mhurhangee/patent-ind-claim-en huggingface dataset:
Device for moving a furniture flap received on a furniture body of a piece of furniture having a spring-force unit , which assists the opening and/or the closing of the furniture flap by a predetermined force action of the spring-force unit via an adjusting arm engaging with the furniture flap in the mounted state, characterized in that an electrically switchable adjusting unit is provided, which is coupled to the spring-force unit in such a way that a movement of the spring-force unit into a predeterminable adjustment position of the spring-force unit on the piece of furniture occurs by a switching of the adjusting unit in the mounted state of the device so that a degree of force action of the spring-force unit on the furniture flap can be adjusted in dependence on the adjustment position of the spring-force unit , wherein the switchable adjusting unit is not active, or not effective, during the manual movement by the operator, characterized in that the adjusting unit is adapted to operate a locking mechanism for locking the furniture flap in the closed position on the furniture body .
System for automatic storage, picking, and packing of items, the system comprising - At least one storage box ; - An arrangement of shelves for supporting the at least one storage box for storing the items; - A movable robotic arm , the robotic arm being configured for reaching into and picking an item from a storage box on a shelf , and for grabbing and moving a storage box ; - A camera mounted on the robotic arm ; - A control unit comprising software for analysing data from the camera substantially in real-time, identifying the item to be picked by the robotic arm , and packing the picked item into a packing box ; characterised in that the arrangement of shelves comprises a first sub arrangement of shelves with a first vertical distance between the shelves , and a second sub arrangement of shelves with a second vertical distance between the shelves , wherein the first vertical distance is chosen to be able to accommodate the storage boxes and allow the robotic arm to reach into and pick an item from said storage boxes in the first sub arrangement of shelves , and wherein the second vertical distance is chosen so that each storage box must be moved out from the second sub arrangement of shelves before the robotic arm can pick an item from the storage box . - At least one storage box ; - An arrangement of shelves for supporting the at least one storage box for storing the items; - A movable robotic arm , the robotic arm being configured for reaching into and picking an item from a storage box on a shelf , and for grabbing and moving a storage box ; - A camera mounted on the robotic arm ; - A control unit comprising software for analysing data from the camera substantially in real-time, identifying the item to be picked by the robotic arm , and packing the picked item into a packing box ;
Head lamp lighting system of a vehicle comprising a DC/DC boost converter configured to provide a common boosted output voltage from a battery voltage ; a plurality of DC/DC buck converters , each DC/DC buck converter configured to provide an adjusted buck output current from the common boosted output voltage ; a plurality of strings of Light-Emitting Diodes ; each string of Light-Emitting Diodes being electrically connected to only one adjusted buck output current and vice versa; characterized in that the head lamp lighting system further comprises a main controller electrically connected to the DC/DC boost converter and configured to provide a boost switching frequency value to the DC/DC boost converter ; a battery voltage supervisor electrically connected to the main controller and electrically connected to the battery voltage , said battery voltage supervisor being configured to provide the battery voltage value to the main controller ; the main controller being configured to determine the boost switching frequency value according to the provided battery voltage value. a DC/DC boost converter configured to provide a common boosted output voltage from a battery voltage ; a plurality of DC/DC buck converters , each DC/DC buck converter configured to provide an adjusted buck output current from the common boosted output voltage ; a plurality of strings of Light-Emitting Diodes ; each string of Light-Emitting Diodes being electrically connected to only one adjusted buck output current and vice versa; characterized in that the head lamp lighting system further comprises a main controller electrically connected to the DC/DC boost converter and configured to provide a boost switching frequency value to the DC/DC boost converter ; a battery voltage supervisor electrically connected to the main controller and electrically connected to the battery voltage , said battery voltage supervisor being configured to provide the battery voltage value to the main controller ; the main controller being configured to determine the boost switching frequency value according to the provided battery voltage value.
Fiberballs having a core region and a shell region, wherein the fiber density in the core region is higher than the fiber density in the shell region and wherein at least 50 % by weight of the fibers, based on the total weight of the fibers contained in the fiberballs, have a length of at least 60 mm, preferably a length in the range of 60 mm to 120 mm, in particular a length in the range of 65 mm to 100 mm.
