mhurhangee/patent-ind-claim-en huggingface dataset:
Rimless sunglasses comprising a polarizing lens (A), the polarizing lens (A) comprising an injection-molded layer laminated on at least one surface of a polarizing sheet (B), the injection-molded layer including a polyamide-based resin, wherein the polarizing lens (A) has a center thickness (v) from 1.35 to 1.55 mm, and the injection-molded layer has flexural modulus from 1500 to 1800 MPa, characterized in that the rimless sunglasses having a total weight of 10 g or less, and that rimless sunglasses having a clamping force of 14 [gf] equals 0.1373 [N] (clamping force of 14 g) or greater when ends of temple parts are spread apart to a distance of 130 mm. the polarizing lens (A) comprising an injection-molded layer laminated on at least one surface of a polarizing sheet (B), the injection-molded layer including a polyamide-based resin, wherein the polarizing lens (A) has a center thickness (v) from 1.35 to 1.55 mm, and the injection-molded layer has flexural modulus from 1500 to 1800 MPa, characterized in that the rimless sunglasses having a total weight of 10 g or less, and that rimless sunglasses having a clamping force of 14 [gf] equals 0.1373 [N] (clamping force of 14 g) or greater when ends of temple parts are spread apart to a distance of 130 mm.
An information acquisition method performed by an electronic device, comprising: acquiring paging identifiers corresponding to M cards respectively from global unique temporary user equipment identities, GUTIs, allocated by networks corresponding to the M cards; wherein M is an integer greater than or equal to 2; and in response to determining that paging identifiers corresponding to N cards among the paging identifiers corresponding to the M cards are the same, selecting (N-1) cards from the N cards and triggering networks corresponding to the selected (N-1) cards to re-allocate GUTIs; wherein N is an integer greater than or equal to 2 and less than or equal to M. acquiring paging identifiers corresponding to M cards respectively from global unique temporary user equipment identities, GUTIs, allocated by networks corresponding to the M cards; wherein M is an integer greater than or equal to 2; and in response to determining that paging identifiers corresponding to N cards among the paging identifiers corresponding to the M cards are the same, selecting (N-1) cards from the N cards and triggering networks corresponding to the selected (N-1) cards to re-allocate GUTIs; wherein N is an integer greater than or equal to 2 and less than or equal to M.
An engine enclosure comprising: a housing having a housing length (L) and a housing width (W), the housing further including a plurality of side walls that extend along the housing length (L), the housing width W being defined between the side walls the housing defining a housing axis that extends along the housing length, the housing axis defining a vertical reference plane (A), the vertical reference plane (A) being parallel to the side walls ; a radiator fan configured to provide air flow across the radiator , the radiator fan further defining a fan plane (F) perpendicular to an axis of rotation (R) of the radiator fan , wherein the radiator fan is positioned between the side walls of the housing so that the fan plane (F) is at a non-perpendicular angle (α) with respect to the vertical reference plane (A), characterized in that the engine enclosure comprises: an internal combustion engine positioned within the housing ; and a radiator positioned within the housing and proximate the internal combustion engine; wherein the radiator fan has a diameter (D) greater than the housing width (W). a housing having a housing length (L) and a housing width (W), the housing further including a plurality of side walls that extend along the housing length (L), the housing width W being defined between the side walls the housing defining a housing axis that extends along the housing length, the housing axis defining a vertical reference plane (A), the vertical reference plane (A) being parallel to the side walls ; a radiator fan configured to provide air flow across the radiator , the radiator fan further defining a fan plane (F) perpendicular to an axis of rotation (R) of the radiator fan , wherein the radiator fan is positioned between the side walls of the housing so that the fan plane (F) is at a non-perpendicular angle (α) with respect to the vertical reference plane (A), characterized in that the engine enclosure comprises: an internal combustion engine positioned within the housing ; and a radiator positioned within the housing and proximate the internal combustion engine; wherein the radiator fan has a diameter (D) greater than the housing width (W). an internal combustion engine positioned within the housing ; and a radiator positioned within the housing and proximate the internal combustion engine; wherein the radiator fan has a diameter (D) greater than the housing width (W).
