mhurhangee/patent-ind-claim-en huggingface dataset:
A secondary battery comprising: an electrode assembly having a current collector tab ; a case accommodating the electrode assembly ; a cap plate coupled to the case ; and a lead tab positioned between the electrode assembly and the cap plate , wherein the lead tab comprises a fuse opening , a fixing hole spaced apart from the fuse opening and a protection member surrounding the fuse opening and the fixing hole , wherein the protection member is made of an insulating material and fills interior portions of the fuse opening and the fixing hole , characterized in that , the lead tab is electrically connecting the current collector tab and the cap plate and comprises: a first plate at one side of the lead tab and coupled to the current collector tab ; a second plate at the other side of the lead tab , the second plate being higher than the first plate , and coupled to the cap plate ; and a connecting part connecting the first plate and the second plate , the connecting part being slanted relative to one of the first plate or the second plate , wherein the protection member extends from one end of the first plate to the connecting part . an electrode assembly having a current collector tab ; a case accommodating the electrode assembly ; a cap plate coupled to the case ; and a lead tab positioned between the electrode assembly and the cap plate , wherein the lead tab comprises a fuse opening , a fixing hole spaced apart from the fuse opening and a protection member surrounding the fuse opening and the fixing hole , wherein the protection member is made of an insulating material and fills interior portions of the fuse opening and the fixing hole , characterized in that , the lead tab is electrically connecting the current collector tab and the cap plate and comprises: a first plate at one side of the lead tab and coupled to the current collector tab ; a second plate at the other side of the lead tab , the second plate being higher than the first plate , and coupled to the cap plate ; and a connecting part connecting the first plate and the second plate , the connecting part being slanted relative to one of the first plate or the second plate , wherein the protection member extends from one end of the first plate to the connecting part . a first plate at one side of the lead tab and coupled to the current collector tab ; a second plate at the other side of the lead tab , the second plate being higher than the first plate , and coupled to the cap plate ; and a connecting part connecting the first plate and the second plate , the connecting part being slanted relative to one of the first plate or the second plate , wherein the protection member extends from one end of the first plate to the connecting part .
A vehicle light , comprising: a light source including a semiconductor light-emitting element ; a wavelength conversion member including a phosphor configured to receive excitation light having been emitted from the semiconductor light-emitting element and then emitting visible light; and a reflector having a reflection surface that reflects the visible light having been emitted from the phosphor , characterized in that the reflection surface of the reflector has an optical structure (D) that can diffuse the excitation light incident on the reflection surface from the phosphor . a light source including a semiconductor light-emitting element ; a wavelength conversion member including a phosphor configured to receive excitation light having been emitted from the semiconductor light-emitting element and then emitting visible light; and a reflector having a reflection surface that reflects the visible light having been emitted from the phosphor , characterized in that the reflection surface of the reflector has an optical structure (D) that can diffuse the excitation light incident on the reflection surface from the phosphor .
Method for injection molding an injection-moldable thermoplastic material in an injection molding machine, wherein the material is first plasticized in a plasticizing unit, is then injected into an injection mold while applying an injection pressure, the material then cools and hardens at least while a holding pressure is temporarily maintained in the injection mold, and finally the workpiece injection molded from the material is demolded from the injection mold, characterized in that the injection-moldable thermoplastic material comprises at least one binder which is flowable at elevated temperature compared with room temperature (20 °C) and has a solid consistency at room temperature, and at least one substance which does not melt at the melting temperature of the binder, wherein the proportion of the binder to the total material is at least 10.0 % by weight, wherein the injection of the plasticized material into the injection mold takes place at an injection pressure which is at most 100 bar. that the injection-moldable thermoplastic material comprises at least one binder which is flowable at elevated temperature compared with room temperature (20 °C) and has a solid consistency at room temperature, and at least one substance which does not melt at the melting temperature of the binder, wherein the proportion of the binder to the total material is at least 10.0 % by weight, wherein the injection of the plasticized material into the injection mold takes place at an injection pressure which is at most 100 bar.