A device for process monitoring in a deposition welding method, comprising: an optical detector optically incorporated into a beam path of a laser beam , wherein said laser beam is emitted from a laser-beam source in a directed manner in order to melt material to be deposited, is guided via an optical system onto a workpiece and is thereby focused onto a surface of said workpiece to be processed, and said optical system is configured to transmit a detector signal dependent on the temperature of said workpiece and the nozzle geometry in the direction opposing said laser beam to said optical detector , said signal being detected by said optical detector and converted into an electrical detector signal , a conversion unit converting said electrical detector signal to an image that reproduces a temperature-dependent intensity distribution of said detector signal detected by said optical detector , and an evaluation unit configured up to further process said image , wherein, for this purpose, said evaluation unit further comprises: a means for determining a monitoring region of said image , a means for repeatedly detecting a surface region of said monitoring region in which the intensity exceeds a specified minimum value , characterized by a means for detecting a time period during which the detected surface region is greater than a specified minimum value , and a means for stopping said deposition welding process if said time period of said detected surface region is greater than a specified time value . an optical detector optically incorporated into a beam path of a laser beam , wherein said laser beam is emitted from a laser-beam source in a directed manner in order to melt material to be deposited, is guided via an optical system onto a workpiece and is thereby focused onto a surface of said workpiece to be processed, and said optical system is configured to transmit a detector signal dependent on the temperature of said workpiece and the nozzle geometry in the direction opposing said laser beam to said optical detector , said signal being detected by said optical detector and converted into an electrical detector signal , a conversion unit converting said electrical detector signal to an image that reproduces a temperature-dependent intensity distribution of said detector signal detected by said optical detector , and an evaluation unit configured up to further process said image , wherein, for this purpose, said evaluation unit further comprises: a means for determining a monitoring region of said image , a means for repeatedly detecting a surface region of said monitoring region in which the intensity exceeds a specified minimum value , a means for determining a monitoring region of said image , a means for repeatedly detecting a surface region of said monitoring region in which the intensity exceeds a specified minimum value , characterized by a means for detecting a time period during which the detected surface region is greater than a specified minimum value , and a means for stopping said deposition welding process if said time period of said detected surface region is greater than a specified time value .
An intelligently-connected vehicle LED headlight using graphene, comprising an imaging lens assembly, an LED light source and a heat dissipation assembly, wherein the imaging lens assembly is connected to the LED light source , and the LED light source is connected to the heat dissipation assembly, the heat generated by the LED light source is dissipated by the heat dissipation assembly, and the light of the LED light source is changed by the imaging lens assembly, the imaging lens assembly enables the light emission manner to be a way of horizontally emitting light by imaging, wherein the heat dissipation assembly comprises a super-heat-conducting vapor chamber , a radiator , and a graphene heat-conducting glue, and the LED light source , the graphene heat-conducting glue, and the super-heat-conducting vapor chamber are provided inside a housing of the radiator .
An electronic device, comprising: a display module , configured to display an image; a mainboard , comprising a radio frequency circuit; a metal frame surrounding the display module , coupled to the radio frequency circuit and configured to receive or transmit a radio frequency signal; and a shield structure , located in the display module or on a side of the display module closer to the mainboard , and connected to the display module , wherein the shield structure comprises a metal shield layer ; the metal shield layer is insulated from the metal frame and the radio frequency circuit; and the metal shield layer is annular. a display module , configured to display an image; a mainboard , comprising a radio frequency circuit; a metal frame surrounding the display module , coupled to the radio frequency circuit and configured to receive or transmit a radio frequency signal; and a shield structure , located in the display module or on a side of the display module closer to the mainboard , and connected to the display module , wherein the shield structure comprises a metal shield layer ; the metal shield layer is insulated from the metal frame and the radio frequency circuit; and the metal shield layer is annular.
An oxidation catalyst composite for abatement of exhaust gas emissions from an engine comprising: a carrier substrate having a length, an inlet end and an outlet end, a diesel oxidation catalyst catalytic material on the carrier, the diesel oxidation catalyst catalytic material including a first washcoat zone and a second washcoat zone; the first washcoat zone comprising a first washcoat layer including one or more of platinum (Pt) and palladium (Pd) components and a first refractory metal oxide support, the first washcoat zone adjacent the inlet end of the carrier substrate, wherein the first washcoat layer further comprises one or more zeolites; and the second washcoat zone comprising a second washcoat layer including one or more of platinum and palladium components and a second refractory metal oxide support, the second washcoat layer adjacent the outlet end of the carrier substrate, wherein greater than 50% of the total palladium is applied to the front (inlet) zone of the carrier substrate and greater than 50% of the total platinum is applied to the rear (outlet) zone . a carrier substrate having a length, an inlet end and an outlet end, a diesel oxidation catalyst catalytic material on the carrier, the diesel oxidation catalyst catalytic material including a first washcoat zone and a second washcoat zone; the first washcoat zone comprising a first washcoat layer including one or more of platinum (Pt) and palladium (Pd) components and a first refractory metal oxide support, the first washcoat zone adjacent the inlet end of the carrier substrate, wherein the first washcoat layer further comprises one or more zeolites; and the second washcoat zone comprising a second washcoat layer including one or more of platinum and palladium components and a second refractory metal oxide support, the second washcoat layer adjacent the outlet end of the carrier substrate, wherein greater than 50% of the total palladium is applied to the front (inlet) zone of the carrier substrate and greater than 50% of the total platinum is applied to the rear (outlet) zone .