A method for removing a carbon-containing pattern material from a casting shell , characterised by : a first step for evaporating and pyrolizing the pattern material to leave carbon , the first step comprising exposing the shell to a pressure of less than 1.3 Pa while at a temperature of at least 816°C; and a second step for oxidizing the carbon , the second step comprising exposing the shell to an oxygen partial pressure of at least 10kPa while at a temperature of at least 649°C. a first step for evaporating and pyrolizing the pattern material to leave carbon , the first step comprising exposing the shell to a pressure of less than 1.3 Pa while at a temperature of at least 816°C; and a second step for oxidizing the carbon , the second step comprising exposing the shell to an oxygen partial pressure of at least 10kPa while at a temperature of at least 649°C.
A card reorienting mechanism for a card processing machine , comprising: means for transporting a card without contacting a principle surface of the card; and means for reorienting the card without contacting the principal surface of the card, characterized in that the means for reorienting the card comprises a first electric motor , a platform , a first drive train between the first electric motor and the platform whereby the first electric motor is able to rotate the platform; and the means for transporting the card comprises a second electric motor , a transport mechanism , and a second drive train between the second electric motor and the transport mechanism whereby the transport mechanism is actuatable by the second electric motor, the transport mechanism being on the card reorienting mechanism and rotatable with the platform, wherein the transport mechanism is configured to contact a side surface of the card. means for transporting a card without contacting a principle surface of the card; and means for reorienting the card without contacting the principal surface of the card, characterized in that the means for reorienting the card comprises a first electric motor , a platform , a first drive train between the first electric motor and the platform whereby the first electric motor is able to rotate the platform; and the means for transporting the card comprises a second electric motor , a transport mechanism , and a second drive train between the second electric motor and the transport mechanism whereby the transport mechanism is actuatable by the second electric motor, the transport mechanism being on the card reorienting mechanism and rotatable with the platform, wherein the transport mechanism is configured to contact a side surface of the card.
A dryer sheet comprising a non-woven fabric, which is a blended long-fiber non-woven fabric comprising 70 wt% or more and 90 wt% or less of a first polyester filament having a melting point of 250 °C or higher and 10 wt% or more and 30 wt% or less of a second polyester filament having a melting point of 235 °C or lower, wherein the first filament has a deformed cross section with a degree of deformity (diameter of circumscribed circle/diameter of inscribed circle) of 2.5 or more and 3.0 or less, and a fineness of 5.56 dtex (5 denier) or more and 11.11 dtex (10 denier) or less, wherein the fineness is measured using a ASTM D1577 method, and wherein the degree of deformity is calculated according to the following equation: degree of deformity = diameter of circumscribed circle/diameter of inscribed circle, after photographing a deformed cross-sectional structure of the filament using an optical microscope, wherein the diameters of the circumscribed circle and the inscribed circle are measured using an image analysis software for the deformed cross-sectional structure of the filament photographed using the optical microscope. wherein the first filament has a deformed cross section with a degree of deformity (diameter of circumscribed circle/diameter of inscribed circle) of 2.5 or more and 3.0 or less, and a fineness of 5.56 dtex (5 denier) or more and 11.11 dtex (10 denier) or less, wherein the fineness is measured using a ASTM D1577 method, and wherein the degree of deformity is calculated according to the following equation: degree of deformity = diameter of circumscribed circle/diameter of inscribed circle, after photographing a deformed cross-sectional structure of the filament using an optical microscope, wherein the diameters of the circumscribed circle and the inscribed circle are measured using an image analysis software for the deformed cross-sectional structure of the filament photographed using the optical microscope.
A carrier for stabilizing a payload , the carrier comprising: a first carrier component configured to permit rotation of the payload about a pitch axis of the payload , wherein the first carrier component is adapted to be mounted directly to a vehicle ; a second carrier component that is supported by the first carrier component and configured to permit rotation of the payload about a yaw axis of the payload , wherein the second carrier component comprises a c-shaped yoke comprising one or more terminal ends ; and a third carrier component that is supported by the second carrier component , configured to permit rotation of the payload about a roll axis of the payload and is adapted to connect to the payload ; the carrier being characterized in that the c-shaped yoke is adapted to directly connect to the vehicle by one or more shafts corresponding to the one or more terminal ends of the c-shaped yoke. a first carrier component configured to permit rotation of the payload about a pitch axis of the payload , wherein the first carrier component is adapted to be mounted directly to a vehicle ; a second carrier component that is supported by the first carrier component and configured to permit rotation of the payload about a yaw axis of the payload , wherein the second carrier component comprises a c-shaped yoke comprising one or more terminal ends ; and a third carrier component that is supported by the second carrier component , configured to permit rotation of the payload about a roll axis of the payload and is adapted to connect to the payload ; the carrier being characterized in that the c-shaped yoke is adapted to directly connect to the vehicle by one or more shafts corresponding to the one or more terminal ends of the c-shaped yoke.
