mhurhangee/patent-ind-claim-en huggingface dataset:
A composite blade formed by laying up composite layers containing reinforcing fiber and resin, the composite blade comprising: a blade root provided to be mounted in a blade groove; an airfoil extending from the blade root to a front end side; and a metal patch provided to be mounted between the blade groove and the blade root , and bonded to the blade root , wherein the blade root is a laminate with the laid-up composite layers and includes an airfoil laminate continuous from the airfoil , and a blade root outer laminate mounted on the outer side of the airfoil laminate , characterized in that the blade root further includes a blade root inner laminate mounted on the inner side of the airfoil laminate , and the reinforcing fiber is oriented in the blade root inner laminate and the blade root outer laminate so that a thermal linear expansion coefficient of the blade root is approximate to a thermal linear expansion coefficient of the metal patch . a blade root provided to be mounted in a blade groove; an airfoil extending from the blade root to a front end side; and a metal patch provided to be mounted between the blade groove and the blade root , and bonded to the blade root , wherein the blade root is a laminate with the laid-up composite layers and includes an airfoil laminate continuous from the airfoil , and a blade root outer laminate mounted on the outer side of the airfoil laminate , an airfoil laminate continuous from the airfoil , and a blade root outer laminate mounted on the outer side of the airfoil laminate , characterized in that the blade root further includes a blade root inner laminate mounted on the inner side of the airfoil laminate , and the reinforcing fiber is oriented in the blade root inner laminate and the blade root outer laminate so that a thermal linear expansion coefficient of the blade root is approximate to a thermal linear expansion coefficient of the metal patch .
A resin composition for sealing electrical and electronic parts, comprising: a copolymerized polyester (A) comprising a hard segment consisting of a polyester segment and a soft segment consisting of a polyalkylene glycol segment and/or a polylactone segment, wherein the total of terephthalic acid and naphthalenedicarboxylic acid in the polyester (A) is 50% by mol or more of the total acid components; an epoxy resin (B), wherein the epoxy resin (B) is a phosphorus-free epoxy resin (B2); a polyolefin resin (C); a phosphoric ester (D), wherein the phosphoric ester (D) comprises isopropylated triaryl phosphate of formula and triphenylphosphate of formula in a ratio of 99/1 to 1/99 (% by weight): wherein m is an integer of 1 to 5, and and further comprising an alkyl benzene resin (E) and/or a phenol resin (F). a copolymerized polyester (A) comprising a hard segment consisting of a polyester segment and a soft segment consisting of a polyalkylene glycol segment and/or a polylactone segment, wherein the total of terephthalic acid and naphthalenedicarboxylic acid in the polyester (A) is 50% by mol or more of the total acid components; an epoxy resin (B), wherein the epoxy resin (B) is a phosphorus-free epoxy resin (B2); a polyolefin resin (C); a phosphoric ester (D), wherein the phosphoric ester (D) comprises isopropylated triaryl phosphate of formula and triphenylphosphate of formula in a ratio of 99/1 to 1/99 (% by weight): wherein m is an integer of 1 to 5, and and further comprising an alkyl benzene resin (E) and/or a phenol resin (F).
A printed antenna, wherein the printed antenna comprises a printed circuit board , an antenna pattern, and a signal feed-in point , wherein the antenna pattern is printed on a front surface of the printed circuit board , and the antenna pattern comprises a first antenna pattern , a second antenna pattern , and a third antenna pattern ; the signal feed-in point is connected to the second antenna pattern ; one end of a side, which is laid out along an edge of the printed circuit board , of the first antenna pattern is connected to the second antenna pattern ; the second antenna pattern is vertically laid out in parallel to an edge of the printed circuit board , wherein the second antenna pattern and the first antenna pattern form a non-closed rectangular; and the third antenna pattern comprises a first part and a second part, characterized in that one end of the first part of the third antenna pattern is separately connected to the first antenna pattern , and one end of the second part of the third antenna pattern is separately connected to the second antenna pattern , and the first part and the second part are arranged in parallel and not directly connected to each other in the non-closed rectangle, wherein the printed antenna further comprises at least one welding element each comprising at least one of the following: a capacitor, an inductor, or a resistor, and wherein the one end of the first part is connected to the first antenna pattern via one of the the at least one welding elements , and/or, the one end of the second part is connected to the second antenna pattern via another one of the at least one welding elements .
