mhurhangee/ep-ind-claims huggingface dataset:
A light emitting device comprising: a package that has an opening at an upper surface side thereof; a lead frame that is buried in the package so as to be partially exposed at a bottom surface of the opening of the package, the lead frame having an end portion externally projected outside from a side surface of the package; and a light emitting element that is connected to an upper surface of the lead frame being exposed at the bottom surface of the Opening, wherein the package includes; a first molded resin that has a first upper surface that forms a part of the upper surface, and a second molded resin that has an inner wall surface of the opening of the package and has a second upper surface that forms a part of the upper surface of the package and that surrounds the opening at an inner side of the first upper surface; the second molded resin is higher than the first molded resin in light reflectance to light emitted from the light emitting element, and the upper surface of the lead frame buried in the package is disposed so as to be spaced apart from an interface between the first molded resin and the second molded resin, and characterised in that the side surface of the package includes a first side surface that is formed by the first molded resin and a second side surface that is formed by the second molded resin, and the second side surface is disposed below the first side surface, and above at least an externally projected lead frame. a package that has an opening at an upper surface side thereof; a lead frame that is buried in the package so as to be partially exposed at a bottom surface of the opening of the package, the lead frame having an end portion externally projected outside from a side surface of the package; and a light emitting element that is connected to an upper surface of the lead frame being exposed at the bottom surface of the Opening, wherein the package includes; a first molded resin that has a first upper surface that forms a part of the upper surface, and a second molded resin that has an inner wall surface of the opening of the package and has a second upper surface that forms a part of the upper surface of the package and that surrounds the opening at an inner side of the first upper surface; the second molded resin is higher than the first molded resin in light reflectance to light emitted from the light emitting element, and the upper surface of the lead frame buried in the package is disposed so as to be spaced apart from an interface between the first molded resin and the second molded resin, and characterised in that the side surface of the package includes a first side surface that is formed by the first molded resin and a second side surface that is formed by the second molded resin, and the second side surface is disposed below the first side surface, and above at least an externally projected lead frame.
A composition comprising: 60 to 95 weight percent of a poly(phenylene ether)-polysiloxane block copolymer reaction product comprising a poly(phenylene ether) and a poly(phenylene ether)-polysiloxane block copolymer; and 5 to 40 weight percent of an impact modifier; wherein the impact modifier comprises poly(alkenyl aromatic) content and rubber content, and wherein the weight ratio of poly(alkenyl aromatic) content to rubber content is at least 0.5; wherein the composition comprises 1 to 10 weight percent of polysiloxane covalently bound in the poly(phenylene ether)-polysiloxane block copolymer; wherein the composition comprises less than or equal to 10 parts by weight of polysiloxane not covalently bound in the poly(phenylene ether)-polysiloxane block copolymer relative to 100 parts by weight of polysiloxane covalently bound in the poly(phenylene ether)-polysiloxane block copolymer; wherein the composition comprises less than or equal to 0.5 weight percent of organophosphate esters; wherein the composition comprises less than or equal to 0.5 weight percent of halogens; and wherein all weight percents are based on the total weight of the composition. 60 to 95 weight percent of a poly(phenylene ether)-polysiloxane block copolymer reaction product comprising a poly(phenylene ether) and a poly(phenylene ether)-polysiloxane block copolymer; and a poly(phenylene ether) and a poly(phenylene ether)-polysiloxane block copolymer; and 5 to 40 weight percent of an impact modifier; wherein the impact modifier comprises poly(alkenyl aromatic) content and rubber content, and wherein the weight ratio of poly(alkenyl aromatic) content to rubber content is at least 0.5; wherein the composition comprises 1 to 10 weight percent of polysiloxane covalently bound in the poly(phenylene ether)-polysiloxane block copolymer; wherein the composition comprises less than or equal to 10 parts by weight of polysiloxane not covalently bound in the poly(phenylene ether)-polysiloxane block copolymer relative to 100 parts by weight of polysiloxane covalently bound in the poly(phenylene ether)-polysiloxane block copolymer; wherein the composition comprises less than or equal to 0.5 weight percent of organophosphate esters; wherein the composition comprises less than or equal to 0.5 weight percent of halogens; and wherein all weight percents are based on the total weight of the composition.