Punch riveting device having a setting unit , in which setting unit a rivet can be held, and having a punch by means of which the rivet can be subjected to force (F) and can be introduced into at least one component in a riveting operation, wherein the setting unit has a holding-down means which at least partially surrounds the punch , wherein the punch riveting device takes the form of an ultrasonic punch riveting device having a vibration generator for generating vibrations which can be coupled into the punch , characterized by a holding device which, by actuating the holding device , can be brought into a starting position (P A ) and into a holding position (P H ) in which the rivet can be fixed by means of the holding device , wherein the holding device is designed in such a way that that, by being brought from the starting position (P A ) into the holding position (P H ), the rivet can be gripped by means of the holding device , and, by being brought from the holding position (P H ) into the starting position (P A ), the holding device can be released from the rivet , wherein the holding device is designed in such a way that, in the starting position (P A ), there is no longer any contact between the holding device and the rivet, between the holding device and the holding-down means and between the holding device and the punch when the punch contacts the rivet, wherein the holding-down means surrounds the rivet and holds it in position, and wherein the holding device has holding elements which are connected to the punch via first springs , and wherein second springs are provided by means of which the holding elements can be pressed in the direction of the rivet, wherein the holding device is configured in such a way that, upon a movement of the punch, a force is exerted on the holding elements by way of the first springs , with the result that, by virtue of oblique surfaces on the holding elements , the latter are pressed apart counter to the spring force of the second springs and away from the rivet , with the result that the holding device is situated in the starting position (P A ) .
A custom tool for bonding orthodontic appliances in a mouth of a patient, the custom tool comprising: a facial body for a patient-specific, customized fit with the facial side of a plurality of teeth of the patient, wherein the facial body includes a plurality of receptacles aligned with the plurality of teeth to receive an orthodontic appliance ; a lingual body for a patient-specific, customized fit with the lingual side of the plurality of teeth of the patient; wherein the facial body and lingual body are configured to interlock together; and wherein the facial body and lingual body are configured to combine with the teeth of the patient to position orthodontic appliances within the receptacles on the plurality of teeth , wherein each receptacle is holding an orthodontic appliance at a predetermined location and predetermined orientation on its respective tooth. a facial body for a patient-specific, customized fit with the facial side of a plurality of teeth of the patient, wherein the facial body includes a plurality of receptacles aligned with the plurality of teeth to receive an orthodontic appliance ; a lingual body for a patient-specific, customized fit with the lingual side of the plurality of teeth of the patient; wherein the facial body and lingual body are configured to interlock together; and wherein the facial body and lingual body are configured to combine with the teeth of the patient to position orthodontic appliances within the receptacles on the plurality of teeth , wherein each receptacle is holding an orthodontic appliance at a predetermined location and predetermined orientation on its respective tooth.
A method for manufacturing a cold working die, comprising steps of: quenching and tempering a steel material including, by mass: 0.6% to 1.2% of carbon, 3.0% to 9.0% of chromium, 0.01% to less than 0.3% of aluminum, 0.3% to 2.0% of manganese, 0.02% to 0.1% of sulfur, optionally one or both of niobium and vanadium in an amount of (Nb + 1/2V) being not more than 1.0%, optionally one or more of silicon, nickel, tungsten, molybdenum, and copper, and the balance being iron and inevitable impurities, to provide a prehardened steel having a hardness of not lower than 55 HRC; machining the prehardened steel to form a working surface of the die; nitriding the machined working surface to produce a nitrided layer having a thickness of not more than 80 μm; and depositing a hard coating film onto the nitrided working surface through a physical vapor deposition process. quenching and tempering a steel material including, by mass: 0.6% to 1.2% of carbon, 3.0% to 9.0% of chromium, 0.01% to less than 0.3% of aluminum, 0.3% to 2.0% of manganese, 0.02% to 0.1% of sulfur, optionally one or both of niobium and vanadium in an amount of (Nb + 1/2V) being not more than 1.0%, optionally one or more of silicon, nickel, tungsten, molybdenum, and copper, and the balance being iron and inevitable impurities, 0.6% to 1.2% of carbon, 3.0% to 9.0% of chromium, 0.01% to less than 0.3% of aluminum, 0.3% to 2.0% of manganese, 0.02% to 0.1% of sulfur, optionally one or both of niobium and vanadium in an amount of (Nb + 1/2V) being not more than 1.0%, optionally one or more of silicon, nickel, tungsten, molybdenum, and copper, and the balance being iron and inevitable impurities, to provide a prehardened steel having a hardness of not lower than 55 HRC; machining the prehardened steel to form a working surface of the die; nitriding the machined working surface to produce a nitrided layer having a thickness of not more than 80 μm; and depositing a hard coating film onto the nitrided working surface through a physical vapor deposition process.