Counterweight for an elevator system , wherein the counterweight has an asymmetrical cross-section in a horizontal sectional plane, wherein the counterweight has a first and a second longitudinal flank , which each extend between a first and a second end face , in particular the first longitudinal flank is substantially perpendicular to the first end face and to the second end face , wherein, on the counterweight , between the first end face and the second end face , an intermediate region is formed in which the counterweight has a smaller width than a first width (B1) on the first end face , wherein, in the intermediate region , a holding device is arranged on the counterweight , by means of which the counterweight can be attached to a guide rail and moved along the guide rail in a guided manner, characterized in that the first longitudinal flank runs substantially as a plane from the first end face to the second end face .
A control device in communication with a packaging device configured to form packaging material, the control device comprising a processor and a memory , the memory containing computer readable instructions that, when executed by the processor, cause the processor to: receive a first user input corresponding to first parameters for forming a first unit of the packaging material; add first instructions corresponding to the first unit to a queue for the packaging device; receive a second user input corresponding to second parameters for forming a second unit of the packaging material; add second instructions corresponding to the second unit to the queue; and transmit the first and second instructions to the packaging device to cause the packaging device to create the first and second units of packaging material according to the first and second parameters. receive a first user input corresponding to first parameters for forming a first unit of the packaging material; add first instructions corresponding to the first unit to a queue for the packaging device; receive a second user input corresponding to second parameters for forming a second unit of the packaging material; add second instructions corresponding to the second unit to the queue; and transmit the first and second instructions to the packaging device to cause the packaging device to create the first and second units of packaging material according to the first and second parameters.
Method for improving the dynamic range of a device for detecting light, preferably for application in a microscope, comprising a gaussian distribution of the detection light on the detector surface, at least two detection regions , which are each formed from an arrangement (array) of a plurality of single-photon avalanche diodes (SPADs) and each have at least one signal output , and of which a first detection region of SPADs is located at an inner position in the detection surface and a second detection region of SPADs is located at an outer position in the detection surface, characterized in that a characteristic curve is determined for each of the detection regions , and in that the characteristic curves are combined and/or computed with one another in order to obtain a correction curve and/or a correction factor , the correction curve and/or the correction factor being determined by division of the characteristic curves .
A method comprising: maintaining, in a cache of data comprising data that is also stored in a database , a data item (117 1C ) and metadata (119 1C ) associated with the data item (117 1C ), wherein the metadata (119 1C ) indicates when the data item (117 1C ) was last marked as in sync with the database ; receiving, from a data consumer , a policy that indicates a cutoff point, wherein a data item (117 1C ) last marked, according to the metadata (119 1C ), as in sync with the database at any particular point before the cutoff point is deemed invalid and a data item (117 1C ) last marked, according to the metadata (119 1C ), as in sync with the database at any particular point after the cutoff point is deemed valid; processing a request received from the data consumer for a plurality of data items comprising the data item (117 1C ), wherein: the cutoff point is before a particular time that the request was received, and according to the policy , return of the data item (117 1C ) from the cache is conditional upon evaluation of the cutoff point relative to the metadata (119 1C ) associated with the data item (117 1C ); comparing the metadata (119 1C ) associated with the data item (117 1C ) to the cutoff point to determine whether the data item (117 1C ) is valid; and in response to determining that the data item (117 1C ) in the cache is valid, returning the data item (117 1C ) from the cache . maintaining, in a cache of data comprising data that is also stored in a database , a data item (117 1C ) and metadata (119 1C ) associated with the data item (117 1C ), wherein the metadata (119 1C ) indicates when the data item (117 1C ) was last marked as in sync with the database ; receiving, from a data consumer , a policy that indicates a cutoff point, wherein a data item (117 1C ) last marked, according to the metadata (119 1C ), as in sync with the database at any particular point before the cutoff point is deemed invalid and a data item (117 1C ) last marked, according to the metadata (119 1C ), as in sync with the database at any particular point after the cutoff point is deemed valid; processing a request received from the data consumer for a plurality of data items comprising the data item (117 1C ), wherein: the cutoff point is before a particular time that the request was received, and according to the policy , return of the data item (117 1C ) from the cache is conditional upon evaluation of the cutoff point relative to the metadata (119 1C ) associated with the data item (117 1C ); the cutoff point is before a particular time that the request was received, and according to the policy , return of the data item (117 1C ) from the cache is conditional upon evaluation of the cutoff point relative to the metadata (119 1C ) associated with the data item (117 1C ); comparing the metadata (119 1C ) associated with the data item (117 1C ) to the cutoff point to determine whether the data item (117 1C ) is valid; and in response to determining that the data item (117 1C ) in the cache is valid, returning the data item (117 1C ) from the cache .
