mhurhangee/patent-ind-claim-en huggingface dataset:
A computing device , comprising: a heat source ; an electromagnetic shield surrounding the heat source and defining a shielded side and an unshielded side with an aperture from the shielded side to the unshielded side; an antenna outside the electromagnetic shield; and a fin pack adjacent the antenna and positioned in the aperture and sized to fit the aperture, in thermal communication with the heat source, and configured to allow air blown by a fan to flow through the aperture and to attenuate electromagnetic radiation that would otherwise interfere with the performance of the antenna, characterized in that the fin pack comprises rails to provide electromagnetic shielding and electrical continuity between the fins at one end of the fin pack , the rails positioned at the end of the fin pack in the aperture. a heat source ; an electromagnetic shield surrounding the heat source and defining a shielded side and an unshielded side with an aperture from the shielded side to the unshielded side; an antenna outside the electromagnetic shield; and a fin pack adjacent the antenna and positioned in the aperture and sized to fit the aperture, in thermal communication with the heat source, and configured to allow air blown by a fan to flow through the aperture and to attenuate electromagnetic radiation that would otherwise interfere with the performance of the antenna, characterized in that the fin pack comprises rails to provide electromagnetic shielding and electrical continuity between the fins at one end of the fin pack , the rails positioned at the end of the fin pack in the aperture.
Tripping device for a circuit breaker, the tripping device comprising - a tripping element , - a tripping circuit comprising a tripping coil that is designed, upon being energized, to effect a movement of the tripping element , and - at least one electrical delay element that is able to be connected to the tripping circuit and reduces a steepness of a current increase of a current flowing in the tripping coil after the tripping circuit has been closed and/or delays a current increase of a current flowing in the tripping coil after the tripping circuit has been closed, characterized in that the delay element is a delay coil that is able to be connected in series with the tripping coil , wherein an ohmic resistance of the delay coil is lower than an ohmic resistance of the tripping coil . - a tripping element , - a tripping circuit comprising a tripping coil that is designed, upon being energized, to effect a movement of the tripping element , and - at least one electrical delay element that is able to be connected to the tripping circuit and reduces a steepness of a current increase of a current flowing in the tripping coil after the tripping circuit has been closed and/or delays a current increase of a current flowing in the tripping coil after the tripping circuit has been closed, characterized in that the delay element is a delay coil that is able to be connected in series with the tripping coil , wherein an ohmic resistance of the delay coil is lower than an ohmic resistance of the tripping coil .
A dipping or enrobing coating composition for coating frozen confection, comprising, expressed in weight % based on the total weight of the coating, 30 - 75 wt.% of a single fat, preferably 40-65 wt.%, said fat comprising the following fatty acids composition in the triglycerides of the fat, the % being based on total fat : 45 <= C16:0 <= 52 wt. % (palmitic acid) 4 <= C18:0 <= 8 wt. % (stearic acid) 30 <= C18:1 <= 40 wt. % (oleic acid) 5 <= C18:2 <= 10 wt. % (linoleic acid) and said fat comprising a solid fat profile comprising: 85% <= N 0 <= 95%; 75% <= N 10 <= 90%; 40% <= N 20 <= 60%; 18% <= N 25 <= 35%; 0% <= N 30 <= 10%; and 0% < N 35 wherein said coating having a Casson yield stress of 0.05 to 0.9 Pa and a Casson plastic viscosity of the coating composition is 50 to 250 mPas measured at 40 °C and wherein the saturated fats in the fat are 45-55 wt. %. 45 <= C16:0 <= 52 wt. % (palmitic acid) 4 <= C18:0 <= 8 wt. % (stearic acid) 30 <= C18:1 <= 40 wt. % (oleic acid) 5 <= C18:2 <= 10 wt. % (linoleic acid) 85% <= N 0 <= 95%; 75% <= N 10 <= 90%; 40% <= N 20 <= 60%; 18% <= N 25 <= 35%; 0% <= N 30 <= 10%; and 0% < N 35
A metal-resin joining method of joining a metal member to a composite material member including a fiber reinforced plastic composite material, the method comprising: an applying step of applying a first adhesive that is a thermosetting adhesive to a first region between the metal member and the composite material member , and applying a second adhesive that is a thermosetting adhesive to a second region between the metal member and the composite material member ; a provisional bonding step of irradiating a first irradiation region of the metal member opposed to the first region with a laser light , and heating and curing the first adhesive to provisionally bond the metal member and the composite material member together; and a main bonding step of curing the second adhesive to bond the metal member and the composite material member together after the provisional bonding step, characterized in that : the main bonding step separates the metal member from the composite material member when a joined position between the metal member and the composite material member is displaced after the provisional bonding step, and executes main bonding after aligning the respective members with each other. an applying step of applying a first adhesive that is a thermosetting adhesive to a first region between the metal member and the composite material member , and applying a second adhesive that is a thermosetting adhesive to a second region between the metal member and the composite material member ; a provisional bonding step of irradiating a first irradiation region of the metal member opposed to the first region with a laser light , and heating and curing the first adhesive to provisionally bond the metal member and the composite material member together; and a main bonding step of curing the second adhesive to bond the metal member and the composite material member together after the provisional bonding step, characterized in that : the main bonding step separates the metal member from the composite material member when a joined position between the metal member and the composite material member is displaced after the provisional bonding step, and executes main bonding after aligning the respective members with each other.