A gas turbine engine assembly comprising a rotor including a shaft adapted to rotate about a central axis , a gas-path component that extends from the shaft for rotation therewith about the central axis, a carrier that extends around the gas-path component to block gasses from passing over the gas-path component during rotation of the rotor , and an abradable runner that extends from the carrier toward the gas-path component to reduce a gap between the carrier and the gas-path component, wherein the abradable runner includes a first zone having a first microstructure and a second zone having a second microstructure different from the first microstructure with the first zone arranged in a predetermined location relative to the second zone such that the first zone is positioned circumferentially adjacent to the second zone , characterised in that the first microstructure comprises about 1% to about 50% porosity by volume, and the second microstructure comprises about 1% to about 50% porosity by volume, wherein the first zone extends in an axial direction along the central axis and is located circumferentially adjacent to the second zone .
A tub of a clothes drying appliance , comprising - a rear tub section (1; 21; 31; 41) comprising an air outlet opening , - at least one lid attached to the rear tub section (1; 21; 31; 41), - an air duct connected to the air outlet opening and bounded by the rear tub section (1; 21; 31; 41) and at least one lid of a lid assembly (2, 3; 22, 23; 32, 33), - characterized in that at least one lid of the lid assembly (2, 3; 22, 23; 32, 33) bounding the air duct is a pre-manufactured lid assembly (2, 3; 22, 23; 32, 33) comprising an inner rib structure. - a rear tub section (1; 21; 31; 41) comprising an air outlet opening , - at least one lid attached to the rear tub section (1; 21; 31; 41), - an air duct connected to the air outlet opening and bounded by the rear tub section (1; 21; 31; 41) and at least one lid of a lid assembly (2, 3; 22, 23; 32, 33), - characterized in that at least one lid of the lid assembly (2, 3; 22, 23; 32, 33) bounding the air duct is a pre-manufactured lid assembly (2, 3; 22, 23; 32, 33) comprising an inner rib structure.
Composite scaffold for a meniscal implant, comprising a porous polymeric structure and a collagen combined with the porous polymeric structure, characterized in that: - the porous polymeric structure comprises a polyurethane (PU), a polycarbonate-urethane (PCA) and a poly(lactic-co-glycolic acid) (PLGA); - the collagen is a recombinant human collagen type I or II produced from a plant, in particular from the tobacco plant. - the porous polymeric structure comprises a polyurethane (PU), a polycarbonate-urethane (PCA) and a poly(lactic-co-glycolic acid) (PLGA); - the collagen is a recombinant human collagen type I or II produced from a plant, in particular from the tobacco plant.
Furniture fitting for performing a combined sliding and pivoting movement of a multi-part door having at least a first panel element and a second panel element , wherein the furniture fitting comprises a sliding guide for the first panel element and a pivoting guide for the first and the second panel element , and wherein - in a first movement section, the first panel element is guided in a linearly displaceable manner relative to the second panel element by the sliding guide ; and - in a second movement section, the first panel element and the second panel element are coupled to one another and are jointly pivotably guided by the pivoting guide , and wherein a pivot axis of the pivoting guide is positioned at a distance from a plane in which the door extends, so that the coupled panel elements are guided in a rotational and translational motion in the second movement section, characterized in that the sliding guide has at least one guide profile and a roller carriage running therein with rollers , wherein the guide profile has a first section for attachment to a body of a piece of furniture, and a second section which is pivotably guided by the pivoting guide , and wherein in the first movement section the roller carriage is guided from the first into the second section . - in a first movement section, the first panel element is guided in a linearly displaceable manner relative to the second panel element by the sliding guide ; and - in a second movement section, the first panel element and the second panel element are coupled to one another and are jointly pivotably guided by the pivoting guide ,
A device comprising a substrate comprising at least one microelectronic and/or nanoelectronic structure (NEMS) comprising at least one sensitive portion and one fluid channel defined between said substrate and a cap , said fluid channel comprising at least two apertures to provide a flow in said channel, said microelectronic and/or nanoelectronic structure being located within the fluid channel, said cap being assembled with the substrate at an assembly interface, said device comprising at least one electrical connection between said microelectronic and/or nanoelectronic structure and the exterior of the fluid channel , the electrical connection being formed by a via made at least partly through the substrate directly below the microelectronic and/or nanoelectronic structure, and in electrical contact with the microelectronic and/or nanoelectronic structure, in which the device also comprises an intermediate layer located at least partly in the fluid channel, said intermediate layer covering, in the fluid channel , at least partly the microelectronic and/or nanoelectronic structure, except for its sensitive portion, the intermediate layer isolating the materials of the NEMS or MEMS structure other than the sensitive portion from the interior of the fluid channel such that they do not interact with the medium intended to flow in the fluid channel, in which the intermediate layer has the a quasi-flat surface such that it forms a fourth face of the fluid channel.