A reciprocating pump comprising: a housing with a bellows chamber and a displacement chamber; an endcap disposed on an end of the housing, a rod extending into the reciprocating pump such that the rod extends through the endcap, through the bellows chamber and partly into the displacement chamber, the rod having a shoulder near its upper end; a sleeve connected to the rod such that the sleeve surrounds a portion of the rod; and a bellows attached to the endcap and connected to the sleeve such that the bellows surrounds a portion of the sleeve; and characterized by a nut attached to a bottom end of the sleeve such that the nut clamps an end of the bellows to the bottom end of the sleeve; and a collar attached to the rod above the sleeve such that the collar secures the sleeve to the rod by holding the sleeve against the shoulder of the rod. a housing with a bellows chamber and a displacement chamber; an endcap disposed on an end of the housing, a rod extending into the reciprocating pump such that the rod extends through the endcap, through the bellows chamber and partly into the displacement chamber, the rod having a shoulder near its upper end; a sleeve connected to the rod such that the sleeve surrounds a portion of the rod; and a bellows attached to the endcap and connected to the sleeve such that the bellows surrounds a portion of the sleeve; and characterized by a nut attached to a bottom end of the sleeve such that the nut clamps an end of the bellows to the bottom end of the sleeve; and a collar attached to the rod above the sleeve such that the collar secures the sleeve to the rod by holding the sleeve against the shoulder of the rod.
An upper of an athletic shoe, comprising: a forefoot region; a heel region; a midfoot region between the forefoot region and the heel region; a flexible outer layer; a lining connected to the flexible outer layer; a flexible heat moldable sheet substantially contacting the outer layer and the lining at least in a portion of the midfoot region; wherein the flexible heat moldable sheet is configured to conform to the portion of the wearer's body when heated to a predetermined temperature to provide the wearer with a customized fit for the athletic shoe; wherein the flexible heat moldable sheet comprises a thermoplastic resin and does not comprise a fabric, and wherein the upper further comprises a temperature sensitive indicator configured to undergo a visible change when the predetermined temperature is reached. a forefoot region; a heel region; a midfoot region between the forefoot region and the heel region; a flexible outer layer; a lining connected to the flexible outer layer; a flexible heat moldable sheet substantially contacting the outer layer and the lining at least in a portion of the midfoot region; wherein the flexible heat moldable sheet is configured to conform to the portion of the wearer's body when heated to a predetermined temperature to provide the wearer with a customized fit for the athletic shoe; wherein the flexible heat moldable sheet comprises a thermoplastic resin and does not comprise a fabric, and wherein the upper further comprises a temperature sensitive indicator configured to undergo a visible change when the predetermined temperature is reached.
Circuit arrangement for a battery management system of a vehicle, for adapting at least one item of cell information about at least one battery cell to a communication system of the vehicle, having: - a first processing element for generating a message and check information in accordance with a first processing operation, wherein the message is specific to the cell information, - at least one second processing element for generating the same message in accordance with at least one second processing operation, - a communication system interface for outputting an output notification to the communication system, wherein the output notification is at least partially made up of the message in accordance with the second processing operation and the check information such that the output notification is specific to the first and second processing operation. - a first processing element for generating a message and check information in accordance with a first processing operation, wherein the message is specific to the cell information, - at least one second processing element for generating the same message in accordance with at least one second processing operation, - a communication system interface for outputting an output notification to the communication system, wherein the output notification is at least partially made up of the message in accordance with the second processing operation and the check information such that the output notification is specific to the first and second processing operation.
A fluid control valve with a sensor, comprising: a valve main body including: an actuator section provided with a movable member including a valve element and configured to move the movable member; and a valve section provided with a valve seat with which the valve element will come into or out of contact; and a vibration sensor which detects vibration generated in the valve main body, wherein the vibration is generated by impingement of fluid flowing from an inlet passage towards an outlet passage by a water hammer phenomenon that generates impact when the valve element comes into contact with the valve seat and no fluid leaks between the valve element and the valve seat, and the fluid control valve further includes an abnormality determining unit configured to determine the valve main body to be normal with no fluid leak between the valve element and the valve seat when the vibration sensor detects the vibration with an amplitude exceeding a predetermined threshold, and determine the valve main body to be abnormal with fluid leak between the valve element and the valve seat when the vibration sensor does not detect the vibration with an amplitude exceeding the predetermined threshold, and the abnormality determining unit determines the valve main body to be abnormal based on a detection result of the vibration even when a fluid leak is caused by threadlike foreign substances. a valve main body including: an actuator section provided with a movable member including a valve element and configured to move the movable member; and a valve section provided with a valve seat with which the valve element will come into or out of contact; and an actuator section provided with a movable member including a valve element and configured to move the movable member; and a valve section provided with a valve seat with which the valve element will come into or out of contact; and a vibration sensor which detects vibration generated in the valve main body, wherein the vibration is generated by impingement of fluid flowing from an inlet passage towards an outlet passage by a water hammer phenomenon that generates impact when the valve element comes into contact with the valve seat and no fluid leaks between the valve element and the valve seat, and the fluid control valve further includes an abnormality determining unit configured to determine the valve main body to be normal with no fluid leak between the valve element and the valve seat when the vibration sensor detects the vibration with an amplitude exceeding a predetermined threshold, and determine the valve main body to be abnormal with fluid leak between the valve element and the valve seat when the vibration sensor does not detect the vibration with an amplitude exceeding the predetermined threshold, and the abnormality determining unit determines the valve main body to be abnormal based on a detection result of the vibration even when a fluid leak is caused by threadlike foreign substances.