A semiconductor package , comprising: a package substrate having a first region and a second region defined between an edge of the package substrate and an edge of the first region ; a semiconductor die disposed on the package substrate in the first region ; a conductive shielding element disposed on the package substrate and covering the semiconductor die ; a three-dimensional antenna , comprising: a planar structure portion disposed on the package substrate in the second region ; and a bridge structure portion above the planar structure portion and connected thereto; and a molding compound entirely encapsulating the conductive shielding element and the 3D antenna ; wherein the planar structure portion of the 3D antenna comprises a folded pattern and first and second bar patterns connected thereto, wherein the first and second bar patterns extend from the folded pattern and wherein the first and second bar patterns are located at both first and second regions . a package substrate having a first region and a second region defined between an edge of the package substrate and an edge of the first region ; a semiconductor die disposed on the package substrate in the first region ; a conductive shielding element disposed on the package substrate and covering the semiconductor die ; a three-dimensional antenna , comprising: a planar structure portion disposed on the package substrate in the second region ; and a bridge structure portion above the planar structure portion and connected thereto; and a molding compound entirely encapsulating the conductive shielding element and the 3D antenna ; wherein the planar structure portion of the 3D antenna comprises a folded pattern and first and second bar patterns connected thereto, wherein the first and second bar patterns extend from the folded pattern and wherein the first and second bar patterns are located at both first and second regions . a planar structure portion disposed on the package substrate in the second region ; and a bridge structure portion above the planar structure portion and connected thereto; and a molding compound entirely encapsulating the conductive shielding element and the 3D antenna ; wherein the planar structure portion of the 3D antenna comprises a folded pattern and first and second bar patterns connected thereto, wherein the first and second bar patterns extend from the folded pattern and wherein the first and second bar patterns are located at both first and second regions .
A method performed by network equipment in a wireless communication network, the method comprising: receiving at least a portion of a subscription concealed identifier for a subscriber , wherein the subscription concealed identifier contains a concealed subscription permanent identifier for the subscriber , wherein the received at least a portion of the subscription concealed identifier indicates a sub-domain code , wherein the sub-domain code indicates a certain sub-domain, from among multiple sub-domains (30-1, 30-2,...30-N) of a home network of the subscriber , to which the subscriber is assigned; determining , based on the sub-domain code and from among multiple instances (24-1, 24-2,...24-M) of a provider network function in the home network respectively allocated to provide a service to be consumed for subscribers assigned to different sub-domains, an instance of the provider network function to provide the service to be consumed for the subscriber . receiving at least a portion of a subscription concealed identifier for a subscriber , wherein the subscription concealed identifier contains a concealed subscription permanent identifier for the subscriber , wherein the received at least a portion of the subscription concealed identifier indicates a sub-domain code , wherein the sub-domain code indicates a certain sub-domain, from among multiple sub-domains (30-1, 30-2,...30-N) of a home network of the subscriber , to which the subscriber is assigned; determining , based on the sub-domain code and from among multiple instances (24-1, 24-2,...24-M) of a provider network function in the home network respectively allocated to provide a service to be consumed for subscribers assigned to different sub-domains, an instance of the provider network function to provide the service to be consumed for the subscriber .