A computer-implemented method comprising: receiving a plurality of text messages from a sender (120A-C) from a plurality of different telephone numbers; using a clustering algorithm to associate the plurality of different telephone numbers with the sender (120A-C); tokenizing the plurality of text messages to yield a plurality of tokens; matching one or more tokens of the plurality of tokens in the plurality of text messages to one or more bulk string tokens stored in a database ; detecting one or more homoglyphs in the plurality of text messages; detecting one or more uniform resource locators, URLs, in the plurality of text messages; flagging the sender (120A-C) based at least on the one or more matching tokens, the one or more detected homoglyphs, and the one or more detected URLs; and based on flagging the sender (120A-C), blocking one or more messages from the sender (120A-C). receiving a plurality of text messages from a sender (120A-C) from a plurality of different telephone numbers; using a clustering algorithm to associate the plurality of different telephone numbers with the sender (120A-C); tokenizing the plurality of text messages to yield a plurality of tokens; matching one or more tokens of the plurality of tokens in the plurality of text messages to one or more bulk string tokens stored in a database ; detecting one or more homoglyphs in the plurality of text messages; detecting one or more uniform resource locators, URLs, in the plurality of text messages; flagging the sender (120A-C) based at least on the one or more matching tokens, the one or more detected homoglyphs, and the one or more detected URLs; and based on flagging the sender (120A-C), blocking one or more messages from the sender (120A-C).
Cleaning device for hollow instrument cleaning for medical product cleaning and for the operating theatre, comprising a screen basket with apertures and basket adapter and a medium distributor with medium distributor adapter and medium space , whereby the basket adapters and the medium distributor adapters are matched to one another, characterised in that the cleaning device at least has a fixing part , whereby the fixing part comprises a manually rotatable support axle , pin, rod or bolt and this being mounted on the outside of a medium wall of the medium distributor or is guided through and held by the wall of the medium space of the medium distributor so that a pressing force of the fixing part with the medium distributor with a screen basket wall , a screen basket base or a support surface fastened to one of these can be at least manually controlled, and thereby a coupling of couplable basket adapters with medium distribution adapters is effected in such a way that adapter channels are coupled to one another.
A method performed by a user equipment, UE, to decode an enhanced physical downlink control channel, EPDCCH, that conveys a downlink control information, DCI, format and is transmitted by a base station over a transmission time interval in a number of control channel elements, ECCEs, from a set of ECCEs that are located in one or more physical resource block, PRB, pairs, each ECCE including a number of available sub-carriers for EPDCCH transmissions and each PRB pair including a number of sub-carriers over the transmission time interval, and the DCI format scheduling a reception by the UE of a physical downlink shared channel, PDSCH, in a downlink bandwidth, the method comprising: identifying the downlink bandwidth and downlink control information, DCI, formats to be monitored; identifying a number of EPDCCH candidates based on the identified downlink bandwidth and the identified DCI formats; decoding control information on a candidate EPDCCH for a first DCI format over a number of ECCES from a first set of ECCEs independently of the downlink bandwidth; and decoding control information on a candidate EPDCCH for a second DCI format, over a number of ECCEs from a second set of ECCEs in response to the downlink bandwidth being greater than or equal to a threshold identifying the downlink bandwidth and downlink control information, DCI, formats to be monitored; identifying a number of EPDCCH candidates based on the identified downlink bandwidth and the identified DCI formats; decoding control information on a candidate EPDCCH for a first DCI format over a number of ECCES from a first set of ECCEs independently of the downlink bandwidth; and decoding control information on a candidate EPDCCH for a second DCI format, over a number of ECCEs from a second set of ECCEs in response to the downlink bandwidth being greater than or equal to a threshold