A gripping method for gripping an object (W) using a multi-fingered hand (H) provided with a plurality of fingers, comprising: a step of measuring, using a sensor , an area that contains the object (W), to obtain, for each position within the area, distance-indicating information that indicates a distance to the sensor ; characterized by a step of deciding positions of the plurality of fingers for gripping the object (W), by classifying the area, if the area includes an area for which the distance-indicating information could not be obtained in the previous step, into a measured area and an unmeasured area (UA) based on the distance-indicating information, the positions of the plurality of fingers being decided based on positions of the unmeasured area (UA). a step of measuring, using a sensor , an area that contains the object (W), to obtain, for each position within the area, distance-indicating information that indicates a distance to the sensor ; characterized by a step of deciding positions of the plurality of fingers for gripping the object (W), by classifying the area, if the area includes an area for which the distance-indicating information could not be obtained in the previous step, into a measured area and an unmeasured area (UA) based on the distance-indicating information, the positions of the plurality of fingers being decided based on positions of the unmeasured area (UA).
A device for wound care, comprising: a bandage including an absorbent material containing photosynthetic cellular structures; and a light source embedded with the bandage configured to provide a certain intensity and pattern of light to the photosynthetic cellular structures, wherein the light is alternatingly on for a first period, then off for a second period. a bandage including an absorbent material containing photosynthetic cellular structures; and a light source embedded with the bandage configured to provide a certain intensity and pattern of light to the photosynthetic cellular structures, wherein the light is alternatingly on for a first period, then off for a second period.
Door closer effective on both sides for use in or on a vertical door post or for fixed mounting on such a post, including a bolt which is rotably mounted at its two ends in a respective disc , whereby it stands out from the upper disc in order to transmit a torque to a driver rod , at which the two discs are fixedly connected to one another via a bridge or stud bolts which extend parallel to and are radially spaced apart from the bolt and that the bolt in its longitudinal centre bears a rotary disc which is fixedly connected there, which extends radially up to the inner side of the bridge or the stud bolts and in its circumferential region a rotary disc is vertically traversed by a driving bar , with the result that the driving bar can swing within the bridge or the two stud bolts in both directions of rotation of the bolt , and that above and under the rotary disc is situated each a steel spring with several coils of a spring guided around the bolt and whose ends guided around the bolt in such a way that they from a central, neutral rotary position touching the driving bar and the bridge or the two stud bolts lengthwise at their outsides so that the bolt in this position can only be deflected in each direction of rotation under the action of the spring force of the steel springs .
An apparatus comprising: sensor circuitry configured and arranged to produce and sense detected signals corresponding to physical objects located in an operational region relative to a location of the sensor circuitry ; and processing circuitry configured and arranged to record and organize information associated with the detected signals in a plurality of sub-histograms respectively associated with different accuracy metrics for corresponding sub-regions of the operational region, each of the plurality of sub-histograms including a set of histogram bins characterized by a bin width linked to its accuracy metric; and refine at least one of the different accuracy metrics by adapting one or more of the bin widths dynamically in response to a signal power of the detected signals, characterized in that each of the one or more bin widths is optimized to half of a full-width at half maximum, FWHM, of a corresponding detected signal. sensor circuitry configured and arranged to produce and sense detected signals corresponding to physical objects located in an operational region relative to a location of the sensor circuitry ; and processing circuitry configured and arranged to record and organize information associated with the detected signals in a plurality of sub-histograms respectively associated with different accuracy metrics for corresponding sub-regions of the operational region, each of the plurality of sub-histograms including a set of histogram bins characterized by a bin width linked to its accuracy metric; and refine at least one of the different accuracy metrics by adapting one or more of the bin widths dynamically in response to a signal power of the detected signals, characterized in that each of the one or more bin widths is optimized to half of a full-width at half maximum, FWHM, of a corresponding detected signal. record and organize information associated with the detected signals in a plurality of sub-histograms respectively associated with different accuracy metrics for corresponding sub-regions of the operational region, each of the plurality of sub-histograms including a set of histogram bins characterized by a bin width linked to its accuracy metric; and refine at least one of the different accuracy metrics by adapting one or more of the bin widths dynamically in response to a signal power of the detected signals, characterized in that each of the one or more bin widths is optimized to half of a full-width at half maximum, FWHM, of a corresponding detected signal.