A computer-implemented method of subsurface exploration, the method comprising generating a geophysical representation of a portion of the volume of the Earth from a seismic measurement of at least one physical parameter, and comprising the steps of: a) providing (100; 200; 300) an observed seismic data set comprising at least three distinct non-zero data values derived from at least three distinct non-zero seismic measured values of said portion of the volume of the Earth; b) generating (104; 204; 304), using a subsurface model of a portion of the Earth comprising a plurality of model coefficients, a predicted seismic data set comprising at least three distinct non-zero data values; c) utilising (106; 208; 308) one or more non-trivial convolutional filters, the or each convolutional filter comprising three or more non-zero filter coefficients and being operable, when convolved with the observed seismic data set, to maximise the similarity or minimise the mismatch between the convolved observed data set and the predicted data set; d) maximising and/or minimising (112; 214; 316) one or more objective functions operable to measure the similarity and/or mismatch between the filter coefficients for the or each non-trivial convolutional filter and at least three reference coefficients of one or more reference filters by modifying at least one model coefficient of said subsurface model of a portion of the Earth to produce an updated subsurface model of a portion of the Earth; and e) providing (114; 216; 318) an updated subsurface model of a portion of the Earth for subsurface exploration. a) providing (100; 200; 300) an observed seismic data set comprising at least three distinct non-zero data values derived from at least three distinct non-zero seismic measured values of said portion of the volume of the Earth; b) generating (104; 204; 304), using a subsurface model of a portion of the Earth comprising a plurality of model coefficients, a predicted seismic data set comprising at least three distinct non-zero data values; c) utilising (106; 208; 308) one or more non-trivial convolutional filters, the or each convolutional filter comprising three or more non-zero filter coefficients and being operable, when convolved with the observed seismic data set, to maximise the similarity or minimise the mismatch between the convolved observed data set and the predicted data set; d) maximising and/or minimising (112; 214; 316) one or more objective functions operable to measure the similarity and/or mismatch between the filter coefficients for the or each non-trivial convolutional filter and at least three reference coefficients of one or more reference filters by modifying at least one model coefficient of said subsurface model of a portion of the Earth to produce an updated subsurface model of a portion of the Earth; and e) providing (114; 216; 318) an updated subsurface model of a portion of the Earth for subsurface exploration.
A weighing device (10, 100) comprising a base body, a weighing chamber floor, a weighing chamber rear wall (25, 125), and a draft shield with a top wall (23, 123), a first side wall, a second side wall, and a front wall, wherein the weighing chamber floor, the weighing chamber rear wall (25, 125), and the draft shield together enclose a weighing chamber; the weighing chamber rear wall (25, 125) comprising a first side (35, 135, 235) and a second side (36, 136, 236) with the first side (35, 135) facing the draft shield and the second side (36, 136) located opposing the first side (35, 135); the weighing device (10, 100) further comprising a mounting unit (30, 130) movably connected to the first side (35, 135) of the weighing chamber rear wall, and a position control unit (50, 150) operatively connected to the mounting unit (30, 130) and located on the second side (36, 136) characterized by the weighing chamber rear wall (25, 125) comprising an elongate slot (40, 140) for receiving the mounting unit (30, 130) about the first side (35, 135) and guiding the mounting unit (30, 130) in a direction normal to the base body.