A smart watch , comprising: a display part configured to display digital content , the display part including a first display area and the second display area, wherein the first display area corresponds to a main display part and the second display area corresponds to a sub display part ; a first connection part connected to one side of the display part , the first connection part including a camera unit ; a second connection part connected to the other side of the display part , the second connection part including a battery unit , said battery unit configured to provide power to the smart watch ; and a comfort part configured to connect the first connection part and the second connection part ; wherein the thickness of the comfort part is thinner than the thickness of the display part , the first connection part, part , and the second connection part , characterised in that at least the main display part is comprised of an e-paper screen, and wherein the main display part is configured to provide a display area irrespective of whether power is supplied to it by the battery unit and the sub display part is configured to provide a display area only when power is supplied to it by the battery unit . a display part configured to display digital content , the display part including a first display area and the second display area, wherein the first display area corresponds to a main display part and the second display area corresponds to a sub display part ; a first connection part connected to one side of the display part , the first connection part including a camera unit ; a second connection part connected to the other side of the display part , the second connection part including a battery unit , said battery unit configured to provide power to the smart watch ; and a comfort part configured to connect the first connection part and the second connection part ; wherein the thickness of the comfort part is thinner than the thickness of the display part , the first connection part, part , and the second connection part , characterised in that at least the main display part is comprised of an e-paper screen, and wherein the main display part is configured to provide a display area irrespective of whether power is supplied to it by the battery unit and the sub display part is configured to provide a display area only when power is supplied to it by the battery unit .
A luminaire comprising: a light source packaged with primary optics ; and an elongated light integrator adapted to collect light at an entry port , to integrate the light via a plurality of internal reflections, and to release the light at an injection point which is positioned so the light is released in a collimator , the collimator being adapted to collimate the light released from the injection point into a narrow beam angle light beam ; wherein a shape of the entry port mirrors the shape of the light source package's primary optic; and wherein a gap between the light source and the entry port of the light integrator is filled with a light-transmitting adhesive. a light source packaged with primary optics ; and an elongated light integrator adapted to collect light at an entry port , to integrate the light via a plurality of internal reflections, and to release the light at an injection point which is positioned so the light is released in a collimator , the collimator being adapted to collimate the light released from the injection point into a narrow beam angle light beam ; wherein a shape of the entry port mirrors the shape of the light source package's primary optic; and wherein a gap between the light source and the entry port of the light integrator is filled with a light-transmitting adhesive. wherein a shape of the entry port mirrors the shape of the light source package's primary optic; and wherein a gap between the light source and the entry port of the light integrator is filled with a light-transmitting adhesive.
A coating composition for sound and vibration damping comprising: (a) an aqueous dispersion of polymeric microparticles prepared from components comprising a non-migrating surfactant comprising a phosphonate ester; and (b) a filler material comprising 40% to 80% by weight based on the total weight of the coating composition. (a) an aqueous dispersion of polymeric microparticles prepared from components comprising a non-migrating surfactant comprising a phosphonate ester; and (b) a filler material comprising 40% to 80% by weight based on the total weight of the coating composition.
An interfering RNA of: asialoglycoprotein receptor 1 (ASGR-1), and/or asialoglycoprotein receptor 2 (ASGR-2) for use for treating or preventing a cardiovascular disease in a patient.
Use of a catalyst for aldehyde production through selective oxidation of alkanol with oxygen, characterised in that said catalyst has a spinel structure and comprises iron, oxygen, and molybdenum.
A cosmetic use, via an oral route, of a cosmetic composition consisting of at least one polyunsaturated fatty acid applied in the form of a fish oil and a blackcurrant pip oil, vitamin D, a carotenoid, said carotenoid being lycopene, zinc, vitamin E, vitamin C and, optionally, at least one excipient, for improving the gloss of the hair and/or improving the growth of thick capillary fibers and/or improving the gentleness and strength of the capillary fibers, wherein said cosmetic composition does not comprise any vitamin B.
A method of detecting weld defects in real time, the method comprising: (a) correlating potential weld defects with images of a mock weld molten pool and images of a mock weld ripple shape and fillet geometry; (b) depositing weld metal into an annular groove in a production weld operation; (c) a first camera capturing images of a production weld molten pool during the production weld operation; (d) a second camera capturing images of a production weld ripple shape and fillet geometry during the production weld operation; and (e) processing the images captured in (c) and (d) and computing an aggregate probability that a weld position corresponding to the images captured in (c) and (d) contains a defect based on the potential defects correlated in (a). (a) correlating potential weld defects with images of a mock weld molten pool and images of a mock weld ripple shape and fillet geometry; (b) depositing weld metal into an annular groove in a production weld operation; (c) a first camera capturing images of a production weld molten pool during the production weld operation; (d) a second camera capturing images of a production weld ripple shape and fillet geometry during the production weld operation; and (e) processing the images captured in (c) and (d) and computing an aggregate probability that a weld position corresponding to the images captured in (c) and (d) contains a defect based on the potential defects correlated in (a).
