region of the first workpiece part or the entire first workpiece part is formed from a thermoplastic fibre composite material and the infrared light radiation is directed through the fibre composite material to the weld point , characterized by c) setting a temperature of the bracing element before, during and/or after step b) in order to influence the temperature of at least one region of the workpiece .
A semiconductor device, comprising: a lead frame on which is mounted a semiconductor element ; a first kind of mold resin that seals a mounting surface of the lead frame , which is a surface on which is mounted the semiconductor element ; and a second kind of mold resin that seals a heat dissipating surface of the lead frame , which is a surface on a side opposite the mounting surface , wherein projections (7a, 8a, and 8d), in the following called frame form projections (7a, 8a, and 8d), molded from the first kind of mold resin and second kind of mold resin are provided on the outer peripheral end portions of the heat dissipating surface of the lead frame , two opposing frame form projections ( 8a, and 8d) and a thinly-molded portion covering a space between them are integrally molded from the second kind of mold resin , and two other opposing frame form projections are molded from the first kind of mold resin . a lead frame on which is mounted a semiconductor element ; a first kind of mold resin that seals a mounting surface of the lead frame , which is a surface on which is mounted the semiconductor element ; and a second kind of mold resin that seals a heat dissipating surface of the lead frame , which is a surface on a side opposite the mounting surface , wherein projections (7a, 8a, and 8d), in the following called frame form projections (7a, 8a, and 8d), molded from the first kind of mold resin and second kind of mold resin are provided on the outer peripheral end portions of the heat dissipating surface of the lead frame , two opposing frame form projections ( 8a, and 8d) and a thinly-molded portion covering a space between them are integrally molded from the second kind of mold resin , and two other opposing frame form projections are molded from the first kind of mold resin .