Wind driven apparatus, said wind driven apparatus including upright support means, a plurality of wind directing wall members (8, 10) protruding outwardly from the upright support means at spaced apart intervals, the area between two adjacent wind directing wall members (8, 10) creating a wind collection section (4, 12) for collecting and directing wind in use, at least one opening defined in the upright support means in each wind collection section (4, 12) for allowing wind, air and/or air pressure collected in the wind collection section (4, 12) to pass through said at least one opening and into an inner compartment defined in the upright support means, drive shaft means provided in the inner compartment of the upright support means and rotatable means provided on and/or associated with the drive shaft means, the drive shaft means and rotatable means are rotatable in use as a result of air pressure and/or air flowing into the inner compartment via said at least one opening, characterised in that the drive shaft means comprises a plurality of drive shaft segments (52, 52') arranged in a stacked arrangement, with one drive shaft segment arranged on top of an adjacent drive shaft segment; and said wind driven apparatus including hydraulic pump means which are arranged such that rotation of the drive shaft means is used to drive the hydraulic pump means in use.
An asphalt finisher comprising: a first hydraulic pump configured to supply hydraulic oil to a traveling motor (20L, 20R); a second hydraulic pump configured to supply hydraulic oil to a first hydraulic actuator (23L, 23R, 24L, 24R, 25L, 25R, 26, 27L, 27R, 28L, 28R) via a first self-seal coupling mechanism; an auxiliary hydraulic source comprising an auxiliary hydraulic source control valve and comprising a third manual or electric hydraulic pump or an accumulator configured to supply hydraulic oil to a second hydraulic actuator via a second self-seal coupling mechanism, wherein the auxiliary hydraulic source is a portable type; and a drive source configured to drive the first hydraulic pump and the second hydraulic pump, wherein the first and the second self-seal coupling mechanisms (46, 47) can be used to connect the first hydraulic actuator (23L, 23R, 24L, 24R, 25L, 25R, 26, 27L, 27R, 28L, 28R) with the auxiliary hydraulic source, and the auxiliary hydraulic source control valve is configured to be arranged between the first as well as second hydraulic actuators (23L, 23R, 24L, 24R, 25L, 25R, 26, 27L, 27R, 28L, 28R, 29) and the third manual or electric hydraulic pump or the accumulator via the first and the second self-seal coupling mechanisms (46, 47) in order to switch the flow destination of the hydraulic oil, which is supplied from the third manual or electric hydraulic pump or the accumulator, from the second hydraulic actuator to the first hydraulic actuator (23L, 23R, 24L, 24R, 25L, 25R, 26, 27L, 27R, 28L, 28R). a first hydraulic pump configured to supply hydraulic oil to a traveling motor (20L, 20R); a second hydraulic pump configured to supply hydraulic oil to a first hydraulic actuator (23L, 23R, 24L, 24R, 25L, 25R, 26, 27L, 27R, 28L, 28R) via a first self-seal coupling mechanism; an auxiliary hydraulic source comprising an auxiliary hydraulic source control valve and comprising a third manual or electric hydraulic pump or an accumulator configured to supply hydraulic oil to a second hydraulic actuator via a second self-seal coupling mechanism, wherein the auxiliary hydraulic source is a portable type; and a drive source configured to drive the first hydraulic pump and the second hydraulic pump, wherein the first and the second self-seal coupling mechanisms (46, 47) can be used to connect the first hydraulic actuator (23L, 23R, 24L, 24R, 25L, 25R, 26, 27L, 27R, 28L, 28R) with the auxiliary hydraulic source, and the auxiliary hydraulic source control valve is configured to be arranged between the first as well as second hydraulic actuators (23L, 23R, 24L, 24R, 25L, 25R, 26, 27L, 27R, 28L, 28R, 29) and the third manual or electric hydraulic pump or the accumulator via the first and the second self-seal coupling mechanisms (46, 47) in order to switch the flow destination of the hydraulic oil, which is supplied from the third manual or electric hydraulic pump or the accumulator, from the second hydraulic actuator to the first hydraulic actuator (23L, 23R, 24L, 24R, 25L, 25R, 26, 27L, 27R, 28L, 28R).
A power conversion device for controlling an electric motor by converting an AC voltage or a DC voltage into any voltage by an operation of a switching circuit, comprising: a control circuit for controlling the operation of the switching circuit, wherein the control circuit is configured to obtain information on a position detector, a phase detector or a speed detector based on a signal from the position detector, the phase detector or the speed detector attached to the electric motor or a load device connected to the electric motor, characterized in that said information is: - a relationship between the electric motor and a load device connected to the electric motor, or - information on a transmission mechanism for connecting the electric motor and the load device. a control circuit for controlling the operation of the switching circuit, wherein the control circuit is configured to obtain information on a position detector, a phase detector or a speed detector based on a signal from the position detector, the phase detector or the speed detector attached to the electric motor or a load device connected to the electric motor, - a relationship between the electric motor and a load device connected to the electric motor, or - information on a transmission mechanism for connecting the electric motor and the load device.