A method for wireless communications by a user equipment, UE, comprising: determining one or more narrowband regions partitioned from wider system bandwidth for communicating with a base station; determining resources, within the one or more narrowband regions of a first subframe, for transmission of sounding reference signals, SRS, by the UE; deciding whether or not to transmit SRS on the determined resources of the first subframe; and transmitting or not transmitting the SRS on the determined resources of the first subframe based on the decision; the method being characterised in that the resources are determined based, at least in part, on resources used for transmitting a physical uplink shared channel, PUSCH, and wherein deciding whether or not to transmit SRS on the determined resources of the first subframe is based, at least in part, on whether resources available for transmitting SRS are fully contained in a PUSCH narrowband. determining one or more narrowband regions partitioned from wider system bandwidth for communicating with a base station; determining resources, within the one or more narrowband regions of a first subframe, for transmission of sounding reference signals, SRS, by the UE; deciding whether or not to transmit SRS on the determined resources of the first subframe; and transmitting or not transmitting the SRS on the determined resources of the first subframe based on the decision; the method being characterised in that the resources are determined based, at least in part, on resources used for transmitting a physical uplink shared channel, PUSCH, and wherein deciding whether or not to transmit SRS on the determined resources of the first subframe is based, at least in part, on whether resources available for transmitting SRS are fully contained in a PUSCH narrowband.
An energy absorbing device comprising: a housing comprising a first end and a second end longitudinally opposed from said first end; a crushing member positioned proximate said first end; a stopping member longitudinally spaced apart from said crushing member; an energy absorbing member positioned between said crushing member and said stopping member; and a linking member connected to said crushing member, characterized in that: said energy absorbing member is adapted to be crushed between said crushing member and stopping member when said crushing member and stopping member move together in response to a compression force; and said energy absorbing member is adapted to be crushed between said crushing member and said stopping member in response to a tension force applied to said linking member. a housing comprising a first end and a second end longitudinally opposed from said first end; a crushing member positioned proximate said first end; a stopping member longitudinally spaced apart from said crushing member; an energy absorbing member positioned between said crushing member and said stopping member; and a linking member connected to said crushing member, said energy absorbing member is adapted to be crushed between said crushing member and stopping member when said crushing member and stopping member move together in response to a compression force; and said energy absorbing member is adapted to be crushed between said crushing member and said stopping member in response to a tension force applied to said linking member.
A contact device for contacting an electrical contact point of a test object, comprising a contact plunger , which has a plunger shaft for mounting in a guide sleeve in an axially displaceable manner as well as a contact head which is assignable to the test object and arranged on a free end of the plunger shaft , and comprising at least one contact element , which is movably mounted on and/or in the contact head , wherein at least one spring element , which is elastically deformable against its spring force by means of the contact element under a load resulting from a contact, is assigned to the contact element , wherein several of the contact elements , which in each case have a contact area for contacting, are arranged next to one another on the contact head in such a way that the contact areas form an at least essentially continuous contact surface of the contact head for the contact point in the unloaded state, characterized in that the respective spring element assigned to a respective contact element is fastened to the contact element on one end and to the contact head on the other end, and is formed so as to be at least sectionally aligned obliquely with respect to a longitudinal extension of the contact plunger .