A commercial cooking equipment exhaust system , comprising: at least one filter unit positioned along an exhaust flow path; at least one electrostatic precipitator unit positioned downstream of the filter unit along the exhaust flow path and through which exhaust gases are moved during exhaust operations, the electrostatic precipitator including an ionizing section upstream of a collecting section , wherein the ionizing section comprises a plurality of ionizing wires and a plurality of ground plates , said ground plates defining a plurality of ionizing flow paths through the ionizing section , each ionizing flow path having a side profile pattern, characterizing in that the side profile pattern of each ionizing flow path varies in width between at least one wide section and at least one narrow section , wherein the ionizing wires are located in wide sections and not in narrow sections , wherein the collecting section comprises a plurality of collecting plates , said collecting plates defining a plurality of collecting flow paths through the collecting section , each collecting flow path having a side profile pattern, wherein the side profile pattern of each collecting flow path has a substantially uniform width and a repeating undulating side profile pattern, and wherein the plurality of ionizing wires include multiple first ionizing wires and multiple second ionizing wires , the first ionizing wires lying in a first common plane perpendicular to a flow direction through the electrostatic precipitator , and the second ionizing wires lying in a second common plane perpendicular to the flow direction. at least one filter unit positioned along an exhaust flow path; at least one electrostatic precipitator unit positioned downstream of the filter unit along the exhaust flow path and through which exhaust gases are moved during exhaust operations, the electrostatic precipitator including an ionizing section upstream of a collecting section , wherein the ionizing section comprises a plurality of ionizing wires and a plurality of ground plates , said ground plates defining a plurality of ionizing flow paths through the ionizing section , each ionizing flow path having a side profile pattern, characterizing in that the side profile pattern of each ionizing flow path varies in width between at least one wide section and at least one narrow section , wherein the ionizing wires are located in wide sections and not in narrow sections , wherein the collecting section comprises a plurality of collecting plates , said collecting plates defining a plurality of collecting flow paths through the collecting section , each collecting flow path having a side profile pattern, wherein the side profile pattern of each collecting flow path has a substantially uniform width and a repeating undulating side profile pattern, and wherein the plurality of ionizing wires include multiple first ionizing wires and multiple second ionizing wires , the first ionizing wires lying in a first common plane perpendicular to a flow direction through the electrostatic precipitator , and the second ionizing wires lying in a second common plane perpendicular to the flow direction.
An electric motor drive , comprising an electric motor , a controller , and at least one electrical power source which is part of the vehicle electrical system of a motor vehicle, wherein the controller is designed to determine and adjust a nominal torque of the electric motor , characterized in that the electric motor drive has at least one sensor system by means of which a regenerative operation of the electric motor can be detected, wherein the controller is designed to determine at least one reduction factor (R1, R2) for the nominal torque depending on at least one measured variable; wherein both a vehicle electrical system voltage (U B ) and a feedback current (I B ) are taken into account as measured variables; wherein the controller is designed to determine a first reduction factor (R1) depending on the vehicle electrical system voltage (U B ) and a second reduction factor (R2) depending on the feedback current (I B ).
Motor vehicle headlamp having a substantially flat shielding screen for shielding incoming solar radiation, the shielding screen being arranged between a lighting unit having at least one light source and a projection optical system and it has a light exit opening for light emitted forwards by the luminaire unit, the light emitted by the luminaire unit being projected as a light image into the traffic area by means of the projection optics, and the screening screen being located outside the focal plane of the projection optics, characterized in that deflecting structures are formed at least in regions on the border of the light exit opening of the shielding screen , which structures lead to a deflection of the stray light which emanates from the light unit and is undesirable in the light image.