A dust extraction device comprising: a body having a chamber ; a first inlet communicating with the chamber extending along a first inlet axis and adapted for releasable connection to a source of pressurized gas; a second inlet communicating with the chamber extending along a second inlet axis and adapted for releasable connection to a dust source; and an outlet extending along an outlet axis and communicating with the chamber , the outlet adapted for releasable connection to a receptacle , wherein the outlet comprises at least one baffle that diverts flow of the gas within the outlet to create an air vortex within the outlet that results in a change from laminar flow to transient flow, characterised in that the at least one baffle has a helical profile. a body having a chamber ; a first inlet communicating with the chamber extending along a first inlet axis and adapted for releasable connection to a source of pressurized gas; a second inlet communicating with the chamber extending along a second inlet axis and adapted for releasable connection to a dust source; and an outlet extending along an outlet axis and communicating with the chamber , the outlet adapted for releasable connection to a receptacle , wherein the outlet comprises at least one baffle that diverts flow of the gas within the outlet to create an air vortex within the outlet that results in a change from laminar flow to transient flow,
A process for producing a leather-like nonwoven fabric with microfibers, the process consisting of the successive steps of: (a) adding an aqueous solution of a polyvinyl alcohol having a degree of saponification of 98% or more and a degree of polymerization of 800 to 3,500 and a viscosity of 10 to 50 mPa·s at 20 °C, 4% by mass and a film thereof having a thickness of 100 μm at 20°C and a humidity of 65% having a tensile strength of 400 to 800 kg/cm 2 to a fibrous substrate in an amount of 0.1 to 50% by mass relative to the total mass of fibers in the fibrous substrate; (b) adding a waterborne polyurethane dispersion to the fibrous substrate with the added polyvinyl alcohol; and (c) removing the polyvinyl alcohol from the fibrous substrate with the added waterborne polyurethane. (a) adding an aqueous solution of a polyvinyl alcohol having a degree of saponification of 98% or more and a degree of polymerization of 800 to 3,500 and a viscosity of 10 to 50 mPa·s at 20 °C, 4% by mass and a film thereof having a thickness of 100 μm at 20°C and a humidity of 65% having a tensile strength of 400 to 800 kg/cm 2 to a fibrous substrate in an amount of 0.1 to 50% by mass relative to the total mass of fibers in the fibrous substrate; (b) adding a waterborne polyurethane dispersion to the fibrous substrate with the added polyvinyl alcohol; and (c) removing the polyvinyl alcohol from the fibrous substrate with the added waterborne polyurethane.
A method for operating a service application entity configured to provide a service to a mobile entity in a mobile communications network based on a client session, the method comprising: - determining a context information which comprises at least information required by another service application entity providing the same type of service to continue the client session with the mobile entity, - pushing the context information towards a radio access node of the mobile communications network to which the mobile entity is currently connected, wherein the context information is pushed to the radio access node whenever the context information is changed at the service application entity. - determining a context information which comprises at least information required by another service application entity providing the same type of service to continue the client session with the mobile entity, - pushing the context information towards a radio access node of the mobile communications network to which the mobile entity is currently connected, wherein the context information is pushed to the radio access node whenever the context information is changed at the service application entity.
A light emitting diode, comprising: - a metal member ; - a light-emitting chip arranged on the metal member , the light emitting chip to generate light; and - a housing combined with the metal member to fix the metal member , the housing having an opening portion exposing at least a portion of the light-emitting chip and the metal member , wherein the metal member comprises a base metal layer and a light-reflecting layer , wherein the metal member is embodied by a lead frame, the lead frame to apply electric power to the light-emitting chip , wherein the light-reflecting layer includes metal of high reflectivity for enhancing light reflectivity of the lead frame , and wherein the light-reflecting layer comprises silver, characterized by a nickel layer arranged on the base metal layer , and a protection layer arranged on the light-reflecting layer and comprising a metal, and in that the light-reflecting layer is arranged on the nickel layer , wherein the light-reflecting layer has a thickness of 1 micrometer to 50 micrometers. - a metal member ; - a light-emitting chip arranged on the metal member , the light emitting chip to generate light; and - a housing combined with the metal member to fix the metal member , the housing having an opening portion exposing at least a portion of the light-emitting chip and the metal member , characterized by a nickel layer arranged on the base metal layer , and a protection layer arranged on the light-reflecting layer and comprising a metal, and in that the light-reflecting layer is arranged on the nickel layer , wherein the light-reflecting layer has a thickness of 1 micrometer to 50 micrometers.
Use of isoxazole 9 (ISX 9) for producing a beta cell in vitro, wherein the beta cell is produced in vitro from a pancreatic endoderm (PE) cell.