An electrostatic discharge (ESD) protection circuit, comprising: a clamp circuit , including: a shunt transistor (MNO) coupled between a first power supply node (VDD) and a second power supply node (VSS), the shunt transistor (MNO) including a control terminal; and a sensing circuit configured to sense a voltage of the first power supply node (VDD), and to provide a control voltage signal (VG) to the control terminal to turn on the shunt transistor (MNO) in response to a detected increase in the voltage of the first power supply node (VDD) resulting from an ESD stress event; and a charge pump circuit , including: a charge pump capacitor (C1); and a switching circuit characterized in that the switching circuit is configured to charge the charge pump capacitor (C1) when the shunt transistor (MNO) is off and to discharge the charge pump capacitor (C1) to boost the control voltage signal (VG) in response to the control voltage signal (VG) turning the shunt transistor (MNO) on. a clamp circuit , including: a shunt transistor (MNO) coupled between a first power supply node (VDD) and a second power supply node (VSS), the shunt transistor (MNO) including a control terminal; and a sensing circuit configured to sense a voltage of the first power supply node (VDD), and to provide a control voltage signal (VG) to the control terminal to turn on the shunt transistor (MNO) in response to a detected increase in the voltage of the first power supply node (VDD) resulting from an ESD stress event; and a charge pump circuit , including: a charge pump capacitor (C1); and a switching circuit characterized in that the switching circuit is configured to charge the charge pump capacitor (C1) when the shunt transistor (MNO) is off and to discharge the charge pump capacitor (C1) to boost the control voltage signal (VG) in response to the control voltage signal (VG) turning the shunt transistor (MNO) on.
A semiconductor package structure (900; 1000; 1100), comprising: a substrate (902; 902a, 902b) having a wiring structure and surrounded by a molding material ; a frame disposed in the molding material and surrounding the substrate (902; 902a, 902b); a redistribution layer disposed over the substrate and electrically coupled to the wiring structure; a first semiconductor die disposed over the redistribution layer ; a heat spreader disposed over the frame ; and a thermal interface material , wherein the heat spreader is directly attached to an upper surface of the first semiconductor die through the thermal interface material ; wherein the heat spreader has an upper portion on the thermal interface material and sidewalls forming a lower portion on the edge of the upper portion disposed on a portion of the molding material that is directly above the frame , wherein the lower portion of the heat spreader encloses the first semiconductor die and the redistribution layer . a substrate (902; 902a, 902b) having a wiring structure and surrounded by a molding material ; a frame disposed in the molding material and surrounding the substrate (902; 902a, 902b); a redistribution layer disposed over the substrate and electrically coupled to the wiring structure; a first semiconductor die disposed over the redistribution layer ; a heat spreader disposed over the frame ; and a thermal interface material , wherein the heat spreader is directly attached to an upper surface of the first semiconductor die through the thermal interface material ; wherein the heat spreader has an upper portion on the thermal interface material and sidewalls forming a lower portion on the edge of the upper portion disposed on a portion of the molding material that is directly above the frame , wherein the lower portion of the heat spreader encloses the first semiconductor die and the redistribution layer .
A method for use in seismic surveying, comprising: accessing preliminary seismic data from an ocean bottom survey performed over a narrow frequency band; determining naturally occurring seismic background noise in the preliminary seismic data; determining , from the naturally occurring seismic background noise in the preliminary seismic data, a range of phase velocities over which the background noise is at an amplitude relative to a desirable signal such that the background noise requires attenuation, an azimuth of the background noise in a survey area of the ocean bottom survey, and a degree to which the background noise needs to be attenuated; designing a low-frequency seismic survey of the survey area based on the range of phase velocities, the azimuth of the background noise, and the degree to which the background noise needs to be attenuated, a survey design of the low-frequency seismic survey including: a seismic receiver array in which a plurality of receivers are positioned on an ocean bottom so as to filter the naturally occurring seismic background noise, and a seismic source shooting plan; and performing seismic surveying based on the designed low-frequency seismic survey of the survey area, wherein the accessing, determining, and designing are performed with a computing apparatus. accessing preliminary seismic data from an ocean bottom survey performed over a narrow frequency band; determining naturally occurring seismic background noise in the preliminary seismic data; determining , from the naturally occurring seismic background noise in the preliminary seismic data, a range of phase velocities over which the background noise is at an amplitude relative to a desirable signal such that the background noise requires attenuation, an azimuth of the background noise in a survey area of the ocean bottom survey, and a degree to which the background noise needs to be attenuated; designing a low-frequency seismic survey of the survey area based on the range of phase velocities, the azimuth of the background noise, and the degree to which the background noise needs to be attenuated, a survey design of the low-frequency seismic survey including: a seismic receiver array in which a plurality of receivers are positioned on an ocean bottom so as to filter the naturally occurring seismic background noise, and a seismic source shooting plan; and a seismic receiver array in which a plurality of receivers are positioned on an ocean bottom so as to filter the naturally occurring seismic background noise, and a seismic source shooting plan; and performing seismic surveying based on the designed low-frequency seismic survey of the survey area, wherein the accessing, determining, and designing are performed with a computing apparatus.