A semiconductor packaging structure, comprising: a semiconductor chip having an active surface and an opposing inactive surface ; a plurality of electrode pads disposed on the active surface; a plurality of metal bumps disposed on the electrode pads; a packaging layer encapsulating the semiconductor chip with the active surface of the semiconductor chip exposed therefrom; a dielectric layer formed on the active surface and a surface of the packaging layer at the same side with the active surface and having a plurality of wiring pattern opening areas for the metal bumps to be exposed therefrom; a wiring layer formed in the wiring pattern opening areas and electrically connected to the metal bumps, wherein the wiring layer extends to the dielectric layer on the surface of the packaging layer formed at the same side with the active surface; an insulating protective formed on the dielectric layer and the wiring layer, and having a plurality of openings for a portion of the wiring layer to be exposed therefrom; a metallic foil formed on the surface of the packaging layer at the same side with the inactive surface; and a plurality of metallic protrusions formed on the metallic foil and penetrating the packaging layer to be in contact with the inactive surface of the semiconductor chip, so as to dissipate heat generated by the semiconductor chip to an ambient environment, wherein the metallic protrusions are printed bumps or punched bumps, and wherein for the punched bumps, dimples are formed on an exposed surface of the metallic foil and conform with the metallic protrusions. a semiconductor chip having an active surface and an opposing inactive surface ; a plurality of electrode pads disposed on the active surface; a plurality of metal bumps disposed on the electrode pads; a packaging layer encapsulating the semiconductor chip with the active surface of the semiconductor chip exposed therefrom; a dielectric layer formed on the active surface and a surface of the packaging layer at the same side with the active surface and having a plurality of wiring pattern opening areas for the metal bumps to be exposed therefrom; a wiring layer formed in the wiring pattern opening areas and electrically connected to the metal bumps, wherein the wiring layer extends to the dielectric layer on the surface of the packaging layer formed at the same side with the active surface; an insulating protective formed on the dielectric layer and the wiring layer, and having a plurality of openings for a portion of the wiring layer to be exposed therefrom; a metallic foil formed on the surface of the packaging layer at the same side with the inactive surface; and a plurality of metallic protrusions formed on the metallic foil and penetrating the packaging layer to be in contact with the inactive surface of the semiconductor chip, so as to dissipate heat generated by the semiconductor chip to an ambient environment, wherein the metallic protrusions are printed bumps or punched bumps, and wherein for the punched bumps, dimples are formed on an exposed surface of the metallic foil and conform with the metallic protrusions.
A microelectronic device comprising: a die having at least one transceiver unit; a redistribution package coupled to and attached to the die; and a substrate coupled to and attached to the redistribution package, the substrate having an antenna unit for transmitting and receiving communications at a frequency of approximately 15 GHz or higher, wherein the substrate has a lower circuit density in comparison to the die , wherein the antenna unit comprises a bore sight radiating antenna and at least one side radiating antenna , and wherein the substrate further comprises a cavity with the die and the redistribution package being positioned within the cavity . a die having at least one transceiver unit; a redistribution package coupled to and attached to the die; and a substrate coupled to and attached to the redistribution package, the substrate having an antenna unit for transmitting and receiving communications at a frequency of approximately 15 GHz or higher, wherein the substrate has a lower circuit density in comparison to the die , wherein the antenna unit comprises a bore sight radiating antenna and at least one side radiating antenna , and wherein the substrate further comprises a cavity with the die and the redistribution package being positioned within the cavity .
A medical measurement sensor device for providing medical data of a patient based on a handover of a medical sensor , the medical measurement sensor device being configured to be worn by the patient and comprising: the medical sensor that measures the medical data of the patient; a medical data server that sends the medical data to a medical gateway , when a request for the medical data is received from the medical gateway ; a security module that controls access to the medical data; and a condition handler that detects an abnormal condition from the measured medical data and sends an abnormal condition notification to the medical gateway and makes an emergency call according to pre-stored information, wherein when the medical measurement sensor device receives a request for the medical data from an ambulance gateway , based on the emergency call, the medical data server sends the medical data to the ambulance gateway ; and wherein upon receipt of the notification data that notifies of the abnormal condition, the medical gateway delivers its access information to the medical measurement sensor device , so that the ambulance gateway is able to collect medical data stored in the medical gateway by using the access information to access the medical gateway , wherein the security module sends the access information to the ambulance gateway if there is a request from the ambulance gateway for the access information to access the medical gateway , the access information including Internet Protocol address, an Identifier and a password. the medical sensor that measures the medical data of the patient; a medical data server that sends the medical data to a medical gateway , when a request for the medical data is received from the medical gateway ; a security module that controls access to the medical data; and a condition handler that detects an abnormal condition from the measured medical data and sends an abnormal condition notification to the medical gateway and makes an emergency call according to pre-stored information, wherein when the medical measurement sensor device receives a request for the medical data from an ambulance gateway , based on the emergency call, the medical data server sends the medical data to the ambulance gateway ; and wherein upon receipt of the notification data that notifies of the abnormal condition, the medical gateway delivers its access information to the medical measurement sensor device , so that the ambulance gateway is able to collect medical data stored in the medical gateway by using the access information to access the medical gateway , wherein the security module sends the access information to the ambulance gateway if there is a request from the ambulance gateway for the access information to access the medical gateway , the access information including Internet Protocol address, an Identifier and a password.