Projection apparatus, comprising a lighting system , at least one light valve and a projection lens ; wherein the lighting system is configured to provide an illuminating light beam (LB), the lighting system comprising: at least one light source configured to provide at least one light beam (L); a depolarization element disposed on a transmission path of the at least one light beam (L); and a light homogenization element , wherein the depolarization element is located between the at least one light source and the light homogenization element , and wherein light homogenization element is configured to allow the at least one light beam (L) to pass so as to form the illuminating light beam (LB); wherein the depolarization element comprises a first optical element , and the first optical element comprises a first optical axis; and wherein the first optical element is made of a material having birefringence characteristic and a direction of the first optical axis is a direction of the optical axis of crystal of the material having birefringence characteristic, and the incidence direction where the at least one light beam (L) is transmitted to the first optical element is not parallel to the first optical axis; and wherein the at least one light valve is disposed on a transmission path of the illuminating light beam (LB) and configured to convert the illuminating light beam (LB) into an image light beam (LI); and the projection lens is disposed on a transmission path of the image light beam (LI) and configured to form the image light beam (LI) into a projection light beam (LP). at least one light source configured to provide at least one light beam (L); a depolarization element disposed on a transmission path of the at least one light beam (L); and a light homogenization element , wherein the depolarization element is located between the at least one light source and the light homogenization element , and wherein light homogenization element is configured to allow the at least one light beam (L) to pass so as to form the illuminating light beam (LB); wherein the depolarization element comprises a first optical element , and the first optical element comprises a first optical axis; and wherein the first optical element is made of a material having birefringence characteristic and a direction of the first optical axis is a direction of the optical axis of crystal of the material having birefringence characteristic, and the incidence direction where the at least one light beam (L) is transmitted to the first optical element is not parallel to the first optical axis; and wherein the at least one light valve is disposed on a transmission path of the illuminating light beam (LB) and configured to convert the illuminating light beam (LB) into an image light beam (LI); and the projection lens is disposed on a transmission path of the image light beam (LI) and configured to form the image light beam (LI) into a projection light beam (LP).
Method for producing a PV layer sequence, in which - at room temperature, - inorganic core components are processed - using aqueous solutions or aqueous dispersions by means of printing methods to form a complete PV layer which can be contacted via electrodes, the method comprising the steps that - in a step a), semiconductor particles , which are 0.5 to 100 micrometers in size and consist of at least two elements, are dispersed in an aqueous reaction solution , are oxidatively or reductively etched and are applied over the surface of a substrate , - in a step b), the reaction solution is converted into a cured reaction solution layer with volume contraction, the particles projecting above the cured reaction solution layer and having an underside, which is anchored in the reaction solution layer , and an upper side, which projects above the reaction solution layer , - in a step c), the upper side of the particles is provided, at least in portions, with an upper-side contact , characterized in that, also in step b), - adjacent surface portions of the particles are conditioned using different solutions, whereby the adjacent surface portions of the particles are formed as an alternating sequence of portions of reductively treated particles and portions of oxidatively treated particles , - at room temperature, - inorganic core components are processed - using aqueous solutions or aqueous dispersions by means of printing methods to form a complete PV layer which can be contacted via electrodes, the method comprising the steps that - in a step a), semiconductor particles , which are 0.5 to 100 micrometers in size and consist of at least two elements, are dispersed in an aqueous reaction solution , are oxidatively or reductively etched and are applied over the surface of a substrate , - in a step b), the reaction solution is converted into a cured reaction solution layer with volume contraction, the particles projecting above the cured reaction solution layer and having an underside, which is anchored in the reaction solution layer , and an upper side, which projects above the reaction solution layer , - in a step c), the upper side of the particles is provided, at least in portions, with an upper-side contact , characterized in that, also in step b), - adjacent surface portions of the particles are conditioned using different solutions, whereby the adjacent surface portions of the particles are formed as an alternating sequence of portions of reductively treated particles and portions of oxidatively treated particles ,